68 Commits
3.3.0 ... main

Author SHA1 Message Date
Jack Kingsman
7d825a07f8 Updating changelog + build for 1.8.0 2026-02-07 21:45:46 -08:00
Jack Kingsman
c5fec61123 Updating changelog + build for 1.8.0 2026-02-07 21:43:39 -08:00
Jack Kingsman
9437959568 Swap legend columns (oops) 2026-02-07 21:31:12 -08:00
Jack Kingsman
d1846b102d Patch up changes -- fix up docs, fix react hooks issue 2026-02-07 21:25:19 -08:00
Jack Kingsman
5cd28bd1d9 Clear errors on settings tab switch, streamline message mark-as-read, don't resort on render 2026-02-07 21:15:47 -08:00
Jack Kingsman
d48595e082 Just flood advertise when we do 2026-02-07 21:15:46 -08:00
Jack Kingsman
1f3a1e5b3f Clarify garbage comment about outgoing decryption 2026-02-07 21:15:46 -08:00
Jack Kingsman
c2bcfbf646 Strengthen README warning about getting pwnd 2026-02-07 21:15:46 -08:00
jkingsman
28d57924ee Don't keep pacakge-lock.json 2026-02-06 19:34:10 -08:00
Jack Kingsman
f83681188c Merge pull request #10 from rgregg/iphone-pwa-fix
Fix display issues when running as a PWA
2026-02-06 19:30:50 -08:00
jkingsman
3acb0efc62 Remove compiled files 2026-02-06 19:30:26 -08:00
Jack Kingsman
1961b4c9e2 Move to manual FE builds 2026-02-06 18:44:08 -08:00
Ryan Gregg
de47c7c228 Fix for running as PWA 2026-02-04 21:45:30 -08:00
Ryan Gregg
4f610a329a Adjust how app dispalys as PWA to enable safe areas 2026-02-04 21:24:43 -08:00
Jack Kingsman
019092ed7d Add there-and-back node trace. Closes #4.
Single node trace
2026-02-04 19:54:01 -08:00
Jack Kingsman
31bccfb957 Add error bubble-up 2026-02-04 19:27:45 -08:00
Jack Kingsman
fcbab3bf72 Add one hop trace 2026-02-04 15:40:37 -08:00
Jack Kingsman
878626b440 Update AGENTS.md after post connect polling management 2026-02-04 13:14:08 -08:00
Jack Kingsman
01a97b57c0 Improve test coverage for path freshness, unread management, and outgoing message unread sanity 2026-02-04 12:19:36 -08:00
Jack Kingsman
e48e122bbd Consolidate healthcheck generation and packet dupe handling 2026-02-04 12:12:56 -08:00
Jack Kingsman
c6ee92fb66 Dead and trivial code rip out (whoof) 2026-02-04 12:06:36 -08:00
Jack Kingsman
f338ddbc87 Add docs for new non-WS message fetching and remove dead funcs 2026-02-04 11:59:12 -08:00
Jack Kingsman
20255b3edf Add missing frontend test folder to ignore 2026-02-04 11:16:50 -08:00
Jack Kingsman
db550faab0 Add e2e tests 2026-02-03 16:00:00 -08:00
Jack Kingsman
7ec4151d6c Improve frontend response time 2026-02-03 15:58:52 -08:00
Jack Kingsman
989f47f80d Updating changelog + build for 1.7.1 2026-02-03 10:27:27 -08:00
Jack Kingsman
f8b05bb34d Cleanups: Normalize pub keys, prefix message claiming, cursor + null timestamp DB cleanups 2026-02-02 16:22:10 -08:00
Jack Kingsman
ea5283dd43 Add some additional tests around radio and contact management 2026-01-30 21:45:50 -08:00
Jack Kingsman
f004d80cc8 Add some additional tests around message dedupe 2026-01-30 21:31:34 -08:00
Jack Kingsman
08f7407837 Add missing key normalization 2026-01-30 21:12:32 -08:00
Jack Kingsman
6ce59eee33 Remove some unneeded duplication and fix up reconnection management 2026-01-30 21:03:58 -08:00
Jack Kingsman
63bac7af1b Resync settings after radio mutation 2026-01-30 20:44:37 -08:00
Jack Kingsman
b7a06c732e Fix up some warnings 2026-01-30 20:44:36 -08:00
Jack Kingsman
86ead4f29f Make links clickable 2026-01-30 20:44:36 -08:00
Jack Kingsman
67a6a0727f Fix verbiage around bot response to self 2026-01-30 20:44:30 -08:00
Jack Kingsman
cc12997672 Enable bot responses to ourselves take 2 2026-01-29 12:32:36 -08:00
Jack Kingsman
225c892847 Enable bot responses to ourselves 2026-01-29 12:15:30 -08:00
Jack Kingsman
bc6cff5d87 Updating changelog + build for 1.7.0 2026-01-27 19:24:50 -08:00
Jack Kingsman
6bdc1ecefb Add constraints on bot code editor window size 2026-01-27 19:21:38 -08:00
Jack Kingsman
31e31ee7da Lazy-load codemirror for bot editing 2026-01-27 17:31:34 -08:00
Jack Kingsman
63604aee14 Move advertise to identity tab 2026-01-27 17:25:56 -08:00
Jack Kingsman
f2b685bbf5 Add multibot functionality 2026-01-27 17:23:38 -08:00
Jack Kingsman
0b0d14bb20 Fix bug with outbound message timestamping 2026-01-27 13:06:00 -08:00
Jack Kingsman
cf1107f736 Support multiple outgoing messages from the bot 2026-01-27 12:21:00 -08:00
Jack Kingsman
e2b4d7b8fe Fix occasional outgoing message dupe glitch due to mismatched send vs. radio timestamps 2026-01-27 12:05:15 -08:00
Jack Kingsman
401c7d3c0e Add bot outgoing 2s throttle 2026-01-27 11:54:22 -08:00
Jack Kingsman
340143e3e9 Fix clock filtering and contact lookup behavior bugs 2026-01-26 22:51:02 -08:00
Jack Kingsman
63e9fbda70 Fix repeater message duplication issue and clarify fallback functionality for missing private key export 2026-01-26 22:13:44 -08:00
Jack Kingsman
be711af607 Updating changelog + build for 1.6.0 2026-01-26 21:53:07 -08:00
Jack Kingsman
9e47283976 Add warning to bot interface (experimental) 2026-01-26 21:50:48 -08:00
Jack Kingsman
b5c1f30b28 Add automatic bot functionality
Add basic bot functionality
2026-01-26 21:46:26 -08:00
Jack Kingsman
7fcc510e64 Fix startup advertisement-without-checking-advert-rules bug 2026-01-26 21:45:58 -08:00
Jack Kingsman
456fb7afb4 Add basic bot functionality 2026-01-26 21:44:11 -08:00
Jack Kingsman
ec9e2c29bb Force DM contact onto radio before send 2026-01-26 20:54:50 -08:00
Jack Kingsman
9a79bdd27a Force auto-advert to respect set intervals 2026-01-26 20:34:35 -08:00
Jack Kingsman
5f9df98a73 Remove some unneeded code 2026-01-26 20:22:19 -08:00
Jack Kingsman
2dca8519ce Drop interval suggestion to 24hr 2026-01-25 20:17:21 -08:00
Jack Kingsman
81973320a3 Make advert interval manual 2026-01-25 09:29:56 -08:00
Jack Kingsman
a0abcceec9 Draggable nodes and periodic (hourly) announce 2026-01-22 22:39:34 -08:00
Jack Kingsman
2f07ee3bd7 Ass experimental path disambiguation on visualizer 2026-01-22 21:58:06 -08:00
Jack Kingsman
2f509e7dd5 Fix flag emoji 'profile picture' rendering 2026-01-22 20:13:27 -08:00
Jack Kingsman
8259202f96 Update readme for CLAUDE.md => AGENTS.md 2026-01-20 17:25:03 -08:00
Jack Kingsman
2c668c1852 Add clear button 2026-01-20 16:54:11 -08:00
Jack Kingsman
e04664d037 Standardize on AGENTS.md 2026-01-20 15:59:20 -08:00
Jack Kingsman
5da4eac866 Add heuristic repeater disambiguation to visualizer 2026-01-19 23:12:58 -08:00
Jack Kingsman
bffb5e5e6a Extract pubkey from anonreq 2026-01-19 22:57:25 -08:00
Jack Kingsman
b22a7c0b58 Updating changelog + build for 1.5.0 2026-01-19 22:43:28 -08:00
Jack Kingsman
d3961f7ef4 Add visualizer
Merge in Visualizer
2026-01-19 22:39:51 -08:00
450 changed files with 14443 additions and 86728 deletions

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@@ -29,7 +29,6 @@ frontend/src/test/
# Docs
*.md
!README.md
!LICENSES.md
# Other
references/

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@@ -1,74 +0,0 @@
name: All Quality
on:
push:
pull_request:
jobs:
backend-checks:
runs-on: ubuntu-latest
timeout-minutes: 45
steps:
- name: Check out repository
uses: actions/checkout@v5
- name: Set up Python
uses: actions/setup-python@v6
with:
python-version: "3.12"
- name: Set up uv
uses: astral-sh/setup-uv@v7
with:
enable-cache: true
- name: Install backend dependencies
run: uv sync --dev
- name: Backend lint
run: uv run ruff check app/ tests/
- name: Backend format check
run: uv run ruff format --check app/ tests/
- name: Backend typecheck
run: uv run pyright app/
- name: Backend tests
run: PYTHONPATH=. uv run pytest tests/ -v
frontend-checks:
runs-on: ubuntu-latest
timeout-minutes: 45
steps:
- name: Check out repository
uses: actions/checkout@v5
- name: Set up Node.js
uses: actions/setup-node@v6
with:
node-version: "22"
cache: npm
cache-dependency-path: frontend/package-lock.json
- name: Install frontend dependencies
run: npm ci
working-directory: frontend
- name: Frontend lint
run: npm run lint
working-directory: frontend
- name: Frontend format check
run: npm run format:check
working-directory: frontend
- name: Frontend tests
run: npm run test:run
working-directory: frontend
- name: Frontend build
run: npm run build
working-directory: frontend

4
.gitignore vendored
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@@ -12,9 +12,9 @@ frontend/test-results/
# Frontend build output (built from source by end users)
frontend/dist/
frontend/.eslintcache
frontend/package-lock.json
# reference libraries
# reference librarys
references/
# ancillary LLM files

1
.python-version Normal file
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@@ -0,0 +1 @@
3.12

289
AGENTS.md
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@@ -4,158 +4,86 @@
**NEVER make git commits.** A human must make all commits. You may stage files and prepare commit messages, but do not run `git commit`.
If instructed to "run all tests" or "get ready for a commit" or other summative, work ending directives, run:
If instructed to "run all tests" or "get ready for a commit" or other summative, work ending directives, make sure you run the following and that they all pass green:
```bash
./scripts/all_quality.sh
```
uv run ruff check app/ tests/ --fix # check for python violations
uv run ruff format app/ tests/ # format python
uv run pyright app/ # type check python
PYTHONPATH=. uv run pytest tests/ -v # test python
This runs all linting, formatting, type checking, tests, and builds for both backend and frontend sequentially. All checks must pass green.
cd frontend/ # move to frontend directory
npm run lint:fix # fix lint violations
npm run format # format the code
npm run build # run a frontend build
```
## Overview
A web interface for MeshCore mesh radio networks. The backend connects to a MeshCore-compatible radio over Serial, TCP, or BLE and exposes REST/WebSocket APIs. The React frontend provides real-time messaging and radio configuration.
A web interface for MeshCore mesh radio networks. The backend connects to a MeshCore-compatible radio over serial and exposes REST/WebSocket APIs. The React frontend provides real-time messaging and radio configuration.
**For detailed component documentation, see these primary AGENTS.md files:**
**For detailed component documentation, see:**
- `app/AGENTS.md` - Backend (FastAPI, database, radio connection, packet decryption)
- `frontend/AGENTS.md` - Frontend (React, state management, WebSocket, components)
Ancillary AGENTS.md files which should generally not be reviewed unless specific work is being performed on those features include:
- `app/fanout/AGENTS_fanout.md` - Fanout bus architecture (MQTT, bots, webhooks, Apprise, SQS)
- `frontend/src/components/visualizer/AGENTS_packet_visualizer.md` - Packet visualizer (force-directed graph, advert-path identity, layout engine)
- `frontend/src/components/AGENTS.md` - Frontend visualizer feature (a particularly complex and long force-directed graph visualizer component; can skip this file unless you're working on that feature)
## Architecture Overview
```
┌─────────────────────────────────────────────────────────────────┐
│ Frontend (React) │
│ Frontend (React)
│ ┌──────────┐ ┌──────────┐ ┌──────────┐ ┌──────────────────┐ │
│ │ StatusBar│ │ Sidebar │ │MessageList│ │ MessageInput │ │
│ └──────────┘ └──────────┘ └──────────┘ └──────────────────┘ │
│ ┌────────────────────────────────────────────────────────────┐ │
│ │ CrackerPanel (global collapsible, WebGPU cracking) │ │
│ └────────────────────────────────────────────────────────────┘ │
│ │ │
│ useWebSocket ←──── Real-time updates │
│ │ │
│ api.ts ←──── REST API calls │
└───────────────────────────┼─────────────────────────────────────┘
│ │
│ useWebSocket ←──── Real-time updates
│ │
│ api.ts ←──── REST API calls
└───────────────────────────┼─────────────────────────────────────
│ HTTP + WebSocket (/api/*)
┌───────────────────────────┼──────────────────────────────────────┐
│ Backend (FastAPI) │
│ ┌──────────┐ ┌──────────┐ ┌──────────────┐ ┌────────────┐
│ │ Routers │→ │ Services │→ │ Repositories │→ │ SQLite DB │ │
│ └──────────┘ └──────────┘ └──────────────┘ └────────────┘ │
│ ↓ ───────────
│ ┌──────────────────────────┐ └──────────────→ │ WebSocket │
│ │ Radio runtime seam + Manager │
│ RadioManager lifecycle │ └───────────┘
│ │ / event adapters │ │
│ └──────────────────────────┘ │
│ ┌──────────┐ ┌──────────────┐ ┌────────────┐ ┌───────────
│ │ Routers │→ │ Repositories │→ │ SQLite DB │ │ WebSocket │
│ └──────────┘ └──────────────┘ └────────────┘ │ Manager │
│ ↓ ───────────
│ ┌──────────────────────────────────────────────────────────┐
│ │ RadioManager + Event Handlers │ │
└──────────────────────────────────────────────────────────┘
└───────────────────────────┼──────────────────────────────────────┘
│ Serial / TCP / BLE
│ Serial
┌──────┴──────┐
│ MeshCore │
│ Radio │
└─────────────┘
```
## Feature Priority
**Primary (must work correctly):**
- Sending and receiving direct messages and channel messages
- Accurate message display: correct ordering, deduplication, pagination/history loading, and real-time updates without data loss or duplicates
- Accurate ACK tracking, repeat/echo counting, and path display
- Historical packet decryption (recovering incoming messages using newly-added keys)
- Outgoing DMs are stored as plaintext by the send endpoint — no decryption needed
**Secondary:**
- Channel key cracker (WebGPU brute-force)
- Repeater management (telemetry, CLI commands, ACL)
**Tertiary (best-effort, quality-of-life):**
- Raw packet feed — a debug/observation tool ("radio aquarium"); interesting to watch or copy packets from, but not critical infrastructure
- Map view — visual display of node locations from advertisements
- Network visualizer — force-directed graph of mesh topology
- Fanout integrations (MQTT, bots, webhooks, Apprise, SQS) — see `app/fanout/AGENTS_fanout.md`
- Read state tracking / mark-all-read — convenience feature for unread badges; no need for transactional atomicity or race-condition hardening
## Error Handling Philosophy
**Background tasks** (WebSocket broadcasts, periodic sync, contact auto-loading, etc.) use fire-and-forget `asyncio.create_task`. Exceptions in these tasks are logged to the backend logs, which is sufficient for debugging. There is no need to track task references or add done-callbacks purely for error visibility. If there's a convenient way to bubble an error to the frontend (e.g., via `broadcast_error` for user-actionable problems), do so, but this is minor and best-effort.
Radio startup/setup is one place where that frontend bubbling is intentional: if post-connect setup hangs past its timeout, the backend both logs the failure and pushes a toast instructing the operator to reboot the radio and restart the server.
## Key Design Principles
1. **Store-and-serve**: Backend stores all packets even when no client is connected
2. **Parallel storage**: Messages stored both decrypted (when possible) and as raw packets
3. **Extended capacity**: Server stores contacts/channels beyond radio limits (~350 contacts, ~40 channels)
4. **Real-time updates**: WebSocket pushes events; REST for actions; optional MQTT forwarding
4. **Real-time updates**: WebSocket pushes events; REST for actions
5. **Offline-capable**: Radio operates independently; server syncs when connected
6. **Auto-reconnect**: Background monitor detects disconnection and attempts reconnection
## Code Ethos
- Prefer fewer, stronger modules over many tiny wrapper files.
- Split code only when the new module owns a real invariant, workflow, or contract.
- Avoid "enterprise" indirection layers whose main job is forwarding, renaming, or prop bundling.
- For this repo, "locally dense but semantically obvious" is better than context scattered across many files.
- Use typed contracts at important boundaries such as API payloads, WebSocket events, and repository writes.
- Refactors should be behavior-preserving slices with tests around the moved seam, not aesthetic reshuffles.
## Intentional Security Design Decisions
The following are **deliberate design choices**, not bugs. They are documented in the README with appropriate warnings. Do not "fix" these or flag them as vulnerabilities.
1. **No CORS restrictions**: The backend allows all origins (`allow_origins=["*"]`). This lets users access their radio from any device/origin on their network without configuration hassle.
2. **Minimal optional access control only**: The app has no user accounts, sessions, authorization model, or per-feature permissions. Operators may optionally set `MESHCORE_BASIC_AUTH_USERNAME` and `MESHCORE_BASIC_AUTH_PASSWORD` for app-wide HTTP Basic auth, but this is only a coarse gate and still requires HTTPS plus a trusted network posture.
3. **Arbitrary bot code execution**: The bot system (`app/fanout/bot_exec.py`) executes user-provided Python via `exec()` with full `__builtins__`. This is intentional — bots are a power-user feature for automation. The README explicitly warns that anyone on the network can execute arbitrary code through this. Operators can set `MESHCORE_DISABLE_BOTS=true` to completely disable the bot system at startup — this skips all bot execution, returns 403 on bot settings updates, and shows a disabled message in the frontend.
## Intentional Packet Handling Decision
Raw packet handling uses two identities by design:
- **`id` (DB packet row ID)**: storage identity from payload-hash deduplication (path bytes are excluded), so repeated payloads share one stored raw-packet row.
- **`observation_id` (WebSocket only)**: realtime observation identity, unique per RF arrival, so path-diverse repeats are still visible in-session.
Frontend packet-feed consumers should treat `observation_id` as the dedup/render key, while `id` remains the storage reference.
Channel metadata updates may also fan out as `channel` WebSocket events (full `Channel` payload) so clients can reflect local-only channel state such as regional flood-scope overrides without a full refetch.
## Contact Advert Path Memory
To improve repeater disambiguation in the network visualizer, the backend stores recent unique advertisement paths per contact in a dedicated table (`contact_advert_paths`).
- This is independent of raw-packet payload deduplication.
- Paths are keyed per contact + path + hop count, with `heard_count`, `first_seen`, and `last_seen`.
- Only the N most recent unique paths are retained per contact (currently 10).
- See `frontend/src/components/visualizer/AGENTS_packet_visualizer.md` § "Advert-Path Identity Hints" for how the visualizer consumes this data.
## Path Hash Modes
MeshCore firmware can encode path hops as 1-byte, 2-byte, or 3-byte identifiers.
- `path_hash_mode` values are `0` = 1-byte, `1` = 2-byte, `2` = 3-byte.
- `GET /api/radio/config` exposes both the current `path_hash_mode` and `path_hash_mode_supported`.
- `PATCH /api/radio/config` may update `path_hash_mode` only when the connected firmware supports it.
- Contacts persist `out_path_hash_mode` separately from `last_path` so contact sync and DM send paths can round-trip correctly even when hop bytes are ambiguous.
- Contacts may also persist an explicit routing override (`route_override_*`). When set, radio-bound operations use the override instead of the learned `last_path*`, but learned paths still keep updating from adverts.
- `path_len` in API payloads is always hop count, not byte count. The actual path byte length is `hop_count * hash_size`.
## Data Flow
### Incoming Messages
1. Radio receives raw bytes → `packet_processor.py` parses, decrypts, deduplicates, and stores in database (primary path via `RX_LOG_DATA` event)
2. `event_handlers.py` handles higher-level events (`CONTACT_MSG_RECV`, `ACK`) as a fallback/supplement
3. `broadcast_event()` in `websocket.py` fans out to both WebSocket clients and MQTT
1. Radio receives message → MeshCore library emits event
2. `event_handlers.py` catches event → stores in database
3. `ws_manager` broadcasts to connected clients
4. Frontend `useWebSocket` receives → updates React state
### Outgoing Messages
1. User types message → clicks send
2. `api.sendChannelMessage()` → POST to backend
3. Backend route delegates to service-layer send orchestration, which acquires the radio lock and calls MeshCore commands
3. Backend calls `radio_manager.meshcore.commands.send_chan_msg()`
4. Message stored in database with `outgoing=true`
5. For direct messages: ACK tracked; for channel: repeat detection
@@ -163,9 +91,7 @@ MeshCore firmware can encode path hops as 1-byte, 2-byte, or 3-byte identifiers.
**Direct messages**: Expected ACK code is tracked. When ACK event arrives, message marked as acked.
**Channel messages**: Flood messages echo back through repeaters. Repeats are identified by the database UNIQUE constraint on `(type, conversation_key, text, sender_timestamp)` — when an INSERT hits a duplicate, `_handle_duplicate_message()` in `packet_processor.py` adds the new path and, for outgoing messages only, increments the ack count. Incoming repeats add path data but do not change the ack count. There is no timestamp-windowed matching; deduplication is exact-match only.
This message-layer echo/path handling is independent of raw-packet storage deduplication.
**Channel messages**: Flood messages echo back. The decoder identifies repeats by matching (channel_idx, text_hash, timestamp ±5s) and marks the original as "acked".
## Directory Structure
@@ -175,17 +101,14 @@ This message-layer echo/path handling is independent of raw-packet storage dedup
│ ├── AGENTS.md # Backend documentation
│ ├── main.py # App entry, lifespan
│ ├── routers/ # API endpoints
│ ├── services/ # Shared backend orchestration/domain services, including radio_runtime access seam
│ ├── packet_processor.py # Raw packet pipeline, dedup, path handling
│ ├── repository/ # Database CRUD (contacts, channels, messages, raw_packets, settings, fanout)
│ ├── repository.py # Database CRUD
│ ├── event_handlers.py # Radio events
│ ├── decoder.py # Packet decryption
── websocket.py # Real-time broadcasts
│ └── fanout/ # Fanout bus: MQTT, bots, webhooks, Apprise, SQS (see fanout/AGENTS_fanout.md)
── websocket.py # Real-time broadcasts
├── frontend/ # React frontend
│ ├── AGENTS.md # Frontend documentation
│ ├── src/
│ │ ├── App.tsx # Frontend composition entry (hooks → AppShell)
│ │ ├── App.tsx # Main component
│ │ ├── api.ts # REST client
│ │ ├── useWebSocket.ts # WebSocket hook
│ │ └── components/
@@ -193,12 +116,7 @@ This message-layer echo/path handling is independent of raw-packet storage dedup
│ │ ├── MapView.tsx # Leaflet map showing node locations
│ │ └── ...
│ └── vite.config.ts
├── scripts/
│ ├── all_quality.sh # Run all lint, format, typecheck, tests, build (sequential)
│ ├── collect_licenses.sh # Gather third-party license attributions
│ ├── e2e.sh # End-to-end test runner
│ └── publish.sh # Version bump, changelog, docker build & push
├── remoteterm.service # Systemd unit file for production deployment
├── references/meshcore_py/ # MeshCore Python library
├── tests/ # Backend tests (pytest)
├── data/ # SQLite database (runtime)
└── pyproject.toml # Python dependencies
@@ -234,7 +152,7 @@ Terminal 2: `cd frontend && npm run dev`
### Production
In production, the FastAPI backend serves the compiled frontend. Build the frontend first:
In production, the FastAPI backend serves the compiled frontend. You must build the frontend first:
```bash
cd frontend && npm install && npm run build && cd ..
@@ -243,8 +161,6 @@ uv run uvicorn app.main:app --host 0.0.0.0 --port 8000
Access at `http://localhost:8000`. All API routes are prefixed with `/api`.
If `frontend/dist` (or `frontend/dist/index.html`) is missing, backend startup now logs an explicit error and continues serving API routes. In that case, frontend static routes are not mounted until a frontend build is present.
## Testing
### Backend (pytest)
@@ -257,20 +173,8 @@ Key test files:
- `tests/test_decoder.py` - Channel + direct message decryption, key exchange
- `tests/test_keystore.py` - Ephemeral key store
- `tests/test_event_handlers.py` - ACK tracking, repeat detection
- `tests/test_packet_pipeline.py` - End-to-end packet processing
- `tests/test_api.py` - API endpoints, read state tracking
- `tests/test_migrations.py` - Database migration system
- `tests/test_frontend_static.py` - Frontend static route registration (missing `dist`/`index.html` handling)
- `tests/test_messages_search.py` - Message search, around endpoint, forward pagination
- `tests/test_rx_log_data.py` - on_rx_log_data event handler integration
- `tests/test_ack_tracking_wiring.py` - DM ACK tracking extraction and wiring
- `tests/test_radio_lifecycle_service.py` - Radio reconnect/setup orchestration helpers
- `tests/test_radio_commands_service.py` - Radio config/private-key service workflows
- `tests/test_health_mqtt_status.py` - Health endpoint MQTT status field
- `tests/test_community_mqtt.py` - Community MQTT publisher (JWT, packet format, hash, broadcast)
- `tests/test_radio_sync.py` - Radio sync, periodic tasks, and contact offload back to the radio
- `tests/test_real_crypto.py` - Real cryptographic operations
- `tests/test_disable_bots.py` - MESHCORE_DISABLE_BOTS=true feature
### Frontend (Vitest)
@@ -281,7 +185,20 @@ npm run test:run
### Before Completing Changes
**Always run `./scripts/all_quality.sh` before finishing any changes that have modified code or tests.** This runs all linting, formatting, type checking, tests, and builds sequentially, catching type mismatches, breaking changes, and compilation errors. This is not necessary for docs-only changes.
**Always run both backend and frontend validation before finishing any changes:**
```bash
# From project root - run backend tests
PYTHONPATH=. uv run pytest tests/ -v
# From project root - run frontend tests and build
cd frontend && npm run test:run && npm run build
```
This catches:
- Type mismatches between frontend and backend (e.g., missing fields in TypeScript interfaces)
- Breaking changes to shared types or API contracts
- Runtime errors that only surface during compilation
## API Summary
@@ -289,62 +206,32 @@ All endpoints are prefixed with `/api` (e.g., `/api/health`).
| Method | Endpoint | Description |
|--------|----------|-------------|
| GET | `/api/health` | Connection status, fanout statuses, bots_disabled flag |
| GET | `/api/debug` | Support snapshot: recent logs, live radio probe, contact/channel drift audit, and running version/git info |
| GET | `/api/radio/config` | Radio configuration, including `path_hash_mode`, `path_hash_mode_supported`, and whether adverts include current node location |
| PATCH | `/api/radio/config` | Update name, location, advert-location on/off, radio params, and `path_hash_mode` when supported |
| PUT | `/api/radio/private-key` | Import private key to radio |
| GET | `/api/health` | Connection status |
| GET | `/api/radio/config` | Radio configuration |
| PATCH | `/api/radio/config` | Update name, location, radio params |
| POST | `/api/radio/advertise` | Send advertisement |
| POST | `/api/radio/discover` | Run a short mesh discovery sweep for nearby repeaters/sensors |
| POST | `/api/radio/reboot` | Reboot radio or reconnect if disconnected |
| POST | `/api/radio/disconnect` | Disconnect from radio and pause automatic reconnect attempts |
| POST | `/api/radio/reconnect` | Manual radio reconnection |
| POST | `/api/radio/reboot` | Reboot radio or reconnect if disconnected |
| PUT | `/api/radio/private-key` | Import private key to radio |
| GET | `/api/contacts` | List contacts |
| GET | `/api/contacts/analytics` | Unified keyed-or-name contact analytics payload |
| GET | `/api/contacts/repeaters/advert-paths` | List recent unique advert paths for all contacts |
| POST | `/api/contacts` | Create contact (optionally trigger historical DM decrypt) |
| DELETE | `/api/contacts/{public_key}` | Delete contact |
| POST | `/api/contacts/{public_key}/mark-read` | Mark contact conversation as read |
| POST | `/api/contacts/{public_key}/command` | Send CLI command to repeater |
| POST | `/api/contacts/{public_key}/routing-override` | Set or clear a forced routing override |
| POST | `/api/contacts/{public_key}/trace` | Trace route to contact |
| POST | `/api/contacts/{public_key}/repeater/login` | Log in to a repeater |
| POST | `/api/contacts/{public_key}/repeater/status` | Fetch repeater status telemetry |
| POST | `/api/contacts/{public_key}/repeater/lpp-telemetry` | Fetch CayenneLPP sensor data |
| POST | `/api/contacts/{public_key}/repeater/neighbors` | Fetch repeater neighbors |
| POST | `/api/contacts/{public_key}/repeater/acl` | Fetch repeater ACL |
| POST | `/api/contacts/{public_key}/repeater/node-info` | Fetch repeater name, location, and clock via CLI |
| POST | `/api/contacts/{public_key}/repeater/radio-settings` | Fetch repeater radio config via CLI |
| POST | `/api/contacts/{public_key}/repeater/advert-intervals` | Fetch advert intervals |
| POST | `/api/contacts/{public_key}/repeater/owner-info` | Fetch owner info |
| POST | `/api/contacts/sync` | Pull from radio |
| POST | `/api/contacts/{key}/telemetry` | Request telemetry from repeater |
| POST | `/api/contacts/{key}/command` | Send CLI command to repeater |
| GET | `/api/channels` | List channels |
| GET | `/api/channels/{key}/detail` | Comprehensive channel profile (message stats, top senders) |
| POST | `/api/channels` | Create channel |
| DELETE | `/api/channels/{key}` | Delete channel |
| POST | `/api/channels/{key}/flood-scope-override` | Set or clear a per-channel regional flood-scope override |
| POST | `/api/channels/{key}/mark-read` | Mark channel as read |
| GET | `/api/messages` | List with filters (`q`, `after`/`after_id` for forward pagination) |
| GET | `/api/messages/around/{id}` | Get messages around a specific message (for jump-to-message) |
| GET | `/api/messages` | List with filters |
| POST | `/api/messages/direct` | Send direct message |
| POST | `/api/messages/channel` | Send channel message |
| POST | `/api/messages/channel/{message_id}/resend` | Resend channel message (default: byte-perfect within 30s; `?new_timestamp=true`: fresh timestamp, no time limit, creates new message row) |
| GET | `/api/packets/undecrypted/count` | Count of undecrypted packets |
| POST | `/api/packets/decrypt/historical` | Decrypt stored packets |
| POST | `/api/packets/maintenance` | Delete old packets and vacuum |
| GET | `/api/packets/decrypt/progress` | Get historical decryption progress |
| POST | `/api/packets/maintenance` | Delete old packets (cleanup) |
| POST | `/api/contacts/{key}/mark-read` | Mark contact conversation as read |
| POST | `/api/channels/{key}/mark-read` | Mark channel as read |
| GET | `/api/read-state/unreads` | Server-computed unread counts, mentions, last message times |
| POST | `/api/read-state/mark-all-read` | Mark all conversations as read |
| GET | `/api/settings` | Get app settings |
| PATCH | `/api/settings` | Update app settings |
| POST | `/api/settings/favorites/toggle` | Toggle favorite status |
| POST | `/api/settings/blocked-keys/toggle` | Toggle blocked key |
| POST | `/api/settings/blocked-names/toggle` | Toggle blocked name |
| POST | `/api/settings/migrate` | One-time migration from frontend localStorage |
| GET | `/api/fanout` | List all fanout configs |
| POST | `/api/fanout` | Create new fanout config |
| PATCH | `/api/fanout/{id}` | Update fanout config (triggers module reload) |
| DELETE | `/api/fanout/{id}` | Delete fanout config (stops module) |
| GET | `/api/statistics` | Aggregated mesh network statistics |
| WS | `/api/ws` | Real-time updates |
## Key Concepts
@@ -361,14 +248,12 @@ All endpoints are prefixed with `/api` (e.g., `/api/health`).
- `1` - Client (regular node)
- `2` - Repeater
- `3` - Room
- `4` - Sensor
### Channel Keys
- Stored as 32-character hex string (TEXT PRIMARY KEY)
- Hashtag channels: `SHA256("#name")[:16]` converted to hex
- Custom channels: User-provided or generated
- Channels may also persist `flood_scope_override`; when set, channel sends temporarily switch the radio flood scope to that value for the duration of the send, then restore the global app setting.
### Message Types
@@ -380,24 +265,16 @@ All endpoints are prefixed with `/api` (e.g., `/api/health`).
Read state (`last_read_at`) is tracked **server-side** for consistency across devices:
- Stored as Unix timestamp in `contacts.last_read_at` and `channels.last_read_at`
- Updated via `POST /api/contacts/{public_key}/mark-read` and `POST /api/channels/{key}/mark-read`
- Updated via `POST /api/contacts/{key}/mark-read` and `POST /api/channels/{key}/mark-read`
- Bulk update via `POST /api/read-state/mark-all-read`
- Aggregated counts via `GET /api/read-state/unreads` (server-side computation)
**State Tracking Keys (Frontend)**: Generated by `getStateKey()` for message times (sidebar sorting):
- Channels: `channel-{channel_key}`
- Contacts: `contact-{full-public-key}`
- Contacts: `contact-{12-char-pubkey-prefix}`
**Note:** These are NOT the same as `Message.conversation_key` (the database field).
### Fanout Bus (MQTT, Bots, Webhooks, Apprise, SQS)
All external integrations are managed through the fanout bus (`app/fanout/`). Each integration is a `FanoutModule` with scope-based event filtering, stored in the `fanout_configs` table and managed via `GET/POST/PATCH/DELETE /api/fanout`.
`broadcast_event()` in `websocket.py` dispatches `message` and `raw_packet` events to the fanout manager. See `app/fanout/AGENTS_fanout.md` for full architecture details.
Community MQTT forwards raw packets only. Its derived `path` field, when present on direct packets, is a comma-separated list of hop identifiers as reported by the packet format. Token width therefore varies with the packet's path hash mode; it is intentionally not a flat per-byte rendering.
### Server-Side Decryption
The server can decrypt packets using stored keys, both in real-time and for historical packets.
@@ -431,35 +308,5 @@ mc.subscribe(EventType.ACK, handler)
| Variable | Default | Description |
|----------|---------|-------------|
| `MESHCORE_SERIAL_PORT` | auto-detect | Serial port for radio |
| `MESHCORE_TCP_HOST` | *(none)* | TCP host for radio (mutually exclusive with serial/BLE) |
| `MESHCORE_TCP_PORT` | `4000` | TCP port (used with `MESHCORE_TCP_HOST`) |
| `MESHCORE_BLE_ADDRESS` | *(none)* | BLE device address (mutually exclusive with serial/TCP) |
| `MESHCORE_BLE_PIN` | *(required with BLE)* | BLE PIN code |
| `MESHCORE_SERIAL_BAUDRATE` | `115200` | Serial baud rate |
| `MESHCORE_LOG_LEVEL` | `INFO` | Logging level (`DEBUG`/`INFO`/`WARNING`/`ERROR`) |
| `MESHCORE_DATABASE_PATH` | `data/meshcore.db` | SQLite database location |
| `MESHCORE_DISABLE_BOTS` | `false` | Disable bot system entirely (blocks execution and config) |
| `MESHCORE_BASIC_AUTH_USERNAME` | *(none)* | Optional app-wide HTTP Basic auth username; must be set together with `MESHCORE_BASIC_AUTH_PASSWORD` |
| `MESHCORE_BASIC_AUTH_PASSWORD` | *(none)* | Optional app-wide HTTP Basic auth password; must be set together with `MESHCORE_BASIC_AUTH_USERNAME` |
| `MESHCORE_ENABLE_MESSAGE_POLL_FALLBACK` | `false` | Switch the always-on radio audit task from hourly checks to aggressive 10-second polling; the audit checks both missed message drift and channel-slot cache drift |
| `MESHCORE_FORCE_CHANNEL_SLOT_RECONFIGURE` | `false` | Disable channel-slot reuse and force `set_channel(...)` before every channel send, even on serial/BLE |
**Note:** Runtime app settings are stored in the database (`app_settings` table), not environment variables. These include `max_radio_contacts`, `auto_decrypt_dm_on_advert`, `sidebar_sort_order`, `advert_interval`, `last_advert_time`, `favorites`, `last_message_times`, `flood_scope`, `blocked_keys`, and `blocked_names`. `max_radio_contacts` is the configured radio contact capacity baseline used by background maintenance: favorites reload first, non-favorite fill targets about 80% of that value, and full offload/reload triggers around 95% occupancy. They are configured via `GET/PATCH /api/settings`. MQTT, bot, webhook, Apprise, and SQS configs are stored in the `fanout_configs` table, managed via `/api/fanout`. If the radio's channel slots appear unstable or another client is mutating them underneath this app, operators can force the old always-reconfigure send path with `MESHCORE_FORCE_CHANNEL_SLOT_RECONFIGURE=true`.
Byte-perfect channel retries are user-triggered via `POST /api/messages/channel/{message_id}/resend` and are allowed for 30 seconds after the original send.
**Transport mutual exclusivity:** Only one of `MESHCORE_SERIAL_PORT`, `MESHCORE_TCP_HOST`, or `MESHCORE_BLE_ADDRESS` may be set. If none are set, serial auto-detection is used.
## Errata & Known Non-Issues
### `meshcore_py` advert parsing can crash on malformed/truncated RF log packets
The vendored MeshCore Python reader's `LOG_DATA` advert path assumes the decoded advert payload always contains at least 101 bytes of advert body and reads the flags byte with `pk_buf.read(1)[0]` without a length guard. If a malformed or truncated RF log frame slips through, `MessageReader.handle_rx()` can fail with `IndexError: index out of range` from `meshcore/reader.py` while parsing payload type `0x04` (advert).
This does not indicate database corruption or a message-store bug. It is a parser-hardening gap in `meshcore_py`: the reader does not fully mirror firmware-side packet/path validation before attempting advert decode. The practical effect is usually a one-off asyncio task failure for that packet while later packets continue processing normally.
### Channel-message dedup intentionally treats same-name/same-text/same-second channel sends as indistinguishable because they are
Channel message storage deduplicates on `(type, conversation_key, text, sender_timestamp)`. Reviewers often flag this as "missing sender identity," but for channel messages the stored `text` already includes the displayed sender label (for example `Alice: hello`). That means two different users only collide when they produce the same rendered sender name, the same body text, and the same sender timestamp.
In that case, RemoteTerm usually does not have enough information to distinguish "two independent same-name sends" from "one message observed again as an echo/repeat." Without a reliable sender identity at ingest, treating those packets as the same message is an accepted limitation of the observable data model, not an obvious correctness bug.
| `MESHCORE_MAX_RADIO_CONTACTS` | `200` | Max recent contacts to keep on radio for DM ACKs |

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@@ -1,291 +1,19 @@
## [3.3.0] - 2026-03-13
## [1.8.0] - 2026-02-07
Feature: Use dashed lines to show collapsed ambiguous router results
Feature: Jump to unred
Feature: Local channel management to prevent need to reload channel every time
Feature: Debug endpoint
Feature: Force-singleton channel management
Feature: Local node discovery
Feature: Node routing discovery
Bugfix: Don't tell users to us npm ci
Bugfix: Fallback polling dm message persistence
Bugfix: All native-JS inputs are now modals
Bugfix: Same-second send collision resolution
Bugfix: Proper browser updates on resend
Bugfix: Don't use last-heard when we actually want last-advert for path discovery for nodes
Bugfix: Don't treat prefix-matching DM echoes as acks like we do for channel messages
Misc: Visualizer data layer overhaul for future map work
Misc: Parallelize docker tests
## [3.2.0] - 2026-03-12
Feature: Improve ambiguous-sender DM handling and visibility
Feature: Allow for toggling of node GPS broadcast
Feature: Add path width to bot and move example to full kwargs
Feature: Improve node map color contrast
Bugfix: More accurate tracking of contact data
Bugfix: Misc. frontend performance and bugfixes
Misc: Clearer warnings on user-key linkage
Misc: Documentation improvements
## [3.1.1] - 2026-03-11
Feature: Add basic auth
Feature: SQS fanout
Feature: Enrich contact info pane
Feature: Search operators for node and channel
Feature: Pause radio connection attempts from Radio settings
Feature: New themes! What a great use of time!
Feature: Github workflows runs for validation
Bugfix: More consistent log format with times
Bugfix: Patch meshcore_py bluetooth eager reconnection out during pauses
## [3.1.0] - 2026-03-11
Feature: Add basic auth
Feature: SQS fanout
Feature: Enrich contact info pane
Feature: Search operators for node and channel
Feature: Pause radio connection attempts from Radio settings
Feature: New themes! What a great use of time!
Feature: Github workflows runs for validation
Bugfix: More consistent log format with times
Bugfix: Patch meshcore_py bluetooth eager reconnection out during pauses
## [3.0.0] - 2026-03-10
Feature: Custom regions per-channel
Feature: Add custom contact pathing
Feature: Corrupt packets are more clear that they're corrupt
Feature: Better, faster patterns around background fetching with explicit opt-in for recurring sync if the app detects you need it
Feature: More consistent icons
Feature: Add per-channel local notifications
Feature: New themes
Feature: Massive codebase refactor and overhaul
Bugfix: Fix packet parsing for trace packets
Bugfix: Refetch channels on reconnect
Bugfix: Load All on repeater pane on mobile doesn't etend into lower text
Bugfix: Timestamps in logs
Bugfix: Correct wrong clock sync command
Misc: Improve bot error bubble up
Misc: Update to non-lib-included meshcore-decoder version
Misc: Revise refactors to be more LLM friendly
Misc: Fix script executability
Misc: Better logging format with timestamp
Misc: Repeater advert buttons separate flood and one-hop
Misc: Preserve repeater pane on navigation away
Misc: Clearer iconography and coloring for status bar buttons
Misc: Search bar to top bar
## [2.7.9] - 2026-03-08
Bugfix: Don't obscure new integration dropdown on session boundary
## [2.7.8] - 2026-03-08
## [2.7.8] - 2026-03-08
Bugfix: Improve frontend asset resolution and fixup the build/push script
## [2.7.1] - 2026-03-08
Bugfix: Fix historical DM packet length passing
Misc: Follow better inclusion patterns for the patched meshcore-decoder and just publish the dang package
Misc: Patch a bewildering browser quirk that cause large raw packet lists to extend past the bottom of the page
## [2.7.0] - 2026-03-08
Feature: Multibyte path support
Feature: Add multibyte statistics to statistics pane
Feature: Add path bittage to contact info pane
Feature: Put tools in a collapsible
## [2.6.1] - 2026-03-08
Misc: Fix busted docker builds; we don't have a 2.6.0 build sorry
## [2.6.0] - 2026-03-08
Feature: A11y improvements
Feature: New themes
Feature: Backfill channel sender identity when available
Feature: Modular fanout bus, including Webhooks, more customizable community MQTT, and Apprise
Bugfix: Unreads now respect blocklist
Bugfix: Unreads can't accumulate on an open thread
Bugfix: Channel name in broadcasts
Bugfix: Add missing httpx dependency
Bugfix: Improvements to radio startup frontend-blocking time and radio status reporting
Misc: Improved button signage for app movement
Misc: Test, performance, and documentation improvements
## [2.5.0] - 2026-03-05
Feature: Far better accessibility across the app (with far to go)
Feature: Add community MQTT stats reporting, and improve over a few commits
Feature: Color schemes and misc. settings reorg
Feature: Add why-active to filtered nodes
Feature: Add channel and contact info box
Feature: Add contact blocking
Feature: Add potential repeater path map display
Feature: Add flood scoping/regions
Feature: Global message search
Feature: Fully safe bot disable
Feature: Add default #remoteterm channel (lol sorry I had to)
Feature: Custom recency pruning in visualizer
Bugfix: Be more cautious around null byte stripping
Bugfix: Clear channel-add interface on not-add-another
Bugfix: Add status/name/MQTT LWT
Bugfix: Channel deletion propagates over WS
Bugfix: Show map location for all nodes on link, not 7-day-limited
Bugfix: Hide private key channel keys by default
Misc: Logline to show if cleanup loop on non-sync'd meshcore radio links fixes anything
Misc: Doc, changelog, and test improvements
Misc: Add, and remove, package lock (sorry Windows users)
Misc: Don't show mark all as read if not necessary
Misc: Fix stale closures and misc. frontend perf/correctness improvements
Misc: Add Windows startup notes
Misc: E2E expansion + improvement
Misc: Move around visualizer settings
## [2.4.0] - 2026-03-02
Feature: Add community MQTT reporting (e.g. LetsMesh.net)
Misc: Build scripts and library attribution
Misc: Add sign of life to E2E tests
## [2.3.0] - 2026-03-01
Feature: Click path description to reset to flood
Feature: Add MQTT publishing
Feature: Visualizer remembers settings
Bugfix: Fix prefetch usage
Bugfix: Fixed an issue where busy channels can result in double-display of incoming messages
Misc: Drop py3.12 requirement
Misc: Performance, documentation, test, and file structure optimizations
Misc: Add arrows between route nodes on contact info
Misc: Show repeater path/type in title bar
## [2.2.0] - 2026-02-28
Feature: Track advert paths and use to disambiguate repeater identity in visualizer
Feature: Contact info pane
Feature: Overhaul repeater interface
Bugfix: Misc. frontend rendering + perf improvements
Bugfix: Better behavior around radio locking and autofetch/polling
Bugfix: Clear channel name field on new-channel modal tab change
Bugfix: Repeater inforbox can scroll
Bugfix: Better handling of historical DM encrypts
Bugfix: Handle errors if returned in prefetch phase
Misc: Radio event response failure is logged/surfaced better
Misc: Improve test coverage and remove dead code
Misc: Documentation and errata improvements
Misc: Database storage optimization
## [2.1.0] - 2026-02-23
Feature: Add ability to remember last-used channel on load
Feature: Add `docker compose` support (thanks @suymur !)
Feature: Better-aligned favicon (lol)
Bugfix: Disable autocomplete on message field
Bugfix: Legacy hash restoration on page load
Bugfix: Align resend buttons in pathing modal
Bugfix: Update README.md (briefly), then docker-compose.yaml, to reflect correct docker image host
Bugfix: Correct settings pane scroll lock on zoom (thanks @yellowcooln !)
Bugfix: Improved repeater comms on busy meshes
Bugfix: Drain before autofetch from radio
Bugfix: Fix, or document exceptions to, sub-second resolution message failure
Bugfix: Improved handling of radio connection, disconnection, and connection-aliveness-status
Bugfix: Force server-side keystore update when radio key changes
Bugfix: Reduce WS churn for incoming message handling
Bugfix: Fix content type signalling for irrelevant endpoints
Bugfix: Handle stuck post-connect failure state
Misc: Documentation & version parsing improvements
Misc: Hide char counter on mobile for short messages
Misc: Typo fixes in docs and settings
Misc: Add dynamic webmanifest for hosts that can support it
Misc: Improve DB size via dropping unnecessary uniqs, indices, vacuum, and offering ability to drop historical matches packets
Misc: Drop weird rounded bounding box for settings
Misc: Move resend buttons to pathing modal
Misc: Improved comments around database ownership on *nix systems
Misc: Move to SSoT for message dedupe on frontend
Misc: Move DM ack clearing to standard poll, and increase hold time between polling
Misc: Holistic testing overhaul
## [2.0.1] - 2026-02-16
Bugfix: Fix missing trigger condition on statistics pane expansion on mobile
## [2.0.0] - 2026-02-16
Feature: Frontend UX + log overhaul
Bugfix: Use contact object from DB for broadcast rather than handrolling
Bugfix: Fix out of order path WS messages overwriting each other
Bugfix: Make broadcast timestamp match fallback logic used in storage code
Bugfix: Fix repeater command timestamp selection logic
Bugfix: Use actual pubkey matching for path update, and don't action serial path update events (use RX packet)
Bugfix: Add missing radio operation locks in a few spots
Bugfix: Fix dedupe for frontend raw packet delivery (mesh visualizer much more active now!)
Bugfix: Less aggressive dedupe for advert packets (we don't care about the payload, we care about the path, duh)
Misc: Visualizer layout refinement & option labels
## [1.10.0] - 2026-02-16
Feature: Collapsible sidebar sections with per-section unread badge (thanks @rgregg !)
Feature: 3D mesh visualizer
Feature: Statistics pane
Feature: Support incoming/outgoing indication for bot invocations
Feature: Quick byte-perfect message resend if you got unlucky with repeats (thanks @rgregg -- we had a parallel implementation but I appreciate your work!)
Bugfix: Fix top padding out outgoing message
Bugfix: Frontend performance, appearance, and Lighthouse improvements (prefetches, form labelling, contrast, channel/roomlist changes)
Bugfix: Multiple-sent messages had path appearing delays until rerender
Bugfix: Fix ack/message race condition that caused dropped ack displays until rerender
Misc: Dedupe contacts/rooms by key and not name to prevent name collisions creating unreachable conversations
Misc: s/stopped/idle/ for room finder
## [1.9.3] - 2026-02-12
Feature: Upgrade the room finder to support two-word rooms
## [1.9.2] - 2026-02-12
Feature: Options dialog sucks less
Bugfix: Move tests to isolated memory DB
Bugfix: Mention case sensitivity
Bugfix: Stale header retention on settings page view
Bugfix: Non-isolated path writing
Bugfix: Nullable contact fields are now passed as real nulls
Bugfix: Look at all fields on message reconcile, not just text
Bugfix: Make mark-all-as-read atomic
Misc: Purge unused WS handlers from back when we did chans and contacts over WS, not API
Misc: Massive test and AGENTS.md overhauls and additions
## [1.9.1] - 2026-02-10
Feature: Contacts and channels use keys, not names
Bugfix: Fix falsy casting of 0 in lat lon and timing data
Bugfix: Show message length in bytes, not chars
Bugfix: Fix phantom unread badges on focused convos
Misc: Bot invocation to async
Misc: Use full key, not prefix, where we can
## [1.9.0] - 2026-02-10
Feature: Favorited contacts are preferentially loaded onto the radio
Feature: Add recent-message caching for fast switching
Feature: Add echo paths modal when echo-heard checkbox is clicked
Feature: Add experimental byte-perfect double-send for bad RF environments to try to punch the message out
Frontend: Better styling on echo + message path display
Bugfix: Prevent frontend static file serving path traversal vuln
Bugfix: Safer prefix-claiming for DMs we don't have the key for
Bugfix: Prevent injection from mentions with special characters
Bugfix: Fix repeaters comms showing in wrong channel when repeater operations are in flight and the channel is changed quickly
Bugfix: App can boot and test without a frontend dir
Misc: Improve and consistent-ify (?) backend radio operation lock management
Misc: Frontend performance and safety enhancements
Misc: Move builds to non-bundled; usage requires building the Frontend
Misc: Update tests and agent docs
Feature: Single hop ping
Feature: PWA viewport fixes(thanks @rgregg)
Feature (?): No frontend distribution; build it yourself ;P
Bugfix: Fix channel message send race condition (concurrent sends could corrupt shared radio slot)
Bugfix: Fix TOCTOU race in radio reconnect (duplicate connections under contention)
Bugfix: Better guarding around reconnection
Bugfix: Duplicate websocket connection fixes
Bugfix: Settings tab error cleanliness on tab swap
Bugfix: Fix path traversal vuln
UI: Swap visualizer legend ordering (yay prettier)
Misc: Perf and locking improvements
Misc: Always flood advertisements
Misc: Better packet dupe handling
Misc: Dead code cleanup, test improvements
## [1.8.0] - 2026-02-07
@@ -310,7 +38,7 @@ Feature: Clickable hyperlinks
Bugfix: More consistent public key normalization
Bugfix: Use more reliable cursor paging
Bugfix: Fix null timestamp dedupe failure
Bugfix: More consistent prefix-based message claiming on key receipt
Bugfix: More concistent prefix-based message claiming on key reciept
Misc: Bot can respond to its own messages
Misc: Additional tests
Misc: Remove unneeded message dedupe logic

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@@ -1,15 +1,13 @@
# Stage 1: Build frontend
FROM node:20-slim AS frontend-builder
ARG COMMIT_HASH=unknown
WORKDIR /build
COPY frontend/package.json frontend/package-lock.json frontend/.npmrc ./
COPY frontend/package*.json ./
RUN npm ci
COPY frontend/ ./
RUN VITE_COMMIT_HASH=${COMMIT_HASH} npm run build
RUN npm run build
# Stage 2: Python runtime
@@ -29,9 +27,6 @@ RUN uv sync --frozen --no-dev
# Copy application code
COPY app/ ./app/
# Copy license attributions
COPY LICENSES.md ./
# Copy built frontend from first stage
COPY --from=frontend-builder /build/dist ./frontend/dist
@@ -40,5 +35,5 @@ RUN mkdir -p /app/data
EXPOSE 8000
# Run the application (we retain root for max compatibility)
# Run the application
CMD ["uv", "run", "uvicorn", "app.main:app", "--host", "0.0.0.0", "--port", "8000"]

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205
README.md
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@@ -1,37 +1,31 @@
# RemoteTerm for MeshCore
Backend server + browser interface for MeshCore mesh radio networks. Connect your radio over Serial, TCP, or BLE, and then you can:
Backend server + browser interface for MeshCore mesh radio networks. Attach your radio over serial, and then you can:
* Send and receive DMs and channel messages
* Send and receive DMs and GroupTexts
* Cache all received packets, decrypting as you gain keys
* Run multiple Python bots that can analyze messages and respond to DMs and channels
* Monitor unlimited contacts and channels (radio limits don't apply -- packets are decrypted server-side)
* Access your radio remotely over your network or VPN
* Search for hashtag room names for channels you don't have keys for yet
* Forward packets to MQTT, LetsMesh, MeshRank, SQS, Apprise, etc.
* Use the more recent 1.14 firmwares which support multibyte pathing
* Visualize the mesh as a map or node set, view repeater stats, and more!
* Brute force hashtag room names for GroupTexts you don't have keys for yet
**Warning:** This app is for trusted environments only. _Do not put this on an untrusted network, or open it to the public._ You can optionally set `MESHCORE_BASIC_AUTH_USERNAME` and `MESHCORE_BASIC_AUTH_PASSWORD` for app-wide HTTP Basic auth, but that is only a coarse gate and must be paired with HTTPS. The bots can execute arbitrary Python code which means anyone who gets access to the app can, too. To completely disable the bot system, start the server with `MESHCORE_DISABLE_BOTS=true` — this prevents all bot execution and blocks bot configuration changes via the API. If you need stronger access control, consider using a reverse proxy like Nginx, or extending FastAPI; full access control and user management are outside the scope of this app.
**Warning:** This app has no auth, and is for trusted environments only. _Do not put this on an untrusted network, or open it to the public._ The bots can execute arbitrary Python code which means anyone on your network can, too. If you need access control, consider using a reverse proxy like Nginx, or extending FastAPI.
![Screenshot of the application's web interface](app_screenshot.png)
![Screenshot of the application's web interface](screenshot.png)
## Disclaimer
This is developed with very heavy agentic assistance -- there is no warranty of fitness for any purpose. It's been lovingly guided by an engineer with a passion for clean code and good tests, but it's still mostly LLM output, so you may find some bugs.
This is entirely vibecoded slop -- no warranty of fitness for any purpose. It's been lovingly guided by an engineer with a passion for clean code and good tests, but it's still mostly LLM output, so you may find some bugs.
If extending, have your LLM read the three `AGENTS.md` files: `./AGENTS.md`, `./frontend/AGENTS.md`, and `./app/AGENTS.md`.
## Requirements
- Python 3.10+
- Node.js LTS or current (20, 22, 24, 25)
- Node.js 18+ (for frontend development only)
- [UV](https://astral.sh/uv) package manager: `curl -LsSf https://astral.sh/uv/install.sh | sh`
- MeshCore radio connected via USB serial, TCP, or BLE
<details>
<summary>Finding your serial port</summary>
- MeshCore radio connected via USB serial
**Find your serial port:**
```bash
#######
# Linux
@@ -43,27 +37,21 @@ ls /dev/ttyUSB* /dev/ttyACM*
#######
ls /dev/cu.usbserial-* /dev/cu.usbmodem*
###########
# Windows
###########
# In PowerShell:
Get-CimInstance Win32_SerialPort | Select-Object DeviceID, Caption
######
# WSL2
######
# Run this in an elevated PowerShell (not WSL) window
winget install usbipd
# restart console
# then find device ID
# find device ID (e.g. 3-8)
usbipd list
# make device shareable
usbipd bind --busid 3-8 # (or whatever the right ID is)
# attach device to WSL (run this each time you plug in the device)
usbipd attach --wsl --busid 3-8
# device will appear in WSL as /dev/ttyUSB0 or /dev/ttyACM0
# attach device to WSL
usbipd bind --busid 3-8
```
</details>
## Quick Start
@@ -83,71 +71,25 @@ cd frontend && npm install && npm run build && cd ..
uv run uvicorn app.main:app --host 0.0.0.0 --port 8000
```
The server auto-detects the serial port. To specify a transport manually:
The server auto-detects the serial port. To specify manually:
```bash
# Serial (explicit port)
MESHCORE_SERIAL_PORT=/dev/ttyUSB0 uv run uvicorn app.main:app --host 0.0.0.0 --port 8000
# TCP (e.g. via wifi-enabled firmware)
MESHCORE_TCP_HOST=192.168.1.100 MESHCORE_TCP_PORT=4000 uv run uvicorn app.main:app --host 0.0.0.0 --port 8000
# BLE (address and PIN both required)
MESHCORE_BLE_ADDRESS=AA:BB:CC:DD:EE:FF MESHCORE_BLE_PIN=123456 uv run uvicorn app.main:app --host 0.0.0.0 --port 8000
```
On Windows (PowerShell), set environment variables as a separate statement:
```powershell
$env:MESHCORE_SERIAL_PORT="COM8" # or your COM port
uv run uvicorn app.main:app --host 0.0.0.0 --port 8000
```
Access at http://localhost:8000
> **Note:** WebGPU cracking requires HTTPS when not on localhost. See the HTTPS section under Additional Setup.
## Docker Compose
## Docker
> **Warning:** Docker has intermittent issues with serial event subscriptions. The native method above is more reliable.
> **Note:** BLE-in-docker is outside the scope of this README, but the env vars should all still work.
Edit `docker-compose.yaml` to set a serial device for passthrough, or uncomment your transport (serial or TCP). Then:
```bash
docker compose up -d
```
The database is stored in `./data/` (bind-mounted), so the container shares the same database as the native app. To rebuild after pulling updates:
```bash
docker compose up -d --build
```
To use the prebuilt Docker Hub image instead of building locally, replace:
```yaml
build: .
```
with:
```yaml
image: jkingsman/remoteterm-meshcore:latest
```
Then run:
```bash
docker compose pull
docker compose up -d
```
The container runs as root by default for maximum serial passthrough compatibility across host setups. On Linux, if you switch between native and Docker runs, `./data` can end up root-owned. If you do not need that compatibility behavior, you can enable the optional `user: "${UID:-1000}:${GID:-1000}"` line in `docker-compose.yaml` to keep ownership aligned with your host user.
To stop:
```bash
docker compose down
docker run -d \
--device=/dev/ttyUSB0 \
-v remoteterm-data:/app/data \
-p 8000:8000 \
jkingsman/remote-terminal-for-meshcore:latest
```
## Development
@@ -156,21 +98,12 @@ docker compose down
```bash
uv sync
uv run uvicorn app.main:app --reload # autodetects serial port
uv run uvicorn app.main:app --reload
# Or with explicit serial port
MESHCORE_SERIAL_PORT=/dev/ttyUSB0 uv run uvicorn app.main:app --reload
```
On Windows (PowerShell):
```powershell
uv sync
$env:MESHCORE_SERIAL_PORT="COM8" # or your COM port
uv run uvicorn app.main:app --reload
```
> **Windows note:** I've seen an intermittent startup issue like `"Received empty packet: index out of range"` with failed contact sync. I can't figure out why this happens. The issue typically resolves on restart. If you can figure out why this happens, I will buy you a virtual or iRL six pack if you're in the PNW. As a former always-windows-girlie before embracing WSL2, I despise second-classing M$FT users, but I'm just stuck with this one.
### Frontend
```bash
@@ -184,16 +117,10 @@ Run both the backend and `npm run dev` for hot-reloading frontend development.
### Code Quality & Tests
Please test, lint, format, and quality check your code before PRing or committing. At the least, run a lint + autoformat + pyright check on the backend, and a lint + autoformat on the frontend.
Run everything at once:
```bash
./scripts/all_quality.sh
```
Please test, lint, format, and quality check your code before PRing or committing. At the least, run a lint + autoformat + pyright check on the bakend, and a lint + autoformat on the frontend.
<details>
<summary>Or run individual checks</summary>
<summary>But how?</summary>
```bash
# python
@@ -216,41 +143,15 @@ npm run build # build the frontend
| Variable | Default | Description |
|----------|---------|-------------|
| `MESHCORE_SERIAL_PORT` | (auto-detect) | Serial port path |
| `MESHCORE_SERIAL_BAUDRATE` | 115200 | Serial baud rate |
| `MESHCORE_TCP_HOST` | | TCP host (mutually exclusive with serial/BLE) |
| `MESHCORE_TCP_PORT` | 4000 | TCP port |
| `MESHCORE_BLE_ADDRESS` | | BLE device address (mutually exclusive with serial/TCP) |
| `MESHCORE_BLE_PIN` | | BLE PIN (required when BLE address is set) |
| `MESHCORE_SERIAL_BAUDRATE` | 115200 | Baud rate |
| `MESHCORE_LOG_LEVEL` | INFO | DEBUG, INFO, WARNING, ERROR |
| `MESHCORE_DATABASE_PATH` | data/meshcore.db | SQLite database path |
| `MESHCORE_DISABLE_BOTS` | false | Disable bot system entirely (blocks execution and config) |
| `MESHCORE_BASIC_AUTH_USERNAME` | | Optional app-wide HTTP Basic auth username; must be set together with `MESHCORE_BASIC_AUTH_PASSWORD` |
| `MESHCORE_BASIC_AUTH_PASSWORD` | | Optional app-wide HTTP Basic auth password; must be set together with `MESHCORE_BASIC_AUTH_USERNAME` |
Only one transport may be active at a time. If multiple are set, the server will refuse to start.
If you enable Basic Auth, protect the app with HTTPS. HTTP Basic credentials are not safe on plain HTTP.
### Remediation Environment Variables
These are intended for diagnosing or working around radios that behave oddly.
| Variable | Default | Description |
|----------|---------|-------------|
| `MESHCORE_ENABLE_MESSAGE_POLL_FALLBACK` | false | Run aggressive 10-second `get_msg()` fallback polling instead of the default hourly sanity check |
| `MESHCORE_FORCE_CHANNEL_SLOT_RECONFIGURE` | false | Disable channel-slot reuse and force `set_channel(...)` before every channel send |
By default the app relies on radio events plus MeshCore auto-fetch for incoming messages, and also runs a low-frequency hourly audit poll. That audit checks both:
- whether messages were left on the radio without reaching the app through event subscription
- whether the app's channel-slot expectations still match the radio's actual channel listing
If the audit finds a mismatch, you'll see an error in the application UI and your logs. If you see that warning, or if messages on the radio never show up in the app, try `MESHCORE_ENABLE_MESSAGE_POLL_FALLBACK=true` to switch that task into a more aggressive 10-second safety net. If room sends appear to be using the wrong channel slot or another client is changing slots underneath this app, try `MESHCORE_FORCE_CHANNEL_SLOT_RECONFIGURE=true` to force the radio to validate the channel slot is valid before sending (will delay sending by ~500ms).
| `MESHCORE_MAX_RADIO_CONTACTS` | 200 | Max recent contacts to keep on radio for DM ACKs |
## Additional Setup
<details>
<summary>HTTPS (Required for WebGPU room-finding outside localhost)</summary>
<summary>HTTPS (Required for WebGPU Cracking outside localhost)</summary>
WebGPU requires a secure context. When not on `localhost`, serve over HTTPS:
@@ -259,21 +160,21 @@ openssl req -x509 -newkey rsa:4096 -keyout key.pem -out cert.pem -days 365 -node
uv run uvicorn app.main:app --host 0.0.0.0 --port 8000 --ssl-keyfile=key.pem --ssl-certfile=cert.pem
```
For Docker Compose, generate the cert and add the volume mounts and command override to `docker-compose.yaml`:
For Docker:
```bash
# generate snakeoil TLS cert
# generate TLS cert
openssl req -x509 -newkey rsa:4096 -keyout key.pem -out cert.pem -days 365 -nodes -subj '/CN=localhost'
```
Then add the key and cert to the `remoteterm` service in `docker-compose.yaml`, and add an explicit launch command that uses them:
```yaml
volumes:
- ./data:/app/data
- ./cert.pem:/app/cert.pem:ro
- ./key.pem:/app/key.pem:ro
command: uv run uvicorn app.main:app --host 0.0.0.0 --port 8000 --ssl-keyfile=/app/key.pem --ssl-certfile=/app/cert.pem
# run with cert
docker run -d \
--device=/dev/ttyUSB0 \
-v remoteterm-data:/app/data \
-v $(pwd)/cert.pem:/app/cert.pem:ro \
-v $(pwd)/key.pem:/app/key.pem:ro \
-p 8000:8000 \
jkingsman/remote-terminal-for-meshcore:latest \
uv run uvicorn app.main:app --host 0.0.0.0 --port 8000 --ssl-keyfile=/app/key.pem --ssl-certfile=/app/cert.pem
```
Accept the browser warning, or use [mkcert](https://github.com/FiloSottile/mkcert) for locally-trusted certs.
@@ -282,8 +183,6 @@ Accept the browser warning, or use [mkcert](https://github.com/FiloSottile/mkcer
<details>
<summary>Systemd Service (Linux)</summary>
Assumes you're running from `/opt/remoteterm`; update commands and `remoteterm.service` if you're running elsewhere.
```bash
# Create service user
sudo useradd -r -m -s /bin/false remoteterm
@@ -320,41 +219,17 @@ Edit `/etc/systemd/system/remoteterm.service` to set `MESHCORE_SERIAL_PORT` if n
<summary>Testing</summary>
**Backend:**
```bash
PYTHONPATH=. uv run pytest tests/ -v
```
**Frontend:**
```bash
cd frontend
npm run test:run
```
**E2E:**
Warning: these tests are only guaranteed to run correctly in a narrow subset of environments; they require a busy mesh with messages arriving constantly and an available autodetect-able radio, as well as a contact in the test database (which you can provide in `tests/e2e/.tmp/e2e-test.db` after an initial run). E2E tests are generally not necessary to run for normal development work.
```bash
cd tests/e2e
npx playwright test # headless
npx playwright test --headed # show the browser window
```
</details>
## API Documentation
With the backend running: http://localhost:8000/docs
## Debugging & Bug Reports
If you're experiencing issues or opening a bug report, please start the backend with debug logging enabled. Debug mode provides a much more detailed breakdown of radio communication, packet processing, and other internal operations, which makes it significantly easier to diagnose problems.
To start the server with debug logging:
```bash
MESHCORE_LOG_LEVEL=DEBUG uv run uvicorn app.main:app --host 0.0.0.0 --port 8000
```
Please include the relevant debug log output when filing an issue on GitHub.

View File

@@ -1,378 +1,687 @@
# Backend AGENTS.md
This document is the backend working guide for agents and developers.
Keep it aligned with `app/` source files and router behavior.
This document provides context for AI assistants and developers working on the FastAPI backend.
## Stack
## Technology Stack
- FastAPI
- aiosqlite
- Pydantic
- MeshCore Python library (`meshcore` from PyPI)
- PyCryptodome
- **FastAPI** - Async web framework with automatic OpenAPI docs
- **aiosqlite** - Async SQLite driver
- **meshcore** - MeshCore radio library (local dependency at `../meshcore_py`)
- **Pydantic** - Data validation and settings management
- **PyCryptodome** - AES-128 encryption for packet decryption
- **UV** - Python package manager
## Code Ethos
## Directory Structure
- Prefer strong domain modules over layers of pass-through helpers.
- Split code when the new module owns real policy, not just a nicer name.
- Avoid wrapper services around globals unless they materially improve testability or reduce coupling.
- Keep workflows locally understandable; do not scatter one reasoning unit across several files without a clear contract.
- Typed write/read contracts are preferred over loose dict-shaped repository inputs.
## Backend Map
```text
```
app/
├── main.py # App startup/lifespan, router registration, static frontend mounting
├── config.py # Env-driven runtime settings
├── database.py # SQLite connection + base schema + migration runner
├── migrations.py # Schema migrations (SQLite user_version)
├── models.py # Pydantic request/response models and typed write contracts (for example ContactUpsert)
├── repository/ # Data access layer (contacts, channels, messages, raw_packets, settings, fanout)
├── services/ # Shared orchestration/domain services
│ ├── messages.py # Shared message creation, dedup, ACK application
│ ├── message_send.py # Direct send, channel send, resend workflows
│ ├── dm_ack_tracker.py # Pending DM ACK state
│ ├── contact_reconciliation.py # Prefix-claim, sender-key backfill, name-history wiring
│ ├── radio_lifecycle.py # Post-connect setup and reconnect/setup helpers
│ ├── radio_commands.py # Radio config/private-key command workflows
└── radio_runtime.py # Router/dependency seam over the global RadioManager
├── radio.py # RadioManager transport/session state + lock management
├── radio_sync.py # Polling, sync, periodic advertisement loop
├── decoder.py # Packet parsing/decryption
├── packet_processor.py # Raw packet pipeline, dedup, path handling
├── event_handlers.py # MeshCore event subscriptions and ACK tracking
├── events.py # Typed WS event payload serialization
├── websocket.py # WS manager + broadcast helpers
├── security.py # Optional app-wide HTTP Basic auth middleware for HTTP + WS
├── fanout/ # Fanout bus: MQTT, bots, webhooks, Apprise, SQS (see fanout/AGENTS_fanout.md)
├── dependencies.py # Shared FastAPI dependency providers
├── path_utils.py # Path hex rendering and hop-width helpers
├── region_scope.py # Normalize/validate regional flood-scope values
├── keystore.py # Ephemeral private/public key storage for DM decryption
├── frontend_static.py # Mount/serve built frontend (production)
└── routers/
├── health.py
├── debug.py
├── radio.py
├── contacts.py
├── channels.py
├── messages.py
├── packets.py
├── read_state.py
├── settings.py
├── fanout.py
├── repeaters.py
├── statistics.py
└── ws.py
├── main.py # FastAPI app, lifespan, router registration, static file serving
├── config.py # Pydantic settings (env vars: MESHCORE_*)
├── database.py # SQLite schema, connection management, runs migrations
├── migrations.py # Database migrations using SQLite user_version pragma
├── models.py # Pydantic models for API request/response
├── repository.py # Database CRUD (ContactRepository, ChannelRepository, etc.)
├── radio.py # RadioManager - serial connection to MeshCore device
├── radio_sync.py # Periodic sync, contact auto-loading to radio
├── decoder.py # Packet decryption (channel + direct messages)
├── packet_processor.py # Raw packet processing, advertisement handling
├── keystore.py # Ephemeral key store (private key in memory only)
├── event_handlers.py # Radio event subscriptions, ACK tracking, repeat detection
├── websocket.py # WebSocketManager for real-time client updates
└── routers/ # All routes prefixed with /api
├── health.py # GET /api/health
├── radio.py # Radio config, advertise, private key, reboot
├── contacts.py # Contact CRUD, radio sync, mark-read
├── channels.py # Channel CRUD, radio sync, mark-read
├── messages.py # Message list and send (direct/channel)
├── packets.py # Raw packet endpoints, historical decryption
├── read_state.py # Read state: unread counts, mark-all-read
├── settings.py # App settings (max_radio_contacts)
└── ws.py # WebSocket endpoint at /api/ws
```
## Core Runtime Flows
## Key Architectural Patterns
### Incoming data
### Repository Pattern
1. Radio emits events.
2. `on_rx_log_data` stores raw packet and tries decrypt/pipeline handling.
3. Shared message-domain services create/update `messages` and shape WS payloads.
4. `CONTACT_MSG_RECV` is a fallback DM path when packet pipeline cannot decrypt.
All database operations go through repository classes in `repository.py`:
### Outgoing messages
```python
from app.repository import ContactRepository, ChannelRepository, MessageRepository, RawPacketRepository, AppSettingsRepository
1. Send endpoints in `routers/messages.py` validate requests and delegate to `services/message_send.py`.
2. Service-layer send workflows call MeshCore commands, persist outgoing messages, and wire ACK tracking.
3. Endpoint broadcasts WS `message` event so all live clients update.
4. ACK/repeat updates arrive later as `message_acked` events.
5. Channel resend (`POST /messages/channel/{id}/resend`) strips the sender name prefix by exact match against the current radio name. This assumes the radio name hasn't changed between the original send and the resend. Name changes require an explicit radio config update and are rare, but the `new_timestamp=true` resend path has no time window, so a mismatch is possible if the name was changed between the original send and a later resend.
# Examples
contact = await ContactRepository.get_by_key_prefix("abc123")
await MessageRepository.create(msg_type="PRIV", text="Hello", received_at=timestamp)
await RawPacketRepository.mark_decrypted(packet_id, message_id)
### Connection lifecycle
# App settings (single-row pattern)
settings = await AppSettingsRepository.get()
await AppSettingsRepository.update(auto_decrypt_dm_on_advert=True)
await AppSettingsRepository.add_favorite("contact", public_key)
```
- `RadioManager.start_connection_monitor()` checks health every 5s.
- `RadioManager.post_connect_setup()` delegates to `services/radio_lifecycle.py`.
- Routers, startup/lifespan code, fanout helpers, and `radio_sync.py` should reach radio state through `services/radio_runtime.py`, not by importing `app.radio.radio_manager` directly.
- Shared reconnect/setup helpers in `services/radio_lifecycle.py` are used by startup, the monitor, and manual reconnect/reboot flows before broadcasting healthy state.
- Setup still includes handler registration, key export, time sync, contact/channel sync, and advertisement tasks. The message-poll task always starts: by default it runs as a low-frequency hourly audit, and `MESHCORE_ENABLE_MESSAGE_POLL_FALLBACK=true` switches it to aggressive 10-second polling. That audit checks both missed-radio-message drift and channel-slot cache drift; cache mismatches are logged, toasted, and the send-slot cache is reset.
- Post-connect setup is timeout-bounded. If initial radio offload/setup hangs too long, the backend logs the failure and broadcasts an `error` toast telling the operator to reboot the radio and restart the server.
### Radio Connection
## Important Behaviors
`RadioManager` in `radio.py` handles serial connection:
### Multibyte routing
```python
from app.radio import radio_manager
- Packet `path_len` values are hop counts, not byte counts.
- Hop width comes from the packet or radio `path_hash_mode`: `0` = 1-byte, `1` = 2-byte, `2` = 3-byte.
- Channel slot count comes from firmware-reported `DEVICE_INFO.max_channels`; do not hardcode `40` when scanning/offloading channel slots.
- Channel sends use a session-local LRU slot cache after startup channel offload clears the radio. Repeated sends to the same room reuse the loaded slot; new rooms fill free slots up to the discovered channel capacity, then evict the least recently used cached room.
- TCP radios do not reuse cached slot contents. For TCP, channel sends still force `set_channel(...)` before every send because this backend does not have exclusive device access.
- `MESHCORE_FORCE_CHANNEL_SLOT_RECONFIGURE=true` disables slot reuse on all transports and forces the old always-`set_channel(...)` behavior before every channel send.
- Contacts persist `out_path_hash_mode` in the database so contact sync and outbound DM routing reuse the exact stored mode instead of inferring from path bytes.
- Contacts may also persist `route_override_path`, `route_override_len`, and `route_override_hash_mode`. `Contact.to_radio_dict()` gives these override fields precedence over learned `last_path*`, while advert processing still updates the learned route for telemetry/fallback.
- `contact_advert_paths` identity is `(public_key, path_hex, path_len)` because the same hex bytes can represent different routes at different hop widths.
# Access meshcore instance
if radio_manager.meshcore:
await radio_manager.meshcore.commands.send_msg(dst, msg)
```
### Read/unread state
Auto-detection scans common serial ports when `MESHCORE_SERIAL_PORT` is not set.
- Server is source of truth (`contacts.last_read_at`, `channels.last_read_at`).
- `GET /api/read-state/unreads` returns counts, mention flags, and `last_message_times`.
### Event-Driven Architecture
### Echo/repeat dedup
Radio events flow through `event_handlers.py`:
- Message uniqueness: `(type, conversation_key, text, sender_timestamp)`.
- Duplicate insert is treated as an echo/repeat: the new path (if any) is appended, and the ACK count is incremented only for outgoing channel messages. Incoming repeats and direct-message duplicates may still add path data, but DM delivery state advances only from real ACK events.
| Event | Handler | Actions |
|-------|---------|---------|
| `CONTACT_MSG_RECV` | `on_contact_message` | **Fallback only** - stores DM if packet processor didn't handle it |
| `RX_LOG_DATA` | `on_rx_log_data` | Store packet, decrypt channels/DMs, broadcast via WS |
| `PATH_UPDATE` | `on_path_update` | Update contact path info |
| `NEW_CONTACT` | `on_new_contact` | Sync contact from radio's internal database |
| `ACK` | `on_ack` | Match pending ACKs, mark message acked, broadcast |
### Raw packet dedup policy
**Note on DM handling**: Direct messages are primarily handled by the packet processor via
`RX_LOG_DATA`, which decrypts using the exported private key. The `CONTACT_MSG_RECV` handler
exists as a fallback for radios without `ENABLE_PRIVATE_KEY_EXPORT=1` in firmware.
- Raw packet storage deduplicates by payload hash (`RawPacketRepository.create`), excluding routing/path bytes.
- Stored packet `id` is therefore a payload identity, not a per-arrival identity.
- Realtime raw-packet WS broadcasts include `observation_id` (unique per RF arrival) in addition to `id`.
- Frontend packet-feed features should key/dedupe by `observation_id`; use `id` only as the storage reference.
- Message-layer repeat handling (`_handle_duplicate_message` + `MessageRepository.add_path`) is separate from raw-packet storage dedup.
### WebSocket Broadcasting
### Contact sync throttle
Real-time updates use `ws_manager` singleton:
- `sync_recent_contacts_to_radio()` sets `_last_contact_sync = now` before the sync completes.
- This is intentional: if sync fails, the next attempt is still throttled to prevent a retry-storm against a flaky radio. Contacts will resync on the next scheduled cycle or on reconnect.
```python
from app.websocket import ws_manager
### Periodic advertisement
# Broadcast to all connected clients
await ws_manager.broadcast("message", {"id": 1, "text": "Hello"})
```
- Controlled by `app_settings.advert_interval` (seconds).
- `0` means disabled.
- Last send time tracked in `app_settings.last_advert_time`.
Event types: `health`, `contacts`, `channels`, `message`, `contact`, `raw_packet`, `message_acked`, `error`
### Fanout bus
**Note:** The WebSocket initial connect only sends `health`. Contacts and channels are fetched
via REST (`GET /api/contacts`, `GET /api/channels`) for faster parallel loading. The WS still
broadcasts real-time `contacts`/`channels` updates when data changes.
- All external integrations (MQTT, bots, webhooks, Apprise, SQS) are managed through the fanout bus (`app/fanout/`).
- Configs stored in `fanout_configs` table, managed via `GET/POST/PATCH/DELETE /api/fanout`.
- `broadcast_event()` in `websocket.py` dispatches to the fanout manager for `message` and `raw_packet` events.
- Each integration is a `FanoutModule` with scope-based filtering.
- Community MQTT publishes raw packets only, but its derived `path` field for direct packets is emitted as comma-separated hop identifiers, not flat path bytes.
- See `app/fanout/AGENTS_fanout.md` for full architecture details.
Helper functions for common broadcasts:
## API Surface (all under `/api`)
```python
from app.websocket import broadcast_error, broadcast_health
# Notify clients of errors (shows toast in frontend)
broadcast_error("Operation failed", "Additional details")
# Notify clients of connection status change
broadcast_health(radio_connected=True, serial_port="/dev/ttyUSB0")
```
### Connection Monitoring
`RadioManager` includes a background task that monitors connection status:
- Checks connection every 5 seconds
- Broadcasts `health` event on status change
- Attempts automatic reconnection when connection lost
- **Runs full `post_connect_setup()` after successful reconnect** (event handlers, key export, time sync, contact/channel sync, advertisements, message polling)
- Resilient to transient errors (logs and continues rather than crashing)
- Supports manual reconnection via `POST /api/radio/reconnect`
```python
from app.radio import radio_manager
# Manual reconnection
success = await radio_manager.reconnect()
# Background monitor (started automatically in app lifespan)
await radio_manager.start_connection_monitor()
await radio_manager.stop_connection_monitor()
```
### Message Polling
Periodic message polling serves as a fallback for platforms where push events are unreliable.
Use `pause_polling()` to temporarily suspend polling during operations that need exclusive
radio access (e.g., repeater CLI commands):
```python
from app.radio_sync import pause_polling, is_polling_paused
# Pause polling during sensitive operations (supports nesting)
async with pause_polling():
# Polling is paused here
await do_repeater_operation()
async with pause_polling():
# Still paused (nested)
await do_another_operation()
# Still paused (outer context active)
# Polling resumes when all contexts exit
# Check current state
if is_polling_paused():
print("Polling is currently paused")
```
### Periodic Advertisement
The server automatically sends an advertisement every hour to announce presence on the mesh.
This helps maintain visibility to other nodes and refreshes routing information.
- Started automatically on radio connection
- Interval: 1 hour (3600 seconds)
- Uses flood mode for maximum reach
```python
from app.radio_sync import start_periodic_advert, stop_periodic_advert, send_advertisement
# Start/stop periodic advertising
start_periodic_advert() # Started automatically in lifespan
await stop_periodic_advert()
# Manual advertisement
await send_advertisement() # Returns True on success
```
## Database Schema
```sql
contacts (
public_key TEXT PRIMARY KEY, -- 64-char hex
name TEXT,
type INTEGER DEFAULT 0, -- 0=unknown, 1=client, 2=repeater, 3=room
flags INTEGER DEFAULT 0,
last_path TEXT, -- Routing path hex
last_path_len INTEGER DEFAULT -1,
last_advert INTEGER, -- Unix timestamp of last advertisement
lat REAL, lon REAL,
last_seen INTEGER,
on_radio INTEGER DEFAULT 0, -- Boolean: contact loaded on radio
last_contacted INTEGER, -- Unix timestamp of last message sent/received
last_read_at INTEGER -- Unix timestamp when conversation was last read
)
channels (
key TEXT PRIMARY KEY, -- 32-char hex channel key
name TEXT NOT NULL,
is_hashtag INTEGER DEFAULT 0, -- Key derived from SHA256(name)[:16]
on_radio INTEGER DEFAULT 0,
last_read_at INTEGER -- Unix timestamp when channel was last read
)
messages (
id INTEGER PRIMARY KEY,
type TEXT NOT NULL, -- 'PRIV' or 'CHAN'
conversation_key TEXT NOT NULL, -- User pubkey for PRIV, channel key for CHAN
text TEXT NOT NULL,
sender_timestamp INTEGER,
received_at INTEGER NOT NULL,
path TEXT, -- Hex-encoded routing path (2 chars per hop), null for outgoing
txt_type INTEGER DEFAULT 0,
signature TEXT,
outgoing INTEGER DEFAULT 0,
acked INTEGER DEFAULT 0,
UNIQUE(type, conversation_key, text, sender_timestamp) -- Deduplication
)
raw_packets (
id INTEGER PRIMARY KEY,
timestamp INTEGER NOT NULL,
data BLOB NOT NULL, -- Raw packet bytes
decrypted INTEGER DEFAULT 0,
message_id INTEGER, -- FK to messages if decrypted
decrypt_attempts INTEGER DEFAULT 0,
last_attempt INTEGER,
FOREIGN KEY (message_id) REFERENCES messages(id)
)
app_settings (
id INTEGER PRIMARY KEY CHECK (id = 1), -- Single-row pattern
max_radio_contacts INTEGER DEFAULT 200,
favorites TEXT DEFAULT '[]', -- JSON array of {type, id}
auto_decrypt_dm_on_advert INTEGER DEFAULT 0,
sidebar_sort_order TEXT DEFAULT 'recent', -- 'recent' or 'alpha'
last_message_times TEXT DEFAULT '{}', -- JSON object of state_key -> timestamp
preferences_migrated INTEGER DEFAULT 0 -- One-time migration flag
)
```
## Database Migrations (`migrations.py`)
Schema migrations use SQLite's `user_version` pragma for version tracking:
```python
from app.migrations import get_version, set_version, run_migrations
# Check current schema version
version = await get_version(conn) # Returns int (0 for new/unmigrated DB)
# Run pending migrations (called automatically on startup)
applied = await run_migrations(conn) # Returns number of migrations applied
```
### How It Works
1. `database.py` calls `run_migrations()` after schema initialization
2. Each migration checks `user_version` and runs if needed
3. Migrations are idempotent (safe to run multiple times)
4. `ALTER TABLE ADD COLUMN` handles existing columns gracefully
### Adding a New Migration
```python
# In migrations.py
async def run_migrations(conn: aiosqlite.Connection) -> int:
version = await get_version(conn)
applied = 0
if version < 1:
await _migrate_001_add_last_read_at(conn)
await set_version(conn, 1)
applied += 1
# Add new migrations here:
# if version < 2:
# await _migrate_002_something(conn)
# await set_version(conn, 2)
# applied += 1
return applied
```
## Packet Decryption (`decoder.py`)
The decoder handles MeshCore packet decryption for historical packet analysis:
### Packet Types
```python
class PayloadType(IntEnum):
GROUP_TEXT = 0x05 # Channel messages (decryptable)
TEXT_MESSAGE = 0x02 # Direct messages
ACK = 0x03
ADVERT = 0x04
# ... see decoder.py for full list
```
### Channel Key Derivation
Hashtag channels derive keys from name:
```python
channel_key = hashlib.sha256(b"#channelname").digest()[:16]
```
### Decryption Flow
1. Parse packet header to get payload type
2. For `GROUP_TEXT`: extract channel_hash (1 byte), cipher_mac (2 bytes), ciphertext
3. Verify HMAC-SHA256 using 32-byte secret (key + 16 zero bytes)
4. Decrypt with AES-128 ECB
5. Parse decrypted content: timestamp (4 bytes), flags (1 byte), "sender: message" text
```python
from app.decoder import try_decrypt_packet_with_channel_key
result = try_decrypt_packet_with_channel_key(raw_bytes, channel_key)
if result:
print(f"{result.sender}: {result.message}")
```
### Direct Message Decryption
Direct messages use ECDH key exchange (Ed25519 → X25519) for shared secret derivation.
**Key storage**: The private key is exported from the radio on startup and stored in memory
via `keystore.py`. This enables server-side DM decryption even when contacts aren't loaded
on the radio.
**Primary path (packet processor)**: When an `RX_LOG_DATA` event contains a `TEXT_MESSAGE`
packet, `packet_processor.py` handles the complete flow:
1. Decrypts using known contact public keys and stored private key
2. Filters CLI responses (txt_type=1 in flags)
3. Stores message in database
4. Broadcasts via WebSocket
5. Updates contact's last_contacted timestamp
6. Triggers bot if enabled
**Fallback path (event handler)**: If the packet processor can't decrypt (no private key
export, unknown contact), `on_contact_message` handles DMs from the MeshCore library's
`CONTACT_MSG_RECV` event. DB deduplication prevents double-storage when both paths fire.
**Historical decryption**: When creating a contact with `try_historical=True`, the server
attempts to decrypt all stored `TEXT_MESSAGE` packets for that contact.
**Direction detection**: The decoder uses the 1-byte dest_hash and src_hash to determine
if a message is incoming or outgoing. Edge case: when both bytes match (1/256 chance),
defaults to treating as incoming.
```python
from app.decoder import try_decrypt_dm
result = try_decrypt_dm(raw_bytes, private_key, contact_public_key)
if result:
print(f"{result.message} (timestamp={result.timestamp})")
```
## Advertisement Parsing (`decoder.py`)
Advertisement packets contain contact information including optional GPS coordinates.
### Packet Structure
```
Bytes 0-31: Public key (32 bytes)
Bytes 32-35: Timestamp (4 bytes, little-endian Unix timestamp)
Bytes 36-99: Signature (64 bytes)
Byte 100: App flags
Bytes 101+: Optional fields (location, name) based on flags
```
### App Flags (byte 100)
- Bits 0-3: Device role (1=Chat, 2=Repeater, 3=Room, 4=Sensor)
- Bit 4: Has location (lat/lon follow)
- Bit 5: Has feature 1
- Bit 6: Has feature 2
- Bit 7: Has name (null-terminated string at end)
### GPS Extraction
When bit 4 is set, latitude and longitude follow as signed int32 little-endian values,
divided by 1,000,000 to get decimal degrees:
```python
from app.decoder import parse_advertisement
advert = parse_advertisement(payload_bytes)
if advert:
print(f"Device role: {advert.device_role}") # 1=Chat, 2=Repeater
if advert.lat and advert.lon:
print(f"Location: {advert.lat}, {advert.lon}")
```
### Data Flow
1. `event_handlers.py` receives ADVERTISEMENT event
2. `packet_processor.py` calls `parse_advertisement()` to extract data
3. Contact is upserted with location data (`lat`, `lon`) and `device_role` as `type`
4. Frontend MapView displays contacts with GPS coordinates
## ACK and Repeat Detection
The `acked` field is an integer count, not a boolean:
- `0` = not acked
- `1` = one ACK/echo received
- `2+` = multiple flood echoes received
### Direct Message ACKs
When sending a direct message, an expected ACK code is tracked:
```python
from app.event_handlers import track_pending_ack
track_pending_ack(expected_ack="abc123", message_id=42, timeout_ms=30000)
```
When ACK event arrives, the message's ack count is incremented.
### Channel Message Repeats
Flood messages echo back through repeaters. Detection uses:
- Channel key
- Text hash
- Timestamp (±5 second window)
Each repeat increments the ack count. The frontend displays:
- `?` = no acks
- `✓` = 1 echo
- `✓2`, `✓3`, etc. = multiple echoes (real-time updates via WebSocket)
### Auto-Contact Sync to Radio
To enable the radio to auto-ACK incoming DMs, recent non-repeater contacts are
automatically loaded to the radio. Configured via `max_radio_contacts` setting (default 200).
- Triggered on each advertisement from a non-repeater contact
- Loads most recently contacted non-repeaters (by `last_contacted` timestamp)
- Throttled to at most once per 30 seconds
- `last_contacted` updated on message send/receive
```python
from app.radio_sync import sync_recent_contacts_to_radio
result = await sync_recent_contacts_to_radio(force=True)
# Returns: {"loaded": 5, "already_on_radio": 195, "failed": 0}
```
## API Endpoints
All endpoints are prefixed with `/api`.
### Health
- `GET /health`
### Debug
- `GET /debug` — support snapshot with recent logs, live radio probe, slot/contact audits, and version/git info
- `GET /api/health` - Connection status, serial port
### Radio
- `GET /radio/config` — includes `path_hash_mode`, `path_hash_mode_supported`, and advert-location on/off
- `PATCH /radio/config` — may update `path_hash_mode` (`0..2`) when firmware supports it
- `PUT /radio/private-key`
- `POST /radio/advertise`
- `POST /radio/discover` — short mesh discovery sweep for nearby repeaters/sensors
- `POST /radio/disconnect`
- `POST /radio/reboot`
- `POST /radio/reconnect`
- `GET /api/radio/config` - Read config (public key, name, radio params)
- `PATCH /api/radio/config` - Update name, lat/lon, tx_power, radio params
- `PUT /api/radio/private-key` - Import private key to radio (write-only)
- `POST /api/radio/advertise?flood=true` - Send advertisement
- `POST /api/radio/reboot` - Reboot radio or reconnect if disconnected
- `POST /api/radio/reconnect` - Manual reconnection attempt
### Contacts
- `GET /contacts`
- `GET /contacts/analytics` — unified keyed-or-name analytics payload
- `GET /contacts/repeaters/advert-paths` — recent advert paths for all contacts
- `POST /contacts`
- `DELETE /contacts/{public_key}`
- `POST /contacts/{public_key}/mark-read`
- `POST /contacts/{public_key}/command`
- `POST /contacts/{public_key}/routing-override`
- `POST /contacts/{public_key}/trace`
- `POST /contacts/{public_key}/repeater/login`
- `POST /contacts/{public_key}/repeater/status`
- `POST /contacts/{public_key}/repeater/lpp-telemetry`
- `POST /contacts/{public_key}/repeater/neighbors`
- `POST /contacts/{public_key}/repeater/acl`
- `POST /contacts/{public_key}/repeater/node-info`
- `POST /contacts/{public_key}/repeater/radio-settings`
- `POST /contacts/{public_key}/repeater/advert-intervals`
- `POST /contacts/{public_key}/repeater/owner-info`
- `GET /api/contacts` - List from database
- `GET /api/contacts/{key}` - Get by public key or prefix
- `POST /api/contacts` - Create contact (optionally trigger historical DM decryption)
- `POST /api/contacts/sync` - Pull from radio to database
- `POST /api/contacts/{key}/add-to-radio` - Push to radio
- `POST /api/contacts/{key}/remove-from-radio` - Remove from radio
- `POST /api/contacts/{key}/mark-read` - Mark conversation as read (updates last_read_at)
- `POST /api/contacts/{key}/telemetry` - Request telemetry from repeater (see below)
### Channels
- `GET /channels`
- `GET /channels/{key}/detail`
- `POST /channels`
- `DELETE /channels/{key}`
- `POST /channels/{key}/flood-scope-override`
- `POST /channels/{key}/mark-read`
- `GET /api/channels` - List from database
- `GET /api/channels/{key}` - Get by channel key
- `POST /api/channels` - Create (hashtag if name starts with # or no key provided)
- `POST /api/channels/sync` - Pull from radio
- `POST /api/channels/{key}/mark-read` - Mark channel as read (updates last_read_at)
- `DELETE /api/channels/{key}` - Delete channel
### Read State
- `GET /api/read-state/unreads?name=X` - Server-computed unread counts, mention flags, and last message times
- `POST /api/read-state/mark-all-read` - Mark all contacts and channels as read
### Messages
- `GET /messages` — list with filters; supports `q` (full-text search), `after`/`after_id` (forward cursor)
- `GET /messages/around/{message_id}` — context messages around a target (for jump-to-message navigation)
- `POST /messages/direct`
- `POST /messages/channel`
- `POST /messages/channel/{message_id}/resend`
- `GET /api/messages?type=&conversation_key=&limit=&offset=` - List with filters
- `POST /api/messages/direct` - Send direct message
- `POST /api/messages/channel` - Send channel message
### Packets
- `GET /packets/undecrypted/count`
- `POST /packets/decrypt/historical`
- `POST /packets/maintenance`
### Read state
- `GET /read-state/unreads`
- `POST /read-state/mark-all-read`
- `GET /api/packets/undecrypted/count` - Count of undecrypted packets
- `POST /api/packets/decrypt/historical` - Try decrypting old packets with new key
### Settings
- `GET /settings`
- `PATCH /settings`
- `POST /settings/favorites/toggle`
- `POST /settings/blocked-keys/toggle`
- `POST /settings/blocked-names/toggle`
- `POST /settings/migrate`
### Fanout
- `GET /fanout` — list all fanout configs
- `POST /fanout` — create new fanout config
- `PATCH /fanout/{id}` — update fanout config (triggers module reload)
- `DELETE /fanout/{id}` — delete fanout config (stops module)
### Statistics
- `GET /statistics` — aggregated mesh network stats (entity counts, message/packet splits, activity windows, busiest channels)
- `GET /api/settings` - Get all app settings
- `PATCH /api/settings` - Update settings (max_radio_contacts, auto_decrypt_dm_on_advert, sidebar_sort_order)
- `POST /api/settings/favorites` - Add a favorite
- `DELETE /api/settings/favorites` - Remove a favorite
- `POST /api/settings/favorites/toggle` - Toggle favorite status
- `POST /api/settings/migrate` - One-time migration from frontend localStorage
### WebSocket
- `WS /ws`
- `WS /api/ws` - Real-time updates (health, contacts, channels, messages, raw packets)
## WebSocket Events
- `health` — radio connection status (broadcast on change, personal on connect)
- `contact` — single contact upsert (from advertisements and radio sync)
- `contact_resolved` — prefix contact reconciled to a full contact row (payload: `{ previous_public_key, contact }`)
- `message` — new message (channel or DM, from packet processor or send endpoints)
- `message_acked` — ACK/echo update for existing message (ack count + paths)
- `raw_packet` — every incoming RF packet (for real-time packet feed UI)
- `contact_deleted` — contact removed from database (payload: `{ public_key }`)
- `channel` — single channel upsert/update (payload: full `Channel`)
- `channel_deleted` — channel removed from database (payload: `{ key }`)
- `error` — toast notification (reconnect failure, missing private key, stuck radio startup, etc.)
- `success` — toast notification (historical decrypt complete, etc.)
Backend WS sends go through typed serialization in `events.py`. Initial WS connect sends `health` only. Contacts/channels are loaded by REST.
Client sends `"ping"` text; server replies `{"type":"pong"}`.
## Data Model Notes
Main tables:
- `contacts` (includes `first_seen` for contact age tracking and `out_path_hash_mode` for route round-tripping)
- `channels`
Includes optional `flood_scope_override` for channel-specific regional sends.
- `messages` (includes `sender_name`, `sender_key` for per-contact channel message attribution)
- `raw_packets`
- `contact_advert_paths` (recent unique advertisement paths per contact, keyed by contact + path bytes + hop count)
- `contact_name_history` (tracks name changes over time)
- `app_settings`
Repository writes should prefer typed models such as `ContactUpsert` over ad hoc dict payloads when adding or updating schema-coupled data.
`max_radio_contacts` is the configured radio contact capacity baseline. Favorites reload first, the app refills non-favorite working-set contacts to about 80% of that capacity, and periodic offload triggers once occupancy reaches about 95%.
`app_settings` fields in active model:
- `max_radio_contacts`
- `favorites`
- `auto_decrypt_dm_on_advert`
- `sidebar_sort_order`
- `last_message_times`
- `preferences_migrated`
- `advert_interval`
- `last_advert_time`
- `flood_scope`
- `blocked_keys`, `blocked_names`
Note: MQTT, community MQTT, and bot configs were migrated to the `fanout_configs` table (migrations 36-38).
## Security Posture (intentional)
- No authn/authz.
- No CORS restriction (`*`).
- Bot code executes user-provided Python via `exec()`.
These are product decisions for trusted-network deployments; do not flag as accidental vulnerabilities.
### Static Files (Production)
In production, the backend serves the frontend if `frontend/dist` exists. Users must build the
frontend first (`cd frontend && npm install && npm run build`):
- `/` - Serves `frontend/dist/index.html`
- `/assets/*` - Serves compiled JS/CSS from `frontend/dist/assets/`
- `/*` - Falls back to `index.html` for SPA routing
## Testing
Run backend tests:
Run tests with:
```bash
PYTHONPATH=. uv run pytest tests/ -v
```
Test suites:
Key test files:
- `tests/test_decoder.py` - Channel + direct message decryption, key exchange, real-world test vectors
- `tests/test_keystore.py` - Ephemeral key store operations
- `tests/test_event_handlers.py` - ACK tracking, repeat detection, CLI response filtering
- `tests/test_api.py` - API endpoint tests, read state tracking
- `tests/test_migrations.py` - Migration system, schema versioning
```text
tests/
├── conftest.py # Shared fixtures
├── test_ack_tracking_wiring.py # DM ACK tracking extraction and wiring
├── test_api.py # REST endpoint integration tests
├── test_bot.py # Bot execution and sandboxing
├── test_channels_router.py # Channels router endpoints
├── test_channel_sender_backfill.py # Sender-key backfill uniqueness rules for channel messages
├── test_config.py # Configuration validation
├── test_contact_reconciliation_service.py # Prefix/contact reconciliation service helpers
├── test_contacts_router.py # Contacts router endpoints
├── test_decoder.py # Packet parsing/decryption
├── test_disable_bots.py # MESHCORE_DISABLE_BOTS=true feature
├── test_echo_dedup.py # Echo/repeat deduplication (incl. concurrent)
├── test_fanout.py # Fanout bus CRUD, scope matching, manager dispatch
├── test_fanout_integration.py # Fanout integration tests
├── test_fanout_hitlist.py # Fanout-related hitlist regression tests
├── test_event_handlers.py # ACK tracking, event registration, cleanup
├── test_frontend_static.py # Frontend static file serving
├── test_health_mqtt_status.py # Health endpoint MQTT status field
├── test_http_quality.py # Cache-control / gzip / basic-auth HTTP quality checks
├── test_key_normalization.py # Public key normalization
├── test_keystore.py # Ephemeral keystore
├── test_message_pagination.py # Cursor-based message pagination
├── test_message_prefix_claim.py # Message prefix claim logic
├── test_migrations.py # Schema migration system
├── test_community_mqtt.py # Community MQTT publisher (JWT, packet format, hash, broadcast)
├── test_mqtt.py # MQTT publisher topic routing and lifecycle
├── test_packet_pipeline.py # End-to-end packet processing
├── test_packets_router.py # Packets router endpoints (decrypt, maintenance)
├── test_radio.py # RadioManager, serial detection
├── test_radio_commands_service.py # Radio config/private-key service workflows
├── test_radio_lifecycle_service.py # Reconnect/setup orchestration helpers
├── test_radio_runtime_service.py # radio_runtime seam behavior and helpers
├── test_real_crypto.py # Real cryptographic operations
├── test_radio_operation.py # radio_operation() context manager
├── test_radio_router.py # Radio router endpoints
├── test_radio_sync.py # Polling, sync, advertisement
├── test_repeater_routes.py # Repeater command/telemetry/trace + granular pane endpoints
├── test_repository.py # Data access layer
├── test_rx_log_data.py # on_rx_log_data event handler integration
├── test_messages_search.py # Message search, around, forward pagination
├── test_block_lists.py # Blocked keys/names filtering
├── test_security.py # Optional Basic Auth middleware / config behavior
├── test_send_messages.py # Outgoing messages, bot triggers, concurrent sends
├── test_settings_router.py # Settings endpoints, advert validation
├── test_statistics.py # Statistics aggregation
├── test_main_startup.py # App startup and lifespan
├── test_path_utils.py # Path hex rendering helpers
├── test_websocket.py # WS manager broadcast/cleanup
└── test_websocket_route.py # WS endpoint lifecycle
## Common Tasks
### Adding a New Endpoint
1. Create or update router in `app/routers/`
2. Define Pydantic models in `app/models.py` if needed
3. Add repository methods in `app/repository.py` for database operations
4. Register router in `app/main.py` if new file
5. Add tests in `tests/`
### Adding a New Event Handler
1. Define handler in `app/event_handlers.py`
2. Register in `register_event_handlers()` function
3. Broadcast updates via `ws_manager` as needed
### Working with Radio Commands
```python
# Available via radio_manager.meshcore.commands
await mc.commands.send_msg(dst, msg)
await mc.commands.send_chan_msg(chan, msg)
await mc.commands.get_contacts()
await mc.commands.add_contact(contact_dict)
await mc.commands.set_channel(idx, name, key)
await mc.commands.send_advert(flood=True)
```
## Errata & Known Non-Issues
## Repeater Telemetry
### Sender timestamps are 1-second resolution (protocol constraint)
The `POST /api/contacts/{key}/telemetry` endpoint fetches status, neighbors, and ACL from repeaters (contact type=2).
The MeshCore radio protocol encodes `sender_timestamp` as a 4-byte little-endian integer (Unix seconds). This is a firmware-level wire format — the radio, the Python library (`commands/messaging.py`), and the decoder (`decoder.py`) all read/write exactly 4 bytes. Millisecond Unix timestamps would overflow 4 bytes, so higher resolution is not possible without a firmware change.
### Request Flow
**Consequence:** The dedup index `(type, conversation_key, text, COALESCE(sender_timestamp, 0))` operates at 1-second granularity. Sending identical text to the same conversation twice within one second will hit the UNIQUE constraint on the second insert, returning HTTP 500 *after* the radio has already transmitted. The message is sent over the air but not stored in the database. Do not attempt to fix this by switching to millisecond timestamps — it will break echo dedup (the echo's 4-byte timestamp won't match the stored value) and overflow `to_bytes(4, "little")`.
1. Verify contact exists and is a repeater (type=2)
2. Add contact to radio with stored path data (from advertisements)
3. Send login with password
4. Request status with retries (3 attempts, 10s timeout)
5. Fetch neighbors with `fetch_all_neighbours()` (handles pagination)
6. Fetch ACL with `req_acl_sync()`
7. Resolve pubkey prefixes to contact names from database
### Outgoing DM echoes remain undecrypted
### ACL Permission Levels
When our own outgoing DM is heard back via `RX_LOG_DATA` (self-echo, loopback), `_process_direct_message` passes `our_public_key=None` for the outgoing direction, disabling the outbound hash check in the decoder. The decoder's inbound check (`src_hash == their_first_byte`) fails because the source is us, not the contact — so decryption returns `None`. This is by design: outgoing DMs are stored directly by the send endpoint, so no message is lost.
```python
ACL_PERMISSION_NAMES = {
0: "Guest",
1: "Read-only",
2: "Read-write",
3: "Admin",
}
```
### Infinite setup retry on connection monitor
### Response Models
When `post_connect_setup()` fails (e.g. `export_and_store_private_key` raises `RuntimeError` because the radio didn't respond), `_setup_complete` is never set to `True`. The connection monitor sees `connected and not setup_complete` and retries every 5 seconds — indefinitely. This is intentional: the radio may be rebooting, waking from sleep, or otherwise temporarily unresponsive. We keep retrying so that setup completes automatically once the radio becomes available, without requiring manual intervention.
```python
class NeighborInfo(BaseModel):
pubkey_prefix: str # 4-12 char prefix
name: str | None # Resolved contact name
snr: float # Signal-to-noise ratio in dB
last_heard_seconds: int # Seconds since last heard
### DELETE channel returns 200 for non-existent keys
class AclEntry(BaseModel):
pubkey_prefix: str # 12 char prefix
name: str | None # Resolved contact name
permission: int # 0-3
permission_name: str # Human-readable name
`DELETE /api/channels/{key}` returns `{"status": "ok"}` even if the key didn't exist. This is intentional — the postcondition is "channel doesn't exist," which is satisfied regardless of whether it existed before. No 404 needed.
class TelemetryResponse(BaseModel):
# Status fields
pubkey_prefix: str
battery_volts: float # Converted from mV
uptime_seconds: int
# ... signal quality, packet counts, etc.
### Contact lat/lon 0.0 vs NULL
# Related data
neighbors: list[NeighborInfo]
acl: list[AclEntry]
```
MeshCore uses `0.0` as the sentinel for "no GPS coordinates" (see `models.py` `to_radio_dict`). The upsert SQL uses `COALESCE(excluded.lat, contacts.lat)`, which preserves existing values when the new value is `NULL` — but `0.0` is not `NULL`, so it overwrites previously valid coordinates. This is intentional: we always want the most recent location data. If a device stops broadcasting GPS, the old coordinates are presumably stale/wrong, so overwriting with "not available" (`0.0`) is the correct behavior.
## Repeater CLI Commands
## Editing Checklist
After login via telemetry endpoint, you can send CLI commands to repeaters:
When changing backend behavior:
1. Update/add router and repository tests.
2. Confirm WS event contracts when payload shape changes.
3. Run `PYTHONPATH=. uv run pytest tests/ -v`.
4. If API contract changed, update frontend types and AGENTS docs.
### Endpoint
`POST /api/contacts/{key}/command` - Send a CLI command (assumes already logged in)
### Request/Response
```python
class CommandRequest(BaseModel):
command: str # CLI command to send
class CommandResponse(BaseModel):
command: str # Echo of sent command
response: str # Response from repeater
sender_timestamp: int | None # Timestamp from response
```
### Common Commands
```
get name / set name <value> # Repeater name
get tx / set tx <dbm> # TX power
get radio / set radio <freq,bw,sf,cr> # Radio params
tempradio <freq,bw,sf,cr,mins> # Temporary radio change
setperm <pubkey> <0-3> # ACL: 0=guest, 1=ro, 2=rw, 3=admin
clock / clock sync # Get/sync time
ver # Firmware version
reboot # Restart repeater
```
### CLI Response Filtering
CLI responses have `txt_type=1` (vs `txt_type=0` for normal messages). Both DM handling
paths filter these to prevent storage—the command endpoint returns the response directly.
**Packet processor path** (primary):
```python
# In create_dm_message_from_decrypted()
txt_type = decrypted.flags & 0x0F
if txt_type == 1:
return None # Skip CLI responses
```
**Event handler path** (fallback):
```python
# In on_contact_message()
txt_type = payload.get("txt_type", 0)
if txt_type == 1:
return # Skip CLI responses
```
### Helper Function
`prepare_repeater_connection()` handles the login dance:
1. Add contact to radio with stored path from DB (`out_path`, `out_path_len`)
2. Send login with password
3. Wait for key exchange to complete
### Contact Path Tracking
When advertisements are received, path data is extracted and stored:
- `last_path`: Hex string of routing path bytes
- `last_path_len`: Number of hops (-1=flood/unknown, 0=direct, >0=hops through repeaters)
**Shortest path selection**: When receiving echoed advertisements within 60 seconds, the shortest path is kept. This ensures we use the most efficient route when multiple paths exist.

303
app/bot.py Normal file
View File

@@ -0,0 +1,303 @@
"""
Bot execution module for automatic message responses.
This module provides functionality for executing user-defined Python code
in response to incoming messages. The user's code can process message data
and optionally return a response string or a list of strings.
SECURITY WARNING: This executes arbitrary Python code provided by the user.
It should only be enabled on trusted systems where the user understands
the security implications.
"""
import asyncio
import logging
import time
from concurrent.futures import ThreadPoolExecutor
from typing import Any
from fastapi import HTTPException
logger = logging.getLogger(__name__)
# Limit concurrent bot executions to prevent resource exhaustion
_bot_semaphore = asyncio.Semaphore(100)
# Dedicated thread pool for bot execution (separate from default executor)
_bot_executor = ThreadPoolExecutor(max_workers=100, thread_name_prefix="bot_")
# Timeout for bot code execution (seconds)
BOT_EXECUTION_TIMEOUT = 10
# Minimum spacing between bot message sends (seconds)
# This ensures repeaters have time to return to listening mode
BOT_MESSAGE_SPACING = 2.0
# Global state for rate limiting bot sends
_bot_send_lock = asyncio.Lock()
_last_bot_send_time: float = 0.0
def execute_bot_code(
code: str,
sender_name: str | None,
sender_key: str | None,
message_text: str,
is_dm: bool,
channel_key: str | None,
channel_name: str | None,
sender_timestamp: int | None,
path: str | None,
) -> str | list[str] | None:
"""
Execute user-provided bot code with message context.
The code should define a function:
`bot(sender_name, sender_key, message_text, is_dm, channel_key, channel_name, sender_timestamp, path)`
that returns either None (no response), a string (single response message),
or a list of strings (multiple messages sent in order).
Args:
code: Python code defining the bot function
sender_name: Display name of the sender (may be None)
sender_key: 64-char hex public key of sender for DMs, None for channel messages
message_text: The message content
is_dm: True for direct messages, False for channel messages
channel_key: 32-char hex channel key for channel messages, None for DMs
channel_name: Channel name (e.g. "#general" with hash), None for DMs
sender_timestamp: Sender's timestamp from the message (may be None)
path: Hex-encoded routing path (may be None)
Returns:
Response string, list of strings, or None.
Note: This executes arbitrary code. Only use with trusted input.
"""
if not code or not code.strip():
return None
# Build execution namespace with allowed imports
namespace: dict[str, Any] = {
"__builtins__": __builtins__,
}
try:
# Execute the user's code to define the bot function
exec(code, namespace)
except Exception as e:
logger.warning("Bot code compilation failed: %s", e)
return None
# Check if bot function was defined
if "bot" not in namespace or not callable(namespace["bot"]):
logger.debug("Bot code does not define a callable 'bot' function")
return None
bot_func = namespace["bot"]
try:
# Call the bot function with message context
result = bot_func(
sender_name,
sender_key,
message_text,
is_dm,
channel_key,
channel_name,
sender_timestamp,
path,
)
# Validate result
if result is None:
return None
if isinstance(result, str):
return result if result.strip() else None
if isinstance(result, list):
# Filter to non-empty strings only
valid_messages = [msg for msg in result if isinstance(msg, str) and msg.strip()]
return valid_messages if valid_messages else None
logger.debug("Bot function returned unsupported type: %s", type(result))
return None
except Exception as e:
logger.warning("Bot function execution failed: %s", e)
return None
async def process_bot_response(
response: str | list[str],
is_dm: bool,
sender_key: str,
channel_key: str | None,
) -> None:
"""
Send the bot's response message(s) using the existing message sending endpoints.
For DMs, sends a direct message back to the sender.
For channel messages, sends to the same channel.
Bot messages are rate-limited to ensure at least BOT_MESSAGE_SPACING seconds
between sends, giving repeaters time to return to listening mode.
Args:
response: The response text to send, or a list of messages to send in order
is_dm: Whether the original message was a DM
sender_key: Public key of the original sender (for DM replies)
channel_key: Channel key for channel message replies
"""
# Normalize to list for uniform processing
messages = [response] if isinstance(response, str) else response
for message_text in messages:
await _send_single_bot_message(message_text, is_dm, sender_key, channel_key)
async def _send_single_bot_message(
message_text: str,
is_dm: bool,
sender_key: str,
channel_key: str | None,
) -> None:
"""
Send a single bot message with rate limiting.
Args:
message_text: The message text to send
is_dm: Whether the original message was a DM
sender_key: Public key of the original sender (for DM replies)
channel_key: Channel key for channel message replies
"""
global _last_bot_send_time
from app.models import SendChannelMessageRequest, SendDirectMessageRequest
from app.routers.messages import send_channel_message, send_direct_message
from app.websocket import broadcast_event
# Serialize bot sends and enforce minimum spacing
async with _bot_send_lock:
# Calculate how long since last bot send
now = time.monotonic()
time_since_last = now - _last_bot_send_time
if _last_bot_send_time > 0 and time_since_last < BOT_MESSAGE_SPACING:
wait_time = BOT_MESSAGE_SPACING - time_since_last
logger.debug("Rate limiting bot send, waiting %.2fs", wait_time)
await asyncio.sleep(wait_time)
try:
if is_dm:
logger.info("Bot sending DM reply to %s", sender_key[:12])
request = SendDirectMessageRequest(destination=sender_key, text=message_text)
message = await send_direct_message(request)
# Broadcast to WebSocket (endpoint returns to HTTP caller, bot needs explicit broadcast)
broadcast_event("message", message.model_dump())
elif channel_key:
logger.info("Bot sending channel reply to %s", channel_key[:8])
request = SendChannelMessageRequest(channel_key=channel_key, text=message_text)
message = await send_channel_message(request)
# Broadcast to WebSocket
broadcast_event("message", message.model_dump())
else:
logger.warning("Cannot send bot response: no destination")
return # Don't update timestamp if we didn't send
except HTTPException as e:
logger.error("Bot failed to send response: %s", e.detail)
return # Don't update timestamp on failure
except Exception as e:
logger.error("Bot failed to send response: %s", e)
return # Don't update timestamp on failure
# Update last send time after successful send
_last_bot_send_time = time.monotonic()
async def run_bot_for_message(
sender_name: str | None,
sender_key: str | None,
message_text: str,
is_dm: bool,
channel_key: str | None,
channel_name: str | None = None,
sender_timestamp: int | None = None,
path: str | None = None,
is_outgoing: bool = False,
) -> None:
"""
Run all enabled bots for a message (incoming or outgoing).
This is the main entry point called by message handlers after
a message is successfully decrypted and stored. Bots run serially,
and errors in one bot don't prevent others from running.
Args:
sender_name: Display name of the sender
sender_key: 64-char hex public key of sender (DMs only, None for channels)
message_text: The message content
is_dm: True for direct messages, False for channel messages
channel_key: Channel key for channel messages
channel_name: Channel name (e.g. "#general"), None for DMs
sender_timestamp: Sender's timestamp from the message
path: Hex-encoded routing path
is_outgoing: Whether this is our own outgoing message
"""
# Early check if any bots are enabled (will re-check after sleep)
from app.repository import AppSettingsRepository
settings = await AppSettingsRepository.get()
enabled_bots = [b for b in settings.bots if b.enabled and b.code.strip()]
if not enabled_bots:
return
async with _bot_semaphore:
logger.debug(
"Running %d bot(s) for message from %s (is_dm=%s)",
len(enabled_bots),
sender_name or (sender_key[:12] if sender_key else "unknown"),
is_dm,
)
# Wait for the initiating message's retransmissions to propagate through the mesh
await asyncio.sleep(2)
# Re-check settings after sleep (user may have changed bot config)
settings = await AppSettingsRepository.get()
enabled_bots = [b for b in settings.bots if b.enabled and b.code.strip()]
if not enabled_bots:
logger.debug("All bots disabled during wait, skipping")
return
# Run each enabled bot serially
loop = asyncio.get_event_loop()
for bot in enabled_bots:
logger.debug("Executing bot '%s'", bot.name)
try:
response = await asyncio.wait_for(
loop.run_in_executor(
_bot_executor,
execute_bot_code,
bot.code,
sender_name,
sender_key,
message_text,
is_dm,
channel_key,
channel_name,
sender_timestamp,
path,
),
timeout=BOT_EXECUTION_TIMEOUT,
)
except asyncio.TimeoutError:
logger.warning(
"Bot '%s' execution timed out after %ds", bot.name, BOT_EXECUTION_TIMEOUT
)
continue # Continue to next bot
except Exception as e:
logger.warning("Bot '%s' execution error: %s", bot.name, e)
continue # Continue to next bot
# Send response if any
if response:
await process_bot_response(response, is_dm, sender_key or "", channel_key)

View File

@@ -1,10 +1,6 @@
import logging
import logging.config
from collections import deque
from threading import Lock
from typing import Literal
from pydantic import model_validator
from pydantic_settings import BaseSettings, SettingsConfigDict
@@ -13,201 +9,17 @@ class Settings(BaseSettings):
serial_port: str = "" # Empty string triggers auto-detection
serial_baudrate: int = 115200
tcp_host: str = ""
tcp_port: int = 4000
ble_address: str = ""
ble_pin: str = ""
log_level: Literal["DEBUG", "INFO", "WARNING", "ERROR"] = "INFO"
database_path: str = "data/meshcore.db"
disable_bots: bool = False
enable_message_poll_fallback: bool = False
force_channel_slot_reconfigure: bool = False
basic_auth_username: str = ""
basic_auth_password: str = ""
@model_validator(mode="after")
def validate_transport_exclusivity(self) -> "Settings":
transports_set = sum(
[
bool(self.serial_port),
bool(self.tcp_host),
bool(self.ble_address),
]
)
if transports_set > 1:
raise ValueError(
"Only one transport may be configured at a time. "
"Set exactly one of MESHCORE_SERIAL_PORT, MESHCORE_TCP_HOST, or MESHCORE_BLE_ADDRESS."
)
if self.ble_address and not self.ble_pin:
raise ValueError("MESHCORE_BLE_PIN is required when MESHCORE_BLE_ADDRESS is set.")
if self.basic_auth_partially_configured:
raise ValueError(
"MESHCORE_BASIC_AUTH_USERNAME and MESHCORE_BASIC_AUTH_PASSWORD "
"must be set together."
)
return self
@property
def connection_type(self) -> Literal["serial", "tcp", "ble"]:
if self.tcp_host:
return "tcp"
if self.ble_address:
return "ble"
return "serial"
@property
def basic_auth_enabled(self) -> bool:
return bool(self.basic_auth_username and self.basic_auth_password)
@property
def basic_auth_partially_configured(self) -> bool:
any_credentials_set = bool(self.basic_auth_username or self.basic_auth_password)
return any_credentials_set and not self.basic_auth_enabled
settings = Settings()
class _RingBufferLogHandler(logging.Handler):
"""Keep a bounded in-memory tail of formatted log lines."""
def __init__(self, max_lines: int = 1000) -> None:
super().__init__()
self._buffer: deque[str] = deque(maxlen=max_lines)
self._lock = Lock()
def emit(self, record: logging.LogRecord) -> None:
try:
line = self.format(record)
except Exception:
self.handleError(record)
return
with self._lock:
self._buffer.append(line)
def get_lines(self, limit: int = 1000) -> list[str]:
with self._lock:
if limit <= 0:
return []
return list(self._buffer)[-limit:]
def clear(self) -> None:
with self._lock:
self._buffer.clear()
_recent_log_handler = _RingBufferLogHandler(max_lines=1000)
def get_recent_log_lines(limit: int = 1000) -> list[str]:
"""Return recent formatted log lines from the in-memory ring buffer."""
return _recent_log_handler.get_lines(limit)
def clear_recent_log_lines() -> None:
"""Clear the in-memory log ring buffer."""
_recent_log_handler.clear()
class _RepeatSquelch(logging.Filter):
"""Suppress rapid-fire identical messages and emit a summary instead.
Attached to the ``meshcore`` library logger to catch its repeated
"Serial Connection started" lines that flood the log when another
process holds the serial port.
"""
def __init__(self, threshold: int = 3) -> None:
super().__init__()
self._last_msg: str | None = None
self._repeat_count: int = 0
self._threshold = threshold
def filter(self, record: logging.LogRecord) -> bool:
msg = record.getMessage()
if msg == self._last_msg:
self._repeat_count += 1
if self._repeat_count == self._threshold:
record.msg = (
"%s (repeated %d times — possible serial port contention from another process)"
)
record.args = (msg, self._repeat_count)
record.levelno = logging.WARNING
record.levelname = "WARNING"
return True
# Suppress further repeats beyond the threshold
return self._repeat_count < self._threshold
else:
self._last_msg = msg
self._repeat_count = 1
return True
def setup_logging() -> None:
"""Configure logging for the application."""
logging.config.dictConfig(
{
"version": 1,
"disable_existing_loggers": False,
"formatters": {
"default": {
"format": "%(asctime)s - %(name)s - %(levelname)s - %(message)s",
"datefmt": "%Y-%m-%d %H:%M:%S",
},
"uvicorn_access": {
"()": "uvicorn.logging.AccessFormatter",
"fmt": '%(asctime)s - %(name)s - %(levelname)s - %(client_addr)s - "%(request_line)s" %(status_code)s',
"datefmt": "%Y-%m-%d %H:%M:%S",
"use_colors": None,
},
},
"handlers": {
"default": {
"class": "logging.StreamHandler",
"formatter": "default",
},
"uvicorn_access": {
"class": "logging.StreamHandler",
"formatter": "uvicorn_access",
},
},
"root": {
"level": settings.log_level,
"handlers": ["default"],
},
"loggers": {
"uvicorn": {
"level": settings.log_level,
"handlers": ["default"],
"propagate": False,
},
"uvicorn.error": {
"level": settings.log_level,
"handlers": ["default"],
"propagate": False,
},
"uvicorn.access": {
"level": settings.log_level,
"handlers": ["uvicorn_access"],
"propagate": False,
},
},
}
logging.basicConfig(
level=settings.log_level,
format="%(asctime)s - %(name)s - %(levelname)s - %(message)s",
datefmt="%Y-%m-%d %H:%M:%S",
)
_recent_log_handler.setLevel(logging.DEBUG)
_recent_log_handler.setFormatter(
logging.Formatter(
fmt="%(asctime)s - %(name)s - %(levelname)s - %(message)s",
datefmt="%Y-%m-%d %H:%M:%S",
)
)
for logger_name in ("", "uvicorn", "uvicorn.error", "uvicorn.access"):
target = logging.getLogger(logger_name)
if _recent_log_handler not in target.handlers:
target.addHandler(_recent_log_handler)
# Squelch repeated messages from the meshcore library (e.g. rapid-fire
# "Serial Connection started" when the port is contended).
logging.getLogger("meshcore").addFilter(_RepeatSquelch())

View File

@@ -15,25 +15,19 @@ CREATE TABLE IF NOT EXISTS contacts (
flags INTEGER DEFAULT 0,
last_path TEXT,
last_path_len INTEGER DEFAULT -1,
out_path_hash_mode INTEGER DEFAULT 0,
route_override_path TEXT,
route_override_len INTEGER,
route_override_hash_mode INTEGER,
last_advert INTEGER,
lat REAL,
lon REAL,
last_seen INTEGER,
on_radio INTEGER DEFAULT 0,
last_contacted INTEGER,
first_seen INTEGER
last_contacted INTEGER
);
CREATE TABLE IF NOT EXISTS channels (
key TEXT PRIMARY KEY,
name TEXT NOT NULL,
is_hashtag INTEGER DEFAULT 0,
on_radio INTEGER DEFAULT 0,
flood_scope_override TEXT
on_radio INTEGER DEFAULT 0
);
CREATE TABLE IF NOT EXISTS messages (
@@ -48,13 +42,7 @@ CREATE TABLE IF NOT EXISTS messages (
signature TEXT,
outgoing INTEGER DEFAULT 0,
acked INTEGER DEFAULT 0,
sender_name TEXT,
sender_key TEXT
-- Deduplication: identical text + timestamp in the same conversation is treated as a
-- mesh echo/repeat. Outgoing sends allocate a collision-free sender_timestamp before
-- transmit so legitimate repeat sends do not collide with this index.
-- Enforced via idx_messages_dedup_null_safe (unique index) rather than a table constraint
-- to avoid the storage overhead of SQLite's autoindex duplicating every message text.
UNIQUE(type, conversation_key, text, sender_timestamp)
);
CREATE TABLE IF NOT EXISTS raw_packets (
@@ -62,43 +50,15 @@ CREATE TABLE IF NOT EXISTS raw_packets (
timestamp INTEGER NOT NULL,
data BLOB NOT NULL,
message_id INTEGER,
payload_hash BLOB,
payload_hash TEXT,
FOREIGN KEY (message_id) REFERENCES messages(id)
);
CREATE TABLE IF NOT EXISTS contact_advert_paths (
id INTEGER PRIMARY KEY AUTOINCREMENT,
public_key TEXT NOT NULL,
path_hex TEXT NOT NULL,
path_len INTEGER NOT NULL,
first_seen INTEGER NOT NULL,
last_seen INTEGER NOT NULL,
heard_count INTEGER NOT NULL DEFAULT 1,
UNIQUE(public_key, path_hex, path_len),
FOREIGN KEY (public_key) REFERENCES contacts(public_key)
);
CREATE TABLE IF NOT EXISTS contact_name_history (
id INTEGER PRIMARY KEY AUTOINCREMENT,
public_key TEXT NOT NULL,
name TEXT NOT NULL,
first_seen INTEGER NOT NULL,
last_seen INTEGER NOT NULL,
UNIQUE(public_key, name),
FOREIGN KEY (public_key) REFERENCES contacts(public_key)
);
CREATE INDEX IF NOT EXISTS idx_messages_conversation ON messages(type, conversation_key);
CREATE INDEX IF NOT EXISTS idx_messages_received ON messages(received_at);
CREATE UNIQUE INDEX IF NOT EXISTS idx_messages_dedup_null_safe
ON messages(type, conversation_key, text, COALESCE(sender_timestamp, 0));
CREATE INDEX IF NOT EXISTS idx_raw_packets_message_id ON raw_packets(message_id);
CREATE UNIQUE INDEX IF NOT EXISTS idx_raw_packets_payload_hash ON raw_packets(payload_hash);
CREATE INDEX IF NOT EXISTS idx_contacts_on_radio ON contacts(on_radio);
-- idx_messages_sender_key is created by migration 25 (after adding the sender_key column)
CREATE INDEX IF NOT EXISTS idx_contact_advert_paths_recent
ON contact_advert_paths(public_key, last_seen DESC);
CREATE INDEX IF NOT EXISTS idx_contact_name_history_key
ON contact_name_history(public_key, last_seen DESC);
"""
@@ -112,17 +72,6 @@ class Database:
Path(self.db_path).parent.mkdir(parents=True, exist_ok=True)
self._connection = await aiosqlite.connect(self.db_path)
self._connection.row_factory = aiosqlite.Row
# WAL mode: faster writes, concurrent readers during writes, no journal file churn.
# Persists in the DB file but we set it explicitly on every connection.
await self._connection.execute("PRAGMA journal_mode = WAL")
# Incremental auto-vacuum: freed pages are reclaimable via
# PRAGMA incremental_vacuum without a full VACUUM. Must be set before
# the first table is created (for new databases); for existing databases
# migration 20 handles the one-time VACUUM to restructure the file.
await self._connection.execute("PRAGMA auto_vacuum = INCREMENTAL")
await self._connection.executescript(SCHEMA)
await self._connection.commit()
logger.debug("Database schema initialized")

View File

@@ -79,10 +79,18 @@ class PacketInfo:
route_type: RouteType
payload_type: PayloadType
payload_version: int
path_length: int # Decoded hop count (not the raw wire byte)
path: bytes # The routing path bytes (empty if path_length is 0)
path_length: int
path: bytes # The routing path (empty if path_length is 0)
payload: bytes
path_hash_size: int = 1 # Bytes per hop: 1, 2, or 3
def calculate_channel_hash(channel_key: bytes) -> str:
"""
Calculate the channel hash from a 16-byte channel key.
Returns the first byte of SHA256(key) as hex.
"""
hash_bytes = hashlib.sha256(channel_key).digest()
return format(hash_bytes[0], "02x")
def extract_payload(raw_packet: bytes) -> bytes | None:
@@ -92,36 +100,86 @@ def extract_payload(raw_packet: bytes) -> bytes | None:
Packet structure:
- Byte 0: header (route_type, payload_type, version)
- For TRANSPORT routes: bytes 1-4 are transport codes
- Next byte: path byte (packed as [hash_mode:2][hop_count:6])
- Next hop_count * hash_size bytes: path data
- Next byte: path_length
- Next path_length bytes: path data
- Remaining: payload
Returns the payload bytes, or None if packet is malformed.
"""
from app.path_utils import parse_packet_envelope
if len(raw_packet) < 2:
return None
envelope = parse_packet_envelope(raw_packet)
return envelope.payload if envelope is not None else None
try:
header = raw_packet[0]
route_type = header & 0x03
offset = 1
# Skip transport codes if present (TRANSPORT_FLOOD=0, TRANSPORT_DIRECT=3)
if route_type in (0x00, 0x03):
if len(raw_packet) < offset + 4:
return None
offset += 4
# Get path length
if len(raw_packet) < offset + 1:
return None
path_length = raw_packet[offset]
offset += 1
# Skip path data
if len(raw_packet) < offset + path_length:
return None
offset += path_length
# Rest is payload
return raw_packet[offset:]
except (ValueError, IndexError):
return None
def parse_packet(raw_packet: bytes) -> PacketInfo | None:
"""Parse a raw packet and extract basic info."""
from app.path_utils import parse_packet_envelope
envelope = parse_packet_envelope(raw_packet)
if envelope is None:
if len(raw_packet) < 2:
return None
try:
header = raw_packet[0]
route_type = RouteType(header & 0x03)
payload_type = PayloadType((header >> 2) & 0x0F)
payload_version = (header >> 6) & 0x03
offset = 1
# Skip transport codes if present
if route_type in (RouteType.TRANSPORT_FLOOD, RouteType.TRANSPORT_DIRECT):
if len(raw_packet) < offset + 4:
return None
offset += 4
# Get path length
if len(raw_packet) < offset + 1:
return None
path_length = raw_packet[offset]
offset += 1
# Extract path data
if len(raw_packet) < offset + path_length:
return None
path = raw_packet[offset : offset + path_length]
offset += path_length
# Rest is payload
payload = raw_packet[offset:]
return PacketInfo(
route_type=RouteType(envelope.route_type),
payload_type=PayloadType(envelope.payload_type),
payload_version=envelope.payload_version,
path_length=envelope.hop_count,
path_hash_size=envelope.hash_size,
path=envelope.path,
payload=envelope.payload,
route_type=route_type,
payload_type=payload_type,
payload_version=payload_version,
path_length=path_length,
path=path,
payload=payload,
)
except ValueError:
except (ValueError, IndexError):
return None
@@ -224,7 +282,7 @@ def try_decrypt_packet_with_channel_key(
return None
packet_channel_hash = format(packet_info.payload[0], "02x")
expected_hash = format(hashlib.sha256(channel_key).digest()[0], "02x")
expected_hash = calculate_channel_hash(channel_key)
if packet_channel_hash != expected_hash:
return None
@@ -269,6 +327,7 @@ def parse_advertisement(payload: bytes) -> ParsedAdvertisement | None:
# Parse fixed-position fields
public_key = payload[0:32].hex()
timestamp = int.from_bytes(payload[32:36], byteorder="little")
# signature = payload[36:100] # Not currently verified
flags = payload[100]
# Parse flags
@@ -471,10 +530,8 @@ def decrypt_direct_message(payload: bytes, shared_secret: bytes) -> DecryptedDir
message_bytes = decrypted[5:]
try:
message_text = message_bytes.decode("utf-8")
# Truncate at first null terminator (consistent with channel message handling)
null_idx = message_text.find("\x00")
if null_idx >= 0:
message_text = message_text[:null_idx]
# Remove null terminator and any padding
message_text = message_text.rstrip("\x00")
except UnicodeDecodeError:
return None

View File

@@ -1,8 +1,15 @@
"""Shared dependencies for FastAPI routers."""
from app.services.radio_runtime import radio_runtime as radio_manager
from fastapi import HTTPException
from app.radio import radio_manager
def require_connected():
"""Dependency that ensures radio is connected and returns meshcore instance."""
return radio_manager.require_connected()
"""Dependency that ensures radio is connected and returns meshcore instance.
Raises HTTPException 503 if radio is not connected.
"""
if not radio_manager.is_connected or radio_manager.meshcore is None:
raise HTTPException(status_code=503, detail="Radio not connected")
return radio_manager.meshcore

View File

@@ -4,19 +4,9 @@ from typing import TYPE_CHECKING
from meshcore import EventType
from app.models import CONTACT_TYPE_REPEATER, Contact, ContactUpsert
from app.models import CONTACT_TYPE_REPEATER, Contact
from app.packet_processor import process_raw_packet
from app.repository import (
AmbiguousPublicKeyPrefixError,
ContactRepository,
)
from app.services import dm_ack_tracker
from app.services.contact_reconciliation import (
claim_prefix_messages_for_contact,
promote_prefix_contacts_for_contact,
record_contact_name_and_reconcile,
)
from app.services.messages import create_fallback_direct_message, increment_ack_and_broadcast
from app.repository import ContactRepository, MessageRepository
from app.websocket import broadcast_event
if TYPE_CHECKING:
@@ -27,18 +17,33 @@ logger = logging.getLogger(__name__)
# Track active subscriptions so we can unsubscribe before re-registering
# This prevents handler duplication after reconnects
_active_subscriptions: list["Subscription"] = []
_pending_acks = dm_ack_tracker._pending_acks
_buffered_acks = dm_ack_tracker._buffered_acks
def track_pending_ack(expected_ack: str, message_id: int, timeout_ms: int) -> bool:
"""Compatibility wrapper for pending DM ACK tracking."""
return dm_ack_tracker.track_pending_ack(expected_ack, message_id, timeout_ms)
# Track pending ACKs: expected_ack_code -> (message_id, timestamp, timeout_ms)
_pending_acks: dict[str, tuple[int, float, int]] = {}
def cleanup_expired_acks() -> None:
"""Compatibility wrapper for expiring stale DM ACK entries."""
dm_ack_tracker.cleanup_expired_acks()
def track_pending_ack(expected_ack: str, message_id: int, timeout_ms: int) -> None:
"""Track a pending ACK for a direct message."""
_pending_acks[expected_ack] = (message_id, time.time(), timeout_ms)
logger.debug(
"Tracking pending ACK %s for message %d (timeout %dms)",
expected_ack,
message_id,
timeout_ms,
)
def _cleanup_expired_acks() -> None:
"""Remove expired pending ACKs."""
now = time.time()
expired = []
for code, (_msg_id, created_at, timeout_ms) in _pending_acks.items():
if now - created_at > (timeout_ms / 1000) * 2: # 2x timeout as buffer
expired.append(code)
for code in expired:
del _pending_acks[code]
logger.debug("Expired pending ACK %s", code)
async def on_contact_message(event: "Event") -> None:
@@ -68,19 +73,12 @@ async def on_contact_message(event: "Event") -> None:
# Look up contact from database - use prefix lookup only if needed
# (get_by_key_or_prefix does exact match first, then prefix fallback)
try:
contact = await ContactRepository.get_by_key_or_prefix(sender_pubkey)
except AmbiguousPublicKeyPrefixError:
logger.warning(
"DM sender prefix '%s' is ambiguous; storing under prefix until full key is known",
sender_pubkey,
)
contact = None
contact = await ContactRepository.get_by_key_or_prefix(sender_pubkey)
if contact:
sender_pubkey = contact.public_key.lower()
# Promote any prefix-stored messages to this full key
await claim_prefix_messages_for_contact(public_key=sender_pubkey, log=logger)
await MessageRepository.claim_prefix_messages(sender_pubkey)
# Skip messages from repeaters - they only send CLI responses, not chat messages.
# CLI responses are handled by the command endpoint and txt_type filter above.
@@ -90,43 +88,21 @@ async def on_contact_message(event: "Event") -> None:
sender_pubkey[:12],
)
return
elif sender_pubkey:
placeholder_upsert = ContactUpsert(
public_key=sender_pubkey.lower(),
type=0,
last_seen=received_at,
last_contacted=received_at,
first_seen=received_at,
on_radio=False,
out_path_hash_mode=-1,
)
await ContactRepository.upsert(placeholder_upsert)
contact = await ContactRepository.get_by_key(sender_pubkey.lower())
if contact:
broadcast_event("contact", contact.model_dump())
# Try to create message - INSERT OR IGNORE handles duplicates atomically
# If the packet processor already stored this message, this returns None
ts = payload.get("sender_timestamp")
sender_timestamp = ts if ts is not None else received_at
sender_name = contact.name if contact else None
path = payload.get("path")
path_len = payload.get("path_len")
message = await create_fallback_direct_message(
conversation_key=sender_pubkey,
msg_id = await MessageRepository.create(
msg_type="PRIV",
text=payload.get("text", ""),
sender_timestamp=sender_timestamp,
conversation_key=sender_pubkey,
sender_timestamp=payload.get("sender_timestamp") or received_at,
received_at=received_at,
path=path,
path_len=path_len,
path=payload.get("path"),
txt_type=txt_type,
signature=payload.get("signature"),
sender_name=sender_name,
sender_key=sender_pubkey,
broadcast_fn=broadcast_event,
)
if message is None:
if msg_id is None:
# Already handled by packet processor (or exact duplicate) - nothing more to do
logger.debug("DM from %s already processed by packet processor", sender_pubkey[:12])
return
@@ -135,10 +111,47 @@ async def on_contact_message(event: "Event") -> None:
# (likely because private key export is not available)
logger.debug("DM from %s handled by event handler (fallback path)", sender_pubkey[:12])
# Build paths array for broadcast
path = payload.get("path")
paths = [{"path": path or "", "received_at": received_at}] if path is not None else None
# Broadcast the new message
broadcast_event(
"message",
{
"id": msg_id,
"type": "PRIV",
"conversation_key": sender_pubkey,
"text": payload.get("text", ""),
"sender_timestamp": payload.get("sender_timestamp"),
"received_at": received_at,
"paths": paths,
"txt_type": txt_type,
"signature": payload.get("signature"),
"outgoing": False,
"acked": 0,
},
)
# Update contact last_contacted (contact was already fetched above)
if contact:
await ContactRepository.update_last_contacted(sender_pubkey, received_at)
# Run bot if enabled
from app.bot import run_bot_for_message
await run_bot_for_message(
sender_name=contact.name if contact else None,
sender_key=sender_pubkey,
message_text=payload.get("text", ""),
is_dm=True,
channel_key=None,
channel_name=None,
sender_timestamp=payload.get("sender_timestamp"),
path=payload.get("path"),
is_outgoing=False,
)
async def on_rx_log_data(event: "Event") -> None:
"""Store raw RF packet data and process via centralized packet processor.
@@ -166,67 +179,15 @@ async def on_rx_log_data(event: "Event") -> None:
async def on_path_update(event: "Event") -> None:
"""Handle path update events."""
payload = event.payload
public_key = str(payload.get("public_key", "")).lower()
pubkey_prefix = str(payload.get("pubkey_prefix", "")).lower()
logger.debug("Path update for %s", payload.get("pubkey_prefix"))
contact: Contact | None = None
if public_key:
logger.debug("Path update for %s", public_key[:12])
contact = await ContactRepository.get_by_key(public_key)
elif pubkey_prefix:
# Legacy compatibility: older payloads may only include a prefix.
logger.debug("Path update for prefix %s", pubkey_prefix)
contact = await ContactRepository.get_by_key_prefix(pubkey_prefix)
else:
logger.debug("PATH_UPDATE missing public_key/pubkey_prefix, skipping")
return
pubkey_prefix = payload.get("pubkey_prefix", "")
path = payload.get("path", "")
path_len = payload.get("path_len", -1)
if not contact:
return
# PATH_UPDATE is a serial control push event from firmware (not an RF packet).
# Current meshcore payloads only include public_key for this event.
# RF route/path bytes are handled via RX_LOG_DATA -> process_raw_packet,
# so if path fields are absent here we treat this as informational only.
path = payload.get("path")
path_len = payload.get("path_len")
path_hash_mode = payload.get("path_hash_mode")
if path is None or path_len is None:
logger.debug(
"PATH_UPDATE for %s has no path payload, skipping DB update", contact.public_key[:12]
)
return
try:
normalized_path_len = int(path_len)
except (TypeError, ValueError):
logger.warning(
"Invalid path_len in PATH_UPDATE for %s: %r", contact.public_key[:12], path_len
)
return
normalized_path_hash_mode: int | None
if path_hash_mode is None:
# Legacy firmware/library payloads only support 1-byte hop hashes.
normalized_path_hash_mode = -1 if normalized_path_len == -1 else 0
else:
normalized_path_hash_mode = None
try:
normalized_path_hash_mode = int(path_hash_mode)
except (TypeError, ValueError):
logger.warning(
"Invalid path_hash_mode in PATH_UPDATE for %s: %r",
contact.public_key[:12],
path_hash_mode,
)
normalized_path_hash_mode = None
await ContactRepository.update_path(
contact.public_key,
str(path),
normalized_path_len,
normalized_path_hash_mode,
)
existing = await ContactRepository.get_by_key_prefix(pubkey_prefix)
if existing:
await ContactRepository.update_path(existing.public_key, path, path_len)
async def on_new_contact(event: "Event") -> None:
@@ -244,42 +205,13 @@ async def on_new_contact(event: "Event") -> None:
logger.debug("New contact: %s", public_key[:12])
contact_upsert = ContactUpsert.from_radio_dict(public_key.lower(), payload, on_radio=False)
contact_upsert.last_seen = int(time.time())
await ContactRepository.upsert(contact_upsert)
promoted_keys = await promote_prefix_contacts_for_contact(
public_key=public_key,
log=logger,
)
contact_data = {
**Contact.from_radio_dict(public_key, payload, on_radio=True),
"last_seen": int(time.time()),
}
await ContactRepository.upsert(contact_data)
adv_name = payload.get("adv_name")
await record_contact_name_and_reconcile(
public_key=public_key,
contact_name=adv_name,
timestamp=int(time.time()),
log=logger,
)
# Read back from DB so the broadcast includes all fields (last_contacted,
# last_read_at, etc.) matching the REST Contact shape exactly.
db_contact = await ContactRepository.get_by_key(public_key)
broadcast_event(
"contact",
(
db_contact.model_dump()
if db_contact
else Contact(**contact_upsert.model_dump(exclude_none=True)).model_dump()
),
)
if db_contact:
for old_key in promoted_keys:
broadcast_event(
"contact_resolved",
{
"previous_public_key": old_key,
"contact": db_contact.model_dump(),
},
)
broadcast_event("contact", contact_data)
async def on_ack(event: "Event") -> None:
@@ -293,17 +225,15 @@ async def on_ack(event: "Event") -> None:
logger.debug("Received ACK with code %s", ack_code)
cleanup_expired_acks()
_cleanup_expired_acks()
message_id = dm_ack_tracker.pop_pending_ack(ack_code)
if message_id is not None:
if ack_code in _pending_acks:
message_id, _, _ = _pending_acks.pop(ack_code)
logger.info("ACK received for message %d", message_id)
# DM ACKs don't carry path data, so paths is intentionally omitted.
# The frontend's mergePendingAck handles the missing field correctly,
# preserving any previously known paths.
await increment_ack_and_broadcast(message_id=message_id, broadcast_fn=broadcast_event)
ack_count = await MessageRepository.increment_ack_count(message_id)
broadcast_event("message_acked", {"message_id": message_id, "ack_count": ack_count})
else:
dm_ack_tracker.buffer_unmatched_ack(ack_code)
logger.debug("ACK code %s does not match any pending messages", ack_code)

View File

@@ -1,115 +0,0 @@
"""Typed WebSocket event contracts and serialization helpers."""
import json
import logging
from typing import Any, Literal
from pydantic import TypeAdapter
from typing_extensions import NotRequired, TypedDict
from app.models import Channel, Contact, Message, MessagePath, RawPacketBroadcast
from app.routers.health import HealthResponse
logger = logging.getLogger(__name__)
WsEventType = Literal[
"health",
"message",
"contact",
"contact_resolved",
"channel",
"contact_deleted",
"channel_deleted",
"raw_packet",
"message_acked",
"error",
"success",
]
class ContactDeletedPayload(TypedDict):
public_key: str
class ContactResolvedPayload(TypedDict):
previous_public_key: str
contact: Contact
class ChannelDeletedPayload(TypedDict):
key: str
class MessageAckedPayload(TypedDict):
message_id: int
ack_count: int
paths: NotRequired[list[MessagePath]]
class ToastPayload(TypedDict):
message: str
details: NotRequired[str]
WsEventPayload = (
HealthResponse
| Message
| Contact
| ContactResolvedPayload
| Channel
| ContactDeletedPayload
| ChannelDeletedPayload
| RawPacketBroadcast
| MessageAckedPayload
| ToastPayload
)
_PAYLOAD_ADAPTERS: dict[WsEventType, TypeAdapter[Any]] = {
"health": TypeAdapter(HealthResponse),
"message": TypeAdapter(Message),
"contact": TypeAdapter(Contact),
"contact_resolved": TypeAdapter(ContactResolvedPayload),
"channel": TypeAdapter(Channel),
"contact_deleted": TypeAdapter(ContactDeletedPayload),
"channel_deleted": TypeAdapter(ChannelDeletedPayload),
"raw_packet": TypeAdapter(RawPacketBroadcast),
"message_acked": TypeAdapter(MessageAckedPayload),
"error": TypeAdapter(ToastPayload),
"success": TypeAdapter(ToastPayload),
}
def validate_ws_event_payload(event_type: str, data: Any) -> WsEventPayload | Any:
"""Validate known WebSocket payloads; pass unknown events through unchanged."""
adapter = _PAYLOAD_ADAPTERS.get(event_type) # type: ignore[arg-type]
if adapter is None:
return data
return adapter.validate_python(data)
def dump_ws_event(event_type: str, data: Any) -> str:
"""Serialize a WebSocket event envelope with validation for known event types."""
adapter = _PAYLOAD_ADAPTERS.get(event_type) # type: ignore[arg-type]
if adapter is None:
return json.dumps({"type": event_type, "data": data})
try:
validated = adapter.validate_python(data)
payload = adapter.dump_python(validated, mode="json")
return json.dumps({"type": event_type, "data": payload})
except Exception:
logger.exception(
"Failed to validate WebSocket payload for event %s; falling back to raw JSON envelope",
event_type,
)
return json.dumps({"type": event_type, "data": data})
def dump_ws_event_payload(event_type: str, data: Any) -> Any:
"""Return the JSON-serializable payload for a WebSocket event."""
adapter = _PAYLOAD_ADAPTERS.get(event_type) # type: ignore[arg-type]
if adapter is None:
return data
validated = adapter.validate_python(data)
return adapter.dump_python(validated, mode="json")

View File

@@ -1,295 +0,0 @@
# Fanout Bus Architecture
The fanout bus is a unified system for dispatching mesh radio events (decoded messages and raw packets) to external integrations. It replaces the previous scattered singleton MQTT publishers with a modular, configurable framework.
## Core Concepts
### FanoutModule (base.py)
Base class that all integration modules extend:
- `__init__(config_id, config, *, name="")` — constructor; receives the config UUID, the type-specific config dict, and the user-assigned name
- `start()` / `stop()` — async lifecycle (e.g. open/close connections)
- `on_message(data)` — receive decoded messages (DM/channel)
- `on_raw(data)` — receive raw RF packets
- `status` property (**must override**) — return `"connected"`, `"disconnected"`, or `"error"`
### FanoutManager (manager.py)
Singleton that owns all active modules and dispatches events:
- `load_from_db()` — startup: load enabled configs, instantiate modules
- `reload_config(id)` — CRUD: stop old, start new
- `remove_config(id)` — delete: stop and remove
- `broadcast_message(data)` — scope-check + dispatch `on_message`
- `broadcast_raw(data)` — scope-check + dispatch `on_raw`
- `stop_all()` — shutdown
- `get_statuses()` — health endpoint data
All modules are constructed uniformly: `cls(config_id, config_blob, name=cfg.get("name", ""))`.
### Scope Matching
Each config has a `scope` JSON blob controlling what events reach it:
```json
{"messages": "all", "raw_packets": "all"}
{"messages": "none", "raw_packets": "all"}
{"messages": {"channels": ["key1"], "contacts": "all"}, "raw_packets": "none"}
```
Community MQTT always enforces `{"messages": "none", "raw_packets": "all"}`.
## Event Flow
```
Radio Event -> packet_processor / event_handler
-> broadcast_event("message"|"raw_packet", data, realtime=True)
-> WebSocket broadcast (always)
-> FanoutManager.broadcast_message/raw (only if realtime=True)
-> scope check per module
-> module.on_message / on_raw
```
Setting `realtime=False` (used during historical decryption) skips fanout dispatch entirely.
## Current Module Types
### mqtt_private (mqtt_private.py)
Wraps `MqttPublisher` from `app/fanout/mqtt.py`. Config blob:
- `broker_host`, `broker_port`, `username`, `password`
- `use_tls`, `tls_insecure`, `topic_prefix`
### mqtt_community (mqtt_community.py)
Wraps `CommunityMqttPublisher` from `app/fanout/community_mqtt.py`. Config blob:
- `broker_host`, `broker_port`, `iata`, `email`
- Only publishes raw packets (on_message is a no-op)
- The published `raw` field is always the original packet hex.
- When a direct packet includes a `path` field, it is emitted as comma-separated hop identifiers exactly as the packet reports them. Token width varies with the packet's path hash mode (`1`, `2`, or `3` bytes per hop); there is no legacy flat per-byte companion field.
### bot (bot.py)
Wraps bot code execution via `app/fanout/bot_exec.py`. Config blob:
- `code` — Python bot function source code
- Executes in a thread pool with timeout and semaphore concurrency control
- Rate-limits outgoing messages for repeater compatibility
### webhook (webhook.py)
HTTP webhook delivery. Config blob:
- `url`, `method` (POST/PUT/PATCH)
- `hmac_secret` (optional) — when set, each request includes an HMAC-SHA256 signature of the JSON body
- `hmac_header` (optional, default `X-Webhook-Signature`) — header name for the signature (value format: `sha256=<hex>`)
- `headers` — arbitrary extra headers (JSON object)
### apprise (apprise_mod.py)
Push notifications via Apprise library. Config blob:
- `urls` — newline-separated Apprise notification service URLs
- `preserve_identity` — suppress Discord webhook name/avatar override
- `include_path` — include routing path in notification body
### sqs (sqs.py)
Amazon SQS delivery. Config blob:
- `queue_url` — target queue URL
- `region_name` (optional; inferred from standard AWS SQS queue URLs when omitted), `endpoint_url` (optional)
- `access_key_id`, `secret_access_key`, `session_token` (all optional; blank uses the normal AWS credential chain)
- Publishes a JSON envelope of the form `{"event_type":"message"|"raw_packet","data":...}`
- Supports both decoded messages and raw packets via normal scope selection
## Adding a New Integration Type
### Step-by-step checklist
#### 1. Backend module (`app/fanout/my_type.py`)
Create a class extending `FanoutModule`:
```python
from app.fanout.base import FanoutModule
class MyTypeModule(FanoutModule):
def __init__(self, config_id: str, config: dict, *, name: str = "") -> None:
super().__init__(config_id, config, name=name)
# Initialize module-specific state
async def start(self) -> None:
"""Open connections, create clients, etc."""
async def stop(self) -> None:
"""Close connections, clean up resources."""
async def on_message(self, data: dict) -> None:
"""Handle decoded messages. Omit if not needed."""
async def on_raw(self, data: dict) -> None:
"""Handle raw packets. Omit if not needed."""
@property
def status(self) -> str:
"""Required. Return 'connected', 'disconnected', or 'error'."""
...
```
Constructor requirements:
- Must accept `config_id: str, config: dict, *, name: str = ""`
- Must forward `name` to super: `super().__init__(config_id, config, name=name)`
#### 2. Register in manager (`app/fanout/manager.py`)
Add import and mapping in `_register_module_types()`:
```python
from app.fanout.my_type import MyTypeModule
_MODULE_TYPES["my_type"] = MyTypeModule
```
#### 3. Router changes (`app/routers/fanout.py`)
Three changes needed:
**a)** Add to `_VALID_TYPES` set:
```python
_VALID_TYPES = {"mqtt_private", "mqtt_community", "bot", "webhook", "apprise", "sqs", "my_type"}
```
**b)** Add a validation function:
```python
def _validate_my_type_config(config: dict) -> None:
"""Validate my_type config blob."""
if not config.get("some_required_field"):
raise HTTPException(status_code=400, detail="some_required_field is required")
```
**c)** Wire validation into both `create_fanout_config` and `update_fanout_config` — add an `elif` to the validation block in each:
```python
elif body.type == "my_type":
_validate_my_type_config(body.config)
```
Note: validation only runs when the config will be enabled (disabled configs are treated as drafts).
**d)** Add scope enforcement in `_enforce_scope()` if the type has fixed scope constraints (e.g. raw_packets always none). Otherwise it falls through to the `mqtt_private` default which allows both messages and raw_packets to be configurable.
#### 4. Frontend editor component (`SettingsFanoutSection.tsx`)
Four changes needed in this single file:
**a)** Add to `TYPE_LABELS` and `TYPE_OPTIONS` at the top:
```tsx
const TYPE_LABELS: Record<string, string> = {
// ... existing entries ...
my_type: 'My Type',
};
const TYPE_OPTIONS = [
// ... existing entries ...
{ value: 'my_type', label: 'My Type' },
];
```
**b)** Create an editor component (follows the same pattern as existing editors):
```tsx
function MyTypeConfigEditor({
config,
scope,
onChange,
onScopeChange,
}: {
config: Record<string, unknown>;
scope: Record<string, unknown>;
onChange: (config: Record<string, unknown>) => void;
onScopeChange: (scope: Record<string, unknown>) => void;
}) {
return (
<div className="space-y-3">
{/* Type-specific config fields */}
<Separator />
<ScopeSelector scope={scope} onChange={onScopeChange} />
</div>
);
}
```
If your type does NOT have user-configurable scope (like bot or community MQTT), omit the `scope`/`onScopeChange` props and the `ScopeSelector`.
The `ScopeSelector` component is defined within the same file. It accepts an optional `showRawPackets` prop:
- **Without `showRawPackets`** (webhook, apprise): shows message scope only (all/only/except — no "none" option since that would make the integration a no-op). A warning appears when the effective selection matches nothing.
- **With `showRawPackets`** (private MQTT): adds a "Forward raw packets" toggle and includes the "No messages" option (valid when raw packets are enabled). The warning appears only when both raw packets and messages are effectively disabled.
**c)** Add default config and scope in `handleAddCreate`:
```tsx
const defaults: Record<string, Record<string, unknown>> = {
// ... existing entries ...
my_type: { some_field: '', other_field: true },
};
const defaultScopes: Record<string, Record<string, unknown>> = {
// ... existing entries ...
my_type: { messages: 'all', raw_packets: 'none' },
};
```
**d)** Wire the editor into the detail view's conditional render block:
```tsx
{editingConfig.type === 'my_type' && (
<MyTypeConfigEditor
config={editConfig}
scope={editScope}
onChange={setEditConfig}
onScopeChange={setEditScope}
/>
)}
```
#### 5. Tests
**Backend integration tests** (`tests/test_fanout_integration.py`):
- Test that a configured + enabled module receives messages via `FanoutManager.broadcast_message`
- Test scope filtering (all, none, selective)
- Test that a disabled module does not receive messages
**Backend unit tests** (`tests/test_fanout_hitlist.py` or a dedicated file):
- Test config validation (required fields, bad values)
- Test module-specific logic in isolation
**Frontend tests** (`frontend/src/test/fanoutSection.test.tsx`):
- The existing suite covers the list/edit/create flow generically. If your editor has special behavior, add specific test cases.
#### Summary of files to touch
| File | Change |
|------|--------|
| `app/fanout/my_type.py` | New module class |
| `app/fanout/manager.py` | Import + register in `_register_module_types()` |
| `app/routers/fanout.py` | `_VALID_TYPES` + validator function + scope enforcement |
| `frontend/.../SettingsFanoutSection.tsx` | `TYPE_LABELS` + `TYPE_OPTIONS` + editor component + defaults + detail view wiring |
| `tests/test_fanout_integration.py` | Integration tests |
## REST API
| Method | Endpoint | Description |
|--------|----------|-------------|
| GET | `/api/fanout` | List all fanout configs |
| POST | `/api/fanout` | Create new config |
| PATCH | `/api/fanout/{id}` | Update config (triggers module reload) |
| DELETE | `/api/fanout/{id}` | Delete config (stops module) |
## Database
`fanout_configs` table:
- `id` TEXT PRIMARY KEY
- `type`, `name`, `enabled`, `config` (JSON), `scope` (JSON)
- `sort_order`, `created_at`
Migrations:
- **36**: Creates `fanout_configs` table, migrates existing MQTT settings from `app_settings`
- **37**: Migrates bot configs from `app_settings.bots` JSON column into fanout rows
- **38**: Drops legacy `mqtt_*`, `community_mqtt_*`, and `bots` columns from `app_settings`
## Key Files
- `app/fanout/base.py` — FanoutModule base class
- `app/fanout/manager.py` — FanoutManager singleton
- `app/fanout/mqtt_base.py` — BaseMqttPublisher ABC (shared MQTT connection loop)
- `app/fanout/mqtt.py` — MqttPublisher (private MQTT publishing)
- `app/fanout/community_mqtt.py` — CommunityMqttPublisher (community MQTT with JWT auth)
- `app/fanout/mqtt_private.py` — Private MQTT fanout module
- `app/fanout/mqtt_community.py` — Community MQTT fanout module
- `app/fanout/bot.py` — Bot fanout module
- `app/fanout/bot_exec.py` — Bot code execution, response processing, rate limiting
- `app/fanout/webhook.py` — Webhook fanout module
- `app/fanout/apprise_mod.py` — Apprise fanout module
- `app/fanout/sqs.py` — Amazon SQS fanout module
- `app/repository/fanout.py` — Database CRUD
- `app/routers/fanout.py` — REST API
- `app/websocket.py``broadcast_event()` dispatches to fanout
- `frontend/src/components/settings/SettingsFanoutSection.tsx` — UI

View File

@@ -1,8 +0,0 @@
from app.fanout.base import FanoutModule
from app.fanout.manager import FanoutManager, fanout_manager
__all__ = [
"FanoutManager",
"FanoutModule",
"fanout_manager",
]

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@@ -1,130 +0,0 @@
"""Fanout module for Apprise push notifications."""
from __future__ import annotations
import asyncio
import logging
from urllib.parse import parse_qsl, urlencode, urlsplit, urlunsplit
from app.fanout.base import FanoutModule
from app.path_utils import split_path_hex
logger = logging.getLogger(__name__)
def _parse_urls(raw: str) -> list[str]:
"""Split multi-line URL string into individual URLs."""
return [line.strip() for line in raw.splitlines() if line.strip()]
def _normalize_discord_url(url: str) -> str:
"""Add avatar=no to Discord URLs to suppress identity override."""
parts = urlsplit(url)
scheme = parts.scheme.lower()
host = parts.netloc.lower()
is_discord = scheme in ("discord", "discords") or (
scheme in ("http", "https")
and host in ("discord.com", "discordapp.com")
and parts.path.lower().startswith("/api/webhooks/")
)
if not is_discord:
return url
query = dict(parse_qsl(parts.query, keep_blank_values=True))
query["avatar"] = "no"
return urlunsplit((parts.scheme, parts.netloc, parts.path, urlencode(query), parts.fragment))
def _format_body(data: dict, *, include_path: bool) -> str:
"""Build a human-readable notification body from message data."""
msg_type = data.get("type", "")
text = data.get("text", "")
sender_name = data.get("sender_name") or "Unknown"
via = ""
if include_path:
paths = data.get("paths")
if paths and isinstance(paths, list) and len(paths) > 0:
first_path = paths[0] if isinstance(paths[0], dict) else {}
path_str = first_path.get("path", "")
path_len = first_path.get("path_len")
else:
path_str = None
path_len = None
if msg_type == "PRIV" and path_str is None:
via = " **via:** [`direct`]"
elif path_str is not None:
path_str = path_str.strip().lower()
if path_str == "":
via = " **via:** [`direct`]"
else:
hop_count = path_len if isinstance(path_len, int) else len(path_str) // 2
hops = split_path_hex(path_str, hop_count)
if hops:
hop_list = ", ".join(f"`{h}`" for h in hops)
via = f" **via:** [{hop_list}]"
if msg_type == "PRIV":
return f"**DM:** {sender_name}: {text}{via}"
channel_name = data.get("channel_name") or data.get("conversation_key", "channel")
return f"**{channel_name}:** {sender_name}: {text}{via}"
def _send_sync(urls_raw: str, body: str, *, preserve_identity: bool) -> bool:
"""Send notification synchronously via Apprise. Returns True on success."""
import apprise as apprise_lib
urls = _parse_urls(urls_raw)
if not urls:
return False
notifier = apprise_lib.Apprise()
for url in urls:
if preserve_identity:
url = _normalize_discord_url(url)
notifier.add(url)
return bool(notifier.notify(title="", body=body))
class AppriseModule(FanoutModule):
"""Sends push notifications via Apprise for incoming messages."""
def __init__(self, config_id: str, config: dict, *, name: str = "") -> None:
super().__init__(config_id, config, name=name)
self._last_error: str | None = None
async def on_message(self, data: dict) -> None:
# Skip outgoing messages — only notify on incoming
if data.get("outgoing"):
return
urls = self.config.get("urls", "")
if not urls or not urls.strip():
return
preserve_identity = self.config.get("preserve_identity", True)
include_path = self.config.get("include_path", True)
body = _format_body(data, include_path=include_path)
try:
success = await asyncio.to_thread(
_send_sync, urls, body, preserve_identity=preserve_identity
)
self._last_error = None if success else "Apprise notify returned failure"
if not success:
logger.warning("Apprise notification failed for module %s", self.config_id)
except Exception as exc:
self._last_error = str(exc)
logger.exception("Apprise send error for module %s", self.config_id)
@property
def status(self) -> str:
if not self.config.get("urls", "").strip():
return "disconnected"
if self._last_error:
return "error"
return "connected"

View File

@@ -1,35 +0,0 @@
"""Base class for fanout integration modules."""
from __future__ import annotations
class FanoutModule:
"""Base class for all fanout integrations.
Each module wraps a specific integration (MQTT, webhook, etc.) and
receives dispatched messages/packets from the FanoutManager.
Subclasses must override the ``status`` property.
"""
def __init__(self, config_id: str, config: dict, *, name: str = "") -> None:
self.config_id = config_id
self.config = config
self.name = name
async def start(self) -> None:
"""Start the module (e.g. connect to broker). Override for persistent connections."""
async def stop(self) -> None:
"""Stop the module (e.g. disconnect from broker)."""
async def on_message(self, data: dict) -> None:
"""Called for decoded messages (DM/channel). Override if needed."""
async def on_raw(self, data: dict) -> None:
"""Called for raw RF packets. Override if needed."""
@property
def status(self) -> str:
"""Return 'connected', 'disconnected', or 'error'."""
raise NotImplementedError

View File

@@ -1,179 +0,0 @@
"""Fanout module wrapping bot execution logic."""
from __future__ import annotations
import asyncio
import logging
from app.fanout.base import FanoutModule
logger = logging.getLogger(__name__)
def _derive_path_bytes_per_hop(paths: object, path_value: str | None) -> int | None:
"""Derive hop width from the first serialized message path when possible."""
if not isinstance(path_value, str) or not path_value:
return None
if not isinstance(paths, list) or not paths:
return None
first_path = paths[0]
if not isinstance(first_path, dict):
return None
path_hops = first_path.get("path_len")
if not isinstance(path_hops, int) or path_hops <= 0:
return None
path_hex_chars = len(path_value)
if path_hex_chars % 2 != 0:
return None
path_bytes = path_hex_chars // 2
if path_bytes % path_hops != 0:
return None
hop_width = path_bytes // path_hops
if hop_width not in (1, 2, 3):
return None
return hop_width
class BotModule(FanoutModule):
"""Wraps a single bot's code execution and response routing.
Each BotModule represents one bot configuration. It receives decoded
messages via ``on_message``, executes the bot's Python code in a
background task (after a 2-second settle delay), and sends any response
back through the radio.
"""
def __init__(self, config_id: str, config: dict, *, name: str = "Bot") -> None:
super().__init__(config_id, config, name=name)
self._tasks: set[asyncio.Task] = set()
self._active = True
async def stop(self) -> None:
self._active = False
for task in self._tasks:
task.cancel()
# Wait briefly for tasks to acknowledge cancellation
if self._tasks:
await asyncio.gather(*self._tasks, return_exceptions=True)
self._tasks.clear()
async def on_message(self, data: dict) -> None:
"""Kick off bot execution in a background task so we don't block dispatch."""
task = asyncio.create_task(self._run_for_message(data))
self._tasks.add(task)
task.add_done_callback(self._tasks.discard)
async def _run_for_message(self, data: dict) -> None:
from app.fanout.bot_exec import (
BOT_EXECUTION_TIMEOUT,
execute_bot_code,
process_bot_response,
)
code = self.config.get("code", "")
if not code or not code.strip():
return
msg_type = data.get("type", "")
is_dm = msg_type == "PRIV"
conversation_key = data.get("conversation_key", "")
logger.debug(
"Bot '%s' starting for type=%s conversation=%s outgoing=%s",
self.name,
msg_type or "unknown",
conversation_key[:12] if conversation_key else "(none)",
bool(data.get("outgoing", False)),
)
# Extract bot parameters from broadcast data
if is_dm:
sender_key = data.get("sender_key") or conversation_key
is_outgoing = data.get("outgoing", False)
message_text = data.get("text", "")
channel_key = None
channel_name = None
# Outgoing DMs: sender is us, not the contact
if is_outgoing:
sender_name = None
else:
sender_name = data.get("sender_name")
if sender_name is None:
from app.repository import ContactRepository
contact = await ContactRepository.get_by_key(conversation_key)
sender_name = contact.name if contact else None
else:
sender_key = None
is_outgoing = bool(data.get("outgoing", False))
sender_name = data.get("sender_name")
channel_key = conversation_key
channel_name = data.get("channel_name")
if channel_name is None:
from app.repository import ChannelRepository
channel = await ChannelRepository.get_by_key(conversation_key)
channel_name = channel.name if channel else None
# Strip "sender: " prefix from channel message text
text = data.get("text", "")
if sender_name and text.startswith(f"{sender_name}: "):
message_text = text[len(f"{sender_name}: ") :]
else:
message_text = text
sender_timestamp = data.get("sender_timestamp")
path_value = data.get("path")
paths = data.get("paths")
# Message model serializes paths as list of dicts; extract first path string
if path_value is None and paths and isinstance(paths, list) and len(paths) > 0:
path_value = paths[0].get("path") if isinstance(paths[0], dict) else None
path_bytes_per_hop = _derive_path_bytes_per_hop(paths, path_value)
# Wait for message to settle (allows retransmissions to be deduped)
await asyncio.sleep(2)
# Execute bot code in thread pool with timeout
from app.fanout.bot_exec import _bot_executor, _bot_semaphore
async with _bot_semaphore:
loop = asyncio.get_running_loop()
try:
response = await asyncio.wait_for(
loop.run_in_executor(
_bot_executor,
execute_bot_code,
code,
sender_name,
sender_key,
message_text,
is_dm,
channel_key,
channel_name,
sender_timestamp,
path_value,
is_outgoing,
path_bytes_per_hop,
),
timeout=BOT_EXECUTION_TIMEOUT,
)
except asyncio.TimeoutError:
logger.warning("Bot '%s' execution timed out", self.name)
return
except Exception:
logger.exception("Bot '%s' execution error", self.name)
return
if response and self._active:
await process_bot_response(response, is_dm, sender_key or "", channel_key)
@property
def status(self) -> str:
return "connected"

View File

@@ -1,368 +0,0 @@
"""
Bot execution module for automatic message responses.
This module provides functionality for executing user-defined Python code
in response to incoming messages. The user's code can process message data
and optionally return a response string or a list of strings.
SECURITY WARNING: This executes arbitrary Python code provided by the user.
It should only be enabled on trusted systems where the user understands
the security implications.
"""
import asyncio
import inspect
import logging
import time
from concurrent.futures import ThreadPoolExecutor
from dataclasses import dataclass
from typing import Any
from fastapi import HTTPException
logger = logging.getLogger(__name__)
# Limit concurrent bot executions to prevent resource exhaustion
_bot_semaphore = asyncio.Semaphore(100)
# Dedicated thread pool for bot execution (separate from default executor)
_bot_executor = ThreadPoolExecutor(max_workers=100, thread_name_prefix="bot_")
# Timeout for bot code execution (seconds)
BOT_EXECUTION_TIMEOUT = 10
# Minimum spacing between bot message sends (seconds)
# This ensures repeaters have time to return to listening mode
BOT_MESSAGE_SPACING = 2.0
# Global state for rate limiting bot sends
_bot_send_lock = asyncio.Lock()
_last_bot_send_time: float = 0.0
@dataclass(frozen=True)
class BotCallPlan:
"""How to call a validated bot() function."""
call_style: str
keyword_args: tuple[str, ...] = ()
def _analyze_bot_signature(bot_func_or_sig) -> BotCallPlan:
"""Validate bot() signature and return a supported call plan."""
try:
sig = (
bot_func_or_sig
if isinstance(bot_func_or_sig, inspect.Signature)
else inspect.signature(bot_func_or_sig)
)
except (ValueError, TypeError) as exc:
raise ValueError("Bot function signature could not be inspected") from exc
params = sig.parameters
param_values = tuple(params.values())
positional_params = [
p
for p in param_values
if p.kind in (inspect.Parameter.POSITIONAL_ONLY, inspect.Parameter.POSITIONAL_OR_KEYWORD)
]
has_varargs = any(p.kind == inspect.Parameter.VAR_POSITIONAL for p in param_values)
has_kwargs = any(p.kind == inspect.Parameter.VAR_KEYWORD for p in param_values)
explicit_optional_names = tuple(
name for name in ("is_outgoing", "path_bytes_per_hop") if name in params
)
unsupported_required_kwonly = [
p.name
for p in param_values
if p.kind == inspect.Parameter.KEYWORD_ONLY
and p.default is inspect.Parameter.empty
and p.name not in {"is_outgoing", "path_bytes_per_hop"}
]
if unsupported_required_kwonly:
raise ValueError(
"Bot function signature is not supported. Unsupported required keyword-only "
"parameters: " + ", ".join(unsupported_required_kwonly)
)
positional_capacity = len(positional_params)
base_args = [object()] * 8
base_keyword_args: dict[str, object] = {
"sender_name": object(),
"sender_key": object(),
"message_text": object(),
"is_dm": object(),
"channel_key": object(),
"channel_name": object(),
"sender_timestamp": object(),
"path": object(),
}
candidate_specs: list[tuple[str, list[object], dict[str, object]]] = []
keyword_args = dict(base_keyword_args)
if has_kwargs or "is_outgoing" in params:
keyword_args["is_outgoing"] = False
if has_kwargs or "path_bytes_per_hop" in params:
keyword_args["path_bytes_per_hop"] = 1
candidate_specs.append(("keyword", [], keyword_args))
if not has_kwargs and explicit_optional_names:
kwargs: dict[str, object] = {}
if has_kwargs or "is_outgoing" in params:
kwargs["is_outgoing"] = False
if has_kwargs or "path_bytes_per_hop" in params:
kwargs["path_bytes_per_hop"] = 1
candidate_specs.append(("mixed_keyword", base_args, kwargs))
if has_varargs or positional_capacity >= 10:
candidate_specs.append(("positional_10", base_args + [False, 1], {}))
if has_varargs or positional_capacity >= 9:
candidate_specs.append(("positional_9", base_args + [False], {}))
if has_varargs or positional_capacity >= 8:
candidate_specs.append(("legacy", base_args, {}))
for call_style, args, kwargs in candidate_specs:
try:
sig.bind(*args, **kwargs)
except TypeError:
continue
if call_style in {"keyword", "mixed_keyword"}:
return BotCallPlan(call_style="keyword", keyword_args=tuple(kwargs.keys()))
return BotCallPlan(call_style=call_style)
raise ValueError(
"Bot function signature is not supported. Use the default bot template as a reference. "
"Supported trailing parameters are: path; path + is_outgoing; "
"path + path_bytes_per_hop; path + is_outgoing + path_bytes_per_hop; "
"or use **kwargs for forward compatibility."
)
def execute_bot_code(
code: str,
sender_name: str | None,
sender_key: str | None,
message_text: str,
is_dm: bool,
channel_key: str | None,
channel_name: str | None,
sender_timestamp: int | None,
path: str | None,
is_outgoing: bool = False,
path_bytes_per_hop: int | None = None,
) -> str | list[str] | None:
"""
Execute user-provided bot code with message context.
The code should define a function:
`bot(sender_name, sender_key, message_text, is_dm, channel_key, channel_name, sender_timestamp, path, is_outgoing, path_bytes_per_hop)`
or use named parameters / `**kwargs`.
that returns either None (no response), a string (single response message),
or a list of strings (multiple messages sent in order).
Legacy bot functions with older signatures are detected via inspect and
called without the newer parameters for backward compatibility.
Args:
code: Python code defining the bot function
sender_name: Display name of the sender (may be None)
sender_key: 64-char hex public key of sender for DMs, None for channel messages
message_text: The message content
is_dm: True for direct messages, False for channel messages
channel_key: 32-char hex channel key for channel messages, None for DMs
channel_name: Channel name (e.g. "#general" with hash), None for DMs
sender_timestamp: Sender's timestamp from the message (may be None)
path: Hex-encoded routing path (may be None)
is_outgoing: True if this is our own outgoing message
path_bytes_per_hop: Number of bytes per routing hop (1, 2, or 3), if known
Returns:
Response string, list of strings, or None.
Note: This executes arbitrary code. Only use with trusted input.
"""
if not code or not code.strip():
return None
# Build execution namespace with allowed imports
namespace: dict[str, Any] = {
"__builtins__": __builtins__,
}
try:
# Execute the user's code to define the bot function
exec(code, namespace)
except Exception:
logger.exception("Bot code compilation failed")
return None
# Check if bot function was defined
if "bot" not in namespace or not callable(namespace["bot"]):
logger.debug("Bot code does not define a callable 'bot' function")
return None
bot_func = namespace["bot"]
try:
call_plan = _analyze_bot_signature(bot_func)
except ValueError as exc:
logger.error("%s", exc)
return None
try:
# Call the bot function with appropriate signature
if call_plan.call_style == "positional_10":
result = bot_func(
sender_name,
sender_key,
message_text,
is_dm,
channel_key,
channel_name,
sender_timestamp,
path,
is_outgoing,
path_bytes_per_hop,
)
elif call_plan.call_style == "positional_9":
result = bot_func(
sender_name,
sender_key,
message_text,
is_dm,
channel_key,
channel_name,
sender_timestamp,
path,
is_outgoing,
)
elif call_plan.call_style == "keyword":
keyword_args: dict[str, Any] = {}
if "sender_name" in call_plan.keyword_args:
keyword_args["sender_name"] = sender_name
if "sender_key" in call_plan.keyword_args:
keyword_args["sender_key"] = sender_key
if "message_text" in call_plan.keyword_args:
keyword_args["message_text"] = message_text
if "is_dm" in call_plan.keyword_args:
keyword_args["is_dm"] = is_dm
if "channel_key" in call_plan.keyword_args:
keyword_args["channel_key"] = channel_key
if "channel_name" in call_plan.keyword_args:
keyword_args["channel_name"] = channel_name
if "sender_timestamp" in call_plan.keyword_args:
keyword_args["sender_timestamp"] = sender_timestamp
if "path" in call_plan.keyword_args:
keyword_args["path"] = path
if "is_outgoing" in call_plan.keyword_args:
keyword_args["is_outgoing"] = is_outgoing
if "path_bytes_per_hop" in call_plan.keyword_args:
keyword_args["path_bytes_per_hop"] = path_bytes_per_hop
result = bot_func(**keyword_args)
else:
result = bot_func(
sender_name,
sender_key,
message_text,
is_dm,
channel_key,
channel_name,
sender_timestamp,
path,
)
# Validate result
if result is None:
return None
if isinstance(result, str):
return result if result.strip() else None
if isinstance(result, list):
# Filter to non-empty strings only
valid_messages = [msg for msg in result if isinstance(msg, str) and msg.strip()]
return valid_messages if valid_messages else None
logger.debug("Bot function returned unsupported type: %s", type(result))
return None
except Exception:
logger.exception("Bot function execution failed")
return None
async def process_bot_response(
response: str | list[str],
is_dm: bool,
sender_key: str,
channel_key: str | None,
) -> None:
"""
Send the bot's response message(s) using the existing message sending endpoints.
For DMs, sends a direct message back to the sender.
For channel messages, sends to the same channel.
Bot messages are rate-limited to ensure at least BOT_MESSAGE_SPACING seconds
between sends, giving repeaters time to return to listening mode.
Args:
response: The response text to send, or a list of messages to send in order
is_dm: Whether the original message was a DM
sender_key: Public key of the original sender (for DM replies)
channel_key: Channel key for channel message replies
"""
# Normalize to list for uniform processing
messages = [response] if isinstance(response, str) else response
for message_text in messages:
await _send_single_bot_message(message_text, is_dm, sender_key, channel_key)
async def _send_single_bot_message(
message_text: str,
is_dm: bool,
sender_key: str,
channel_key: str | None,
) -> None:
"""
Send a single bot message with rate limiting.
Args:
message_text: The message text to send
is_dm: Whether the original message was a DM
sender_key: Public key of the original sender (for DM replies)
channel_key: Channel key for channel message replies
"""
global _last_bot_send_time
from app.models import SendChannelMessageRequest, SendDirectMessageRequest
from app.routers.messages import send_channel_message, send_direct_message
# Serialize bot sends and enforce minimum spacing
async with _bot_send_lock:
# Calculate how long since last bot send
now = time.monotonic()
time_since_last = now - _last_bot_send_time
if _last_bot_send_time > 0 and time_since_last < BOT_MESSAGE_SPACING:
wait_time = BOT_MESSAGE_SPACING - time_since_last
logger.debug("Rate limiting bot send, waiting %.2fs", wait_time)
await asyncio.sleep(wait_time)
try:
if is_dm:
logger.info("Bot sending DM reply to %s", sender_key[:12])
request = SendDirectMessageRequest(destination=sender_key, text=message_text)
await send_direct_message(request)
elif channel_key:
logger.info("Bot sending channel reply to %s", channel_key[:8])
request = SendChannelMessageRequest(channel_key=channel_key, text=message_text)
await send_channel_message(request)
else:
logger.warning("Cannot send bot response: no destination")
return # Don't update timestamp if we didn't send
except HTTPException as e:
logger.error("Bot failed to send response: %s", e.detail, exc_info=True)
return # Don't update timestamp on failure
except Exception:
logger.exception("Bot failed to send response")
return # Don't update timestamp on failure
# Update last send time after successful send
_last_bot_send_time = time.monotonic()

View File

@@ -1,570 +0,0 @@
"""Community MQTT publisher for sharing raw packets with the MeshCore community.
Publishes raw packet data to mqtt-us-v1.letsmesh.net using the protocol
defined by meshcore-packet-capture (https://github.com/agessaman/meshcore-packet-capture).
Authentication uses Ed25519 JWT tokens signed with the radio's private key.
This module is independent from the private MqttPublisher in app/mqtt.py.
"""
from __future__ import annotations
import asyncio
import base64
import hashlib
import importlib.metadata
import json
import logging
import ssl
import time
from datetime import datetime
from typing import Any, Protocol
import aiomqtt
import nacl.bindings
from app.fanout.mqtt_base import BaseMqttPublisher
from app.path_utils import parse_packet_envelope, split_path_hex
logger = logging.getLogger(__name__)
_DEFAULT_BROKER = "mqtt-us-v1.letsmesh.net"
_DEFAULT_PORT = 443 # Community protocol uses WSS on port 443 by default
_CLIENT_ID = "RemoteTerm (github.com/jkingsman/Remote-Terminal-for-MeshCore)"
# Proactive JWT renewal: reconnect 1 hour before the 24h token expires
_TOKEN_LIFETIME = 86400 # 24 hours (must match _generate_jwt_token exp)
_TOKEN_RENEWAL_THRESHOLD = _TOKEN_LIFETIME - 3600 # 23 hours
# Periodic status republish interval (matches meshcore-packet-capture reference)
_STATS_REFRESH_INTERVAL = 300 # 5 minutes
_STATS_MIN_CACHE_SECS = 60 # Don't re-fetch stats within 60s
# Ed25519 group order
_L = 2**252 + 27742317777372353535851937790883648493
# Route type mapping: bottom 2 bits of first byte
_ROUTE_MAP = {0: "F", 1: "F", 2: "D", 3: "T"}
class CommunityMqttSettings(Protocol):
"""Attributes expected on the settings object for the community MQTT publisher."""
community_mqtt_enabled: bool
community_mqtt_broker_host: str
community_mqtt_broker_port: int
community_mqtt_transport: str
community_mqtt_use_tls: bool
community_mqtt_tls_verify: bool
community_mqtt_auth_mode: str
community_mqtt_username: str
community_mqtt_password: str
community_mqtt_iata: str
community_mqtt_email: str
community_mqtt_token_audience: str
def _base64url_encode(data: bytes) -> str:
"""Base64url encode without padding."""
return base64.urlsafe_b64encode(data).rstrip(b"=").decode("ascii")
def _ed25519_sign_expanded(
message: bytes, scalar: bytes, prefix: bytes, public_key: bytes
) -> bytes:
"""Sign a message using MeshCore's expanded Ed25519 key format.
MeshCore stores 64-byte "orlp" format keys: scalar(32) || prefix(32).
Standard Ed25519 libraries expect seed format and would re-SHA-512 the key.
This performs the signing manually using the already-expanded key material.
Port of meshcore-packet-capture's ed25519_sign_with_expanded_key().
"""
# r = SHA-512(prefix || message) mod L
r = int.from_bytes(hashlib.sha512(prefix + message).digest(), "little") % _L
# R = r * B (base point multiplication)
R = nacl.bindings.crypto_scalarmult_ed25519_base_noclamp(r.to_bytes(32, "little"))
# k = SHA-512(R || public_key || message) mod L
k = int.from_bytes(hashlib.sha512(R + public_key + message).digest(), "little") % _L
# s = (r + k * scalar) mod L
s = (r + k * int.from_bytes(scalar, "little")) % _L
return R + s.to_bytes(32, "little")
def _generate_jwt_token(
private_key: bytes,
public_key: bytes,
*,
audience: str = _DEFAULT_BROKER,
email: str = "",
) -> str:
"""Generate a JWT token for community MQTT authentication.
Creates a token with Ed25519 signature using MeshCore's expanded key format.
Token format: header_b64.payload_b64.signature_hex
Optional ``email`` embeds a node-claiming identity so the community
aggregator can associate this radio with an owner.
"""
header = {"alg": "Ed25519", "typ": "JWT"}
now = int(time.time())
pubkey_hex = public_key.hex().upper()
payload: dict[str, object] = {
"publicKey": pubkey_hex,
"iat": now,
"exp": now + _TOKEN_LIFETIME,
"aud": audience,
"owner": pubkey_hex,
"client": _CLIENT_ID,
}
if email:
payload["email"] = email
header_b64 = _base64url_encode(json.dumps(header, separators=(",", ":")).encode())
payload_b64 = _base64url_encode(json.dumps(payload, separators=(",", ":")).encode())
signing_input = f"{header_b64}.{payload_b64}".encode()
scalar = private_key[:32]
prefix = private_key[32:]
signature = _ed25519_sign_expanded(signing_input, scalar, prefix, public_key)
return f"{header_b64}.{payload_b64}.{signature.hex()}"
def _calculate_packet_hash(raw_bytes: bytes) -> str:
"""Calculate packet hash matching MeshCore's Packet::calculatePacketHash().
Parses the packet structure to extract payload type and payload data,
then hashes: payload_type(1 byte) [+ path_len(2 bytes LE) for TRACE] + payload_data.
Returns first 16 hex characters (uppercase).
"""
if not raw_bytes:
return "0" * 16
try:
envelope = parse_packet_envelope(raw_bytes)
if envelope is None:
return "0" * 16
# Hash: payload_type(1 byte) [+ path_byte as uint16_t LE for TRACE] + payload_data
# IMPORTANT: TRACE hash uses the raw wire byte (not decoded hop count) to match firmware.
hash_obj = hashlib.sha256()
hash_obj.update(bytes([envelope.payload_type]))
if envelope.payload_type == 9: # PAYLOAD_TYPE_TRACE
hash_obj.update(envelope.path_byte.to_bytes(2, byteorder="little"))
hash_obj.update(envelope.payload)
return hash_obj.hexdigest()[:16].upper()
except Exception:
return "0" * 16
def _decode_packet_fields(raw_bytes: bytes) -> tuple[str, str, str, list[str], int | None]:
"""Decode packet fields used by the community uploader payload format.
Returns:
(route_letter, packet_type_str, payload_len_str, path_values, payload_type_int)
"""
# Reference defaults when decode fails
route = "U"
packet_type = "0"
payload_len = "0"
path_values: list[str] = []
payload_type: int | None = None
try:
envelope = parse_packet_envelope(raw_bytes)
if envelope is None or envelope.payload_version != 0:
return route, packet_type, payload_len, path_values, payload_type
payload_type = envelope.payload_type
route = _ROUTE_MAP.get(envelope.route_type, "U")
packet_type = str(payload_type)
payload_len = str(len(envelope.payload))
path_values = split_path_hex(envelope.path.hex(), envelope.hop_count)
return route, packet_type, payload_len, path_values, payload_type
except Exception:
return route, packet_type, payload_len, path_values, payload_type
def _format_raw_packet(data: dict[str, Any], device_name: str, public_key_hex: str) -> dict:
"""Convert a RawPacketBroadcast dict to meshcore-packet-capture format."""
raw_hex = data.get("data", "")
raw_bytes = bytes.fromhex(raw_hex) if raw_hex else b""
route, packet_type, payload_len, path_values, _payload_type = _decode_packet_fields(raw_bytes)
# Reference format uses local "now" timestamp and derived time/date fields.
current_time = datetime.now()
ts_str = current_time.isoformat()
# SNR/RSSI are always strings in reference output.
snr_val = data.get("snr")
rssi_val = data.get("rssi")
snr = str(snr_val) if snr_val is not None else "Unknown"
rssi = str(rssi_val) if rssi_val is not None else "Unknown"
packet_hash = _calculate_packet_hash(raw_bytes)
packet = {
"origin": device_name or "MeshCore Device",
"origin_id": public_key_hex.upper(),
"timestamp": ts_str,
"type": "PACKET",
"direction": "rx",
"time": current_time.strftime("%H:%M:%S"),
"date": current_time.strftime("%d/%m/%Y"),
"len": str(len(raw_bytes)),
"packet_type": packet_type,
"route": route,
"payload_len": payload_len,
"raw": raw_hex.upper(),
"SNR": snr,
"RSSI": rssi,
"hash": packet_hash,
}
if route == "D":
packet["path"] = ",".join(path_values)
return packet
def _build_status_topic(settings: CommunityMqttSettings, pubkey_hex: str) -> str:
"""Build the ``meshcore/{IATA}/{PUBKEY}/status`` topic string."""
iata = settings.community_mqtt_iata.upper().strip()
return f"meshcore/{iata}/{pubkey_hex}/status"
def _build_radio_info() -> str:
"""Format the radio parameters string from self_info.
Matches the reference format: ``"freq,bw,sf,cr"`` (comma-separated raw
values). Falls back to ``"0,0,0,0"`` when unavailable.
"""
from app.services.radio_runtime import radio_runtime as radio_manager
try:
if radio_manager.meshcore and radio_manager.meshcore.self_info:
info = radio_manager.meshcore.self_info
freq = info.get("radio_freq", 0)
bw = info.get("radio_bw", 0)
sf = info.get("radio_sf", 0)
cr = info.get("radio_cr", 0)
return f"{freq},{bw},{sf},{cr}"
except Exception:
pass
return "0,0,0,0"
def _get_client_version() -> str:
"""Return a client version string like ``'RemoteTerm 2.4.0'``."""
try:
version = importlib.metadata.version("remoteterm-meshcore")
return f"RemoteTerm {version}"
except Exception:
return "RemoteTerm unknown"
class CommunityMqttPublisher(BaseMqttPublisher):
"""Manages the community MQTT connection and publishes raw packets."""
_backoff_max = 60
_log_prefix = "Community MQTT"
_not_configured_timeout: float | None = 30
def __init__(self) -> None:
super().__init__()
self._key_unavailable_warned: bool = False
self._cached_device_info: dict[str, str] | None = None
self._cached_stats: dict[str, Any] | None = None
self._stats_supported: bool | None = None
self._last_stats_fetch: float = 0.0
self._last_status_publish: float = 0.0
async def start(self, settings: object) -> None:
self._key_unavailable_warned = False
self._cached_device_info = None
self._cached_stats = None
self._stats_supported = None
self._last_stats_fetch = 0.0
self._last_status_publish = 0.0
await super().start(settings)
def _on_not_configured(self) -> None:
from app.keystore import get_public_key, has_private_key
from app.websocket import broadcast_error
s: CommunityMqttSettings | None = self._settings
auth_mode = getattr(s, "community_mqtt_auth_mode", "token") if s else "token"
if (
s
and auth_mode == "token"
and get_public_key() is not None
and not has_private_key()
and not self._key_unavailable_warned
):
broadcast_error(
"Community MQTT unavailable",
"Radio firmware does not support private key export.",
)
self._key_unavailable_warned = True
def _is_configured(self) -> bool:
"""Check if community MQTT is enabled and keys are available."""
from app.keystore import get_public_key, has_private_key
s: CommunityMqttSettings | None = self._settings
if not s or not s.community_mqtt_enabled:
return False
if get_public_key() is None:
return False
auth_mode = getattr(s, "community_mqtt_auth_mode", "token")
if auth_mode == "token":
return has_private_key()
return True
def _build_client_kwargs(self, settings: object) -> dict[str, Any]:
s: CommunityMqttSettings = settings # type: ignore[assignment]
from app.keystore import get_private_key, get_public_key
from app.services.radio_runtime import radio_runtime as radio_manager
private_key = get_private_key()
public_key = get_public_key()
assert public_key is not None # guaranteed by _pre_connect
pubkey_hex = public_key.hex().upper()
broker_host = s.community_mqtt_broker_host or _DEFAULT_BROKER
broker_port = s.community_mqtt_broker_port or _DEFAULT_PORT
transport = s.community_mqtt_transport or "websockets"
use_tls = bool(s.community_mqtt_use_tls)
tls_verify = bool(s.community_mqtt_tls_verify)
auth_mode = s.community_mqtt_auth_mode or "token"
secure_connection = use_tls and tls_verify
tls_context: ssl.SSLContext | None = None
if use_tls:
tls_context = ssl.create_default_context()
if not tls_verify:
tls_context.check_hostname = False
tls_context.verify_mode = ssl.CERT_NONE
device_name = ""
if radio_manager.meshcore and radio_manager.meshcore.self_info:
device_name = radio_manager.meshcore.self_info.get("name", "")
status_topic = _build_status_topic(s, pubkey_hex)
offline_payload = json.dumps(
{
"status": "offline",
"timestamp": datetime.now().isoformat(),
"origin": device_name or "MeshCore Device",
"origin_id": pubkey_hex,
}
)
kwargs: dict[str, Any] = {
"hostname": broker_host,
"port": broker_port,
"transport": transport,
"tls_context": tls_context,
"will": aiomqtt.Will(status_topic, offline_payload, retain=True),
}
if auth_mode == "token":
assert private_key is not None
token_audience = (s.community_mqtt_token_audience or "").strip() or broker_host
jwt_token = _generate_jwt_token(
private_key,
public_key,
audience=token_audience,
email=(s.community_mqtt_email or "") if secure_connection else "",
)
kwargs["username"] = f"v1_{pubkey_hex}"
kwargs["password"] = jwt_token
elif auth_mode == "password":
kwargs["username"] = s.community_mqtt_username or None
kwargs["password"] = s.community_mqtt_password or None
if transport == "websockets":
kwargs["websocket_path"] = "/"
return kwargs
def _on_connected(self, settings: object) -> tuple[str, str]:
s: CommunityMqttSettings = settings # type: ignore[assignment]
broker_host = s.community_mqtt_broker_host or _DEFAULT_BROKER
broker_port = s.community_mqtt_broker_port or _DEFAULT_PORT
return ("Community MQTT connected", f"{broker_host}:{broker_port}")
async def _fetch_device_info(self) -> dict[str, str]:
"""Fetch firmware model/version from the radio (cached for the connection)."""
if self._cached_device_info is not None:
return self._cached_device_info
from app.radio import RadioDisconnectedError, RadioOperationBusyError
from app.services.radio_runtime import radio_runtime as radio_manager
fallback = {"model": "unknown", "firmware_version": "unknown"}
try:
async with radio_manager.radio_operation(
"community_stats_device_info", blocking=False
) as mc:
event = await mc.commands.send_device_query()
from meshcore.events import EventType
if event.type == EventType.DEVICE_INFO:
fw_ver = event.payload.get("fw ver", 0)
if fw_ver >= 3:
model = event.payload.get("model", "unknown") or "unknown"
ver = event.payload.get("ver", "unknown") or "unknown"
fw_build = event.payload.get("fw_build", "") or ""
fw_str = f"v{ver} (Build: {fw_build})" if fw_build else f"v{ver}"
self._cached_device_info = {
"model": model,
"firmware_version": fw_str,
}
else:
# Old firmware — cache what we can
self._cached_device_info = {
"model": "unknown",
"firmware_version": f"v{fw_ver}" if fw_ver else "unknown",
}
return self._cached_device_info
except (RadioOperationBusyError, RadioDisconnectedError):
pass
except Exception as e:
logger.debug("Community MQTT: device info fetch failed: %s", e)
# Don't cache transient failures — allow retry on next status publish
return fallback
async def _fetch_stats(self) -> dict[str, Any] | None:
"""Fetch core + radio stats from the radio (best-effort, cached)."""
if self._stats_supported is False:
return self._cached_stats
now = time.monotonic()
if (
now - self._last_stats_fetch
) < _STATS_MIN_CACHE_SECS and self._cached_stats is not None:
return self._cached_stats
from app.radio import RadioDisconnectedError, RadioOperationBusyError
from app.services.radio_runtime import radio_runtime as radio_manager
try:
async with radio_manager.radio_operation("community_stats_fetch", blocking=False) as mc:
from meshcore.events import EventType
result: dict[str, Any] = {}
core_event = await mc.commands.get_stats_core()
if core_event.type == EventType.ERROR:
logger.info("Community MQTT: firmware does not support stats commands")
self._stats_supported = False
return self._cached_stats
if core_event.type == EventType.STATS_CORE:
result.update(core_event.payload)
radio_event = await mc.commands.get_stats_radio()
if radio_event.type == EventType.ERROR:
logger.info("Community MQTT: firmware does not support stats commands")
self._stats_supported = False
return self._cached_stats
if radio_event.type == EventType.STATS_RADIO:
result.update(radio_event.payload)
if result:
self._cached_stats = result
self._last_stats_fetch = now
return self._cached_stats
except (RadioOperationBusyError, RadioDisconnectedError):
pass
except Exception as e:
logger.debug("Community MQTT: stats fetch failed: %s", e)
return self._cached_stats
async def _publish_status(
self, settings: CommunityMqttSettings, *, refresh_stats: bool = True
) -> None:
"""Build and publish the enriched retained status message."""
from app.keystore import get_public_key
from app.services.radio_runtime import radio_runtime as radio_manager
public_key = get_public_key()
if public_key is None:
return
pubkey_hex = public_key.hex().upper()
device_name = ""
if radio_manager.meshcore and radio_manager.meshcore.self_info:
device_name = radio_manager.meshcore.self_info.get("name", "")
device_info = await self._fetch_device_info()
stats = await self._fetch_stats() if refresh_stats else self._cached_stats
status_topic = _build_status_topic(settings, pubkey_hex)
payload: dict[str, Any] = {
"status": "online",
"timestamp": datetime.now().isoformat(),
"origin": device_name or "MeshCore Device",
"origin_id": pubkey_hex,
"model": device_info.get("model", "unknown"),
"firmware_version": device_info.get("firmware_version", "unknown"),
"radio": _build_radio_info(),
"client_version": _get_client_version(),
}
if stats:
payload["stats"] = stats
await self.publish(status_topic, payload, retain=True)
self._last_status_publish = time.monotonic()
async def _on_connected_async(self, settings: object) -> None:
"""Publish a retained online status message after connecting."""
await self._publish_status(settings) # type: ignore[arg-type]
async def _on_periodic_wake(self, elapsed: float) -> None:
if not self._settings:
return
now = time.monotonic()
if (now - self._last_status_publish) >= _STATS_REFRESH_INTERVAL:
await self._publish_status(self._settings, refresh_stats=True)
def _on_error(self) -> tuple[str, str]:
return (
"Community MQTT connection failure",
"Check your internet connection or try again later.",
)
def _should_break_wait(self, elapsed: float) -> bool:
if not self.connected:
logger.info("Community MQTT publish failure detected, reconnecting")
return True
s: CommunityMqttSettings | None = self._settings
auth_mode = getattr(s, "community_mqtt_auth_mode", "token") if s else "token"
if auth_mode == "token" and elapsed >= _TOKEN_RENEWAL_THRESHOLD:
logger.info("Community MQTT JWT nearing expiry, reconnecting")
return True
return False
async def _pre_connect(self, settings: object) -> bool:
from app.keystore import get_private_key, get_public_key
s: CommunityMqttSettings = settings # type: ignore[assignment]
auth_mode = s.community_mqtt_auth_mode or "token"
private_key = get_private_key()
public_key = get_public_key()
if public_key is None or (auth_mode == "token" and private_key is None):
# Keys not available yet, wait for settings change or key export
self.connected = False
self._version_event.clear()
try:
await asyncio.wait_for(self._version_event.wait(), timeout=30)
except asyncio.TimeoutError:
pass
return False
return True

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@@ -1,245 +0,0 @@
"""FanoutManager: owns all active fanout modules and dispatches events."""
from __future__ import annotations
import asyncio
import logging
from typing import Any
from app.fanout.base import FanoutModule
logger = logging.getLogger(__name__)
_DISPATCH_TIMEOUT_SECONDS = 30.0
# Type string -> module class mapping
_MODULE_TYPES: dict[str, type] = {}
def _register_module_types() -> None:
"""Lazily populate the type registry to avoid circular imports."""
if _MODULE_TYPES:
return
from app.fanout.apprise_mod import AppriseModule
from app.fanout.bot import BotModule
from app.fanout.mqtt_community import MqttCommunityModule
from app.fanout.mqtt_private import MqttPrivateModule
from app.fanout.sqs import SqsModule
from app.fanout.webhook import WebhookModule
_MODULE_TYPES["mqtt_private"] = MqttPrivateModule
_MODULE_TYPES["mqtt_community"] = MqttCommunityModule
_MODULE_TYPES["bot"] = BotModule
_MODULE_TYPES["webhook"] = WebhookModule
_MODULE_TYPES["apprise"] = AppriseModule
_MODULE_TYPES["sqs"] = SqsModule
def _matches_filter(filter_value: Any, key: str) -> bool:
"""Check a single filter value (channels or contacts) against a key.
Supported shapes:
"all" -> True
"none" -> False
["key1", "key2"] -> key in list (only listed)
{"except": ["key1", "key2"]} -> key not in list (all except listed)
"""
if filter_value == "all":
return True
if filter_value == "none":
return False
if isinstance(filter_value, list):
return key in filter_value
if isinstance(filter_value, dict) and "except" in filter_value:
return key not in filter_value["except"]
return False
def _scope_matches_message(scope: dict, data: dict) -> bool:
"""Check whether a message event matches the given scope."""
messages = scope.get("messages", "none")
if messages == "all":
return True
if messages == "none":
return False
if isinstance(messages, dict):
msg_type = data.get("type", "")
conversation_key = data.get("conversation_key", "")
if msg_type == "CHAN":
return _matches_filter(messages.get("channels", "none"), conversation_key)
elif msg_type == "PRIV":
return _matches_filter(messages.get("contacts", "none"), conversation_key)
return False
def _scope_matches_raw(scope: dict, _data: dict) -> bool:
"""Check whether a raw packet event matches the given scope."""
return scope.get("raw_packets", "none") == "all"
class FanoutManager:
"""Owns all active fanout modules and dispatches events."""
def __init__(self) -> None:
self._modules: dict[str, tuple[FanoutModule, dict]] = {} # id -> (module, scope)
self._restart_locks: dict[str, asyncio.Lock] = {}
async def load_from_db(self) -> None:
"""Read enabled fanout_configs and instantiate modules."""
_register_module_types()
from app.repository.fanout import FanoutConfigRepository
configs = await FanoutConfigRepository.get_enabled()
for cfg in configs:
await self._start_module(cfg)
async def _start_module(self, cfg: dict[str, Any]) -> None:
"""Instantiate and start a single module from a config dict."""
config_id = cfg["id"]
config_type = cfg["type"]
config_blob = cfg["config"]
scope = cfg["scope"]
# Skip bot modules when bots are disabled server-wide
if config_type == "bot":
from app.config import settings as server_settings
if server_settings.disable_bots:
logger.info("Skipping bot module %s (bots disabled by server config)", config_id)
return
cls = _MODULE_TYPES.get(config_type)
if cls is None:
logger.warning("Unknown fanout type %r for config %s, skipping", config_type, config_id)
return
try:
module = cls(config_id, config_blob, name=cfg.get("name", ""))
await module.start()
self._modules[config_id] = (module, scope)
logger.info(
"Started fanout module %s (type=%s)", cfg.get("name", config_id), config_type
)
except Exception:
logger.exception("Failed to start fanout module %s", config_id)
async def reload_config(self, config_id: str) -> None:
"""Stop old module (if any) and start updated config."""
lock = self._restart_locks.setdefault(config_id, asyncio.Lock())
async with lock:
await self.remove_config(config_id)
from app.repository.fanout import FanoutConfigRepository
cfg = await FanoutConfigRepository.get(config_id)
if cfg is None or not cfg["enabled"]:
return
await self._start_module(cfg)
async def remove_config(self, config_id: str) -> None:
"""Stop and remove a module."""
entry = self._modules.pop(config_id, None)
if entry is not None:
module, _ = entry
try:
await module.stop()
except Exception:
logger.exception("Error stopping fanout module %s", config_id)
async def _dispatch_matching(
self,
data: dict,
*,
matcher: Any,
handler_name: str,
log_label: str,
) -> None:
"""Dispatch to all matching modules concurrently."""
tasks = []
for config_id, (module, scope) in list(self._modules.items()):
if matcher(scope, data):
tasks.append(self._run_handler(config_id, module, handler_name, data, log_label))
if tasks:
await asyncio.gather(*tasks)
async def _run_handler(
self,
config_id: str,
module: FanoutModule,
handler_name: str,
data: dict,
log_label: str,
) -> None:
"""Run one module handler with per-module exception isolation."""
try:
handler = getattr(module, handler_name)
await asyncio.wait_for(handler(data), timeout=_DISPATCH_TIMEOUT_SECONDS)
except asyncio.TimeoutError:
logger.error(
"Fanout %s %s timed out after %.1fs; restarting module",
config_id,
log_label,
_DISPATCH_TIMEOUT_SECONDS,
)
await self._restart_module(config_id, module)
except Exception:
logger.exception("Fanout %s %s error", config_id, log_label)
async def _restart_module(self, config_id: str, module: FanoutModule) -> None:
"""Restart a timed-out module if it is still the active instance."""
lock = self._restart_locks.setdefault(config_id, asyncio.Lock())
async with lock:
entry = self._modules.get(config_id)
if entry is None or entry[0] is not module:
return
try:
await module.stop()
await module.start()
except Exception:
logger.exception("Failed to restart timed-out fanout module %s", config_id)
self._modules.pop(config_id, None)
async def broadcast_message(self, data: dict) -> None:
"""Dispatch a decoded message to modules whose scope matches."""
await self._dispatch_matching(
data,
matcher=_scope_matches_message,
handler_name="on_message",
log_label="on_message",
)
async def broadcast_raw(self, data: dict) -> None:
"""Dispatch a raw packet to modules whose scope matches."""
await self._dispatch_matching(
data,
matcher=_scope_matches_raw,
handler_name="on_raw",
log_label="on_raw",
)
async def stop_all(self) -> None:
"""Shutdown all modules."""
for config_id, (module, _) in list(self._modules.items()):
try:
await module.stop()
except Exception:
logger.exception("Error stopping fanout module %s", config_id)
self._modules.clear()
self._restart_locks.clear()
def get_statuses(self) -> dict[str, dict[str, str]]:
"""Return status info for each active module."""
from app.repository.fanout import _configs_cache
result: dict[str, dict[str, str]] = {}
for config_id, (module, _) in self._modules.items():
info = _configs_cache.get(config_id, {})
result[config_id] = {
"name": info.get("name", config_id),
"type": info.get("type", "unknown"),
"status": module.status,
}
return result
# Module-level singleton
fanout_manager = FanoutManager()

View File

@@ -1,91 +0,0 @@
"""MQTT publisher for forwarding mesh network events to an MQTT broker."""
from __future__ import annotations
import logging
import ssl
from typing import Any, Protocol
from app.fanout.mqtt_base import BaseMqttPublisher
logger = logging.getLogger(__name__)
class PrivateMqttSettings(Protocol):
"""Attributes expected on the settings object for the private MQTT publisher."""
mqtt_broker_host: str
mqtt_broker_port: int
mqtt_username: str
mqtt_password: str
mqtt_use_tls: bool
mqtt_tls_insecure: bool
mqtt_publish_messages: bool
mqtt_publish_raw_packets: bool
class MqttPublisher(BaseMqttPublisher):
"""Manages an MQTT connection and publishes mesh network events."""
_backoff_max = 30
_log_prefix = "MQTT"
def _is_configured(self) -> bool:
"""Check if MQTT is configured and has something to publish."""
s: PrivateMqttSettings | None = self._settings
return bool(
s and s.mqtt_broker_host and (s.mqtt_publish_messages or s.mqtt_publish_raw_packets)
)
def _build_client_kwargs(self, settings: object) -> dict[str, Any]:
s: PrivateMqttSettings = settings # type: ignore[assignment]
return {
"hostname": s.mqtt_broker_host,
"port": s.mqtt_broker_port,
"username": s.mqtt_username or None,
"password": s.mqtt_password or None,
"tls_context": self._build_tls_context(s),
}
def _on_connected(self, settings: object) -> tuple[str, str]:
s: PrivateMqttSettings = settings # type: ignore[assignment]
return ("MQTT connected", f"{s.mqtt_broker_host}:{s.mqtt_broker_port}")
def _on_error(self) -> tuple[str, str]:
return ("MQTT connection failure", "Please correct the settings or disable.")
@staticmethod
def _build_tls_context(settings: PrivateMqttSettings) -> ssl.SSLContext | None:
"""Build TLS context from settings, or None if TLS is disabled."""
if not settings.mqtt_use_tls:
return None
ctx = ssl.create_default_context()
if settings.mqtt_tls_insecure:
ctx.check_hostname = False
ctx.verify_mode = ssl.CERT_NONE
return ctx
def _build_message_topic(prefix: str, data: dict[str, Any]) -> str:
"""Build MQTT topic for a decrypted message."""
msg_type = data.get("type", "")
conversation_key = data.get("conversation_key", "unknown")
if msg_type == "PRIV":
return f"{prefix}/dm:{conversation_key}"
elif msg_type == "CHAN":
return f"{prefix}/gm:{conversation_key}"
return f"{prefix}/message:{conversation_key}"
def _build_raw_packet_topic(prefix: str, data: dict[str, Any]) -> str:
"""Build MQTT topic for a raw packet."""
info = data.get("decrypted_info")
if info and isinstance(info, dict):
contact_key = info.get("contact_key")
channel_key = info.get("channel_key")
if contact_key:
return f"{prefix}/raw/dm:{contact_key}"
if channel_key:
return f"{prefix}/raw/gm:{channel_key}"
return f"{prefix}/raw/unrouted"

View File

@@ -1,239 +0,0 @@
"""Shared base class for MQTT publisher lifecycle management.
Both ``MqttPublisher`` (private broker) and ``CommunityMqttPublisher``
(community aggregator) inherit from ``BaseMqttPublisher``, which owns
the connection-loop skeleton, reconnect/backoff logic, and publish method.
Subclasses override a small set of hooks to control configuration checks,
client construction, toast messages, and optional wait-loop behavior.
"""
from __future__ import annotations
import asyncio
import json
import logging
import time
from abc import ABC, abstractmethod
from typing import Any
import aiomqtt
logger = logging.getLogger(__name__)
_BACKOFF_MIN = 5
def _broadcast_health() -> None:
"""Push updated health (including MQTT status) to all WS clients."""
from app.services.radio_runtime import radio_runtime as radio_manager
from app.websocket import broadcast_health
broadcast_health(radio_manager.is_connected, radio_manager.connection_info)
class BaseMqttPublisher(ABC):
"""Base class for MQTT publishers with shared lifecycle management.
Subclasses implement the abstract hooks to control configuration checks,
client construction, toast messages, and optional wait-loop behavior.
The settings type is duck-typed — each subclass defines a Protocol
describing the attributes it expects (e.g. ``PrivateMqttSettings``,
``CommunityMqttSettings``). Callers pass ``SimpleNamespace`` instances
that satisfy the protocol.
"""
_backoff_max: int = 30
_log_prefix: str = "MQTT"
_not_configured_timeout: float | None = None # None = block forever
def __init__(self) -> None:
self._client: aiomqtt.Client | None = None
self._task: asyncio.Task[None] | None = None
self._settings: Any = None
self._settings_version: int = 0
self._version_event: asyncio.Event = asyncio.Event()
self.connected: bool = False
# ── Lifecycle ──────────────────────────────────────────────────────
async def start(self, settings: object) -> None:
"""Start the background connection loop."""
self._settings = settings
self._settings_version += 1
self._version_event.set()
if self._task is None or self._task.done():
self._task = asyncio.create_task(self._connection_loop())
async def stop(self) -> None:
"""Cancel the background task and disconnect."""
if self._task and not self._task.done():
self._task.cancel()
try:
await self._task
except asyncio.CancelledError:
pass
self._task = None
self._client = None
self.connected = False
async def restart(self, settings: object) -> None:
"""Called when settings change — stop + start."""
await self.stop()
await self.start(settings)
async def publish(self, topic: str, payload: dict[str, Any], *, retain: bool = False) -> None:
"""Publish a JSON payload. Drops silently if not connected."""
if self._client is None or not self.connected:
return
try:
await self._client.publish(topic, json.dumps(payload), retain=retain)
except Exception as e:
logger.warning(
"%s publish failed on %s: %s",
self._log_prefix,
topic,
e,
exc_info=True,
)
self.connected = False
# Wake the connection loop so it exits the wait and reconnects
self._settings_version += 1
self._version_event.set()
# ── Abstract hooks ─────────────────────────────────────────────────
@abstractmethod
def _is_configured(self) -> bool:
"""Return True when this publisher should attempt to connect."""
@abstractmethod
def _build_client_kwargs(self, settings: object) -> dict[str, Any]:
"""Return the keyword arguments for ``aiomqtt.Client(...)``."""
@abstractmethod
def _on_connected(self, settings: object) -> tuple[str, str]:
"""Return ``(title, detail)`` for the success toast on connect."""
@abstractmethod
def _on_error(self) -> tuple[str, str]:
"""Return ``(title, detail)`` for the error toast on connect failure."""
# ── Optional hooks ─────────────────────────────────────────────────
def _should_break_wait(self, elapsed: float) -> bool:
"""Return True to break the inner wait (e.g. token expiry)."""
return False
async def _pre_connect(self, settings: object) -> bool:
"""Called before connecting. Return True to proceed, False to retry."""
return True
def _on_not_configured(self) -> None:
"""Called each time the loop finds the publisher not configured."""
return # no-op by default; subclasses may override
async def _on_connected_async(self, settings: object) -> None:
"""Async hook called after connection succeeds (before health broadcast).
Subclasses can override to publish messages immediately after connecting.
"""
return # no-op by default
async def _on_periodic_wake(self, elapsed: float) -> None:
"""Called every ~60s while connected. Subclasses may override."""
return
# ── Connection loop ────────────────────────────────────────────────
async def _connection_loop(self) -> None:
"""Background loop: connect, wait for version change, reconnect on failure."""
from app.websocket import broadcast_error, broadcast_success
backoff = _BACKOFF_MIN
while True:
if not self._is_configured():
self._on_not_configured()
self.connected = False
self._client = None
self._version_event.clear()
try:
if self._not_configured_timeout is None:
await self._version_event.wait()
else:
await asyncio.wait_for(
self._version_event.wait(),
timeout=self._not_configured_timeout,
)
except asyncio.TimeoutError:
continue
except asyncio.CancelledError:
return
continue
settings = self._settings
assert settings is not None # guaranteed by _is_configured()
version_at_connect = self._settings_version
try:
if not await self._pre_connect(settings):
continue
client_kwargs = self._build_client_kwargs(settings)
connect_time = time.monotonic()
async with aiomqtt.Client(**client_kwargs) as client:
self._client = client
self.connected = True
backoff = _BACKOFF_MIN
title, detail = self._on_connected(settings)
broadcast_success(title, detail)
await self._on_connected_async(settings)
_broadcast_health()
# Wait until cancelled or settings version changes.
# The 60s timeout is a housekeeping wake-up; actual connection
# liveness is handled by paho-mqtt's keepalive mechanism.
while self._settings_version == version_at_connect:
self._version_event.clear()
try:
await asyncio.wait_for(self._version_event.wait(), timeout=60)
except asyncio.TimeoutError:
elapsed = time.monotonic() - connect_time
await self._on_periodic_wake(elapsed)
if self._should_break_wait(elapsed):
break
continue
# async with exited — client is now closed
self._client = None
self.connected = False
_broadcast_health()
except asyncio.CancelledError:
self.connected = False
self._client = None
return
except Exception as e:
self.connected = False
self._client = None
title, detail = self._on_error()
broadcast_error(title, detail)
_broadcast_health()
logger.warning(
"%s connection error: %s (reconnecting in %ds)",
self._log_prefix,
e,
backoff,
exc_info=True,
)
try:
await asyncio.sleep(backoff)
except asyncio.CancelledError:
return
backoff = min(backoff * 2, self._backoff_max)

View File

@@ -1,138 +0,0 @@
"""Fanout module wrapping the community MQTT publisher."""
from __future__ import annotations
import logging
import re
import string
from types import SimpleNamespace
from typing import Any
from app.fanout.base import FanoutModule
from app.fanout.community_mqtt import CommunityMqttPublisher, _format_raw_packet
logger = logging.getLogger(__name__)
_IATA_RE = re.compile(r"^[A-Z]{3}$")
_DEFAULT_PACKET_TOPIC_TEMPLATE = "meshcore/{IATA}/{PUBLIC_KEY}/packets"
_TOPIC_TEMPLATE_FIELD_CANONICAL = {
"iata": "IATA",
"public_key": "PUBLIC_KEY",
}
def _normalize_topic_template(topic_template: str) -> str:
"""Normalize packet topic template fields to canonical uppercase placeholders."""
template = topic_template.strip() or _DEFAULT_PACKET_TOPIC_TEMPLATE
parts: list[str] = []
try:
parsed = string.Formatter().parse(template)
for literal_text, field_name, format_spec, conversion in parsed:
parts.append(literal_text)
if field_name is None:
continue
normalized_field = _TOPIC_TEMPLATE_FIELD_CANONICAL.get(field_name.lower())
if normalized_field is None:
raise ValueError(f"Unsupported topic template field(s): {field_name}")
replacement = ["{", normalized_field]
if conversion:
replacement.extend(["!", conversion])
if format_spec:
replacement.extend([":", format_spec])
replacement.append("}")
parts.append("".join(replacement))
except ValueError:
raise
return "".join(parts)
def _config_to_settings(config: dict) -> SimpleNamespace:
"""Map a fanout config blob to a settings namespace for the CommunityMqttPublisher."""
return SimpleNamespace(
community_mqtt_enabled=True,
community_mqtt_broker_host=config.get("broker_host", "mqtt-us-v1.letsmesh.net"),
community_mqtt_broker_port=config.get("broker_port", 443),
community_mqtt_transport=config.get("transport", "websockets"),
community_mqtt_use_tls=config.get("use_tls", True),
community_mqtt_tls_verify=config.get("tls_verify", True),
community_mqtt_auth_mode=config.get("auth_mode", "token"),
community_mqtt_username=config.get("username", ""),
community_mqtt_password=config.get("password", ""),
community_mqtt_iata=config.get("iata", ""),
community_mqtt_email=config.get("email", ""),
community_mqtt_token_audience=config.get("token_audience", ""),
)
def _render_packet_topic(topic_template: str, *, iata: str, public_key: str) -> str:
"""Render the configured raw-packet publish topic."""
template = _normalize_topic_template(topic_template)
return template.format(IATA=iata, PUBLIC_KEY=public_key)
class MqttCommunityModule(FanoutModule):
"""Wraps a CommunityMqttPublisher for community packet sharing."""
def __init__(self, config_id: str, config: dict, *, name: str = "") -> None:
super().__init__(config_id, config, name=name)
self._publisher = CommunityMqttPublisher()
async def start(self) -> None:
settings = _config_to_settings(self.config)
await self._publisher.start(settings)
async def stop(self) -> None:
await self._publisher.stop()
async def on_message(self, data: dict) -> None:
# Community MQTT only publishes raw packets, not decoded messages.
pass
async def on_raw(self, data: dict) -> None:
if not self._publisher.connected or self._publisher._settings is None:
return
await _publish_community_packet(self._publisher, self.config, data)
@property
def status(self) -> str:
if self._publisher._is_configured():
return "connected" if self._publisher.connected else "disconnected"
return "disconnected"
async def _publish_community_packet(
publisher: CommunityMqttPublisher,
config: dict,
data: dict[str, Any],
) -> None:
"""Format and publish a raw packet to the community broker."""
try:
from app.keystore import get_public_key
from app.services.radio_runtime import radio_runtime as radio_manager
public_key = get_public_key()
if public_key is None:
return
pubkey_hex = public_key.hex().upper()
device_name = ""
if radio_manager.meshcore and radio_manager.meshcore.self_info:
device_name = radio_manager.meshcore.self_info.get("name", "")
packet = _format_raw_packet(data, device_name, pubkey_hex)
iata = config.get("iata", "").upper().strip()
if not _IATA_RE.fullmatch(iata):
logger.debug("Community MQTT: skipping publish — no valid IATA code configured")
return
topic = _render_packet_topic(
str(config.get("topic_template", _DEFAULT_PACKET_TOPIC_TEMPLATE)),
iata=iata,
public_key=pubkey_hex,
)
await publisher.publish(topic, packet)
except Exception as e:
logger.warning("Community MQTT broadcast error: %s", e, exc_info=True)

View File

@@ -1,61 +0,0 @@
"""Fanout module wrapping the private MQTT publisher."""
from __future__ import annotations
import logging
from types import SimpleNamespace
from app.fanout.base import FanoutModule
from app.fanout.mqtt import MqttPublisher, _build_message_topic, _build_raw_packet_topic
logger = logging.getLogger(__name__)
def _config_to_settings(config: dict) -> SimpleNamespace:
"""Map a fanout config blob to a settings namespace for the MqttPublisher."""
return SimpleNamespace(
mqtt_broker_host=config.get("broker_host", ""),
mqtt_broker_port=config.get("broker_port", 1883),
mqtt_username=config.get("username", ""),
mqtt_password=config.get("password", ""),
mqtt_use_tls=config.get("use_tls", False),
mqtt_tls_insecure=config.get("tls_insecure", False),
mqtt_topic_prefix=config.get("topic_prefix", "meshcore"),
mqtt_publish_messages=True,
mqtt_publish_raw_packets=True,
)
class MqttPrivateModule(FanoutModule):
"""Wraps an MqttPublisher instance for private MQTT forwarding."""
def __init__(self, config_id: str, config: dict, *, name: str = "") -> None:
super().__init__(config_id, config, name=name)
self._publisher = MqttPublisher()
async def start(self) -> None:
settings = _config_to_settings(self.config)
await self._publisher.start(settings)
async def stop(self) -> None:
await self._publisher.stop()
async def on_message(self, data: dict) -> None:
if not self._publisher.connected or self._publisher._settings is None:
return
prefix = self.config.get("topic_prefix", "meshcore")
topic = _build_message_topic(prefix, data)
await self._publisher.publish(topic, data)
async def on_raw(self, data: dict) -> None:
if not self._publisher.connected or self._publisher._settings is None:
return
prefix = self.config.get("topic_prefix", "meshcore")
topic = _build_raw_packet_topic(prefix, data)
await self._publisher.publish(topic, data)
@property
def status(self) -> str:
if not self.config.get("broker_host"):
return "disconnected"
return "connected" if self._publisher.connected else "disconnected"

View File

@@ -1,164 +0,0 @@
"""Fanout module for Amazon SQS delivery."""
from __future__ import annotations
import asyncio
import hashlib
import json
import logging
from functools import partial
from urllib.parse import urlparse
import boto3
from botocore.exceptions import BotoCoreError, ClientError
from app.fanout.base import FanoutModule
logger = logging.getLogger(__name__)
def _build_payload(data: dict, *, event_type: str) -> str:
"""Serialize a fanout event into a stable JSON envelope."""
return json.dumps(
{
"event_type": event_type,
"data": data,
},
separators=(",", ":"),
sort_keys=True,
)
def _infer_region_from_queue_url(queue_url: str) -> str | None:
"""Infer AWS region from a standard SQS queue URL host when possible."""
host = urlparse(queue_url).hostname or ""
if not host:
return None
parts = host.split(".")
if len(parts) < 4 or parts[0] != "sqs":
return None
if parts[2] != "amazonaws":
return None
if parts[3] not in {"com", "com.cn"}:
return None
region = parts[1].strip()
return region or None
def _is_fifo_queue(queue_url: str) -> bool:
"""Return True when the configured queue URL points at an SQS FIFO queue."""
return queue_url.rstrip("/").endswith(".fifo")
def _build_message_group_id(data: dict, *, event_type: str) -> str:
"""Choose a stable FIFO group ID from the event identity."""
if event_type == "message":
conversation_key = str(data.get("conversation_key", "")).strip()
if conversation_key:
return f"message-{conversation_key}"
return "message-default"
return "raw-packets"
def _build_message_deduplication_id(data: dict, *, event_type: str, body: str) -> str:
"""Choose a deterministic deduplication ID for FIFO queues."""
if event_type == "message":
message_id = data.get("id")
if isinstance(message_id, int):
return f"message-{message_id}"
else:
observation_id = data.get("observation_id")
if isinstance(observation_id, str) and observation_id.strip():
return f"raw-{observation_id}"
packet_id = data.get("id")
if isinstance(packet_id, int):
return f"raw-{packet_id}"
return hashlib.sha256(body.encode()).hexdigest()
class SqsModule(FanoutModule):
"""Delivers message and raw-packet events to an Amazon SQS queue."""
def __init__(self, config_id: str, config: dict, *, name: str = "") -> None:
super().__init__(config_id, config, name=name)
self._client = None
self._last_error: str | None = None
async def start(self) -> None:
kwargs: dict[str, str] = {}
queue_url = str(self.config.get("queue_url", "")).strip()
region_name = str(self.config.get("region_name", "")).strip()
endpoint_url = str(self.config.get("endpoint_url", "")).strip()
access_key_id = str(self.config.get("access_key_id", "")).strip()
secret_access_key = str(self.config.get("secret_access_key", "")).strip()
session_token = str(self.config.get("session_token", "")).strip()
if not region_name:
region_name = _infer_region_from_queue_url(queue_url) or ""
if region_name:
kwargs["region_name"] = region_name
if endpoint_url:
kwargs["endpoint_url"] = endpoint_url
if access_key_id and secret_access_key:
kwargs["aws_access_key_id"] = access_key_id
kwargs["aws_secret_access_key"] = secret_access_key
if session_token:
kwargs["aws_session_token"] = session_token
self._client = boto3.client("sqs", **kwargs)
self._last_error = None
async def stop(self) -> None:
self._client = None
async def on_message(self, data: dict) -> None:
await self._send(data, event_type="message")
async def on_raw(self, data: dict) -> None:
await self._send(data, event_type="raw_packet")
async def _send(self, data: dict, *, event_type: str) -> None:
if self._client is None:
return
queue_url = str(self.config.get("queue_url", "")).strip()
if not queue_url:
return
body = _build_payload(data, event_type=event_type)
request_kwargs: dict[str, object] = {
"QueueUrl": queue_url,
"MessageBody": body,
"MessageAttributes": {
"event_type": {
"DataType": "String",
"StringValue": event_type,
}
},
}
if _is_fifo_queue(queue_url):
request_kwargs["MessageGroupId"] = _build_message_group_id(data, event_type=event_type)
request_kwargs["MessageDeduplicationId"] = _build_message_deduplication_id(
data, event_type=event_type, body=body
)
try:
await asyncio.to_thread(partial(self._client.send_message, **request_kwargs))
self._last_error = None
except (ClientError, BotoCoreError) as exc:
self._last_error = str(exc)
logger.warning("SQS %s send error: %s", self.config_id, exc)
except Exception as exc:
self._last_error = str(exc)
logger.exception("Unexpected SQS send error for %s", self.config_id)
@property
def status(self) -> str:
if not str(self.config.get("queue_url", "")).strip():
return "disconnected"
if self._last_error:
return "error"
return "connected"

View File

@@ -1,84 +0,0 @@
"""Fanout module for webhook (HTTP POST) delivery."""
from __future__ import annotations
import hashlib
import hmac
import json
import logging
import httpx
from app.fanout.base import FanoutModule
logger = logging.getLogger(__name__)
class WebhookModule(FanoutModule):
"""Delivers message data to an HTTP endpoint via POST (or configurable method)."""
def __init__(self, config_id: str, config: dict, *, name: str = "") -> None:
super().__init__(config_id, config, name=name)
self._client: httpx.AsyncClient | None = None
self._last_error: str | None = None
async def start(self) -> None:
self._client = httpx.AsyncClient(timeout=httpx.Timeout(10.0))
self._last_error = None
async def stop(self) -> None:
if self._client:
await self._client.aclose()
self._client = None
async def on_message(self, data: dict) -> None:
await self._send(data, event_type="message")
async def _send(self, data: dict, *, event_type: str) -> None:
if not self._client:
return
url = self.config.get("url", "")
if not url:
return
method = self.config.get("method", "POST").upper()
extra_headers = self.config.get("headers", {})
hmac_secret = self.config.get("hmac_secret", "")
hmac_header = self.config.get("hmac_header", "X-Webhook-Signature")
headers = {
"Content-Type": "application/json",
"X-Webhook-Event": event_type,
**extra_headers,
}
body_bytes = json.dumps(data, separators=(",", ":"), sort_keys=True).encode()
if hmac_secret:
sig = hmac.new(hmac_secret.encode(), body_bytes, hashlib.sha256).hexdigest()
headers[hmac_header or "X-Webhook-Signature"] = f"sha256={sig}"
try:
resp = await self._client.request(method, url, content=body_bytes, headers=headers)
resp.raise_for_status()
self._last_error = None
except httpx.HTTPStatusError as exc:
self._last_error = f"HTTP {exc.response.status_code}"
logger.warning(
"Webhook %s returned %s for %s",
self.config_id,
exc.response.status_code,
url,
)
except httpx.RequestError as exc:
self._last_error = str(exc)
logger.warning("Webhook %s request error: %s", self.config_id, exc)
@property
def status(self) -> str:
if not self.config.get("url"):
return "disconnected"
if self._last_error:
return "error"
return "connected"

View File

@@ -1,170 +0,0 @@
import logging
from pathlib import Path
from fastapi import FastAPI, HTTPException, Request
from fastapi.responses import FileResponse, JSONResponse
from fastapi.staticfiles import StaticFiles
logger = logging.getLogger(__name__)
INDEX_CACHE_CONTROL = "no-store"
ASSET_CACHE_CONTROL = "public, max-age=31536000, immutable"
STATIC_FILE_CACHE_CONTROL = "public, max-age=3600"
class CacheControlStaticFiles(StaticFiles):
"""StaticFiles variant that adds a fixed Cache-Control header."""
def __init__(self, *args, cache_control: str, **kwargs) -> None:
super().__init__(*args, **kwargs)
self.cache_control = cache_control
def file_response(self, *args, **kwargs):
response = super().file_response(*args, **kwargs)
response.headers["Cache-Control"] = self.cache_control
return response
def _file_response(path: Path, *, cache_control: str) -> FileResponse:
return FileResponse(path, headers={"Cache-Control": cache_control})
def _is_index_file(path: Path, index_file: Path) -> bool:
"""Return True when the requested file is the SPA shell index.html."""
return path == index_file
def _resolve_request_origin(request: Request) -> str:
"""Resolve the external origin, honoring common reverse-proxy headers."""
forwarded_proto = request.headers.get("x-forwarded-proto")
forwarded_host = request.headers.get("x-forwarded-host")
if forwarded_proto and forwarded_host:
proto = forwarded_proto.split(",")[0].strip()
host = forwarded_host.split(",")[0].strip()
if proto and host:
return f"{proto}://{host}"
return str(request.base_url).rstrip("/")
def register_frontend_static_routes(app: FastAPI, frontend_dir: Path) -> bool:
"""Register frontend static file routes if a built frontend is available.
Returns True when routes are registered, False when frontend files are
missing/incomplete. Missing frontend files are logged but are not fatal.
"""
frontend_dir = frontend_dir.resolve()
index_file = frontend_dir / "index.html"
assets_dir = frontend_dir / "assets"
if not frontend_dir.exists():
logger.error(
"Frontend build directory not found at %s. "
"Run 'cd frontend && npm run build'. API will continue without frontend routes.",
frontend_dir,
)
return False
if not frontend_dir.is_dir():
logger.error(
"Frontend build path is not a directory: %s. "
"API will continue without frontend routes.",
frontend_dir,
)
return False
if not index_file.exists():
logger.error(
"Frontend index file not found at %s. "
"Run 'cd frontend && npm run build'. API will continue without frontend routes.",
index_file,
)
return False
if assets_dir.exists() and assets_dir.is_dir():
app.mount(
"/assets",
CacheControlStaticFiles(directory=assets_dir, cache_control=ASSET_CACHE_CONTROL),
name="assets",
)
else:
logger.warning(
"Frontend assets directory missing at %s; /assets files will not be served",
assets_dir,
)
@app.get("/")
async def serve_index():
"""Serve the frontend index.html."""
return _file_response(index_file, cache_control=INDEX_CACHE_CONTROL)
@app.get("/site.webmanifest")
async def serve_webmanifest(request: Request):
"""Serve a dynamic web manifest using the active request origin."""
origin = _resolve_request_origin(request)
manifest = {
"name": "RemoteTerm for MeshCore",
"short_name": "RemoteTerm",
"id": f"{origin}/",
"start_url": f"{origin}/",
"scope": f"{origin}/",
"display": "standalone",
"display_override": ["window-controls-overlay", "standalone", "fullscreen"],
"theme_color": "#111419",
"background_color": "#111419",
"icons": [
{
"src": f"{origin}/web-app-manifest-192x192.png",
"sizes": "192x192",
"type": "image/png",
"purpose": "maskable",
},
{
"src": f"{origin}/web-app-manifest-512x512.png",
"sizes": "512x512",
"type": "image/png",
"purpose": "maskable",
},
],
}
return JSONResponse(
manifest,
media_type="application/manifest+json",
headers={"Cache-Control": "no-store"},
)
@app.get("/{path:path}")
async def serve_frontend(path: str):
"""Serve frontend files, falling back to index.html for SPA routing."""
file_path = (frontend_dir / path).resolve()
try:
file_path.relative_to(frontend_dir)
except ValueError:
raise HTTPException(status_code=404, detail="Not found") from None
if file_path.exists() and file_path.is_file():
cache_control = (
INDEX_CACHE_CONTROL
if _is_index_file(file_path, index_file)
else STATIC_FILE_CACHE_CONTROL
)
return _file_response(file_path, cache_control=cache_control)
return _file_response(index_file, cache_control=INDEX_CACHE_CONTROL)
logger.info("Serving frontend from %s", frontend_dir)
return True
def register_frontend_missing_fallback(app: FastAPI) -> None:
"""Register a fallback route that tells the user to build the frontend."""
@app.get("/", include_in_schema=False)
async def frontend_not_built():
return JSONResponse(
status_code=404,
content={
"detail": "Frontend not built. Run: cd frontend && npm install && npm run build"
},
)

View File

@@ -18,13 +18,6 @@ if TYPE_CHECKING:
logger = logging.getLogger(__name__)
NO_EVENT_RECEIVED_GUIDANCE = (
"Radio command channel is unresponsive (no_event_received). Ensure that your firmware is not "
"incompatible, outdated, or wrong-mode (e.g. repeater, not client), and that"
"serial/TCP/BLE connectivity is successful (try another app and see if that one works?). The app cannot proceed because it cannot "
"issue commands to the radio."
)
# In-memory storage for the private key and derived public key
_private_key: bytes | None = None
_public_key: bytes | None = None
@@ -98,14 +91,8 @@ async def export_and_store_private_key(mc: "MeshCore") -> bool:
)
return False
else:
reason = result.payload.get("reason") if isinstance(result.payload, dict) else None
if result.type == EventType.ERROR and reason == "no_event_received":
logger.error("%s Raw response: %s", NO_EVENT_RECEIVED_GUIDANCE, result.payload)
raise RuntimeError(NO_EVENT_RECEIVED_GUIDANCE)
logger.error("Failed to export private key: %s", result.payload)
return False
except RuntimeError:
raise
except Exception as e:
logger.error("Error exporting private key: %s", e)
return False

View File

@@ -1,18 +1,15 @@
import asyncio
import logging
from contextlib import asynccontextmanager
from pathlib import Path
from fastapi import FastAPI, Request
from fastapi import FastAPI
from fastapi.middleware.cors import CORSMiddleware
from fastapi.middleware.gzip import GZipMiddleware
from fastapi.responses import JSONResponse
from fastapi.responses import FileResponse
from fastapi.staticfiles import StaticFiles
from app.config import settings as server_settings
from app.config import setup_logging
from app.database import db
from app.frontend_static import register_frontend_missing_fallback, register_frontend_static_routes
from app.radio import RadioDisconnectedError
from app.radio import radio_manager
from app.radio_sync import (
stop_message_polling,
stop_periodic_advert,
@@ -21,74 +18,38 @@ from app.radio_sync import (
from app.routers import (
channels,
contacts,
debug,
fanout,
health,
messages,
packets,
radio,
read_state,
repeaters,
settings,
statistics,
ws,
)
from app.security import add_optional_basic_auth_middleware
from app.services.radio_runtime import radio_runtime as radio_manager
setup_logging()
logger = logging.getLogger(__name__)
async def _startup_radio_connect_and_setup() -> None:
"""Connect/setup the radio in the background so HTTP serving can start immediately."""
try:
connected = await radio_manager.reconnect_and_prepare(broadcast_on_success=True)
if connected:
logger.info("Connected to radio")
else:
logger.warning("Failed to connect to radio on startup")
except Exception:
logger.exception("Failed to connect to radio on startup")
@asynccontextmanager
async def lifespan(app: FastAPI):
"""Manage database and radio connection lifecycle."""
await db.connect()
logger.info("Database connected")
# Ensure default channels exist in the database even before the radio
# connects. Without this, a fresh or disconnected instance would return
# zero channels from GET /channels until the first successful radio sync.
from app.radio_sync import ensure_default_channels
await ensure_default_channels()
try:
await radio_manager.connect()
logger.info("Connected to radio")
await radio_manager.post_connect_setup()
except Exception as e:
logger.warning("Failed to connect to radio on startup: %s", e)
# Always start connection monitor (even if initial connection failed)
await radio_manager.start_connection_monitor()
# Start fanout modules (MQTT, etc.) from database configs
from app.fanout.manager import fanout_manager
try:
await fanout_manager.load_from_db()
except Exception:
logger.exception("Failed to start fanout modules")
startup_radio_task = asyncio.create_task(_startup_radio_connect_and_setup())
app.state.startup_radio_task = startup_radio_task
yield
logger.info("Shutting down")
if startup_radio_task and not startup_radio_task.done():
startup_radio_task.cancel()
try:
await startup_radio_task
except asyncio.CancelledError:
pass
await fanout_manager.stop_all()
await radio_manager.stop_connection_monitor()
await stop_message_polling()
await stop_periodic_advert()
@@ -99,27 +60,13 @@ async def lifespan(app: FastAPI):
await db.disconnect()
def _get_version() -> str:
"""Read version from pyproject.toml so it stays in sync automatically."""
try:
pyproject = Path(__file__).resolve().parent.parent / "pyproject.toml"
for line in pyproject.read_text().splitlines():
if line.startswith("version = "):
return line.split('"')[1]
except Exception:
pass
return "0.0.0"
app = FastAPI(
title="RemoteTerm for MeshCore API",
description="API for interacting with MeshCore mesh radio networks",
version=_get_version(),
version="0.1.0",
lifespan=lifespan,
)
add_optional_basic_auth_middleware(app, server_settings)
app.add_middleware(GZipMiddleware, minimum_size=500)
app.add_middleware(
CORSMiddleware,
allow_origins=["*"],
@@ -128,29 +75,35 @@ app.add_middleware(
allow_headers=["*"],
)
@app.exception_handler(RadioDisconnectedError)
async def radio_disconnected_handler(request: Request, exc: RadioDisconnectedError):
"""Return 503 when a radio disconnect race occurs during an operation."""
return JSONResponse(status_code=503, content={"detail": "Radio not connected"})
# API routes - all prefixed with /api for production compatibility
app.include_router(health.router, prefix="/api")
app.include_router(debug.router, prefix="/api")
app.include_router(fanout.router, prefix="/api")
app.include_router(radio.router, prefix="/api")
app.include_router(contacts.router, prefix="/api")
app.include_router(repeaters.router, prefix="/api")
app.include_router(channels.router, prefix="/api")
app.include_router(messages.router, prefix="/api")
app.include_router(packets.router, prefix="/api")
app.include_router(read_state.router, prefix="/api")
app.include_router(settings.router, prefix="/api")
app.include_router(statistics.router, prefix="/api")
app.include_router(ws.router, prefix="/api")
# Serve frontend static files in production
FRONTEND_DIR = Path(__file__).parent.parent / "frontend" / "dist"
if not register_frontend_static_routes(app, FRONTEND_DIR):
register_frontend_missing_fallback(app)
if FRONTEND_DIR.exists():
# Serve static assets (JS, CSS, etc.)
app.mount("/assets", StaticFiles(directory=FRONTEND_DIR / "assets"), name="assets")
# Serve other static files from frontend/dist (like wordlist)
@app.get("/{path:path}")
async def serve_frontend(path: str):
"""Serve frontend files, falling back to index.html for SPA routing."""
file_path = FRONTEND_DIR / path
if file_path.exists() and file_path.is_file():
return FileResponse(file_path)
# Fall back to index.html for SPA routing
return FileResponse(FRONTEND_DIR / "index.html")
@app.get("/")
async def serve_index():
"""Serve the frontend index.html."""
return FileResponse(FRONTEND_DIR / "index.html")

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View File

@@ -2,78 +2,14 @@ from typing import Literal
from pydantic import BaseModel, Field
from app.path_utils import normalize_contact_route
class ContactUpsert(BaseModel):
"""Typed write contract for contacts persisted to SQLite."""
public_key: str = Field(description="Public key (64-char hex)")
name: str | None = None
type: int = 0
flags: int = 0
last_path: str | None = None
last_path_len: int = -1
out_path_hash_mode: int | None = None
route_override_path: str | None = None
route_override_len: int | None = None
route_override_hash_mode: int | None = None
last_advert: int | None = None
lat: float | None = None
lon: float | None = None
last_seen: int | None = None
on_radio: bool | None = None
last_contacted: int | None = None
first_seen: int | None = None
@classmethod
def from_contact(cls, contact: "Contact", **changes) -> "ContactUpsert":
return cls.model_validate(
{
**contact.model_dump(exclude={"last_read_at"}),
**changes,
}
)
@classmethod
def from_radio_dict(
cls, public_key: str, radio_data: dict, on_radio: bool = False
) -> "ContactUpsert":
"""Convert radio contact data to the contact-row write shape."""
last_path, last_path_len, out_path_hash_mode = normalize_contact_route(
radio_data.get("out_path"),
radio_data.get("out_path_len", -1),
radio_data.get(
"out_path_hash_mode",
-1 if radio_data.get("out_path_len", -1) == -1 else 0,
),
)
return cls(
public_key=public_key,
name=radio_data.get("adv_name"),
type=radio_data.get("type", 0),
flags=radio_data.get("flags", 0),
last_path=last_path,
last_path_len=last_path_len,
out_path_hash_mode=out_path_hash_mode,
lat=radio_data.get("adv_lat"),
lon=radio_data.get("adv_lon"),
last_advert=radio_data.get("last_advert"),
on_radio=on_radio,
)
class Contact(BaseModel):
public_key: str = Field(description="Public key (64-char hex)")
name: str | None = None
type: int = 0 # 0=unknown, 1=client, 2=repeater, 3=room, 4=sensor
type: int = 0 # 0=unknown, 1=client, 2=repeater, 3=room
flags: int = 0
last_path: str | None = None
last_path_len: int = -1
out_path_hash_mode: int = 0
route_override_path: str | None = None
route_override_len: int | None = None
route_override_hash_mode: int | None = None
last_advert: int | None = None
lat: float | None = None
lon: float | None = None
@@ -81,23 +17,6 @@ class Contact(BaseModel):
on_radio: bool = False
last_contacted: int | None = None # Last time we sent/received a message
last_read_at: int | None = None # Server-side read state tracking
first_seen: int | None = None
def has_route_override(self) -> bool:
return self.route_override_len is not None
def effective_route(self) -> tuple[str, int, int]:
if self.has_route_override():
return normalize_contact_route(
self.route_override_path,
self.route_override_len,
self.route_override_hash_mode,
)
return normalize_contact_route(
self.last_path,
self.last_path_len,
self.out_path_hash_mode,
)
def to_radio_dict(self) -> dict:
"""Convert to the dict format expected by meshcore radio commands.
@@ -105,32 +24,37 @@ class Contact(BaseModel):
The radio API uses different field names (adv_name, out_path, etc.)
than our database schema (name, last_path, etc.).
"""
last_path, last_path_len, out_path_hash_mode = self.effective_route()
return {
"public_key": self.public_key,
"adv_name": self.name or "",
"type": self.type,
"flags": self.flags,
"out_path": last_path,
"out_path_len": last_path_len,
"out_path_hash_mode": out_path_hash_mode,
"adv_lat": self.lat if self.lat is not None else 0.0,
"adv_lon": self.lon if self.lon is not None else 0.0,
"last_advert": self.last_advert if self.last_advert is not None else 0,
"out_path": self.last_path or "",
"out_path_len": self.last_path_len,
"adv_lat": self.lat or 0.0,
"adv_lon": self.lon or 0.0,
"last_advert": self.last_advert or 0,
}
def to_upsert(self, **changes) -> ContactUpsert:
"""Convert the stored contact to the repository's write contract."""
return ContactUpsert.from_contact(self, **changes)
@staticmethod
def from_radio_dict(public_key: str, radio_data: dict, on_radio: bool = False) -> dict:
"""Backward-compatible dict wrapper over ContactUpsert.from_radio_dict()."""
return ContactUpsert.from_radio_dict(
public_key,
radio_data,
on_radio=on_radio,
).model_dump()
"""Convert radio contact data to database format dict.
This is the inverse of to_radio_dict(), used when syncing contacts
from radio to database.
"""
return {
"public_key": public_key,
"name": radio_data.get("adv_name"),
"type": radio_data.get("type", 0),
"flags": radio_data.get("flags", 0),
"last_path": radio_data.get("out_path"),
"last_path_len": radio_data.get("out_path_len", -1),
"lat": radio_data.get("adv_lat"),
"lon": radio_data.get("adv_lon"),
"last_advert": radio_data.get("last_advert"),
"on_radio": on_radio,
}
class CreateContactRequest(BaseModel):
@@ -144,182 +68,23 @@ class CreateContactRequest(BaseModel):
)
class ContactRoutingOverrideRequest(BaseModel):
"""Request to set, force, or clear a contact routing override."""
route: str = Field(
description=(
"Blank clears the override and resets learned routing to flood, "
'"-1" forces flood, "0" forces direct, and explicit routes are '
"comma-separated 1/2/3-byte hop hex values"
)
)
# Contact type constants
CONTACT_TYPE_REPEATER = 2
class ContactAdvertPath(BaseModel):
"""A unique advert path observed for a contact."""
path: str = Field(description="Hex-encoded routing path (empty string for direct)")
path_len: int = Field(description="Number of hops in the path")
next_hop: str | None = Field(
default=None,
description="First hop toward us as a full hop identifier, or null for direct",
)
first_seen: int = Field(description="Unix timestamp of first observation")
last_seen: int = Field(description="Unix timestamp of most recent observation")
heard_count: int = Field(description="Number of times this unique path was heard")
class ContactAdvertPathSummary(BaseModel):
"""Recent unique advertisement paths for a single contact."""
public_key: str = Field(description="Contact public key (64-char hex)")
paths: list[ContactAdvertPath] = Field(
default_factory=list, description="Most recent unique advert paths"
)
class ContactNameHistory(BaseModel):
"""A historical name used by a contact."""
name: str
first_seen: int
last_seen: int
class ContactActiveRoom(BaseModel):
"""A channel/room where a contact has been active."""
channel_key: str
channel_name: str
message_count: int
class NearestRepeater(BaseModel):
"""A repeater that has relayed a contact's advertisements."""
public_key: str
name: str | None = None
path_len: int
last_seen: int
heard_count: int
class ContactDetail(BaseModel):
"""Comprehensive contact profile data."""
contact: Contact
name_history: list[ContactNameHistory] = Field(default_factory=list)
dm_message_count: int = 0
channel_message_count: int = 0
most_active_rooms: list[ContactActiveRoom] = Field(default_factory=list)
advert_paths: list[ContactAdvertPath] = Field(default_factory=list)
advert_frequency: float | None = Field(
default=None,
description="Advert observations per hour (includes multi-path arrivals of same advert)",
)
nearest_repeaters: list[NearestRepeater] = Field(default_factory=list)
class NameOnlyContactDetail(BaseModel):
"""Channel activity summary for a sender name that is not tied to a known key."""
name: str
channel_message_count: int = 0
most_active_rooms: list[ContactActiveRoom] = Field(default_factory=list)
class ContactAnalyticsHourlyBucket(BaseModel):
"""A single hourly activity bucket for contact analytics."""
bucket_start: int = Field(description="Unix timestamp for the start of the hour bucket")
last_24h_count: int = 0
last_week_average: float = 0
all_time_average: float = 0
class ContactAnalyticsWeeklyBucket(BaseModel):
"""A single weekly activity bucket for contact analytics."""
bucket_start: int = Field(description="Unix timestamp for the start of the 7-day bucket")
message_count: int = 0
class ContactAnalytics(BaseModel):
"""Unified contact analytics payload for keyed and name-only lookups."""
lookup_type: Literal["contact", "name"]
name: str
contact: Contact | None = None
name_first_seen_at: int | None = None
name_history: list[ContactNameHistory] = Field(default_factory=list)
dm_message_count: int = 0
channel_message_count: int = 0
includes_direct_messages: bool = False
most_active_rooms: list[ContactActiveRoom] = Field(default_factory=list)
advert_paths: list[ContactAdvertPath] = Field(default_factory=list)
advert_frequency: float | None = Field(
default=None,
description="Advert observations per hour (includes multi-path arrivals of same advert)",
)
nearest_repeaters: list[NearestRepeater] = Field(default_factory=list)
hourly_activity: list[ContactAnalyticsHourlyBucket] = Field(default_factory=list)
weekly_activity: list[ContactAnalyticsWeeklyBucket] = Field(default_factory=list)
class Channel(BaseModel):
key: str = Field(description="Channel key (32-char hex)")
name: str
is_hashtag: bool = False
on_radio: bool = False
flood_scope_override: str | None = Field(
default=None,
description="Per-channel outbound flood scope override (null = use global app setting)",
)
last_read_at: int | None = None # Server-side read state tracking
class ChannelMessageCounts(BaseModel):
"""Time-windowed message counts for a channel."""
last_1h: int = 0
last_24h: int = 0
last_48h: int = 0
last_7d: int = 0
all_time: int = 0
class ChannelTopSender(BaseModel):
"""A top sender in a channel over the last 24 hours."""
sender_name: str
sender_key: str | None = None
message_count: int
class ChannelDetail(BaseModel):
"""Comprehensive channel profile data."""
channel: Channel
message_counts: ChannelMessageCounts = Field(default_factory=ChannelMessageCounts)
first_message_at: int | None = None
unique_sender_count: int = 0
top_senders_24h: list[ChannelTopSender] = Field(default_factory=list)
class MessagePath(BaseModel):
"""A single path that a message took to reach us."""
path: str = Field(description="Hex-encoded routing path")
path: str = Field(description="Hex-encoded routing path (2 chars per hop)")
received_at: int = Field(description="Unix timestamp when this path was received")
path_len: int | None = Field(
default=None,
description="Hop count. None = legacy (infer as len(path)//2, i.e. 1-byte hops)",
)
class Message(BaseModel):
@@ -334,23 +99,8 @@ class Message(BaseModel):
)
txt_type: int = 0
signature: str | None = None
sender_key: str | None = None
outgoing: bool = False
acked: int = 0
sender_name: str | None = None
channel_name: str | None = None
class MessagesAroundResponse(BaseModel):
messages: list[Message]
has_older: bool
has_newer: bool
class ResendChannelMessageResponse(BaseModel):
status: str
message_id: int
message: Message | None = None
class RawPacketDecryptedInfo(BaseModel):
@@ -358,8 +108,6 @@ class RawPacketDecryptedInfo(BaseModel):
channel_name: str | None = None
sender: str | None = None
channel_key: str | None = None
contact_key: str | None = None
class RawPacketBroadcast(BaseModel):
@@ -370,11 +118,6 @@ class RawPacketBroadcast(BaseModel):
"""
id: int
observation_id: int = Field(
description=(
"Monotonic per-process ID for this RF observation (distinct from the DB packet row ID)"
)
)
timestamp: int
data: str = Field(description="Hex-encoded packet data")
payload_type: str = Field(description="Packet type name (e.g., GROUP_TEXT, ADVERT)")
@@ -389,101 +132,19 @@ class SendMessageRequest(BaseModel):
class SendDirectMessageRequest(SendMessageRequest):
destination: str = Field(
description="Recipient public key (64-char hex preferred; prefix must resolve uniquely)"
)
destination: str = Field(description="Public key or prefix of recipient")
class SendChannelMessageRequest(SendMessageRequest):
channel_key: str = Field(description="Channel key (32-char hex)")
class RepeaterLoginRequest(BaseModel):
"""Request to log in to a repeater."""
class TelemetryRequest(BaseModel):
password: str = Field(
default="", description="Repeater password (empty string for guest login)"
default="", description="Repeater password (empty string for no password)"
)
class RepeaterLoginResponse(BaseModel):
"""Response from repeater login."""
status: str = Field(description="Login result status")
class RepeaterStatusResponse(BaseModel):
"""Status telemetry from a repeater (single attempt, no retries)."""
battery_volts: float = Field(description="Battery voltage in volts")
tx_queue_len: int = Field(description="Transmit queue length")
noise_floor_dbm: int = Field(description="Noise floor in dBm")
last_rssi_dbm: int = Field(description="Last RSSI in dBm")
last_snr_db: float = Field(description="Last SNR in dB")
packets_received: int = Field(description="Total packets received")
packets_sent: int = Field(description="Total packets sent")
airtime_seconds: int = Field(description="TX airtime in seconds")
rx_airtime_seconds: int = Field(description="RX airtime in seconds")
uptime_seconds: int = Field(description="Uptime in seconds")
sent_flood: int = Field(description="Flood packets sent")
sent_direct: int = Field(description="Direct packets sent")
recv_flood: int = Field(description="Flood packets received")
recv_direct: int = Field(description="Direct packets received")
flood_dups: int = Field(description="Duplicate flood packets")
direct_dups: int = Field(description="Duplicate direct packets")
full_events: int = Field(description="Full event queue count")
class RepeaterNodeInfoResponse(BaseModel):
"""Identity/location info from a repeater (small CLI batch)."""
name: str | None = Field(default=None, description="Repeater name")
lat: str | None = Field(default=None, description="Latitude")
lon: str | None = Field(default=None, description="Longitude")
clock_utc: str | None = Field(default=None, description="Repeater clock in UTC")
class RepeaterRadioSettingsResponse(BaseModel):
"""Radio settings from a repeater (radio/config CLI batch)."""
firmware_version: str | None = Field(default=None, description="Firmware version string")
radio: str | None = Field(default=None, description="Radio settings (freq,bw,sf,cr)")
tx_power: str | None = Field(default=None, description="TX power in dBm")
airtime_factor: str | None = Field(default=None, description="Airtime factor")
repeat_enabled: str | None = Field(default=None, description="Repeat mode enabled")
flood_max: str | None = Field(default=None, description="Max flood hops")
class RepeaterAdvertIntervalsResponse(BaseModel):
"""Advertisement intervals from a repeater."""
advert_interval: str | None = Field(default=None, description="Local advert interval")
flood_advert_interval: str | None = Field(default=None, description="Flood advert interval")
class RepeaterOwnerInfoResponse(BaseModel):
"""Owner info and guest password from a repeater."""
owner_info: str | None = Field(default=None, description="Owner info string")
guest_password: str | None = Field(default=None, description="Guest password")
class LppSensor(BaseModel):
"""A single CayenneLPP sensor reading from req_telemetry_sync."""
channel: int = Field(description="LPP channel number")
type_name: str = Field(description="Sensor type name (e.g. temperature, humidity)")
value: float | dict = Field(
description="Scalar value or dict for multi-value sensors (GPS, accel)"
)
class RepeaterLppTelemetryResponse(BaseModel):
"""CayenneLPP sensor telemetry from a repeater."""
sensors: list[LppSensor] = Field(default_factory=list, description="List of sensor readings")
class NeighborInfo(BaseModel):
"""Information about a neighbor seen by a repeater."""
@@ -504,18 +165,34 @@ class AclEntry(BaseModel):
permission_name: str = Field(description="Human-readable permission name")
class RepeaterNeighborsResponse(BaseModel):
"""Neighbors list from a repeater."""
class TelemetryResponse(BaseModel):
"""Telemetry data from a repeater, formatted for human readability."""
pubkey_prefix: str = Field(description="12-char public key prefix")
battery_volts: float = Field(description="Battery voltage in volts")
tx_queue_len: int = Field(description="Transmit queue length")
noise_floor_dbm: int = Field(description="Noise floor in dBm")
last_rssi_dbm: int = Field(description="Last RSSI in dBm")
last_snr_db: float = Field(description="Last SNR in dB")
packets_received: int = Field(description="Total packets received")
packets_sent: int = Field(description="Total packets sent")
airtime_seconds: int = Field(description="TX airtime in seconds")
rx_airtime_seconds: int = Field(description="RX airtime in seconds")
uptime_seconds: int = Field(description="Uptime in seconds")
sent_flood: int = Field(description="Flood packets sent")
sent_direct: int = Field(description="Direct packets sent")
recv_flood: int = Field(description="Flood packets received")
recv_direct: int = Field(description="Direct packets received")
flood_dups: int = Field(description="Duplicate flood packets")
direct_dups: int = Field(description="Duplicate direct packets")
full_events: int = Field(description="Full event queue count")
neighbors: list[NeighborInfo] = Field(
default_factory=list, description="List of neighbors seen by repeater"
)
class RepeaterAclResponse(BaseModel):
"""ACL list from a repeater."""
acl: list[AclEntry] = Field(default_factory=list, description="Access control list")
clock_output: str | None = Field(
default=None, description="Output from 'clock' command (or error message)"
)
class TraceResponse(BaseModel):
@@ -530,30 +207,6 @@ class TraceResponse(BaseModel):
path_len: int = Field(description="Number of hops in the trace path")
class PathDiscoveryRoute(BaseModel):
"""One resolved route returned by contact path discovery."""
path: str = Field(description="Hex-encoded path bytes")
path_len: int = Field(description="Hop count for this route")
path_hash_mode: int = Field(
description="Path hash mode (0=1-byte, 1=2-byte, 2=3-byte hop identifiers)"
)
class PathDiscoveryResponse(BaseModel):
"""Round-trip routing data for a contact path discovery request."""
contact: Contact = Field(
description="Updated contact row after saving the learned forward path"
)
forward_path: PathDiscoveryRoute = Field(
description="Route used from the local radio to the target contact"
)
return_path: PathDiscoveryRoute = Field(
description="Route used from the target contact back to the local radio"
)
class CommandRequest(BaseModel):
"""Request to send a CLI command to a repeater."""
@@ -570,48 +223,6 @@ class CommandResponse(BaseModel):
)
class RadioDiscoveryRequest(BaseModel):
"""Request to discover nearby mesh nodes from the local radio."""
target: Literal["repeaters", "sensors", "all"] = Field(
default="all",
description="Which node classes to discover over the mesh",
)
class RadioDiscoveryResult(BaseModel):
"""One mesh node heard during a discovery sweep."""
public_key: str = Field(description="Discovered node public key as hex")
node_type: Literal["repeater", "sensor"] = Field(description="Discovered node class")
heard_count: int = Field(default=1, description="How many responses were heard from this node")
local_snr: float | None = Field(
default=None,
description="SNR at which the local radio heard the response (dB)",
)
local_rssi: int | None = Field(
default=None,
description="RSSI at which the local radio heard the response (dBm)",
)
remote_snr: float | None = Field(
default=None,
description="SNR reported by the remote node while hearing our discovery request (dB)",
)
class RadioDiscoveryResponse(BaseModel):
"""Response payload for a mesh discovery sweep."""
target: Literal["repeaters", "sensors", "all"] = Field(
description="Which node classes were requested"
)
duration_seconds: float = Field(description="How long the sweep listened for responses")
results: list[RadioDiscoveryResult] = Field(
default_factory=list,
description="Deduplicated discovery responses heard during the sweep",
)
class Favorite(BaseModel):
"""A favorite conversation."""
@@ -619,6 +230,15 @@ class Favorite(BaseModel):
id: str = Field(description="Channel key or contact public key")
class BotConfig(BaseModel):
"""Configuration for a single bot."""
id: str = Field(description="UUID for stable identity across renames/reorders")
name: str = Field(description="User-editable name")
enabled: bool = Field(default=False, description="Whether this bot is enabled")
code: str = Field(default="", description="Python code for this bot")
class UnreadCounts(BaseModel):
"""Aggregated unread counts, mention flags, and last message times for all conversations."""
@@ -631,9 +251,6 @@ class UnreadCounts(BaseModel):
last_message_times: dict[str, int] = Field(
default_factory=dict, description="Map of stateKey -> last message timestamp"
)
last_read_ats: dict[str, int | None] = Field(
default_factory=dict, description="Map of stateKey -> server-side last_read_at boundary"
)
class AppSettings(BaseModel):
@@ -641,10 +258,7 @@ class AppSettings(BaseModel):
max_radio_contacts: int = Field(
default=200,
description=(
"Configured radio contact capacity used for maintenance thresholds; "
"favorites reload first, then background fill targets about 80% of this value"
),
description="Maximum non-repeater contacts to keep on radio for DM ACKs",
)
favorites: list[Favorite] = Field(
default_factory=list, description="List of favorited conversations"
@@ -673,66 +287,7 @@ class AppSettings(BaseModel):
default=0,
description="Unix timestamp of last advertisement sent (0 = never)",
)
flood_scope: str = Field(
default="",
description="Outbound flood scope / region name (empty = disabled, no tagging)",
)
blocked_keys: list[str] = Field(
bots: list[BotConfig] = Field(
default_factory=list,
description="Public keys whose messages are hidden from the UI",
description="List of bot configurations",
)
blocked_names: list[str] = Field(
default_factory=list,
description="Display names whose messages are hidden from the UI",
)
class FanoutConfig(BaseModel):
"""Configuration for a single fanout integration."""
id: str
type: str # 'mqtt_private' | 'mqtt_community' | 'bot' | 'webhook' | 'apprise' | 'sqs'
name: str
enabled: bool
config: dict
scope: dict
sort_order: int = 0
created_at: int = 0
class BusyChannel(BaseModel):
channel_key: str
channel_name: str
message_count: int
class ContactActivityCounts(BaseModel):
last_hour: int
last_24_hours: int
last_week: int
class PathHashWidthStats(BaseModel):
total_packets: int
single_byte: int
double_byte: int
triple_byte: int
single_byte_pct: float
double_byte_pct: float
triple_byte_pct: float
class StatisticsResponse(BaseModel):
busiest_channels_24h: list[BusyChannel]
contact_count: int
repeater_count: int
channel_count: int
total_packets: int
decrypted_packets: int
undecrypted_packets: int
total_dms: int
total_channel_messages: int
total_outgoing: int
contacts_heard: ContactActivityCounts
repeaters_heard: ContactActivityCounts
path_hash_width_24h: PathHashWidthStats

View File

@@ -15,7 +15,6 @@ are offloaded from the radio to the server.
import asyncio
import logging
import time
from itertools import count
from app.decoder import (
DecryptedDirectMessage,
@@ -28,33 +27,81 @@ from app.decoder import (
try_decrypt_packet_with_channel_key,
)
from app.keystore import get_private_key, get_public_key, has_private_key
from app.models import (
Contact,
ContactUpsert,
RawPacketBroadcast,
RawPacketDecryptedInfo,
)
from app.models import CONTACT_TYPE_REPEATER, RawPacketBroadcast, RawPacketDecryptedInfo
from app.repository import (
ChannelRepository,
ContactAdvertPathRepository,
ContactRepository,
MessageRepository,
RawPacketRepository,
)
from app.services.contact_reconciliation import (
promote_prefix_contacts_for_contact,
record_contact_name_and_reconcile,
)
from app.services.messages import (
create_dm_message_from_decrypted as _create_dm_message_from_decrypted,
)
from app.services.messages import (
create_message_from_decrypted as _create_message_from_decrypted,
)
from app.websocket import broadcast_error, broadcast_event
logger = logging.getLogger(__name__)
_raw_observation_counter = count(1)
async def _handle_duplicate_message(
packet_id: int,
msg_type: str,
conversation_key: str,
text: str,
sender_timestamp: int,
path: str | None,
received: int,
) -> None:
"""Handle a duplicate message by updating paths/acks on the existing record.
Called when MessageRepository.create returns None (INSERT OR IGNORE hit a duplicate).
Looks up the existing message, adds the new path, increments ack count for outgoing
messages, and broadcasts the update to clients.
"""
existing_msg = await MessageRepository.get_by_content(
msg_type=msg_type,
conversation_key=conversation_key,
text=text,
sender_timestamp=sender_timestamp,
)
if not existing_msg:
label = "message" if msg_type == "CHAN" else "DM"
logger.warning(
"Duplicate %s for %s but couldn't find existing",
label,
conversation_key[:12],
)
return
logger.debug(
"Duplicate %s for %s (msg_id=%d, outgoing=%s) - adding path",
msg_type,
conversation_key[:12],
existing_msg.id,
existing_msg.outgoing,
)
# Add path if provided
if path is not None:
paths = await MessageRepository.add_path(existing_msg.id, path, received)
else:
# Get current paths for broadcast
paths = existing_msg.paths or []
# Increment ack count for outgoing messages (echo confirmation)
if existing_msg.outgoing:
ack_count = await MessageRepository.increment_ack_count(existing_msg.id)
else:
ack_count = await MessageRepository.get_ack_count(existing_msg.id)
# Broadcast updated paths
broadcast_event(
"message_acked",
{
"message_id": existing_msg.id,
"ack_count": ack_count,
"paths": [p.model_dump() for p in paths] if paths else [],
},
)
# Mark this packet as decrypted
await RawPacketRepository.mark_decrypted(packet_id, existing_msg.id)
async def create_message_from_decrypted(
@@ -65,25 +112,100 @@ async def create_message_from_decrypted(
timestamp: int,
received_at: int | None = None,
path: str | None = None,
path_len: int | None = None,
channel_name: str | None = None,
realtime: bool = True,
trigger_bot: bool = True,
) -> int | None:
"""Store a decrypted channel message via the shared message service."""
return await _create_message_from_decrypted(
packet_id=packet_id,
channel_key=channel_key,
sender=sender,
message_text=message_text,
timestamp=timestamp,
received_at=received_at,
"""Create a message record from decrypted channel packet content.
This is the shared logic for storing decrypted channel messages,
used by both real-time packet processing and historical decryption.
Args:
packet_id: ID of the raw packet being processed
channel_key: Hex string channel key
channel_name: Channel name (e.g. "#general"), for bot context
sender: Sender name (will be prefixed to message) or None
message_text: The decrypted message content
timestamp: Sender timestamp from the packet
received_at: When the packet was received (defaults to now)
path: Hex-encoded routing path
trigger_bot: Whether to trigger bot response (False for historical decryption)
Returns the message ID if created, None if duplicate.
"""
received = received_at or int(time.time())
# Format the message text with sender prefix if present
text = f"{sender}: {message_text}" if sender else message_text
# Normalize channel key to uppercase for consistency
channel_key_normalized = channel_key.upper()
# Try to create message - INSERT OR IGNORE handles duplicates atomically
msg_id = await MessageRepository.create(
msg_type="CHAN",
text=text,
conversation_key=channel_key_normalized,
sender_timestamp=timestamp,
received_at=received,
path=path,
path_len=path_len,
channel_name=channel_name,
realtime=realtime,
broadcast_fn=broadcast_event,
)
if msg_id is None:
# Duplicate message detected - this happens when:
# 1. Our own outgoing message echoes back (flood routing)
# 2. Same message arrives via multiple paths before first is committed
# In either case, add the path to the existing message.
await _handle_duplicate_message(
packet_id, "CHAN", channel_key_normalized, text, timestamp, path, received
)
return None
logger.info("Stored channel message %d for channel %s", msg_id, channel_key_normalized[:8])
# Mark the raw packet as decrypted
await RawPacketRepository.mark_decrypted(packet_id, msg_id)
# Build paths array for broadcast
# Use "is not None" to include empty string (direct/0-hop messages)
paths = [{"path": path or "", "received_at": received}] if path is not None else None
# Broadcast new message to connected clients
broadcast_event(
"message",
{
"id": msg_id,
"type": "CHAN",
"conversation_key": channel_key_normalized,
"text": text,
"sender_timestamp": timestamp,
"received_at": received,
"paths": paths,
"txt_type": 0,
"signature": None,
"outgoing": False,
"acked": 0,
},
)
# Run bot if enabled (for incoming channel messages, not historical decryption)
if trigger_bot:
from app.bot import run_bot_for_message
await run_bot_for_message(
sender_name=sender,
sender_key=None, # Channel messages don't have a sender public key
message_text=message_text,
is_dm=False,
channel_key=channel_key_normalized,
channel_name=channel_name,
sender_timestamp=timestamp,
path=path,
is_outgoing=False,
)
return msg_id
async def create_dm_message_from_decrypted(
packet_id: int,
@@ -92,24 +214,122 @@ async def create_dm_message_from_decrypted(
our_public_key: str | None,
received_at: int | None = None,
path: str | None = None,
path_len: int | None = None,
outgoing: bool = False,
realtime: bool = True,
trigger_bot: bool = True,
) -> int | None:
"""Store a decrypted direct message via the shared message service."""
return await _create_dm_message_from_decrypted(
packet_id=packet_id,
decrypted=decrypted,
their_public_key=their_public_key,
our_public_key=our_public_key,
received_at=received_at,
"""Create a message record from decrypted direct message packet content.
This is the shared logic for storing decrypted direct messages,
used by both real-time packet processing and historical decryption.
Args:
packet_id: ID of the raw packet being processed
decrypted: DecryptedDirectMessage from decoder
their_public_key: The contact's full 64-char public key (conversation_key)
our_public_key: Our public key (to determine direction), or None
received_at: When the packet was received (defaults to now)
path: Hex-encoded routing path
outgoing: Whether this is an outgoing message (we sent it)
trigger_bot: Whether to trigger bot response (False for historical decryption)
Returns the message ID if created, None if duplicate.
"""
# Check if sender is a repeater - repeaters only send CLI responses, not chat messages.
# CLI responses are handled by the command endpoint, not stored in chat history.
contact = await ContactRepository.get_by_key_or_prefix(their_public_key)
if contact and contact.type == CONTACT_TYPE_REPEATER:
logger.debug(
"Skipping message from repeater %s (CLI responses not stored): %s",
their_public_key[:12],
(decrypted.message or "")[:50],
)
return None
received = received_at or int(time.time())
# conversation_key is always the other party's public key
conversation_key = their_public_key.lower()
# Try to create message - INSERT OR IGNORE handles duplicates atomically
msg_id = await MessageRepository.create(
msg_type="PRIV",
text=decrypted.message,
conversation_key=conversation_key,
sender_timestamp=decrypted.timestamp,
received_at=received,
path=path,
path_len=path_len,
outgoing=outgoing,
realtime=realtime,
broadcast_fn=broadcast_event,
)
if msg_id is None:
# Duplicate message detected
await _handle_duplicate_message(
packet_id,
"PRIV",
conversation_key,
decrypted.message,
decrypted.timestamp,
path,
received,
)
return None
logger.info(
"Stored direct message %d for contact %s (outgoing=%s)",
msg_id,
conversation_key[:12],
outgoing,
)
# Mark the raw packet as decrypted
await RawPacketRepository.mark_decrypted(packet_id, msg_id)
# Build paths array for broadcast
paths = [{"path": path or "", "received_at": received}] if path is not None else None
# Broadcast new message to connected clients
broadcast_event(
"message",
{
"id": msg_id,
"type": "PRIV",
"conversation_key": conversation_key,
"text": decrypted.message,
"sender_timestamp": decrypted.timestamp,
"received_at": received,
"paths": paths,
"txt_type": 0,
"signature": None,
"outgoing": outgoing,
"acked": 0,
},
)
# Update contact's last_contacted timestamp (for sorting)
await ContactRepository.update_last_contacted(conversation_key, received)
# Run bot if enabled (for all real-time DMs, including our own outgoing messages)
if trigger_bot:
from app.bot import run_bot_for_message
# Get contact name for the bot
contact = await ContactRepository.get_by_key(their_public_key)
sender_name = contact.name if contact else None
await run_bot_for_message(
sender_name=sender_name,
sender_key=their_public_key,
message_text=decrypted.message,
is_dm=True,
channel_key=None,
channel_name=None,
sender_timestamp=decrypted.timestamp,
path=path,
is_outgoing=outgoing,
)
return msg_id
async def run_historical_dm_decryption(
private_key_bytes: bytes,
@@ -134,14 +354,11 @@ async def run_historical_dm_decryption(
our_public_key_bytes = derive_public_key(private_key_bytes)
for packet_id, packet_data, packet_timestamp in packets:
# Note: passing our_public_key=None disables the outbound hash check in
# try_decrypt_dm (only the inbound check src_hash == their_first_byte runs).
# For the 255/256 case where our first byte differs from the contact's,
# outgoing packets fail the inbound check and are skipped — which is correct
# since outgoing DMs are stored directly by the send endpoint.
# For the 1/256 case where bytes match, an outgoing packet may decrypt
# successfully, but the dual-hash direction check below correctly identifies
# it and the DB dedup constraint prevents a duplicate insert.
# Note: passing our_public_key=None means outgoing DMs won't be matched
# by try_decrypt_dm (the inbound check requires src_hash == their_first_byte,
# which fails for our outgoing packets). This is acceptable because outgoing
# DMs are stored directly by the send endpoint. Historical decryption only
# recovers incoming messages.
result = try_decrypt_dm(
packet_data,
private_key_bytes,
@@ -150,25 +367,14 @@ async def run_historical_dm_decryption(
)
if result is not None:
# Determine direction using both hashes (mirrors _process_direct_message
# logic at lines 806-818) to handle the 1/256 case where our first
# public key byte matches the contact's.
# Determine direction by checking src_hash
src_hash = result.src_hash.lower()
dest_hash = result.dest_hash.lower()
our_first_byte = format(our_public_key_bytes[0], "02x").lower()
if src_hash == our_first_byte and dest_hash != our_first_byte:
outgoing = True
else:
# Incoming, ambiguous (both match), or neither matches.
# Default to incoming — outgoing DMs are stored by the send
# endpoint, so historical decryption only recovers incoming.
outgoing = False
outgoing = src_hash == our_first_byte
# Extract path from the raw packet for storage
packet_info = parse_packet(packet_data)
path_hex = packet_info.path.hex() if packet_info else None
path_len = packet_info.path_length if packet_info else None
msg_id = await create_dm_message_from_decrypted(
packet_id=packet_id,
@@ -177,9 +383,8 @@ async def run_historical_dm_decryption(
our_public_key=our_public_key_bytes.hex(),
received_at=packet_timestamp,
path=path_hex,
path_len=path_len,
outgoing=outgoing,
realtime=False, # Historical decryption should not trigger fanout
trigger_bot=False, # Historical decryption should not trigger bot
)
if msg_id is not None:
@@ -267,7 +472,6 @@ async def process_raw_packet(
since the original packet was already processed.
"""
ts = timestamp or int(time.time())
observation_id = next(_raw_observation_counter)
packet_id, is_new_packet = await RawPacketRepository.create(raw_bytes, ts)
raw_hex = raw_bytes.hex()
@@ -277,13 +481,6 @@ async def process_raw_packet(
payload_type = packet_info.payload_type if packet_info else None
payload_type_name = payload_type.name if payload_type else "Unknown"
if packet_info is None and len(raw_bytes) > 2:
logger.warning(
"Failed to parse %d-byte packet (id=%d); stored undecrypted",
len(raw_bytes),
packet_id,
)
# Log packet arrival at debug level
path_hex = packet_info.path.hex() if packet_info and packet_info.path else ""
logger.debug(
@@ -316,10 +513,8 @@ async def process_raw_packet(
if decrypt_result:
result.update(decrypt_result)
elif payload_type == PayloadType.ADVERT:
# Process all advert arrivals (even payload-hash duplicates) so the
# path-freshness logic in _process_advertisement can pick the shortest
# path heard within the freshness window.
elif payload_type == PayloadType.ADVERT and is_new_packet:
# Only process new advertisements (duplicates don't add value)
await _process_advertisement(raw_bytes, ts, packet_info)
elif payload_type == PayloadType.TEXT_MESSAGE:
@@ -332,7 +527,6 @@ async def process_raw_packet(
# This enables the frontend cracker to see all incoming packets in real-time
broadcast_payload = RawPacketBroadcast(
id=packet_id,
observation_id=observation_id,
timestamp=ts,
data=raw_hex,
payload_type=payload_type_name,
@@ -342,8 +536,6 @@ async def process_raw_packet(
decrypted_info=RawPacketDecryptedInfo(
channel_name=result["channel_name"],
sender=result["sender"],
channel_key=result.get("channel_key"),
contact_key=result.get("contact_key"),
)
if result["decrypted"]
else None,
@@ -393,7 +585,6 @@ async def _process_group_text(
timestamp=decrypted.timestamp,
received_at=timestamp,
path=packet_info.path.hex() if packet_info else None,
path_len=packet_info.path_length if packet_info else None,
)
return {
@@ -401,7 +592,6 @@ async def _process_group_text(
"channel_name": channel.name,
"sender": decrypted.sender,
"message_id": msg_id, # None if duplicate, msg_id if new
"channel_key": channel.key,
}
# Couldn't decrypt with any known key
@@ -417,6 +607,7 @@ async def _process_advertisement(
Process an advertisement packet.
Extracts contact info and updates the database/broadcasts to clients.
For non-repeater contacts, triggers sync of recent contacts to radio for DM ACK support.
"""
# Parse packet to get path info if not already provided
if packet_info is None:
@@ -442,8 +633,8 @@ async def _process_advertisement(
PATH_FRESHNESS_SECONDS = 60
use_existing_path = False
if existing and existing.last_advert:
path_age = timestamp - existing.last_advert
if existing and existing.last_seen:
path_age = timestamp - existing.last_seen
existing_path_len = existing.last_path_len if existing.last_path_len >= 0 else float("inf")
# Keep existing path if it's fresh and shorter (or equal)
@@ -461,11 +652,9 @@ async def _process_advertisement(
assert existing is not None # Guaranteed by the conditions that set use_existing_path
path_len = existing.last_path_len if existing.last_path_len is not None else -1
path_hex = existing.last_path or ""
out_path_hash_mode = existing.out_path_hash_mode
else:
path_len = new_path_len
path_hex = new_path_hex
out_path_hash_mode = packet_info.path_hash_size - 1
logger.debug(
"Parsed advertisement from %s: %s (role=%d, lat=%s, lon=%s, path_len=%d)",
@@ -483,59 +672,37 @@ async def _process_advertisement(
advert.device_role if advert.device_role > 0 else (existing.type if existing else 0)
)
# Keep recent unique advert paths for all contacts.
await ContactAdvertPathRepository.record_observation(
public_key=advert.public_key.lower(),
path_hex=new_path_hex,
timestamp=timestamp,
max_paths=10,
hop_count=new_path_len,
)
contact_data = {
"public_key": advert.public_key.lower(),
"name": advert.name,
"type": contact_type,
"lat": advert.lat,
"lon": advert.lon,
"last_advert": advert.timestamp if advert.timestamp > 0 else timestamp,
"last_seen": timestamp,
"last_path": path_hex,
"last_path_len": path_len,
}
contact_upsert = ContactUpsert(
public_key=advert.public_key.lower(),
name=advert.name,
type=contact_type,
lat=advert.lat,
lon=advert.lon,
last_advert=advert.timestamp if advert.timestamp > 0 else timestamp,
last_seen=timestamp,
last_path=path_hex,
last_path_len=path_len,
out_path_hash_mode=out_path_hash_mode,
first_seen=timestamp, # COALESCE in upsert preserves existing value
)
await ContactRepository.upsert(contact_data)
await ContactRepository.upsert(contact_upsert)
promoted_keys = await promote_prefix_contacts_for_contact(
public_key=advert.public_key,
log=logger,
# Broadcast contact update to connected clients
broadcast_event(
"contact",
{
"public_key": advert.public_key.lower(),
"name": advert.name,
"type": contact_type,
"flags": existing.flags if existing else 0,
"last_path": path_hex,
"last_path_len": path_len,
"last_advert": advert.timestamp if advert.timestamp > 0 else timestamp,
"lat": advert.lat,
"lon": advert.lon,
"last_seen": timestamp,
"on_radio": existing.on_radio if existing else False,
},
)
await record_contact_name_and_reconcile(
public_key=advert.public_key,
contact_name=advert.name,
timestamp=timestamp,
log=logger,
)
# Read back from DB so the broadcast includes all fields (last_contacted,
# last_read_at, flags, on_radio, etc.) matching the REST Contact shape exactly.
db_contact = await ContactRepository.get_by_key(advert.public_key.lower())
if db_contact:
broadcast_event("contact", db_contact.model_dump())
for old_key in promoted_keys:
broadcast_event(
"contact_resolved",
{
"previous_public_key": old_key,
"contact": db_contact.model_dump(),
},
)
else:
broadcast_event(
"contact",
Contact(**contact_upsert.model_dump(exclude_none=True)).model_dump(),
)
# For new contacts, optionally attempt to decrypt any historical DMs we may have stored
# This is controlled by the auto_decrypt_dm_on_advert setting
@@ -546,6 +713,14 @@ async def _process_advertisement(
if settings.auto_decrypt_dm_on_advert:
await start_historical_dm_decryption(None, advert.public_key.lower(), advert.name)
# If this is not a repeater, trigger recent contacts sync to radio
# This ensures we can auto-ACK DMs from recent contacts
if contact_type != CONTACT_TYPE_REPEATER:
# Import here to avoid circular import
from app.radio_sync import sync_recent_contacts_to_radio
asyncio.create_task(sync_recent_contacts_to_radio())
async def _process_direct_message(
raw_bytes: bytes,
@@ -650,8 +825,7 @@ async def _process_direct_message(
their_public_key=contact.public_key,
our_public_key=our_public_key.hex(),
received_at=timestamp,
path=packet_info.path.hex() if packet_info else None,
path_len=packet_info.path_length if packet_info else None,
path=packet_info.path.hex() if packet_info.path else None,
outgoing=is_outgoing,
)
@@ -660,7 +834,6 @@ async def _process_direct_message(
"contact_name": contact.name,
"sender": contact.name or contact.public_key[:12],
"message_id": msg_id,
"contact_key": contact.public_key,
}
# Couldn't decrypt with any known contact

View File

@@ -1,246 +0,0 @@
"""
Centralized helpers for MeshCore multi-byte path encoding.
The path_len wire byte is packed as [hash_mode:2][hop_count:6]:
- hash_size = (hash_mode) + 1 → 1, 2, or 3 bytes per hop
- hop_count = lower 6 bits → 063 hops
- wire bytes = hop_count × hash_size
Mode 3 (hash_size=4) is reserved and rejected.
"""
from dataclasses import dataclass
MAX_PATH_SIZE = 64
@dataclass(frozen=True)
class ParsedPacketEnvelope:
"""Canonical packet framing parse matching MeshCore Packet::readFrom()."""
header: int
route_type: int
payload_type: int
payload_version: int
path_byte: int
hop_count: int
hash_size: int
path_byte_len: int
path: bytes
payload: bytes
payload_offset: int
def decode_path_byte(path_byte: int) -> tuple[int, int]:
"""Decode a packed path byte into (hop_count, hash_size).
Returns:
(hop_count, hash_size) where hash_size is 1, 2, or 3.
Raises:
ValueError: If hash_mode is 3 (reserved).
"""
hash_mode = (path_byte >> 6) & 0x03
if hash_mode == 3:
raise ValueError(f"Reserved path hash mode 3 (path_byte=0x{path_byte:02X})")
hop_count = path_byte & 0x3F
hash_size = hash_mode + 1
return hop_count, hash_size
def path_wire_len(hop_count: int, hash_size: int) -> int:
"""Wire byte length of path data."""
return hop_count * hash_size
def validate_path_byte(path_byte: int) -> tuple[int, int, int]:
"""Validate a packed path byte using firmware-equivalent rules.
Returns:
(hop_count, hash_size, byte_len)
Raises:
ValueError: If the encoding uses reserved mode 3 or exceeds MAX_PATH_SIZE.
"""
hop_count, hash_size = decode_path_byte(path_byte)
byte_len = path_wire_len(hop_count, hash_size)
if byte_len > MAX_PATH_SIZE:
raise ValueError(
f"Invalid path length {byte_len} bytes exceeds MAX_PATH_SIZE={MAX_PATH_SIZE}"
)
return hop_count, hash_size, byte_len
def parse_packet_envelope(raw_packet: bytes) -> ParsedPacketEnvelope | None:
"""Parse packet framing using firmware Packet::readFrom() semantics.
Validation matches the firmware's path checks:
- reserved mode 3 is invalid
- hop_count * hash_size must not exceed MAX_PATH_SIZE
- at least one payload byte must remain after the path
"""
if len(raw_packet) < 2:
return None
try:
header = raw_packet[0]
route_type = header & 0x03
payload_type = (header >> 2) & 0x0F
payload_version = (header >> 6) & 0x03
offset = 1
if route_type in (0x00, 0x03):
if len(raw_packet) < offset + 4:
return None
offset += 4
if len(raw_packet) < offset + 1:
return None
path_byte = raw_packet[offset]
offset += 1
hop_count, hash_size, path_byte_len = validate_path_byte(path_byte)
if len(raw_packet) < offset + path_byte_len:
return None
path = raw_packet[offset : offset + path_byte_len]
offset += path_byte_len
if offset >= len(raw_packet):
return None
return ParsedPacketEnvelope(
header=header,
route_type=route_type,
payload_type=payload_type,
payload_version=payload_version,
path_byte=path_byte,
hop_count=hop_count,
hash_size=hash_size,
path_byte_len=path_byte_len,
path=path,
payload=raw_packet[offset:],
payload_offset=offset,
)
except (IndexError, ValueError):
return None
def split_path_hex(path_hex: str, hop_count: int) -> list[str]:
"""Split a hex path string into per-hop chunks using the known hop count.
If hop_count is 0 or the hex length doesn't divide evenly, falls back
to 2-char (1-byte) chunks for backward compatibility.
"""
if not path_hex or hop_count <= 0:
return []
chars_per_hop = len(path_hex) // hop_count
if chars_per_hop < 2 or chars_per_hop % 2 != 0 or chars_per_hop * hop_count != len(path_hex):
# Inconsistent — fall back to legacy 2-char split
return [path_hex[i : i + 2] for i in range(0, len(path_hex), 2)]
return [path_hex[i : i + chars_per_hop] for i in range(0, len(path_hex), chars_per_hop)]
def first_hop_hex(path_hex: str, hop_count: int) -> str | None:
"""Extract the first hop identifier from a path hex string.
Returns None for empty/direct paths.
"""
hops = split_path_hex(path_hex, hop_count)
return hops[0] if hops else None
def normalize_contact_route(
path_hex: str | None,
path_len: int | None,
out_path_hash_mode: int | None,
) -> tuple[str, int, int]:
"""Normalize stored contact route fields.
Handles legacy/bad rows where the packed wire path byte was stored directly
in `last_path_len` (sometimes as a signed byte, e.g. `-125` for `0x83`).
Returns `(path_hex, hop_count, hash_mode)`.
"""
normalized_path = path_hex or ""
try:
normalized_len = int(path_len) if path_len is not None else -1
except (TypeError, ValueError):
normalized_len = -1
try:
normalized_mode = int(out_path_hash_mode) if out_path_hash_mode is not None else None
except (TypeError, ValueError):
normalized_mode = None
if normalized_len < -1 or normalized_len > 63:
packed = normalized_len & 0xFF
if packed == 0xFF:
return "", -1, -1
decoded_mode = (packed >> 6) & 0x03
if decoded_mode != 0x03:
normalized_len = packed & 0x3F
normalized_mode = decoded_mode
if normalized_len == -1:
return "", -1, -1
if normalized_mode not in (0, 1, 2):
normalized_mode = 0
if normalized_path:
bytes_per_hop = normalized_mode + 1
actual_bytes = len(normalized_path) // 2
expected_bytes = normalized_len * bytes_per_hop
if actual_bytes > expected_bytes >= 0:
normalized_path = normalized_path[: expected_bytes * 2]
elif (
actual_bytes < expected_bytes
and bytes_per_hop > 0
and actual_bytes % bytes_per_hop == 0
):
normalized_len = actual_bytes // bytes_per_hop
return normalized_path, normalized_len, normalized_mode
def normalize_route_override(
path_hex: str | None,
path_len: int | None,
out_path_hash_mode: int | None,
) -> tuple[str | None, int | None, int | None]:
"""Normalize optional route-override fields while preserving the unset state."""
if path_len is None:
return None, None, None
normalized_path, normalized_len, normalized_mode = normalize_contact_route(
path_hex,
path_len,
out_path_hash_mode,
)
return normalized_path, normalized_len, normalized_mode
def parse_explicit_hop_route(route_text: str) -> tuple[str, int, int]:
"""Parse a comma-separated explicit hop route into stored contact fields."""
hops = [hop.strip().lower() for hop in route_text.split(",") if hop.strip()]
if not hops:
raise ValueError("Explicit path must include at least one hop")
hop_chars = len(hops[0])
if hop_chars not in (2, 4, 6):
raise ValueError("Each hop must be 1, 2, or 3 bytes of hex")
for hop in hops:
if len(hop) != hop_chars:
raise ValueError("All hops must use the same width")
try:
bytes.fromhex(hop)
except ValueError as exc:
raise ValueError("Each hop must be valid hex") from exc
hash_size = hop_chars // 2
if path_wire_len(len(hops), hash_size) > MAX_PATH_SIZE:
raise ValueError(f"Explicit path exceeds MAX_PATH_SIZE={MAX_PATH_SIZE} bytes")
return "".join(hops), len(hops), hash_size - 1

View File

@@ -2,8 +2,6 @@ import asyncio
import glob
import logging
import platform
from collections import OrderedDict
from contextlib import asynccontextmanager, nullcontext
from pathlib import Path
from meshcore import MeshCore
@@ -13,18 +11,6 @@ from app.config import settings
logger = logging.getLogger(__name__)
class RadioOperationError(RuntimeError):
"""Base class for shared radio operation lock errors."""
class RadioOperationBusyError(RadioOperationError):
"""Raised when a non-blocking radio operation cannot acquire the lock."""
class RadioDisconnectedError(RadioOperationError):
"""Raised when the radio disconnects between pre-check and lock acquisition."""
def detect_serial_devices() -> list[str]:
"""Detect available serial devices based on platform."""
devices: list[str] = []
@@ -69,7 +55,6 @@ def detect_serial_devices() -> list[str]:
async def test_serial_device(port: str, baudrate: int, timeout: float = 3.0) -> bool:
"""Test if a MeshCore radio responds on the given serial port."""
mc = None
try:
logger.debug("Testing serial device %s", port)
mc = await asyncio.wait_for(
@@ -80,8 +65,10 @@ async def test_serial_device(port: str, baudrate: int, timeout: float = 3.0) ->
# Check if we got valid self_info (indicates successful communication)
if mc.is_connected and mc.self_info:
logger.debug("Device %s responded with valid self_info", port)
await mc.disconnect()
return True
await mc.disconnect()
return False
except asyncio.TimeoutError:
logger.debug("Device %s timed out", port)
@@ -89,12 +76,6 @@ async def test_serial_device(port: str, baudrate: int, timeout: float = 3.0) ->
except Exception as e:
logger.debug("Device %s failed: %s", port, e)
return False
finally:
if mc is not None:
try:
await mc.disconnect()
except Exception:
pass
async def find_radio_port(baudrate: int) -> str | None:
@@ -121,235 +102,75 @@ class RadioManager:
def __init__(self):
self._meshcore: MeshCore | None = None
self._connection_info: str | None = None
self._connection_desired: bool = True
self._port: str | None = None
self._reconnect_task: asyncio.Task | None = None
self._last_connected: bool = False
self._reconnect_lock: asyncio.Lock | None = None
self._operation_lock: asyncio.Lock | None = None
self._setup_lock: asyncio.Lock | None = None
self._setup_in_progress: bool = False
self._setup_complete: bool = False
self.max_channels: int = 40
self.path_hash_mode: int = 0
self.path_hash_mode_supported: bool = False
self._channel_slot_by_key: OrderedDict[str, int] = OrderedDict()
self._channel_key_by_slot: dict[int, str] = {}
self._pending_message_channel_key_by_slot: dict[int, str] = {}
async def _acquire_operation_lock(
self,
name: str,
*,
blocking: bool,
) -> None:
"""Acquire the shared radio operation lock."""
if self._operation_lock is None:
self._operation_lock = asyncio.Lock()
if not blocking:
if self._operation_lock.locked():
raise RadioOperationBusyError(f"Radio is busy (operation: {name})")
await self._operation_lock.acquire()
else:
await self._operation_lock.acquire()
logger.debug("Acquired radio operation lock (%s)", name)
def _release_operation_lock(self, name: str) -> None:
"""Release the shared radio operation lock."""
if self._operation_lock and self._operation_lock.locked():
self._operation_lock.release()
logger.debug("Released radio operation lock (%s)", name)
else:
logger.error("Attempted to release unlocked radio operation lock (%s)", name)
@asynccontextmanager
async def radio_operation(
self,
name: str,
*,
pause_polling: bool = False,
suspend_auto_fetch: bool = False,
blocking: bool = True,
):
"""Acquire shared radio lock and optionally pause polling / auto-fetch.
After acquiring the lock, resolves the current MeshCore instance and
yields it. Callers get a fresh reference via ``async with ... as mc:``,
avoiding stale-reference bugs when a reconnect swaps ``_meshcore``
between the pre-check and the lock acquisition.
Args:
name: Human-readable operation name for logs/errors.
pause_polling: Pause fallback message polling while held.
suspend_auto_fetch: Stop MeshCore auto message fetching while held.
blocking: If False, fail immediately when lock is held.
Raises:
RadioDisconnectedError: If the radio disconnected before the lock
was acquired (``_meshcore`` is ``None``).
"""
await self._acquire_operation_lock(name, blocking=blocking)
mc = self._meshcore
if mc is None:
self._release_operation_lock(name)
raise RadioDisconnectedError("Radio disconnected")
poll_context = nullcontext()
if pause_polling:
from app.radio_sync import pause_polling as pause_polling_context
poll_context = pause_polling_context()
auto_fetch_paused = False
try:
async with poll_context:
if suspend_auto_fetch:
await mc.stop_auto_message_fetching()
auto_fetch_paused = True
yield mc
finally:
try:
if auto_fetch_paused:
try:
await mc.start_auto_message_fetching()
except Exception as e:
logger.warning("Failed to restart auto message fetching (%s): %s", name, e)
finally:
self._release_operation_lock(name)
async def post_connect_setup(self) -> None:
"""Run shared post-connection orchestration after transport setup succeeds."""
from app.services.radio_lifecycle import run_post_connect_setup
"""Full post-connection setup: handlers, key export, sync, advertisements, polling.
await run_post_connect_setup(self)
def reset_channel_send_cache(self) -> None:
"""Forget any session-local channel-slot reuse state."""
self._channel_slot_by_key.clear()
self._channel_key_by_slot.clear()
def remember_pending_message_channel_slot(self, channel_key: str, slot: int) -> None:
"""Remember a channel key for later queued-message recovery."""
self._pending_message_channel_key_by_slot[slot] = channel_key.upper()
def get_pending_message_channel_key(self, slot: int) -> str | None:
"""Return the last remembered channel key for a radio slot."""
return self._pending_message_channel_key_by_slot.get(slot)
def clear_pending_message_channel_slots(self) -> None:
"""Drop any queued-message recovery slot metadata."""
self._pending_message_channel_key_by_slot.clear()
def channel_slot_reuse_enabled(self) -> bool:
"""Return whether this transport can safely reuse cached channel slots."""
if settings.force_channel_slot_reconfigure:
return False
if self._connection_info:
return not self._connection_info.startswith("TCP:")
return settings.connection_type != "tcp"
def get_channel_send_cache_capacity(self) -> int:
"""Return the app-managed channel cache capacity for the current session."""
try:
return max(1, int(self.max_channels))
except (TypeError, ValueError):
return 1
def get_cached_channel_slot(self, channel_key: str) -> int | None:
"""Return the cached radio slot for a channel key, if present."""
return self._channel_slot_by_key.get(channel_key.upper())
def plan_channel_send_slot(
self,
channel_key: str,
*,
preferred_slot: int = 0,
) -> tuple[int, bool, str | None]:
"""Choose a radio slot for a channel send.
Returns `(slot, needs_configure, evicted_channel_key)`.
Called after every successful connection or reconnection.
Idempotent — safe to call repeatedly (periodic tasks have start guards).
"""
if not self.channel_slot_reuse_enabled():
return preferred_slot, True, None
from app.event_handlers import register_event_handlers
from app.keystore import export_and_store_private_key
from app.radio_sync import (
drain_pending_messages,
send_advertisement,
start_message_polling,
start_periodic_advert,
start_periodic_sync,
sync_and_offload_all,
sync_radio_time,
)
normalized_key = channel_key.upper()
cached_slot = self._channel_slot_by_key.get(normalized_key)
if cached_slot is not None:
return cached_slot, False, None
capacity = self.get_channel_send_cache_capacity()
if len(self._channel_slot_by_key) < capacity:
slot = self._find_first_free_channel_slot(capacity, preferred_slot)
return slot, True, None
evicted_key, slot = next(iter(self._channel_slot_by_key.items()))
return slot, True, evicted_key
def note_channel_slot_loaded(self, channel_key: str, slot: int) -> None:
"""Record that a channel is now resident in the given radio slot."""
if not self.channel_slot_reuse_enabled():
if not self._meshcore:
return
normalized_key = channel_key.upper()
previous_slot = self._channel_slot_by_key.pop(normalized_key, None)
if previous_slot is not None and previous_slot != slot:
self._channel_key_by_slot.pop(previous_slot, None)
register_event_handlers(self._meshcore)
await export_and_store_private_key(self._meshcore)
displaced_key = self._channel_key_by_slot.get(slot)
if displaced_key is not None and displaced_key != normalized_key:
self._channel_slot_by_key.pop(displaced_key, None)
# Sync radio clock with system time
await sync_radio_time()
self._channel_key_by_slot[slot] = normalized_key
self._channel_slot_by_key[normalized_key] = slot
# Sync contacts/channels from radio to DB and clear radio
logger.info("Syncing and offloading radio data...")
result = await sync_and_offload_all()
logger.info("Sync complete: %s", result)
def note_channel_slot_used(self, channel_key: str) -> None:
"""Refresh LRU order for a previously loaded channel slot."""
if not self.channel_slot_reuse_enabled():
return
# Start periodic sync (idempotent)
start_periodic_sync()
normalized_key = channel_key.upper()
slot = self._channel_slot_by_key.get(normalized_key)
if slot is None:
return
self._channel_slot_by_key.move_to_end(normalized_key)
self._channel_key_by_slot[slot] = normalized_key
# Send advertisement to announce our presence (if enabled and not throttled)
if await send_advertisement():
logger.info("Advertisement sent")
else:
logger.debug("Advertisement skipped (disabled or throttled)")
def invalidate_cached_channel_slot(self, channel_key: str) -> None:
"""Drop any cached slot assignment for a channel key."""
normalized_key = channel_key.upper()
slot = self._channel_slot_by_key.pop(normalized_key, None)
if slot is None:
return
if self._channel_key_by_slot.get(slot) == normalized_key:
self._channel_key_by_slot.pop(slot, None)
# Start periodic advertisement (idempotent)
start_periodic_advert()
def get_channel_send_cache_snapshot(self) -> list[tuple[str, int]]:
"""Return the current channel send cache contents in LRU order."""
return list(self._channel_slot_by_key.items())
await self._meshcore.start_auto_message_fetching()
logger.info("Auto message fetching started")
def _find_first_free_channel_slot(self, capacity: int, preferred_slot: int) -> int:
"""Pick the first unclaimed app-managed slot, preferring the requested slot."""
if preferred_slot < capacity and preferred_slot not in self._channel_key_by_slot:
return preferred_slot
# Drain any messages that were queued before we connected
drained = await drain_pending_messages()
if drained > 0:
logger.info("Drained %d pending message(s)", drained)
for slot in range(capacity):
if slot not in self._channel_key_by_slot:
return slot
# Start periodic message polling as fallback (idempotent)
start_message_polling()
return preferred_slot
logger.info("Post-connect setup complete")
@property
def meshcore(self) -> MeshCore | None:
return self._meshcore
@property
def connection_info(self) -> str | None:
return self._connection_info
def port(self) -> str | None:
return self._port
@property
def is_connected(self) -> bool:
@@ -359,64 +180,11 @@ class RadioManager:
def is_reconnecting(self) -> bool:
return self._reconnect_lock is not None and self._reconnect_lock.locked()
@property
def is_setup_in_progress(self) -> bool:
return self._setup_in_progress
@property
def is_setup_complete(self) -> bool:
return self._setup_complete
@property
def connection_desired(self) -> bool:
return self._connection_desired
def resume_connection(self) -> None:
"""Allow connection monitor and manual reconnects to establish transport again."""
self._connection_desired = True
async def pause_connection(self) -> None:
"""Stop automatic reconnect attempts and tear down any current transport."""
self._connection_desired = False
self._last_connected = False
await self.disconnect()
async def _disable_meshcore_auto_reconnect(self, mc: MeshCore) -> None:
"""Disable library-managed reconnects so manual teardown fully releases transport."""
connection_manager = getattr(mc, "connection_manager", None)
if connection_manager is None:
return
if hasattr(connection_manager, "auto_reconnect"):
connection_manager.auto_reconnect = False
reconnect_task = getattr(connection_manager, "_reconnect_task", None)
if reconnect_task is None or not isinstance(reconnect_task, asyncio.Task | asyncio.Future):
return
reconnect_task.cancel()
try:
await reconnect_task
except asyncio.CancelledError:
pass
finally:
connection_manager._reconnect_task = None
async def connect(self) -> None:
"""Connect to the radio using the configured transport."""
"""Connect to the radio over serial."""
if self._meshcore is not None:
await self.disconnect()
connection_type = settings.connection_type
if connection_type == "tcp":
await self._connect_tcp()
elif connection_type == "ble":
await self._connect_ble()
else:
await self._connect_serial()
async def _connect_serial(self) -> None:
"""Connect to the radio over serial."""
port = settings.serial_port
# Auto-detect if no port specified
@@ -437,63 +205,19 @@ class RadioManager:
auto_reconnect=True,
max_reconnect_attempts=10,
)
self._connection_info = f"Serial: {port}"
self._port = port
self._last_connected = True
self._setup_complete = False
logger.debug("Serial connection established")
async def _connect_tcp(self) -> None:
"""Connect to the radio over TCP."""
host = settings.tcp_host
port = settings.tcp_port
logger.debug("Connecting to radio at %s:%d (TCP)", host, port)
self._meshcore = await MeshCore.create_tcp(
host=host,
port=port,
auto_reconnect=True,
max_reconnect_attempts=10,
)
self._connection_info = f"TCP: {host}:{port}"
self._last_connected = True
self._setup_complete = False
logger.debug("TCP connection established")
async def _connect_ble(self) -> None:
"""Connect to the radio over BLE."""
address = settings.ble_address
pin = settings.ble_pin
logger.debug("Connecting to radio at %s (BLE)", address)
self._meshcore = await MeshCore.create_ble(
address=address,
pin=pin,
auto_reconnect=True,
max_reconnect_attempts=15,
)
self._connection_info = f"BLE: {address}"
self._last_connected = True
self._setup_complete = False
logger.debug("BLE connection established")
async def disconnect(self) -> None:
"""Disconnect from the radio."""
if self._meshcore is not None:
logger.debug("Disconnecting from radio")
mc = self._meshcore
await self._disable_meshcore_auto_reconnect(mc)
await mc.disconnect()
await self._disable_meshcore_auto_reconnect(mc)
await self._meshcore.disconnect()
self._meshcore = None
self._setup_complete = False
self.max_channels = 40
self.path_hash_mode = 0
self.path_hash_mode_supported = False
self.reset_channel_send_cache()
self.clear_pending_message_channel_slots()
logger.debug("Radio disconnected")
async def reconnect(self, *, broadcast_on_success: bool = True) -> bool:
async def reconnect(self) -> bool:
"""Attempt to reconnect to the radio.
Returns True if reconnection was successful, False otherwise.
@@ -505,17 +229,12 @@ class RadioManager:
if self._reconnect_lock is None:
self._reconnect_lock = asyncio.Lock()
# Try to acquire lock without blocking to check if reconnect is in progress
if self._reconnect_lock.locked():
logger.debug("Reconnection already in progress")
return False
async with self._reconnect_lock:
if not self._connection_desired:
logger.info("Reconnect skipped because connection is paused by operator")
return False
# If we became connected while waiting for the lock (another
# reconnect succeeded ahead of us), skip the redundant attempt.
if self.is_connected:
logger.debug("Already connected after acquiring lock, skipping reconnect")
return True
logger.info("Attempting to reconnect to radio...")
try:
@@ -530,33 +249,59 @@ class RadioManager:
# Try to connect (will auto-detect if no port specified)
await self.connect()
if not self._connection_desired:
logger.info("Reconnect completed after pause request; disconnecting transport")
await self.disconnect()
return False
if self.is_connected:
logger.info("Radio reconnected successfully at %s", self._connection_info)
if broadcast_on_success:
broadcast_health(True, self._connection_info)
logger.info("Radio reconnected successfully at %s", self._port)
broadcast_health(True, self._port)
return True
else:
logger.warning("Reconnection failed: not connected after connect()")
return False
except Exception as e:
logger.warning("Reconnection failed: %s", e, exc_info=True)
logger.warning("Reconnection failed: %s", e)
broadcast_error("Reconnection failed", str(e))
return False
async def start_connection_monitor(self) -> None:
"""Start background task to monitor connection and auto-reconnect."""
from app.services.radio_lifecycle import connection_monitor_loop
if self._reconnect_task is not None:
return
self._reconnect_task = asyncio.create_task(connection_monitor_loop(self))
async def monitor_loop():
from app.websocket import broadcast_health
while True:
try:
await asyncio.sleep(5) # Check every 5 seconds
current_connected = self.is_connected
# Detect status change
if self._last_connected and not current_connected:
# Connection lost
logger.warning("Radio connection lost, broadcasting status change")
broadcast_health(False, self._port)
self._last_connected = False
# Attempt reconnection
await asyncio.sleep(3) # Wait a bit before trying
if await self.reconnect():
await self.post_connect_setup()
elif not self._last_connected and current_connected:
# Connection restored (might have reconnected automatically)
logger.info("Radio connection restored")
broadcast_health(True, self._port)
self._last_connected = True
except asyncio.CancelledError:
# Task is being cancelled, exit cleanly
break
except Exception as e:
# Log error but continue monitoring - don't let the monitor die
logger.exception("Error in connection monitor, continuing: %s", e)
self._reconnect_task = asyncio.create_task(monitor_loop())
logger.info("Radio connection monitor started")
async def stop_connection_monitor(self) -> None:

File diff suppressed because it is too large Load Diff

View File

@@ -1,20 +0,0 @@
"""Helpers for normalizing MeshCore flood-scope / region names."""
def normalize_region_scope(scope: str | None) -> str:
"""Normalize a user-facing region scope into MeshCore's internal form.
Region names are now user-facing plain strings like ``Esperance``.
Internally, MeshCore still expects hashtag-style names like ``#Esperance``.
Backward compatibility:
- blank/None stays disabled (`""`)
- existing leading ``#`` is preserved
"""
stripped = (scope or "").strip()
if not stripped:
return ""
if stripped.startswith("#"):
return stripped
return f"#{stripped}"

918
app/repository.py Normal file
View File

@@ -0,0 +1,918 @@
import json
import logging
import sqlite3
import time
from hashlib import sha256
from typing import Any, Literal
from app.database import db
from app.decoder import PayloadType, extract_payload, get_packet_payload_type
from app.models import (
AppSettings,
BotConfig,
Channel,
Contact,
Favorite,
Message,
MessagePath,
)
logger = logging.getLogger(__name__)
class ContactRepository:
@staticmethod
async def upsert(contact: dict[str, Any]) -> None:
await db.conn.execute(
"""
INSERT INTO contacts (public_key, name, type, flags, last_path, last_path_len,
last_advert, lat, lon, last_seen, on_radio, last_contacted)
VALUES (?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?)
ON CONFLICT(public_key) DO UPDATE SET
name = COALESCE(excluded.name, contacts.name),
type = CASE WHEN excluded.type = 0 THEN contacts.type ELSE excluded.type END,
flags = excluded.flags,
last_path = COALESCE(excluded.last_path, contacts.last_path),
last_path_len = excluded.last_path_len,
last_advert = COALESCE(excluded.last_advert, contacts.last_advert),
lat = COALESCE(excluded.lat, contacts.lat),
lon = COALESCE(excluded.lon, contacts.lon),
last_seen = excluded.last_seen,
on_radio = excluded.on_radio,
last_contacted = COALESCE(excluded.last_contacted, contacts.last_contacted)
""",
(
contact.get("public_key", "").lower(),
contact.get("name") or contact.get("adv_name"),
contact.get("type", 0),
contact.get("flags", 0),
contact.get("last_path") or contact.get("out_path"),
contact.get("last_path_len")
if "last_path_len" in contact
else contact.get("out_path_len", -1),
contact.get("last_advert"),
contact.get("lat") or contact.get("adv_lat"),
contact.get("lon") or contact.get("adv_lon"),
contact.get("last_seen", int(time.time())),
contact.get("on_radio", False),
contact.get("last_contacted"),
),
)
await db.conn.commit()
@staticmethod
def _row_to_contact(row) -> Contact:
"""Convert a database row to a Contact model."""
return Contact(
public_key=row["public_key"],
name=row["name"],
type=row["type"],
flags=row["flags"],
last_path=row["last_path"],
last_path_len=row["last_path_len"],
last_advert=row["last_advert"],
lat=row["lat"],
lon=row["lon"],
last_seen=row["last_seen"],
on_radio=bool(row["on_radio"]),
last_contacted=row["last_contacted"],
last_read_at=row["last_read_at"],
)
@staticmethod
async def get_by_key(public_key: str) -> Contact | None:
cursor = await db.conn.execute(
"SELECT * FROM contacts WHERE public_key = ?", (public_key.lower(),)
)
row = await cursor.fetchone()
return ContactRepository._row_to_contact(row) if row else None
@staticmethod
async def get_by_key_prefix(prefix: str) -> Contact | None:
cursor = await db.conn.execute(
"SELECT * FROM contacts WHERE public_key LIKE ? LIMIT 1",
(f"{prefix.lower()}%",),
)
row = await cursor.fetchone()
return ContactRepository._row_to_contact(row) if row else None
@staticmethod
async def get_by_key_or_prefix(key_or_prefix: str) -> Contact | None:
"""Get a contact by exact key match, falling back to prefix match.
Useful when the input might be a full 64-char public key or a shorter prefix.
"""
contact = await ContactRepository.get_by_key(key_or_prefix)
if not contact:
contact = await ContactRepository.get_by_key_prefix(key_or_prefix)
return contact
@staticmethod
async def get_all(limit: int = 100, offset: int = 0) -> list[Contact]:
cursor = await db.conn.execute(
"SELECT * FROM contacts ORDER BY COALESCE(name, public_key) LIMIT ? OFFSET ?",
(limit, offset),
)
rows = await cursor.fetchall()
return [ContactRepository._row_to_contact(row) for row in rows]
@staticmethod
async def get_recent_non_repeaters(limit: int = 200) -> list[Contact]:
"""Get the most recently active non-repeater contacts.
Orders by most recent activity (last_contacted or last_advert),
excluding repeaters (type=2).
"""
cursor = await db.conn.execute(
"""
SELECT * FROM contacts
WHERE type != 2
ORDER BY COALESCE(last_contacted, 0) DESC, COALESCE(last_advert, 0) DESC
LIMIT ?
""",
(limit,),
)
rows = await cursor.fetchall()
return [ContactRepository._row_to_contact(row) for row in rows]
@staticmethod
async def update_path(public_key: str, path: str, path_len: int) -> None:
await db.conn.execute(
"UPDATE contacts SET last_path = ?, last_path_len = ?, last_seen = ? WHERE public_key = ?",
(path, path_len, int(time.time()), public_key.lower()),
)
await db.conn.commit()
@staticmethod
async def set_on_radio(public_key: str, on_radio: bool) -> None:
await db.conn.execute(
"UPDATE contacts SET on_radio = ? WHERE public_key = ?",
(on_radio, public_key.lower()),
)
await db.conn.commit()
@staticmethod
async def delete(public_key: str) -> None:
await db.conn.execute(
"DELETE FROM contacts WHERE public_key = ?",
(public_key.lower(),),
)
await db.conn.commit()
@staticmethod
async def update_last_contacted(public_key: str, timestamp: int | None = None) -> None:
"""Update the last_contacted timestamp for a contact."""
ts = timestamp or int(time.time())
await db.conn.execute(
"UPDATE contacts SET last_contacted = ?, last_seen = ? WHERE public_key = ?",
(ts, ts, public_key.lower()),
)
await db.conn.commit()
@staticmethod
async def update_last_read_at(public_key: str, timestamp: int | None = None) -> bool:
"""Update the last_read_at timestamp for a contact.
Returns True if a row was updated, False if contact not found.
"""
ts = timestamp or int(time.time())
cursor = await db.conn.execute(
"UPDATE contacts SET last_read_at = ? WHERE public_key = ?",
(ts, public_key.lower()),
)
await db.conn.commit()
return cursor.rowcount > 0
@staticmethod
async def mark_all_read(timestamp: int) -> None:
"""Mark all contacts as read at the given timestamp."""
await db.conn.execute("UPDATE contacts SET last_read_at = ?", (timestamp,))
@staticmethod
async def get_by_pubkey_first_byte(hex_byte: str) -> list[Contact]:
"""Get contacts whose public key starts with the given hex byte (2 chars)."""
cursor = await db.conn.execute(
"SELECT * FROM contacts WHERE substr(public_key, 1, 2) = ?",
(hex_byte.lower(),),
)
rows = await cursor.fetchall()
return [ContactRepository._row_to_contact(row) for row in rows]
class ChannelRepository:
@staticmethod
async def upsert(key: str, name: str, is_hashtag: bool = False, on_radio: bool = False) -> None:
"""Upsert a channel. Key is 32-char hex string."""
await db.conn.execute(
"""
INSERT INTO channels (key, name, is_hashtag, on_radio)
VALUES (?, ?, ?, ?)
ON CONFLICT(key) DO UPDATE SET
name = excluded.name,
is_hashtag = excluded.is_hashtag,
on_radio = excluded.on_radio
""",
(key.upper(), name, is_hashtag, on_radio),
)
await db.conn.commit()
@staticmethod
async def get_by_key(key: str) -> Channel | None:
"""Get a channel by its key (32-char hex string)."""
cursor = await db.conn.execute(
"SELECT key, name, is_hashtag, on_radio, last_read_at FROM channels WHERE key = ?",
(key.upper(),),
)
row = await cursor.fetchone()
if row:
return Channel(
key=row["key"],
name=row["name"],
is_hashtag=bool(row["is_hashtag"]),
on_radio=bool(row["on_radio"]),
last_read_at=row["last_read_at"],
)
return None
@staticmethod
async def get_all() -> list[Channel]:
cursor = await db.conn.execute(
"SELECT key, name, is_hashtag, on_radio, last_read_at FROM channels ORDER BY name"
)
rows = await cursor.fetchall()
return [
Channel(
key=row["key"],
name=row["name"],
is_hashtag=bool(row["is_hashtag"]),
on_radio=bool(row["on_radio"]),
last_read_at=row["last_read_at"],
)
for row in rows
]
@staticmethod
async def delete(key: str) -> None:
"""Delete a channel by key."""
await db.conn.execute(
"DELETE FROM channels WHERE key = ?",
(key.upper(),),
)
await db.conn.commit()
@staticmethod
async def update_last_read_at(key: str, timestamp: int | None = None) -> bool:
"""Update the last_read_at timestamp for a channel.
Returns True if a row was updated, False if channel not found.
"""
ts = timestamp or int(time.time())
cursor = await db.conn.execute(
"UPDATE channels SET last_read_at = ? WHERE key = ?",
(ts, key.upper()),
)
await db.conn.commit()
return cursor.rowcount > 0
@staticmethod
async def mark_all_read(timestamp: int) -> None:
"""Mark all channels as read at the given timestamp."""
await db.conn.execute("UPDATE channels SET last_read_at = ?", (timestamp,))
class MessageRepository:
@staticmethod
def _parse_paths(paths_json: str | None) -> list[MessagePath] | None:
"""Parse paths JSON string to list of MessagePath objects."""
if not paths_json:
return None
try:
paths_data = json.loads(paths_json)
return [MessagePath(**p) for p in paths_data]
except (json.JSONDecodeError, TypeError, KeyError):
return None
@staticmethod
async def create(
msg_type: str,
text: str,
received_at: int,
conversation_key: str,
sender_timestamp: int | None = None,
path: str | None = None,
txt_type: int = 0,
signature: str | None = None,
outgoing: bool = False,
) -> int | None:
"""Create a message, returning the ID or None if duplicate.
Uses INSERT OR IGNORE to handle the UNIQUE constraint on
(type, conversation_key, text, sender_timestamp). This prevents
duplicate messages when the same message arrives via multiple RF paths.
The path parameter is converted to the paths JSON array format.
"""
# Convert single path to paths array format
paths_json = None
if path is not None:
paths_json = json.dumps([{"path": path, "received_at": received_at}])
cursor = await db.conn.execute(
"""
INSERT OR IGNORE INTO messages (type, conversation_key, text, sender_timestamp,
received_at, paths, txt_type, signature, outgoing)
VALUES (?, ?, ?, ?, ?, ?, ?, ?, ?)
""",
(
msg_type,
conversation_key,
text,
sender_timestamp,
received_at,
paths_json,
txt_type,
signature,
outgoing,
),
)
await db.conn.commit()
# rowcount is 0 if INSERT was ignored due to UNIQUE constraint violation
if cursor.rowcount == 0:
return None
return cursor.lastrowid
@staticmethod
async def add_path(
message_id: int, path: str, received_at: int | None = None
) -> list[MessagePath]:
"""Add a new path to an existing message.
This is used when a repeat/echo of a message arrives via a different route.
Returns the updated list of paths.
"""
ts = received_at or int(time.time())
# Get current paths
cursor = await db.conn.execute("SELECT paths FROM messages WHERE id = ?", (message_id,))
row = await cursor.fetchone()
if not row:
return []
# Parse existing paths or start with empty list
existing_paths = []
if row["paths"]:
try:
existing_paths = json.loads(row["paths"])
except json.JSONDecodeError:
existing_paths = []
# Add new path
existing_paths.append({"path": path, "received_at": ts})
# Update database
paths_json = json.dumps(existing_paths)
await db.conn.execute(
"UPDATE messages SET paths = ? WHERE id = ?",
(paths_json, message_id),
)
await db.conn.commit()
return [MessagePath(**p) for p in existing_paths]
@staticmethod
async def claim_prefix_messages(full_key: str) -> int:
"""Promote prefix-stored messages to the full conversation key.
When a full key becomes known for a contact, any messages stored with
only a prefix as conversation_key are updated to use the full key.
"""
lower_key = full_key.lower()
cursor = await db.conn.execute(
"""UPDATE messages SET conversation_key = ?
WHERE type = 'PRIV' AND length(conversation_key) < 64
AND ? LIKE conversation_key || '%'""",
(lower_key, lower_key),
)
await db.conn.commit()
return cursor.rowcount
@staticmethod
async def get_all(
limit: int = 100,
offset: int = 0,
msg_type: str | None = None,
conversation_key: str | None = None,
before: int | None = None,
before_id: int | None = None,
) -> list[Message]:
query = "SELECT * FROM messages WHERE 1=1"
params: list[Any] = []
if msg_type:
query += " AND type = ?"
params.append(msg_type)
if conversation_key:
# Support both exact match and prefix match for DMs
query += " AND conversation_key LIKE ?"
params.append(f"{conversation_key}%")
if before is not None and before_id is not None:
query += " AND (received_at < ? OR (received_at = ? AND id < ?))"
params.extend([before, before, before_id])
query += " ORDER BY received_at DESC, id DESC LIMIT ?"
params.append(limit)
if before is None or before_id is None:
query += " OFFSET ?"
params.append(offset)
cursor = await db.conn.execute(query, params)
rows = await cursor.fetchall()
return [
Message(
id=row["id"],
type=row["type"],
conversation_key=row["conversation_key"],
text=row["text"],
sender_timestamp=row["sender_timestamp"],
received_at=row["received_at"],
paths=MessageRepository._parse_paths(row["paths"]),
txt_type=row["txt_type"],
signature=row["signature"],
outgoing=bool(row["outgoing"]),
acked=row["acked"],
)
for row in rows
]
@staticmethod
async def increment_ack_count(message_id: int) -> int:
"""Increment ack count and return the new value."""
await db.conn.execute("UPDATE messages SET acked = acked + 1 WHERE id = ?", (message_id,))
await db.conn.commit()
cursor = await db.conn.execute("SELECT acked FROM messages WHERE id = ?", (message_id,))
row = await cursor.fetchone()
return row["acked"] if row else 1
@staticmethod
async def get_ack_count(message_id: int) -> int:
"""Get the current ack count for a message."""
cursor = await db.conn.execute("SELECT acked FROM messages WHERE id = ?", (message_id,))
row = await cursor.fetchone()
return row["acked"] if row else 0
@staticmethod
async def get_by_content(
msg_type: str,
conversation_key: str,
text: str,
sender_timestamp: int | None,
) -> "Message | None":
"""Look up a message by its unique content fields."""
cursor = await db.conn.execute(
"""
SELECT id, type, conversation_key, text, sender_timestamp, received_at,
paths, txt_type, signature, outgoing, acked
FROM messages
WHERE type = ? AND conversation_key = ? AND text = ?
AND (sender_timestamp = ? OR (sender_timestamp IS NULL AND ? IS NULL))
""",
(msg_type, conversation_key, text, sender_timestamp, sender_timestamp),
)
row = await cursor.fetchone()
if not row:
return None
paths = None
if row["paths"]:
try:
paths_data = json.loads(row["paths"])
paths = [
MessagePath(path=p["path"], received_at=p["received_at"]) for p in paths_data
]
except (json.JSONDecodeError, KeyError):
pass
return Message(
id=row["id"],
type=row["type"],
conversation_key=row["conversation_key"],
text=row["text"],
sender_timestamp=row["sender_timestamp"],
received_at=row["received_at"],
paths=paths,
txt_type=row["txt_type"],
signature=row["signature"],
outgoing=bool(row["outgoing"]),
acked=row["acked"],
)
@staticmethod
async def get_unread_counts(name: str | None = None) -> dict:
"""Get unread message counts, mention flags, and last message times for all conversations.
Args:
name: User's display name for @[name] mention detection. If None, mentions are skipped.
Returns:
Dict with 'counts', 'mentions', and 'last_message_times' keys.
"""
counts: dict[str, int] = {}
mention_flags: dict[str, bool] = {}
last_message_times: dict[str, int] = {}
mention_pattern = f"%@[{name}]%" if name else None
# Channel unreads
cursor = await db.conn.execute(
"""
SELECT m.conversation_key,
COUNT(*) as unread_count,
MAX(m.received_at) as last_message_time,
SUM(CASE WHEN m.text LIKE ? THEN 1 ELSE 0 END) > 0 as has_mention
FROM messages m
JOIN channels c ON m.conversation_key = c.key
WHERE m.type = 'CHAN' AND m.outgoing = 0
AND m.received_at > COALESCE(c.last_read_at, 0)
GROUP BY m.conversation_key
""",
(mention_pattern or "",),
)
rows = await cursor.fetchall()
for row in rows:
state_key = f"channel-{row['conversation_key']}"
counts[state_key] = row["unread_count"]
if mention_pattern and row["has_mention"]:
mention_flags[state_key] = True
# Contact unreads
cursor = await db.conn.execute(
"""
SELECT m.conversation_key,
COUNT(*) as unread_count,
MAX(m.received_at) as last_message_time,
SUM(CASE WHEN m.text LIKE ? THEN 1 ELSE 0 END) > 0 as has_mention
FROM messages m
JOIN contacts ct ON m.conversation_key = ct.public_key
WHERE m.type = 'PRIV' AND m.outgoing = 0
AND m.received_at > COALESCE(ct.last_read_at, 0)
GROUP BY m.conversation_key
""",
(mention_pattern or "",),
)
rows = await cursor.fetchall()
for row in rows:
state_key = f"contact-{row['conversation_key']}"
counts[state_key] = row["unread_count"]
if mention_pattern and row["has_mention"]:
mention_flags[state_key] = True
# Last message times for all conversations (including read ones)
cursor = await db.conn.execute(
"""
SELECT type, conversation_key, MAX(received_at) as last_message_time
FROM messages
GROUP BY type, conversation_key
"""
)
rows = await cursor.fetchall()
for row in rows:
prefix = "channel" if row["type"] == "CHAN" else "contact"
state_key = f"{prefix}-{row['conversation_key']}"
last_message_times[state_key] = row["last_message_time"]
return {
"counts": counts,
"mentions": mention_flags,
"last_message_times": last_message_times,
}
class RawPacketRepository:
@staticmethod
async def create(data: bytes, timestamp: int | None = None) -> tuple[int, bool]:
"""
Create a raw packet with payload-based deduplication.
Returns (packet_id, is_new) tuple:
- is_new=True: New packet stored, packet_id is the new row ID
- is_new=False: Duplicate payload detected, packet_id is the existing row ID
Deduplication is based on the SHA-256 hash of the packet payload
(excluding routing/path information).
"""
ts = timestamp or int(time.time())
# Compute payload hash for deduplication
payload = extract_payload(data)
if payload:
payload_hash = sha256(payload).hexdigest()
else:
# For malformed packets, hash the full data
payload_hash = sha256(data).hexdigest()
# Check if this payload already exists
cursor = await db.conn.execute(
"SELECT id FROM raw_packets WHERE payload_hash = ?", (payload_hash,)
)
existing = await cursor.fetchone()
if existing:
# Duplicate - return existing packet ID
logger.debug(
"Duplicate payload detected (hash=%s..., existing_id=%d)",
payload_hash[:12],
existing["id"],
)
return (existing["id"], False)
# New packet - insert with hash
try:
cursor = await db.conn.execute(
"INSERT INTO raw_packets (timestamp, data, payload_hash) VALUES (?, ?, ?)",
(ts, data, payload_hash),
)
await db.conn.commit()
assert cursor.lastrowid is not None # INSERT always returns a row ID
return (cursor.lastrowid, True)
except sqlite3.IntegrityError:
# Race condition: another insert with same payload_hash happened between
# our SELECT and INSERT. This is expected for duplicate packets arriving
# close together. Query again to get the existing ID.
logger.debug(
"Duplicate packet detected via race condition (payload_hash=%s), dropping",
payload_hash[:16],
)
cursor = await db.conn.execute(
"SELECT id FROM raw_packets WHERE payload_hash = ?", (payload_hash,)
)
existing = await cursor.fetchone()
if existing:
return (existing["id"], False)
# This shouldn't happen, but if it does, re-raise
raise
@staticmethod
async def get_undecrypted_count() -> int:
"""Get count of undecrypted packets (those without a linked message)."""
cursor = await db.conn.execute(
"SELECT COUNT(*) as count FROM raw_packets WHERE message_id IS NULL"
)
row = await cursor.fetchone()
return row["count"] if row else 0
@staticmethod
async def get_oldest_undecrypted() -> int | None:
"""Get timestamp of oldest undecrypted packet, or None if none exist."""
cursor = await db.conn.execute(
"SELECT MIN(timestamp) as oldest FROM raw_packets WHERE message_id IS NULL"
)
row = await cursor.fetchone()
return row["oldest"] if row and row["oldest"] is not None else None
@staticmethod
async def get_all_undecrypted() -> list[tuple[int, bytes, int]]:
"""Get all undecrypted packets as (id, data, timestamp) tuples."""
cursor = await db.conn.execute(
"SELECT id, data, timestamp FROM raw_packets WHERE message_id IS NULL ORDER BY timestamp ASC"
)
rows = await cursor.fetchall()
return [(row["id"], bytes(row["data"]), row["timestamp"]) for row in rows]
@staticmethod
async def mark_decrypted(packet_id: int, message_id: int) -> None:
"""Link a raw packet to its decrypted message."""
await db.conn.execute(
"UPDATE raw_packets SET message_id = ? WHERE id = ?",
(message_id, packet_id),
)
await db.conn.commit()
@staticmethod
async def prune_old_undecrypted(max_age_days: int) -> int:
"""Delete undecrypted packets older than max_age_days. Returns count deleted."""
cutoff = int(time.time()) - (max_age_days * 86400)
cursor = await db.conn.execute(
"DELETE FROM raw_packets WHERE message_id IS NULL AND timestamp < ?",
(cutoff,),
)
await db.conn.commit()
return cursor.rowcount
@staticmethod
async def get_undecrypted_text_messages() -> list[tuple[int, bytes, int]]:
"""Get all undecrypted TEXT_MESSAGE packets as (id, data, timestamp) tuples.
Filters raw packets to only include those with PayloadType.TEXT_MESSAGE (0x02).
These are direct messages that can be decrypted with contact ECDH keys.
"""
cursor = await db.conn.execute(
"SELECT id, data, timestamp FROM raw_packets WHERE message_id IS NULL ORDER BY timestamp ASC"
)
rows = await cursor.fetchall()
# Filter for TEXT_MESSAGE packets
result = []
for row in rows:
data = bytes(row["data"])
payload_type = get_packet_payload_type(data)
if payload_type == PayloadType.TEXT_MESSAGE:
result.append((row["id"], data, row["timestamp"]))
return result
class AppSettingsRepository:
"""Repository for app_settings table (single-row pattern)."""
@staticmethod
async def get() -> AppSettings:
"""Get the current app settings.
Always returns settings - creates default row if needed (migration handles initial row).
"""
cursor = await db.conn.execute(
"""
SELECT max_radio_contacts, favorites, auto_decrypt_dm_on_advert,
sidebar_sort_order, last_message_times, preferences_migrated,
advert_interval, last_advert_time, bots
FROM app_settings WHERE id = 1
"""
)
row = await cursor.fetchone()
if not row:
# Should not happen after migration, but handle gracefully
return AppSettings()
# Parse favorites JSON
favorites = []
if row["favorites"]:
try:
favorites_data = json.loads(row["favorites"])
favorites = [Favorite(**f) for f in favorites_data]
except (json.JSONDecodeError, TypeError, KeyError) as e:
logger.warning(
"Failed to parse favorites JSON, using empty list: %s (data=%r)",
e,
row["favorites"][:100] if row["favorites"] else None,
)
favorites = []
# Parse last_message_times JSON
last_message_times: dict[str, int] = {}
if row["last_message_times"]:
try:
last_message_times = json.loads(row["last_message_times"])
except (json.JSONDecodeError, TypeError) as e:
logger.warning(
"Failed to parse last_message_times JSON, using empty dict: %s",
e,
)
last_message_times = {}
# Parse bots JSON
bots: list[BotConfig] = []
if row["bots"]:
try:
bots_data = json.loads(row["bots"])
bots = [BotConfig(**b) for b in bots_data]
except (json.JSONDecodeError, TypeError, KeyError) as e:
logger.warning(
"Failed to parse bots JSON, using empty list: %s (data=%r)",
e,
row["bots"][:100] if row["bots"] else None,
)
bots = []
# Validate sidebar_sort_order (fallback to "recent" if invalid)
sort_order = row["sidebar_sort_order"]
if sort_order not in ("recent", "alpha"):
sort_order = "recent"
return AppSettings(
max_radio_contacts=row["max_radio_contacts"],
favorites=favorites,
auto_decrypt_dm_on_advert=bool(row["auto_decrypt_dm_on_advert"]),
sidebar_sort_order=sort_order,
last_message_times=last_message_times,
preferences_migrated=bool(row["preferences_migrated"]),
advert_interval=row["advert_interval"] or 0,
last_advert_time=row["last_advert_time"] or 0,
bots=bots,
)
@staticmethod
async def update(
max_radio_contacts: int | None = None,
favorites: list[Favorite] | None = None,
auto_decrypt_dm_on_advert: bool | None = None,
sidebar_sort_order: str | None = None,
last_message_times: dict[str, int] | None = None,
preferences_migrated: bool | None = None,
advert_interval: int | None = None,
last_advert_time: int | None = None,
bots: list[BotConfig] | None = None,
) -> AppSettings:
"""Update app settings. Only provided fields are updated."""
updates = []
params: list[Any] = []
if max_radio_contacts is not None:
updates.append("max_radio_contacts = ?")
params.append(max_radio_contacts)
if favorites is not None:
updates.append("favorites = ?")
favorites_json = json.dumps([f.model_dump() for f in favorites])
params.append(favorites_json)
if auto_decrypt_dm_on_advert is not None:
updates.append("auto_decrypt_dm_on_advert = ?")
params.append(1 if auto_decrypt_dm_on_advert else 0)
if sidebar_sort_order is not None:
updates.append("sidebar_sort_order = ?")
params.append(sidebar_sort_order)
if last_message_times is not None:
updates.append("last_message_times = ?")
params.append(json.dumps(last_message_times))
if preferences_migrated is not None:
updates.append("preferences_migrated = ?")
params.append(1 if preferences_migrated else 0)
if advert_interval is not None:
updates.append("advert_interval = ?")
params.append(advert_interval)
if last_advert_time is not None:
updates.append("last_advert_time = ?")
params.append(last_advert_time)
if bots is not None:
updates.append("bots = ?")
bots_json = json.dumps([b.model_dump() for b in bots])
params.append(bots_json)
if updates:
query = f"UPDATE app_settings SET {', '.join(updates)} WHERE id = 1"
await db.conn.execute(query, params)
await db.conn.commit()
return await AppSettingsRepository.get()
@staticmethod
async def add_favorite(fav_type: Literal["channel", "contact"], fav_id: str) -> AppSettings:
"""Add a favorite, avoiding duplicates."""
settings = await AppSettingsRepository.get()
# Check if already favorited
if any(f.type == fav_type and f.id == fav_id for f in settings.favorites):
return settings
new_favorites = settings.favorites + [Favorite(type=fav_type, id=fav_id)]
return await AppSettingsRepository.update(favorites=new_favorites)
@staticmethod
async def remove_favorite(fav_type: Literal["channel", "contact"], fav_id: str) -> AppSettings:
"""Remove a favorite."""
settings = await AppSettingsRepository.get()
new_favorites = [
f for f in settings.favorites if not (f.type == fav_type and f.id == fav_id)
]
return await AppSettingsRepository.update(favorites=new_favorites)
@staticmethod
async def migrate_preferences_from_frontend(
favorites: list[dict],
sort_order: str,
last_message_times: dict[str, int],
) -> tuple[AppSettings, bool]:
"""Migrate all preferences from frontend localStorage.
This is a one-time migration. If already migrated, returns current settings
without overwriting. Returns (settings, did_migrate) tuple.
"""
settings = await AppSettingsRepository.get()
if settings.preferences_migrated:
# Already migrated, don't overwrite
return settings, False
# Convert frontend favorites format to Favorite objects
new_favorites = []
for f in favorites:
if f.get("type") in ("channel", "contact") and f.get("id"):
new_favorites.append(Favorite(type=f["type"], id=f["id"]))
# Update with migrated preferences and mark as migrated
settings = await AppSettingsRepository.update(
favorites=new_favorites,
sidebar_sort_order=sort_order if sort_order in ("recent", "alpha") else "recent",
last_message_times=last_message_times,
preferences_migrated=True,
)
return settings, True

View File

@@ -1,24 +0,0 @@
from app.repository.channels import ChannelRepository
from app.repository.contacts import (
AmbiguousPublicKeyPrefixError,
ContactAdvertPathRepository,
ContactNameHistoryRepository,
ContactRepository,
)
from app.repository.fanout import FanoutConfigRepository
from app.repository.messages import MessageRepository
from app.repository.raw_packets import RawPacketRepository
from app.repository.settings import AppSettingsRepository, StatisticsRepository
__all__ = [
"AmbiguousPublicKeyPrefixError",
"AppSettingsRepository",
"ChannelRepository",
"ContactAdvertPathRepository",
"ContactNameHistoryRepository",
"ContactRepository",
"FanoutConfigRepository",
"MessageRepository",
"RawPacketRepository",
"StatisticsRepository",
]

View File

@@ -1,130 +0,0 @@
import time
from app.database import db
from app.models import Channel
class ChannelRepository:
@staticmethod
async def upsert(key: str, name: str, is_hashtag: bool = False, on_radio: bool = False) -> None:
"""Upsert a channel. Key is 32-char hex string."""
await db.conn.execute(
"""
INSERT INTO channels (key, name, is_hashtag, on_radio, flood_scope_override)
VALUES (?, ?, ?, ?, NULL)
ON CONFLICT(key) DO UPDATE SET
name = excluded.name,
is_hashtag = excluded.is_hashtag,
on_radio = excluded.on_radio
""",
(key.upper(), name, is_hashtag, on_radio),
)
await db.conn.commit()
@staticmethod
async def get_by_key(key: str) -> Channel | None:
"""Get a channel by its key (32-char hex string)."""
cursor = await db.conn.execute(
"""
SELECT key, name, is_hashtag, on_radio, flood_scope_override, last_read_at
FROM channels
WHERE key = ?
""",
(key.upper(),),
)
row = await cursor.fetchone()
if row:
return Channel(
key=row["key"],
name=row["name"],
is_hashtag=bool(row["is_hashtag"]),
on_radio=bool(row["on_radio"]),
flood_scope_override=row["flood_scope_override"],
last_read_at=row["last_read_at"],
)
return None
@staticmethod
async def get_all() -> list[Channel]:
cursor = await db.conn.execute(
"""
SELECT key, name, is_hashtag, on_radio, flood_scope_override, last_read_at
FROM channels
ORDER BY name
"""
)
rows = await cursor.fetchall()
return [
Channel(
key=row["key"],
name=row["name"],
is_hashtag=bool(row["is_hashtag"]),
on_radio=bool(row["on_radio"]),
flood_scope_override=row["flood_scope_override"],
last_read_at=row["last_read_at"],
)
for row in rows
]
@staticmethod
async def get_on_radio() -> list[Channel]:
"""Return channels currently marked as resident on the radio in the database."""
cursor = await db.conn.execute(
"""
SELECT key, name, is_hashtag, on_radio, flood_scope_override, last_read_at
FROM channels
WHERE on_radio = 1
ORDER BY name
"""
)
rows = await cursor.fetchall()
return [
Channel(
key=row["key"],
name=row["name"],
is_hashtag=bool(row["is_hashtag"]),
on_radio=bool(row["on_radio"]),
flood_scope_override=row["flood_scope_override"],
last_read_at=row["last_read_at"],
)
for row in rows
]
@staticmethod
async def delete(key: str) -> None:
"""Delete a channel by key."""
await db.conn.execute(
"DELETE FROM channels WHERE key = ?",
(key.upper(),),
)
await db.conn.commit()
@staticmethod
async def update_last_read_at(key: str, timestamp: int | None = None) -> bool:
"""Update the last_read_at timestamp for a channel.
Returns True if a row was updated, False if channel not found.
"""
ts = timestamp if timestamp is not None else int(time.time())
cursor = await db.conn.execute(
"UPDATE channels SET last_read_at = ? WHERE key = ?",
(ts, key.upper()),
)
await db.conn.commit()
return cursor.rowcount > 0
@staticmethod
async def update_flood_scope_override(key: str, flood_scope_override: str | None) -> bool:
"""Set or clear a channel's flood-scope override."""
cursor = await db.conn.execute(
"UPDATE channels SET flood_scope_override = ? WHERE key = ?",
(flood_scope_override, key.upper()),
)
await db.conn.commit()
return cursor.rowcount > 0
@staticmethod
async def mark_all_read(timestamp: int) -> None:
"""Mark all channels as read at the given timestamp."""
await db.conn.execute("UPDATE channels SET last_read_at = ?", (timestamp,))
await db.conn.commit()

View File

@@ -1,660 +0,0 @@
import time
from collections.abc import Mapping
from typing import Any
from app.database import db
from app.models import (
Contact,
ContactAdvertPath,
ContactAdvertPathSummary,
ContactNameHistory,
ContactUpsert,
)
from app.path_utils import first_hop_hex, normalize_contact_route, normalize_route_override
class AmbiguousPublicKeyPrefixError(ValueError):
"""Raised when a public key prefix matches multiple contacts."""
def __init__(self, prefix: str, matches: list[str]):
self.prefix = prefix.lower()
self.matches = matches
super().__init__(f"Ambiguous public key prefix '{self.prefix}'")
class ContactRepository:
@staticmethod
def _coerce_contact_upsert(
contact: ContactUpsert | Contact | Mapping[str, Any],
) -> ContactUpsert:
if isinstance(contact, ContactUpsert):
return contact
if isinstance(contact, Contact):
return contact.to_upsert()
return ContactUpsert.model_validate(contact)
@staticmethod
async def upsert(contact: ContactUpsert | Contact | Mapping[str, Any]) -> None:
contact_row = ContactRepository._coerce_contact_upsert(contact)
last_path, last_path_len, out_path_hash_mode = normalize_contact_route(
contact_row.last_path,
contact_row.last_path_len,
contact_row.out_path_hash_mode,
)
route_override_path, route_override_len, route_override_hash_mode = (
normalize_route_override(
contact_row.route_override_path,
contact_row.route_override_len,
contact_row.route_override_hash_mode,
)
)
await db.conn.execute(
"""
INSERT INTO contacts (public_key, name, type, flags, last_path, last_path_len,
out_path_hash_mode,
route_override_path, route_override_len,
route_override_hash_mode,
last_advert, lat, lon, last_seen,
on_radio, last_contacted, first_seen)
VALUES (?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?)
ON CONFLICT(public_key) DO UPDATE SET
name = COALESCE(excluded.name, contacts.name),
type = CASE WHEN excluded.type = 0 THEN contacts.type ELSE excluded.type END,
flags = excluded.flags,
last_path = COALESCE(excluded.last_path, contacts.last_path),
last_path_len = excluded.last_path_len,
out_path_hash_mode = excluded.out_path_hash_mode,
route_override_path = COALESCE(
excluded.route_override_path, contacts.route_override_path
),
route_override_len = COALESCE(
excluded.route_override_len, contacts.route_override_len
),
route_override_hash_mode = COALESCE(
excluded.route_override_hash_mode, contacts.route_override_hash_mode
),
last_advert = COALESCE(excluded.last_advert, contacts.last_advert),
lat = COALESCE(excluded.lat, contacts.lat),
lon = COALESCE(excluded.lon, contacts.lon),
last_seen = excluded.last_seen,
on_radio = COALESCE(excluded.on_radio, contacts.on_radio),
last_contacted = COALESCE(excluded.last_contacted, contacts.last_contacted),
first_seen = COALESCE(contacts.first_seen, excluded.first_seen)
""",
(
contact_row.public_key.lower(),
contact_row.name,
contact_row.type,
contact_row.flags,
last_path,
last_path_len,
out_path_hash_mode,
route_override_path,
route_override_len,
route_override_hash_mode,
contact_row.last_advert,
contact_row.lat,
contact_row.lon,
contact_row.last_seen if contact_row.last_seen is not None else int(time.time()),
contact_row.on_radio,
contact_row.last_contacted,
contact_row.first_seen,
),
)
await db.conn.commit()
@staticmethod
def _row_to_contact(row) -> Contact:
"""Convert a database row to a Contact model."""
last_path, last_path_len, out_path_hash_mode = normalize_contact_route(
row["last_path"],
row["last_path_len"],
row["out_path_hash_mode"],
)
available_columns = set(row.keys())
route_override_path = (
row["route_override_path"] if "route_override_path" in available_columns else None
)
route_override_len = (
row["route_override_len"] if "route_override_len" in available_columns else None
)
route_override_hash_mode = (
row["route_override_hash_mode"]
if "route_override_hash_mode" in available_columns
else None
)
route_override_path, route_override_len, route_override_hash_mode = (
normalize_route_override(
route_override_path,
route_override_len,
route_override_hash_mode,
)
)
return Contact(
public_key=row["public_key"],
name=row["name"],
type=row["type"],
flags=row["flags"],
last_path=last_path,
last_path_len=last_path_len,
out_path_hash_mode=out_path_hash_mode,
route_override_path=route_override_path,
route_override_len=route_override_len,
route_override_hash_mode=route_override_hash_mode,
last_advert=row["last_advert"],
lat=row["lat"],
lon=row["lon"],
last_seen=row["last_seen"],
on_radio=bool(row["on_radio"]),
last_contacted=row["last_contacted"],
last_read_at=row["last_read_at"],
first_seen=row["first_seen"],
)
@staticmethod
async def get_by_key(public_key: str) -> Contact | None:
cursor = await db.conn.execute(
"SELECT * FROM contacts WHERE public_key = ?", (public_key.lower(),)
)
row = await cursor.fetchone()
return ContactRepository._row_to_contact(row) if row else None
@staticmethod
async def get_by_key_prefix(prefix: str) -> Contact | None:
"""Get a contact by key prefix only if it resolves uniquely.
Returns None when no contacts match OR when multiple contacts match
the prefix (to avoid silently selecting the wrong contact).
"""
normalized_prefix = prefix.lower()
exact = await ContactRepository.get_by_key(normalized_prefix)
if exact:
return exact
cursor = await db.conn.execute(
"SELECT * FROM contacts WHERE public_key LIKE ? ORDER BY public_key LIMIT 2",
(f"{normalized_prefix}%",),
)
rows = list(await cursor.fetchall())
if len(rows) != 1:
return None
return ContactRepository._row_to_contact(rows[0])
@staticmethod
async def _get_prefix_matches(prefix: str, limit: int = 2) -> list[Contact]:
"""Get contacts matching a key prefix, up to limit."""
cursor = await db.conn.execute(
"SELECT * FROM contacts WHERE public_key LIKE ? ORDER BY public_key LIMIT ?",
(f"{prefix.lower()}%", limit),
)
rows = list(await cursor.fetchall())
return [ContactRepository._row_to_contact(row) for row in rows]
@staticmethod
async def get_by_key_or_prefix(key_or_prefix: str) -> Contact | None:
"""Get a contact by exact key match, falling back to prefix match.
Useful when the input might be a full 64-char public key or a shorter prefix.
"""
contact = await ContactRepository.get_by_key(key_or_prefix)
if contact:
return contact
matches = await ContactRepository._get_prefix_matches(key_or_prefix, limit=2)
if len(matches) == 1:
return matches[0]
if len(matches) > 1:
raise AmbiguousPublicKeyPrefixError(
key_or_prefix,
[m.public_key for m in matches],
)
return None
@staticmethod
async def get_by_name(name: str) -> list[Contact]:
"""Get all contacts with the given exact name."""
cursor = await db.conn.execute("SELECT * FROM contacts WHERE name = ?", (name,))
rows = await cursor.fetchall()
return [ContactRepository._row_to_contact(row) for row in rows]
@staticmethod
async def resolve_prefixes(prefixes: list[str]) -> dict[str, Contact]:
"""Resolve multiple key prefixes to contacts in a single query.
Returns a dict mapping each prefix to its Contact, only for prefixes
that resolve uniquely (exactly one match). Ambiguous or unmatched
prefixes are omitted.
"""
if not prefixes:
return {}
normalized = [p.lower() for p in prefixes]
conditions = " OR ".join(["public_key LIKE ?"] * len(normalized))
params = [f"{p}%" for p in normalized]
cursor = await db.conn.execute(f"SELECT * FROM contacts WHERE {conditions}", params)
rows = await cursor.fetchall()
# Group by which prefix each row matches
prefix_to_rows: dict[str, list] = {p: [] for p in normalized}
for row in rows:
pk = row["public_key"]
for p in normalized:
if pk.startswith(p):
prefix_to_rows[p].append(row)
# Only include uniquely-resolved prefixes
result: dict[str, Contact] = {}
for p in normalized:
if len(prefix_to_rows[p]) == 1:
result[p] = ContactRepository._row_to_contact(prefix_to_rows[p][0])
return result
@staticmethod
async def get_all(limit: int = 100, offset: int = 0) -> list[Contact]:
cursor = await db.conn.execute(
"SELECT * FROM contacts ORDER BY COALESCE(name, public_key) LIMIT ? OFFSET ?",
(limit, offset),
)
rows = await cursor.fetchall()
return [ContactRepository._row_to_contact(row) for row in rows]
@staticmethod
async def get_recently_contacted_non_repeaters(limit: int = 200) -> list[Contact]:
"""Get recently interacted-with non-repeater contacts."""
cursor = await db.conn.execute(
"""
SELECT * FROM contacts
WHERE type != 2 AND last_contacted IS NOT NULL AND length(public_key) = 64
ORDER BY last_contacted DESC
LIMIT ?
""",
(limit,),
)
rows = await cursor.fetchall()
return [ContactRepository._row_to_contact(row) for row in rows]
@staticmethod
async def get_recently_advertised_non_repeaters(limit: int = 200) -> list[Contact]:
"""Get recently advert-heard non-repeater contacts."""
cursor = await db.conn.execute(
"""
SELECT * FROM contacts
WHERE type != 2 AND last_advert IS NOT NULL AND length(public_key) = 64
ORDER BY last_advert DESC
LIMIT ?
""",
(limit,),
)
rows = await cursor.fetchall()
return [ContactRepository._row_to_contact(row) for row in rows]
@staticmethod
async def update_path(
public_key: str,
path: str,
path_len: int,
out_path_hash_mode: int | None = None,
) -> None:
normalized_path, normalized_path_len, normalized_hash_mode = normalize_contact_route(
path,
path_len,
out_path_hash_mode,
)
await db.conn.execute(
"""UPDATE contacts SET last_path = ?, last_path_len = ?,
out_path_hash_mode = COALESCE(?, out_path_hash_mode),
last_seen = ? WHERE public_key = ?""",
(
normalized_path,
normalized_path_len,
normalized_hash_mode,
int(time.time()),
public_key.lower(),
),
)
await db.conn.commit()
@staticmethod
async def set_routing_override(
public_key: str,
path: str | None,
path_len: int | None,
out_path_hash_mode: int | None = None,
) -> None:
normalized_path, normalized_len, normalized_hash_mode = normalize_route_override(
path,
path_len,
out_path_hash_mode,
)
await db.conn.execute(
"""
UPDATE contacts
SET route_override_path = ?, route_override_len = ?, route_override_hash_mode = ?
WHERE public_key = ?
""",
(
normalized_path,
normalized_len,
normalized_hash_mode,
public_key.lower(),
),
)
await db.conn.commit()
@staticmethod
async def clear_routing_override(public_key: str) -> None:
await db.conn.execute(
"""
UPDATE contacts
SET route_override_path = NULL,
route_override_len = NULL,
route_override_hash_mode = NULL
WHERE public_key = ?
""",
(public_key.lower(),),
)
await db.conn.commit()
@staticmethod
async def clear_on_radio_except(keep_keys: list[str]) -> None:
"""Set on_radio=False for all contacts NOT in keep_keys."""
if not keep_keys:
await db.conn.execute("UPDATE contacts SET on_radio = 0 WHERE on_radio = 1")
else:
placeholders = ",".join("?" * len(keep_keys))
await db.conn.execute(
f"UPDATE contacts SET on_radio = 0 WHERE on_radio = 1 AND public_key NOT IN ({placeholders})",
keep_keys,
)
await db.conn.commit()
@staticmethod
async def delete(public_key: str) -> None:
normalized = public_key.lower()
await db.conn.execute(
"DELETE FROM contact_name_history WHERE public_key = ?", (normalized,)
)
await db.conn.execute(
"DELETE FROM contact_advert_paths WHERE public_key = ?", (normalized,)
)
await db.conn.execute("DELETE FROM contacts WHERE public_key = ?", (normalized,))
await db.conn.commit()
@staticmethod
async def update_last_contacted(public_key: str, timestamp: int | None = None) -> None:
"""Update the last_contacted timestamp for a contact."""
ts = timestamp if timestamp is not None else int(time.time())
await db.conn.execute(
"UPDATE contacts SET last_contacted = ?, last_seen = ? WHERE public_key = ?",
(ts, ts, public_key.lower()),
)
await db.conn.commit()
@staticmethod
async def update_last_read_at(public_key: str, timestamp: int | None = None) -> bool:
"""Update the last_read_at timestamp for a contact.
Returns True if a row was updated, False if contact not found.
"""
ts = timestamp if timestamp is not None else int(time.time())
cursor = await db.conn.execute(
"UPDATE contacts SET last_read_at = ? WHERE public_key = ?",
(ts, public_key.lower()),
)
await db.conn.commit()
return cursor.rowcount > 0
@staticmethod
async def promote_prefix_placeholders(full_key: str) -> list[str]:
"""Promote prefix-only placeholder contacts to a resolved full key.
Returns the placeholder public keys that were merged into the full key.
"""
normalized_full_key = full_key.lower()
cursor = await db.conn.execute(
"""
SELECT public_key, last_seen, last_contacted, first_seen, last_read_at
FROM contacts
WHERE length(public_key) < 64
AND ? LIKE public_key || '%'
ORDER BY length(public_key) DESC, public_key
""",
(normalized_full_key,),
)
rows = list(await cursor.fetchall())
if not rows:
return []
promoted_keys: list[str] = []
full_exists = await ContactRepository.get_by_key(normalized_full_key) is not None
for row in rows:
old_key = row["public_key"]
if old_key == normalized_full_key:
continue
match_cursor = await db.conn.execute(
"""
SELECT COUNT(*) AS match_count
FROM contacts
WHERE length(public_key) = 64
AND public_key LIKE ? || '%'
""",
(old_key,),
)
match_row = await match_cursor.fetchone()
if (match_row["match_count"] if match_row is not None else 0) != 1:
continue
if full_exists:
await db.conn.execute(
"""
UPDATE contacts
SET last_seen = CASE
WHEN contacts.last_seen IS NULL THEN ?
WHEN ? IS NULL THEN contacts.last_seen
WHEN ? > contacts.last_seen THEN ?
ELSE contacts.last_seen
END,
last_contacted = CASE
WHEN contacts.last_contacted IS NULL THEN ?
WHEN ? IS NULL THEN contacts.last_contacted
WHEN ? > contacts.last_contacted THEN ?
ELSE contacts.last_contacted
END,
first_seen = CASE
WHEN contacts.first_seen IS NULL THEN ?
WHEN ? IS NULL THEN contacts.first_seen
WHEN ? < contacts.first_seen THEN ?
ELSE contacts.first_seen
END,
last_read_at = COALESCE(contacts.last_read_at, ?)
WHERE public_key = ?
""",
(
row["last_seen"],
row["last_seen"],
row["last_seen"],
row["last_seen"],
row["last_contacted"],
row["last_contacted"],
row["last_contacted"],
row["last_contacted"],
row["first_seen"],
row["first_seen"],
row["first_seen"],
row["first_seen"],
row["last_read_at"],
normalized_full_key,
),
)
await db.conn.execute("DELETE FROM contacts WHERE public_key = ?", (old_key,))
else:
await db.conn.execute(
"UPDATE contacts SET public_key = ? WHERE public_key = ?",
(normalized_full_key, old_key),
)
full_exists = True
promoted_keys.append(old_key)
await db.conn.commit()
return promoted_keys
@staticmethod
async def mark_all_read(timestamp: int) -> None:
"""Mark all contacts as read at the given timestamp."""
await db.conn.execute("UPDATE contacts SET last_read_at = ?", (timestamp,))
await db.conn.commit()
@staticmethod
async def get_by_pubkey_first_byte(hex_byte: str) -> list[Contact]:
"""Get contacts whose public key starts with the given hex byte (2 chars)."""
cursor = await db.conn.execute(
"SELECT * FROM contacts WHERE substr(public_key, 1, 2) = ?",
(hex_byte.lower(),),
)
rows = await cursor.fetchall()
return [ContactRepository._row_to_contact(row) for row in rows]
class ContactAdvertPathRepository:
"""Repository for recent unique advertisement paths per contact."""
@staticmethod
def _row_to_path(row) -> ContactAdvertPath:
path = row["path_hex"] or ""
path_len = row["path_len"]
next_hop = first_hop_hex(path, path_len)
return ContactAdvertPath(
path=path,
path_len=path_len,
next_hop=next_hop,
first_seen=row["first_seen"],
last_seen=row["last_seen"],
heard_count=row["heard_count"],
)
@staticmethod
async def record_observation(
public_key: str,
path_hex: str,
timestamp: int,
max_paths: int = 10,
hop_count: int | None = None,
) -> None:
"""
Upsert a unique advert path observation for a contact and prune to N most recent.
"""
if max_paths < 1:
max_paths = 1
normalized_key = public_key.lower()
normalized_path = path_hex.lower()
path_len = hop_count if hop_count is not None else len(normalized_path) // 2
await db.conn.execute(
"""
INSERT INTO contact_advert_paths
(public_key, path_hex, path_len, first_seen, last_seen, heard_count)
VALUES (?, ?, ?, ?, ?, 1)
ON CONFLICT(public_key, path_hex, path_len) DO UPDATE SET
last_seen = MAX(contact_advert_paths.last_seen, excluded.last_seen),
heard_count = contact_advert_paths.heard_count + 1
""",
(normalized_key, normalized_path, path_len, timestamp, timestamp),
)
# Keep only the N most recent unique paths per contact.
await db.conn.execute(
"""
DELETE FROM contact_advert_paths
WHERE public_key = ?
AND id NOT IN (
SELECT id
FROM contact_advert_paths
WHERE public_key = ?
ORDER BY last_seen DESC, heard_count DESC, path_len ASC, path_hex ASC
LIMIT ?
)
""",
(normalized_key, normalized_key, max_paths),
)
await db.conn.commit()
@staticmethod
async def get_recent_for_contact(public_key: str, limit: int = 10) -> list[ContactAdvertPath]:
cursor = await db.conn.execute(
"""
SELECT path_hex, path_len, first_seen, last_seen, heard_count
FROM contact_advert_paths
WHERE public_key = ?
ORDER BY last_seen DESC, heard_count DESC, path_len ASC, path_hex ASC
LIMIT ?
""",
(public_key.lower(), limit),
)
rows = await cursor.fetchall()
return [ContactAdvertPathRepository._row_to_path(row) for row in rows]
@staticmethod
async def get_recent_for_all_contacts(
limit_per_contact: int = 10,
) -> list[ContactAdvertPathSummary]:
cursor = await db.conn.execute(
"""
SELECT public_key, path_hex, path_len, first_seen, last_seen, heard_count
FROM contact_advert_paths
ORDER BY public_key ASC, last_seen DESC, heard_count DESC, path_len ASC, path_hex ASC
"""
)
rows = await cursor.fetchall()
grouped: dict[str, list[ContactAdvertPath]] = {}
for row in rows:
key = row["public_key"]
paths = grouped.get(key)
if paths is None:
paths = []
grouped[key] = paths
if len(paths) >= limit_per_contact:
continue
paths.append(ContactAdvertPathRepository._row_to_path(row))
return [
ContactAdvertPathSummary(public_key=key, paths=paths) for key, paths in grouped.items()
]
class ContactNameHistoryRepository:
"""Repository for contact name change history."""
@staticmethod
async def record_name(public_key: str, name: str, timestamp: int) -> None:
"""Record a name observation. Upserts: updates last_seen if name already known."""
await db.conn.execute(
"""
INSERT INTO contact_name_history (public_key, name, first_seen, last_seen)
VALUES (?, ?, ?, ?)
ON CONFLICT(public_key, name) DO UPDATE SET
last_seen = MAX(contact_name_history.last_seen, excluded.last_seen)
""",
(public_key.lower(), name, timestamp, timestamp),
)
await db.conn.commit()
@staticmethod
async def get_history(public_key: str) -> list[ContactNameHistory]:
cursor = await db.conn.execute(
"""
SELECT name, first_seen, last_seen
FROM contact_name_history
WHERE public_key = ?
ORDER BY last_seen DESC
""",
(public_key.lower(),),
)
rows = await cursor.fetchall()
return [
ContactNameHistory(
name=row["name"], first_seen=row["first_seen"], last_seen=row["last_seen"]
)
for row in rows
]

View File

@@ -1,137 +0,0 @@
"""Repository for fanout_configs table."""
import json
import logging
import time
import uuid
from typing import Any
from app.database import db
logger = logging.getLogger(__name__)
# In-memory cache of config metadata (name, type) for status reporting.
# Populated by get_all/get/create/update and read by FanoutManager.get_statuses().
_configs_cache: dict[str, dict[str, Any]] = {}
def _row_to_dict(row: Any) -> dict[str, Any]:
"""Convert a database row to a config dict."""
result = {
"id": row["id"],
"type": row["type"],
"name": row["name"],
"enabled": bool(row["enabled"]),
"config": json.loads(row["config"]) if row["config"] else {},
"scope": json.loads(row["scope"]) if row["scope"] else {},
"sort_order": row["sort_order"] or 0,
"created_at": row["created_at"] or 0,
}
_configs_cache[result["id"]] = result
return result
class FanoutConfigRepository:
"""CRUD operations for fanout_configs table."""
@staticmethod
async def get_all() -> list[dict[str, Any]]:
"""Get all fanout configs ordered by sort_order."""
cursor = await db.conn.execute(
"SELECT * FROM fanout_configs ORDER BY sort_order, created_at"
)
rows = await cursor.fetchall()
return [_row_to_dict(row) for row in rows]
@staticmethod
async def get(config_id: str) -> dict[str, Any] | None:
"""Get a single fanout config by ID."""
cursor = await db.conn.execute("SELECT * FROM fanout_configs WHERE id = ?", (config_id,))
row = await cursor.fetchone()
if row is None:
return None
return _row_to_dict(row)
@staticmethod
async def create(
config_type: str,
name: str,
config: dict,
scope: dict,
enabled: bool = True,
config_id: str | None = None,
) -> dict[str, Any]:
"""Create a new fanout config."""
new_id = config_id or str(uuid.uuid4())
now = int(time.time())
# Get next sort_order
cursor = await db.conn.execute(
"SELECT COALESCE(MAX(sort_order), -1) + 1 FROM fanout_configs"
)
row = await cursor.fetchone()
sort_order = row[0] if row else 0
await db.conn.execute(
"""
INSERT INTO fanout_configs (id, type, name, enabled, config, scope, sort_order, created_at)
VALUES (?, ?, ?, ?, ?, ?, ?, ?)
""",
(
new_id,
config_type,
name,
1 if enabled else 0,
json.dumps(config),
json.dumps(scope),
sort_order,
now,
),
)
await db.conn.commit()
result = await FanoutConfigRepository.get(new_id)
assert result is not None
return result
@staticmethod
async def update(config_id: str, **fields: Any) -> dict[str, Any] | None:
"""Update a fanout config. Only provided fields are updated."""
updates = []
params: list[Any] = []
for field in ("name", "enabled", "config", "scope", "sort_order"):
if field in fields:
value = fields[field]
if field == "enabled":
value = 1 if value else 0
elif field in ("config", "scope"):
value = json.dumps(value)
updates.append(f"{field} = ?")
params.append(value)
if not updates:
return await FanoutConfigRepository.get(config_id)
params.append(config_id)
query = f"UPDATE fanout_configs SET {', '.join(updates)} WHERE id = ?"
await db.conn.execute(query, params)
await db.conn.commit()
return await FanoutConfigRepository.get(config_id)
@staticmethod
async def delete(config_id: str) -> None:
"""Delete a fanout config."""
await db.conn.execute("DELETE FROM fanout_configs WHERE id = ?", (config_id,))
await db.conn.commit()
_configs_cache.pop(config_id, None)
@staticmethod
async def get_enabled() -> list[dict[str, Any]]:
"""Get all enabled fanout configs."""
cursor = await db.conn.execute(
"SELECT * FROM fanout_configs WHERE enabled = 1 ORDER BY sort_order, created_at"
)
rows = await cursor.fetchall()
return [_row_to_dict(row) for row in rows]

View File

@@ -1,976 +0,0 @@
import json
import re
import time
from dataclasses import dataclass
from typing import Any
from app.database import db
from app.models import (
ContactAnalyticsHourlyBucket,
ContactAnalyticsWeeklyBucket,
Message,
MessagePath,
)
class MessageRepository:
@dataclass
class _SearchQuery:
free_text: str
user_terms: list[str]
channel_terms: list[str]
_SEARCH_OPERATOR_RE = re.compile(
r'(?<!\S)(user|channel):(?:"((?:[^"\\]|\\.)*)"|(\S+))',
re.IGNORECASE,
)
@staticmethod
def _contact_activity_filter(public_key: str) -> tuple[str, list[Any]]:
lower_key = public_key.lower()
return (
"((type = 'PRIV' AND LOWER(conversation_key) = ?)"
" OR (type = 'CHAN' AND LOWER(sender_key) = ?))",
[lower_key, lower_key],
)
@staticmethod
def _name_activity_filter(sender_name: str) -> tuple[str, list[Any]]:
return "type = 'CHAN' AND sender_name = ?", [sender_name]
@staticmethod
def _parse_paths(paths_json: str | None) -> list[MessagePath] | None:
"""Parse paths JSON string to list of MessagePath objects."""
if not paths_json:
return None
try:
paths_data = json.loads(paths_json)
return [MessagePath(**p) for p in paths_data]
except (json.JSONDecodeError, TypeError, KeyError, ValueError):
return None
@staticmethod
async def create(
msg_type: str,
text: str,
received_at: int,
conversation_key: str,
sender_timestamp: int | None = None,
path: str | None = None,
path_len: int | None = None,
txt_type: int = 0,
signature: str | None = None,
outgoing: bool = False,
sender_name: str | None = None,
sender_key: str | None = None,
) -> int | None:
"""Create a message, returning the ID or None if duplicate.
Uses INSERT OR IGNORE to handle the UNIQUE constraint on
(type, conversation_key, text, sender_timestamp). This prevents
duplicate messages when the same message arrives via multiple RF paths.
The path parameter is converted to the paths JSON array format.
"""
# Convert single path to paths array format
paths_json = None
if path is not None:
entry: dict = {"path": path, "received_at": received_at}
if path_len is not None:
entry["path_len"] = path_len
paths_json = json.dumps([entry])
cursor = await db.conn.execute(
"""
INSERT OR IGNORE INTO messages (type, conversation_key, text, sender_timestamp,
received_at, paths, txt_type, signature, outgoing,
sender_name, sender_key)
VALUES (?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?)
""",
(
msg_type,
conversation_key,
text,
sender_timestamp,
received_at,
paths_json,
txt_type,
signature,
outgoing,
sender_name,
sender_key,
),
)
await db.conn.commit()
# rowcount is 0 if INSERT was ignored due to UNIQUE constraint violation
if cursor.rowcount == 0:
return None
return cursor.lastrowid
@staticmethod
async def add_path(
message_id: int,
path: str,
received_at: int | None = None,
path_len: int | None = None,
) -> list[MessagePath]:
"""Add a new path to an existing message.
This is used when a repeat/echo of a message arrives via a different route.
Returns the updated list of paths.
"""
ts = received_at if received_at is not None else int(time.time())
# Atomic append: use json_insert to avoid read-modify-write race when
# multiple duplicate packets arrive concurrently for the same message.
entry: dict = {"path": path, "received_at": ts}
if path_len is not None:
entry["path_len"] = path_len
new_entry = json.dumps(entry)
await db.conn.execute(
"""UPDATE messages SET paths = json_insert(
COALESCE(paths, '[]'), '$[#]', json(?)
) WHERE id = ?""",
(new_entry, message_id),
)
await db.conn.commit()
# Read back the full list for the return value
cursor = await db.conn.execute("SELECT paths FROM messages WHERE id = ?", (message_id,))
row = await cursor.fetchone()
if not row or not row["paths"]:
return []
try:
all_paths = json.loads(row["paths"])
except json.JSONDecodeError:
return []
return [MessagePath(**p) for p in all_paths]
@staticmethod
async def claim_prefix_messages(full_key: str) -> int:
"""Promote prefix-stored messages to the full conversation key.
When a full key becomes known for a contact, any messages stored with
only a prefix as conversation_key are updated to use the full key.
"""
lower_key = full_key.lower()
cursor = await db.conn.execute(
"""UPDATE messages SET conversation_key = ?
WHERE type = 'PRIV' AND length(conversation_key) < 64
AND ? LIKE conversation_key || '%'
AND (
SELECT COUNT(*) FROM contacts
WHERE length(public_key) = 64
AND public_key LIKE messages.conversation_key || '%'
) = 1""",
(lower_key, lower_key),
)
await db.conn.commit()
return cursor.rowcount
@staticmethod
async def backfill_channel_sender_key(public_key: str, name: str) -> int:
"""Backfill sender_key on channel messages that match a contact's name.
When a contact becomes known (via advert, sync, or manual creation),
any channel messages with a matching sender_name but no sender_key
are updated to associate them with this contact's public key.
"""
cursor = await db.conn.execute(
"""UPDATE messages SET sender_key = ?
WHERE type = 'CHAN' AND sender_name = ? AND sender_key IS NULL
AND (
SELECT COUNT(*) FROM contacts
WHERE name = ?
) = 1
AND EXISTS (
SELECT 1 FROM contacts
WHERE public_key = ? AND name = ?
)""",
(public_key.lower(), name, name, public_key.lower(), name),
)
await db.conn.commit()
return cursor.rowcount
@staticmethod
def _normalize_conversation_key(conversation_key: str) -> tuple[str, str]:
"""Normalize a conversation key and return (sql_clause, normalized_key).
Returns the WHERE clause fragment and the normalized key value.
"""
if len(conversation_key) == 64:
return "AND conversation_key = ?", conversation_key.lower()
elif len(conversation_key) == 32:
return "AND conversation_key = ?", conversation_key.upper()
else:
return "AND conversation_key LIKE ?", f"{conversation_key}%"
@staticmethod
def _unescape_search_quoted_value(value: str) -> str:
return value.replace('\\"', '"').replace("\\\\", "\\")
@staticmethod
def _parse_search_query(q: str) -> _SearchQuery:
user_terms: list[str] = []
channel_terms: list[str] = []
fragments: list[str] = []
last_end = 0
for match in MessageRepository._SEARCH_OPERATOR_RE.finditer(q):
fragments.append(q[last_end : match.start()])
raw_value = match.group(2) if match.group(2) is not None else match.group(3) or ""
value = MessageRepository._unescape_search_quoted_value(raw_value)
if match.group(1).lower() == "user":
user_terms.append(value)
else:
channel_terms.append(value)
last_end = match.end()
if not user_terms and not channel_terms:
return MessageRepository._SearchQuery(free_text=q, user_terms=[], channel_terms=[])
fragments.append(q[last_end:])
free_text = " ".join(fragment.strip() for fragment in fragments if fragment.strip())
return MessageRepository._SearchQuery(
free_text=free_text,
user_terms=user_terms,
channel_terms=channel_terms,
)
@staticmethod
def _escape_like(value: str) -> str:
return value.replace("\\", "\\\\").replace("%", "\\%").replace("_", "\\_")
@staticmethod
def _looks_like_hex_prefix(value: str) -> bool:
return bool(value) and all(ch in "0123456789abcdefABCDEF" for ch in value)
@staticmethod
def _build_channel_scope_clause(value: str) -> tuple[str, list[Any]]:
params: list[Any] = [value]
clause = "(messages.type = 'CHAN' AND (channels.name = ? COLLATE NOCASE"
if MessageRepository._looks_like_hex_prefix(value):
if len(value) == 32:
clause += " OR UPPER(messages.conversation_key) = ?"
params.append(value.upper())
else:
clause += " OR UPPER(messages.conversation_key) LIKE ? ESCAPE '\\'"
params.append(f"{MessageRepository._escape_like(value.upper())}%")
clause += "))"
return clause, params
@staticmethod
def _build_user_scope_clause(value: str) -> tuple[str, list[Any]]:
params: list[Any] = [value, value]
clause = (
"((messages.type = 'PRIV' AND contacts.name = ? COLLATE NOCASE)"
" OR (messages.type = 'CHAN' AND sender_name = ? COLLATE NOCASE)"
)
if MessageRepository._looks_like_hex_prefix(value):
lower_value = value.lower()
priv_key_clause: str
chan_key_clause: str
if len(value) == 64:
priv_key_clause = "LOWER(messages.conversation_key) = ?"
chan_key_clause = "LOWER(sender_key) = ?"
params.extend([lower_value, lower_value])
else:
escaped_prefix = f"{MessageRepository._escape_like(lower_value)}%"
priv_key_clause = "LOWER(messages.conversation_key) LIKE ? ESCAPE '\\'"
chan_key_clause = "LOWER(sender_key) LIKE ? ESCAPE '\\'"
params.extend([escaped_prefix, escaped_prefix])
clause += (
f" OR (messages.type = 'PRIV' AND {priv_key_clause})"
f" OR (messages.type = 'CHAN' AND sender_key IS NOT NULL AND {chan_key_clause})"
)
clause += ")"
return clause, params
@staticmethod
def _build_blocked_incoming_clause(
message_alias: str = "",
blocked_keys: list[str] | None = None,
blocked_names: list[str] | None = None,
) -> tuple[str, list[Any]]:
prefix = f"{message_alias}." if message_alias else ""
blocked_matchers: list[str] = []
params: list[Any] = []
if blocked_keys:
placeholders = ",".join("?" for _ in blocked_keys)
blocked_matchers.append(
f"({prefix}type = 'PRIV' AND LOWER({prefix}conversation_key) IN ({placeholders}))"
)
params.extend(blocked_keys)
blocked_matchers.append(
f"({prefix}type = 'CHAN' AND {prefix}sender_key IS NOT NULL"
f" AND LOWER({prefix}sender_key) IN ({placeholders}))"
)
params.extend(blocked_keys)
if blocked_names:
placeholders = ",".join("?" for _ in blocked_names)
blocked_matchers.append(
f"({prefix}sender_name IS NOT NULL AND {prefix}sender_name IN ({placeholders}))"
)
params.extend(blocked_names)
if not blocked_matchers:
return "", []
return f"NOT ({prefix}outgoing = 0 AND ({' OR '.join(blocked_matchers)}))", params
@staticmethod
def _row_to_message(row: Any) -> Message:
"""Convert a database row to a Message model."""
return Message(
id=row["id"],
type=row["type"],
conversation_key=row["conversation_key"],
text=row["text"],
sender_timestamp=row["sender_timestamp"],
received_at=row["received_at"],
paths=MessageRepository._parse_paths(row["paths"]),
txt_type=row["txt_type"],
signature=row["signature"],
sender_key=row["sender_key"],
outgoing=bool(row["outgoing"]),
acked=row["acked"],
sender_name=row["sender_name"],
)
@staticmethod
async def get_all(
limit: int = 100,
offset: int = 0,
msg_type: str | None = None,
conversation_key: str | None = None,
before: int | None = None,
before_id: int | None = None,
after: int | None = None,
after_id: int | None = None,
q: str | None = None,
blocked_keys: list[str] | None = None,
blocked_names: list[str] | None = None,
) -> list[Message]:
search_query = MessageRepository._parse_search_query(q) if q else None
query = (
"SELECT messages.* FROM messages "
"LEFT JOIN contacts ON messages.type = 'PRIV' "
"AND LOWER(messages.conversation_key) = LOWER(contacts.public_key) "
"LEFT JOIN channels ON messages.type = 'CHAN' "
"AND UPPER(messages.conversation_key) = UPPER(channels.key) "
"WHERE 1=1"
)
params: list[Any] = []
blocked_clause, blocked_params = MessageRepository._build_blocked_incoming_clause(
"messages", blocked_keys, blocked_names
)
if blocked_clause:
query += f" AND {blocked_clause}"
params.extend(blocked_params)
if msg_type:
query += " AND messages.type = ?"
params.append(msg_type)
if conversation_key:
clause, norm_key = MessageRepository._normalize_conversation_key(conversation_key)
query += f" {clause.replace('conversation_key', 'messages.conversation_key')}"
params.append(norm_key)
if search_query and search_query.user_terms:
scope_clauses: list[str] = []
for term in search_query.user_terms:
clause, clause_params = MessageRepository._build_user_scope_clause(term)
scope_clauses.append(clause)
params.extend(clause_params)
query += f" AND ({' OR '.join(scope_clauses)})"
if search_query and search_query.channel_terms:
scope_clauses = []
for term in search_query.channel_terms:
clause, clause_params = MessageRepository._build_channel_scope_clause(term)
scope_clauses.append(clause)
params.extend(clause_params)
query += f" AND ({' OR '.join(scope_clauses)})"
if search_query and search_query.free_text:
escaped_q = MessageRepository._escape_like(search_query.free_text)
query += " AND messages.text LIKE ? ESCAPE '\\' COLLATE NOCASE"
params.append(f"%{escaped_q}%")
# Forward cursor (after/after_id) — mutually exclusive with before/before_id
if after is not None and after_id is not None:
query += (
" AND (messages.received_at > ? OR (messages.received_at = ? AND messages.id > ?))"
)
params.extend([after, after, after_id])
query += " ORDER BY messages.received_at ASC, messages.id ASC LIMIT ?"
params.append(limit)
else:
if before is not None and before_id is not None:
query += (
" AND (messages.received_at < ?"
" OR (messages.received_at = ? AND messages.id < ?))"
)
params.extend([before, before, before_id])
query += " ORDER BY messages.received_at DESC, messages.id DESC LIMIT ?"
params.append(limit)
if before is None or before_id is None:
query += " OFFSET ?"
params.append(offset)
cursor = await db.conn.execute(query, params)
rows = await cursor.fetchall()
return [MessageRepository._row_to_message(row) for row in rows]
@staticmethod
async def get_around(
message_id: int,
msg_type: str | None = None,
conversation_key: str | None = None,
context_size: int = 100,
blocked_keys: list[str] | None = None,
blocked_names: list[str] | None = None,
) -> tuple[list[Message], bool, bool]:
"""Get messages around a target message.
Returns (messages, has_older, has_newer).
"""
# Build common WHERE clause for optional conversation/type filtering.
# If the target message doesn't match filters, return an empty result.
where_parts: list[str] = []
base_params: list[Any] = []
if msg_type:
where_parts.append("type = ?")
base_params.append(msg_type)
if conversation_key:
clause, norm_key = MessageRepository._normalize_conversation_key(conversation_key)
where_parts.append(clause.removeprefix("AND "))
base_params.append(norm_key)
blocked_clause, blocked_params = MessageRepository._build_blocked_incoming_clause(
blocked_keys=blocked_keys, blocked_names=blocked_names
)
if blocked_clause:
where_parts.append(blocked_clause)
base_params.extend(blocked_params)
where_sql = " AND ".join(["1=1", *where_parts])
# 1. Get the target message (must satisfy filters if provided)
target_cursor = await db.conn.execute(
f"SELECT * FROM messages WHERE id = ? AND {where_sql}",
(message_id, *base_params),
)
target_row = await target_cursor.fetchone()
if not target_row:
return [], False, False
target = MessageRepository._row_to_message(target_row)
# 2. Get context_size+1 messages before target (DESC)
before_query = f"""
SELECT * FROM messages WHERE {where_sql}
AND (received_at < ? OR (received_at = ? AND id < ?))
ORDER BY received_at DESC, id DESC LIMIT ?
"""
before_params = [
*base_params,
target.received_at,
target.received_at,
target.id,
context_size + 1,
]
before_cursor = await db.conn.execute(before_query, before_params)
before_rows = list(await before_cursor.fetchall())
has_older = len(before_rows) > context_size
before_messages = [MessageRepository._row_to_message(r) for r in before_rows[:context_size]]
# 3. Get context_size+1 messages after target (ASC)
after_query = f"""
SELECT * FROM messages WHERE {where_sql}
AND (received_at > ? OR (received_at = ? AND id > ?))
ORDER BY received_at ASC, id ASC LIMIT ?
"""
after_params = [
*base_params,
target.received_at,
target.received_at,
target.id,
context_size + 1,
]
after_cursor = await db.conn.execute(after_query, after_params)
after_rows = list(await after_cursor.fetchall())
has_newer = len(after_rows) > context_size
after_messages = [MessageRepository._row_to_message(r) for r in after_rows[:context_size]]
# Combine: before (reversed to ASC) + target + after
all_messages = list(reversed(before_messages)) + [target] + after_messages
return all_messages, has_older, has_newer
@staticmethod
async def increment_ack_count(message_id: int) -> int:
"""Increment ack count and return the new value."""
await db.conn.execute("UPDATE messages SET acked = acked + 1 WHERE id = ?", (message_id,))
await db.conn.commit()
cursor = await db.conn.execute("SELECT acked FROM messages WHERE id = ?", (message_id,))
row = await cursor.fetchone()
return row["acked"] if row else 1
@staticmethod
async def get_ack_and_paths(message_id: int) -> tuple[int, list[MessagePath] | None]:
"""Get the current ack count and paths for a message."""
cursor = await db.conn.execute(
"SELECT acked, paths FROM messages WHERE id = ?", (message_id,)
)
row = await cursor.fetchone()
if not row:
return 0, None
return row["acked"], MessageRepository._parse_paths(row["paths"])
@staticmethod
async def get_by_id(message_id: int) -> "Message | None":
"""Look up a message by its ID."""
cursor = await db.conn.execute(
"SELECT * FROM messages WHERE id = ?",
(message_id,),
)
row = await cursor.fetchone()
if not row:
return None
return MessageRepository._row_to_message(row)
@staticmethod
async def get_by_content(
msg_type: str,
conversation_key: str,
text: str,
sender_timestamp: int | None,
) -> "Message | None":
"""Look up a message by its unique content fields."""
cursor = await db.conn.execute(
"""
SELECT * FROM messages
WHERE type = ? AND conversation_key = ? AND text = ?
AND (sender_timestamp = ? OR (sender_timestamp IS NULL AND ? IS NULL))
""",
(msg_type, conversation_key, text, sender_timestamp, sender_timestamp),
)
row = await cursor.fetchone()
if not row:
return None
return MessageRepository._row_to_message(row)
@staticmethod
async def get_unread_counts(
name: str | None = None,
blocked_keys: list[str] | None = None,
blocked_names: list[str] | None = None,
) -> dict:
"""Get unread message counts, mention flags, and last message times for all conversations.
Args:
name: User's display name for @[name] mention detection. If None, mentions are skipped.
blocked_keys: Public keys whose messages should be excluded from counts.
blocked_names: Display names whose messages should be excluded from counts.
Returns:
Dict with 'counts', 'mentions', 'last_message_times', and 'last_read_ats' keys.
"""
counts: dict[str, int] = {}
mention_flags: dict[str, bool] = {}
last_message_times: dict[str, int] = {}
last_read_ats: dict[str, int | None] = {}
mention_token = f"@[{name}]" if name else None
blocked_clause, blocked_params = MessageRepository._build_blocked_incoming_clause(
"m", blocked_keys, blocked_names
)
blocked_sql = f" AND {blocked_clause}" if blocked_clause else ""
# Channel unreads
cursor = await db.conn.execute(
f"""
SELECT m.conversation_key,
COUNT(*) as unread_count,
SUM(CASE
WHEN ? <> '' AND INSTR(LOWER(m.text), LOWER(?)) > 0 THEN 1
ELSE 0
END) > 0 as has_mention
FROM messages m
JOIN channels c ON m.conversation_key = c.key
WHERE m.type = 'CHAN' AND m.outgoing = 0
AND m.received_at > COALESCE(c.last_read_at, 0)
{blocked_sql}
GROUP BY m.conversation_key
""",
(mention_token or "", mention_token or "", *blocked_params),
)
rows = await cursor.fetchall()
for row in rows:
state_key = f"channel-{row['conversation_key']}"
counts[state_key] = row["unread_count"]
if mention_token and row["has_mention"]:
mention_flags[state_key] = True
# Contact unreads
cursor = await db.conn.execute(
f"""
SELECT m.conversation_key,
COUNT(*) as unread_count,
SUM(CASE
WHEN ? <> '' AND INSTR(LOWER(m.text), LOWER(?)) > 0 THEN 1
ELSE 0
END) > 0 as has_mention
FROM messages m
JOIN contacts ct ON m.conversation_key = ct.public_key
WHERE m.type = 'PRIV' AND m.outgoing = 0
AND m.received_at > COALESCE(ct.last_read_at, 0)
{blocked_sql}
GROUP BY m.conversation_key
""",
(mention_token or "", mention_token or "", *blocked_params),
)
rows = await cursor.fetchall()
for row in rows:
state_key = f"contact-{row['conversation_key']}"
counts[state_key] = row["unread_count"]
if mention_token and row["has_mention"]:
mention_flags[state_key] = True
cursor = await db.conn.execute(
"""
SELECT key, last_read_at
FROM channels
"""
)
rows = await cursor.fetchall()
for row in rows:
last_read_ats[f"channel-{row['key']}"] = row["last_read_at"]
cursor = await db.conn.execute(
"""
SELECT public_key, last_read_at
FROM contacts
"""
)
rows = await cursor.fetchall()
for row in rows:
last_read_ats[f"contact-{row['public_key']}"] = row["last_read_at"]
# Last message times for all conversations (including read ones),
# excluding blocked incoming traffic so refresh matches live WS behavior.
last_time_clause, last_time_params = MessageRepository._build_blocked_incoming_clause(
blocked_keys=blocked_keys, blocked_names=blocked_names
)
last_time_where_sql = f"WHERE {last_time_clause}" if last_time_clause else ""
cursor = await db.conn.execute(
f"""
SELECT type, conversation_key, MAX(received_at) as last_message_time
FROM messages
{last_time_where_sql}
GROUP BY type, conversation_key
""",
last_time_params,
)
rows = await cursor.fetchall()
for row in rows:
prefix = "channel" if row["type"] == "CHAN" else "contact"
state_key = f"{prefix}-{row['conversation_key']}"
last_message_times[state_key] = row["last_message_time"]
return {
"counts": counts,
"mentions": mention_flags,
"last_message_times": last_message_times,
"last_read_ats": last_read_ats,
}
@staticmethod
async def count_dm_messages(contact_key: str) -> int:
"""Count total DM messages for a contact."""
cursor = await db.conn.execute(
"SELECT COUNT(*) as cnt FROM messages WHERE type = 'PRIV' AND conversation_key = ?",
(contact_key.lower(),),
)
row = await cursor.fetchone()
return row["cnt"] if row else 0
@staticmethod
async def count_channel_messages_by_sender(sender_key: str) -> int:
"""Count channel messages sent by a specific contact."""
cursor = await db.conn.execute(
"SELECT COUNT(*) as cnt FROM messages WHERE type = 'CHAN' AND sender_key = ?",
(sender_key.lower(),),
)
row = await cursor.fetchone()
return row["cnt"] if row else 0
@staticmethod
async def count_channel_messages_by_sender_name(sender_name: str) -> int:
"""Count channel messages attributed to a display name."""
cursor = await db.conn.execute(
"SELECT COUNT(*) as cnt FROM messages WHERE type = 'CHAN' AND sender_name = ?",
(sender_name,),
)
row = await cursor.fetchone()
return row["cnt"] if row else 0
@staticmethod
async def get_first_channel_message_by_sender_name(sender_name: str) -> int | None:
"""Get the earliest stored channel message timestamp for a display name."""
cursor = await db.conn.execute(
"SELECT MIN(received_at) AS first_seen FROM messages WHERE type = 'CHAN' AND sender_name = ?",
(sender_name,),
)
row = await cursor.fetchone()
return row["first_seen"] if row and row["first_seen"] is not None else None
@staticmethod
async def get_channel_stats(conversation_key: str) -> dict:
"""Get channel message statistics: time-windowed counts, first message, unique senders, top senders.
Returns a dict with message_counts, first_message_at, unique_sender_count, top_senders_24h.
"""
import time as _time
now = int(_time.time())
t_1h = now - 3600
t_24h = now - 86400
t_48h = now - 172800
t_7d = now - 604800
cursor = await db.conn.execute(
"""
SELECT COUNT(*) AS all_time,
SUM(CASE WHEN received_at >= ? THEN 1 ELSE 0 END) AS last_1h,
SUM(CASE WHEN received_at >= ? THEN 1 ELSE 0 END) AS last_24h,
SUM(CASE WHEN received_at >= ? THEN 1 ELSE 0 END) AS last_48h,
SUM(CASE WHEN received_at >= ? THEN 1 ELSE 0 END) AS last_7d,
MIN(received_at) AS first_message_at,
COUNT(DISTINCT sender_key) AS unique_sender_count
FROM messages WHERE type = 'CHAN' AND conversation_key = ?
""",
(t_1h, t_24h, t_48h, t_7d, conversation_key),
)
row = await cursor.fetchone()
assert row is not None # Aggregate query always returns a row
message_counts = {
"last_1h": row["last_1h"] or 0,
"last_24h": row["last_24h"] or 0,
"last_48h": row["last_48h"] or 0,
"last_7d": row["last_7d"] or 0,
"all_time": row["all_time"] or 0,
}
cursor2 = await db.conn.execute(
"""
SELECT COALESCE(sender_name, sender_key, 'Unknown') AS display_name,
sender_key, COUNT(*) AS cnt
FROM messages
WHERE type = 'CHAN' AND conversation_key = ?
AND received_at >= ? AND sender_key IS NOT NULL
GROUP BY sender_key ORDER BY cnt DESC LIMIT 5
""",
(conversation_key, t_24h),
)
top_rows = await cursor2.fetchall()
top_senders = [
{
"sender_name": r["display_name"],
"sender_key": r["sender_key"],
"message_count": r["cnt"],
}
for r in top_rows
]
return {
"message_counts": message_counts,
"first_message_at": row["first_message_at"],
"unique_sender_count": row["unique_sender_count"] or 0,
"top_senders_24h": top_senders,
}
@staticmethod
async def count_channels_with_incoming_messages() -> int:
"""Count distinct channel conversations with at least one incoming message."""
cursor = await db.conn.execute(
"""
SELECT COUNT(DISTINCT conversation_key) AS cnt
FROM messages
WHERE type = 'CHAN' AND outgoing = 0
"""
)
row = await cursor.fetchone()
return int(row["cnt"]) if row and row["cnt"] is not None else 0
@staticmethod
async def get_most_active_rooms(sender_key: str, limit: int = 5) -> list[tuple[str, str, int]]:
"""Get channels where a contact has sent the most messages.
Returns list of (channel_key, channel_name, message_count) tuples.
"""
cursor = await db.conn.execute(
"""
SELECT m.conversation_key, COALESCE(c.name, m.conversation_key) AS channel_name,
COUNT(*) AS cnt
FROM messages m
LEFT JOIN channels c ON m.conversation_key = c.key
WHERE m.type = 'CHAN' AND m.sender_key = ?
GROUP BY m.conversation_key
ORDER BY cnt DESC
LIMIT ?
""",
(sender_key.lower(), limit),
)
rows = await cursor.fetchall()
return [(row["conversation_key"], row["channel_name"], row["cnt"]) for row in rows]
@staticmethod
async def get_most_active_rooms_by_sender_name(
sender_name: str, limit: int = 5
) -> list[tuple[str, str, int]]:
"""Get channels where a display name has sent the most messages."""
cursor = await db.conn.execute(
"""
SELECT m.conversation_key, COALESCE(c.name, m.conversation_key) AS channel_name,
COUNT(*) AS cnt
FROM messages m
LEFT JOIN channels c ON m.conversation_key = c.key
WHERE m.type = 'CHAN' AND m.sender_name = ?
GROUP BY m.conversation_key
ORDER BY cnt DESC
LIMIT ?
""",
(sender_name, limit),
)
rows = await cursor.fetchall()
return [(row["conversation_key"], row["channel_name"], row["cnt"]) for row in rows]
@staticmethod
async def _get_activity_hour_buckets(where_sql: str, params: list[Any]) -> dict[int, int]:
cursor = await db.conn.execute(
f"""
SELECT received_at / 3600 AS hour_bucket, COUNT(*) AS cnt
FROM messages
WHERE {where_sql}
GROUP BY hour_bucket
""",
params,
)
rows = await cursor.fetchall()
return {int(row["hour_bucket"]): row["cnt"] for row in rows}
@staticmethod
def _build_hourly_activity(
hour_counts: dict[int, int], now: int
) -> list[ContactAnalyticsHourlyBucket]:
current_hour = now // 3600
if hour_counts:
min_hour = min(hour_counts)
else:
min_hour = current_hour
buckets: list[ContactAnalyticsHourlyBucket] = []
for hour_bucket in range(current_hour - 23, current_hour + 1):
last_24h_count = hour_counts.get(hour_bucket, 0)
week_total = 0
week_samples = 0
all_time_total = 0
all_time_samples = 0
compare_hour = hour_bucket
while compare_hour >= min_hour:
count = hour_counts.get(compare_hour, 0)
all_time_total += count
all_time_samples += 1
if week_samples < 7:
week_total += count
week_samples += 1
compare_hour -= 24
buckets.append(
ContactAnalyticsHourlyBucket(
bucket_start=hour_bucket * 3600,
last_24h_count=last_24h_count,
last_week_average=round(week_total / week_samples, 2) if week_samples else 0,
all_time_average=round(all_time_total / all_time_samples, 2)
if all_time_samples
else 0,
)
)
return buckets
@staticmethod
async def _get_weekly_activity(
where_sql: str,
params: list[Any],
now: int,
weeks: int = 26,
) -> list[ContactAnalyticsWeeklyBucket]:
bucket_seconds = 7 * 24 * 3600
current_day_start = (now // 86400) * 86400
start = current_day_start - (weeks - 1) * bucket_seconds
cursor = await db.conn.execute(
f"""
SELECT (received_at - ?) / ? AS bucket_idx, COUNT(*) AS cnt
FROM messages
WHERE {where_sql} AND received_at >= ?
GROUP BY bucket_idx
""",
[start, bucket_seconds, *params, start],
)
rows = await cursor.fetchall()
counts = {int(row["bucket_idx"]): row["cnt"] for row in rows}
return [
ContactAnalyticsWeeklyBucket(
bucket_start=start + bucket_idx * bucket_seconds,
message_count=counts.get(bucket_idx, 0),
)
for bucket_idx in range(weeks)
]
@staticmethod
async def get_contact_activity_series(
public_key: str,
now: int | None = None,
) -> tuple[list[ContactAnalyticsHourlyBucket], list[ContactAnalyticsWeeklyBucket]]:
"""Get combined DM + channel activity series for a keyed contact."""
ts = now if now is not None else int(time.time())
where_sql, params = MessageRepository._contact_activity_filter(public_key)
hour_counts = await MessageRepository._get_activity_hour_buckets(where_sql, params)
hourly = MessageRepository._build_hourly_activity(hour_counts, ts)
weekly = await MessageRepository._get_weekly_activity(where_sql, params, ts)
return hourly, weekly
@staticmethod
async def get_sender_name_activity_series(
sender_name: str,
now: int | None = None,
) -> tuple[list[ContactAnalyticsHourlyBucket], list[ContactAnalyticsWeeklyBucket]]:
"""Get channel-only activity series for a sender name."""
ts = now if now is not None else int(time.time())
where_sql, params = MessageRepository._name_activity_filter(sender_name)
hour_counts = await MessageRepository._get_activity_hour_buckets(where_sql, params)
hourly = MessageRepository._build_hourly_activity(hour_counts, ts)
weekly = await MessageRepository._get_weekly_activity(where_sql, params, ts)
return hourly, weekly

View File

@@ -1,150 +0,0 @@
import logging
import sqlite3
import time
from hashlib import sha256
from app.database import db
from app.decoder import PayloadType, extract_payload, get_packet_payload_type
logger = logging.getLogger(__name__)
class RawPacketRepository:
@staticmethod
async def create(data: bytes, timestamp: int | None = None) -> tuple[int, bool]:
"""
Create a raw packet with payload-based deduplication.
Returns (packet_id, is_new) tuple:
- is_new=True: New packet stored, packet_id is the new row ID
- is_new=False: Duplicate payload detected, packet_id is the existing row ID
Deduplication is based on the SHA-256 hash of the packet payload
(excluding routing/path information).
"""
ts = timestamp if timestamp is not None else int(time.time())
# Compute payload hash for deduplication
payload = extract_payload(data)
if payload:
payload_hash = sha256(payload).digest()
else:
# For malformed packets, hash the full data
payload_hash = sha256(data).digest()
# Check if this payload already exists
cursor = await db.conn.execute(
"SELECT id FROM raw_packets WHERE payload_hash = ?", (payload_hash,)
)
existing = await cursor.fetchone()
if existing:
# Duplicate - return existing packet ID
logger.debug(
"Duplicate payload detected (hash=%s..., existing_id=%d)",
payload_hash.hex()[:12],
existing["id"],
)
return (existing["id"], False)
# New packet - insert with hash
try:
cursor = await db.conn.execute(
"INSERT INTO raw_packets (timestamp, data, payload_hash) VALUES (?, ?, ?)",
(ts, data, payload_hash),
)
await db.conn.commit()
assert cursor.lastrowid is not None # INSERT always returns a row ID
return (cursor.lastrowid, True)
except sqlite3.IntegrityError:
# Race condition: another insert with same payload_hash happened between
# our SELECT and INSERT. This is expected for duplicate packets arriving
# close together. Query again to get the existing ID.
logger.debug(
"Duplicate packet detected via race condition (payload_hash=%s), dropping",
payload_hash.hex()[:16],
)
cursor = await db.conn.execute(
"SELECT id FROM raw_packets WHERE payload_hash = ?", (payload_hash,)
)
existing = await cursor.fetchone()
if existing:
return (existing["id"], False)
# This shouldn't happen, but if it does, re-raise
raise
@staticmethod
async def get_undecrypted_count() -> int:
"""Get count of undecrypted packets (those without a linked message)."""
cursor = await db.conn.execute(
"SELECT COUNT(*) as count FROM raw_packets WHERE message_id IS NULL"
)
row = await cursor.fetchone()
return row["count"] if row else 0
@staticmethod
async def get_oldest_undecrypted() -> int | None:
"""Get timestamp of oldest undecrypted packet, or None if none exist."""
cursor = await db.conn.execute(
"SELECT MIN(timestamp) as oldest FROM raw_packets WHERE message_id IS NULL"
)
row = await cursor.fetchone()
return row["oldest"] if row and row["oldest"] is not None else None
@staticmethod
async def get_all_undecrypted() -> list[tuple[int, bytes, int]]:
"""Get all undecrypted packets as (id, data, timestamp) tuples."""
cursor = await db.conn.execute(
"SELECT id, data, timestamp FROM raw_packets WHERE message_id IS NULL ORDER BY timestamp ASC"
)
rows = await cursor.fetchall()
return [(row["id"], bytes(row["data"]), row["timestamp"]) for row in rows]
@staticmethod
async def mark_decrypted(packet_id: int, message_id: int) -> None:
"""Link a raw packet to its decrypted message."""
await db.conn.execute(
"UPDATE raw_packets SET message_id = ? WHERE id = ?",
(message_id, packet_id),
)
await db.conn.commit()
@staticmethod
async def prune_old_undecrypted(max_age_days: int) -> int:
"""Delete undecrypted packets older than max_age_days. Returns count deleted."""
cutoff = int(time.time()) - (max_age_days * 86400)
cursor = await db.conn.execute(
"DELETE FROM raw_packets WHERE message_id IS NULL AND timestamp < ?",
(cutoff,),
)
await db.conn.commit()
return cursor.rowcount
@staticmethod
async def purge_linked_to_messages() -> int:
"""Delete raw packets that are already linked to a stored message."""
cursor = await db.conn.execute("DELETE FROM raw_packets WHERE message_id IS NOT NULL")
await db.conn.commit()
return cursor.rowcount
@staticmethod
async def get_undecrypted_text_messages() -> list[tuple[int, bytes, int]]:
"""Get all undecrypted TEXT_MESSAGE packets as (id, data, timestamp) tuples.
Filters raw packets to only include those with PayloadType.TEXT_MESSAGE (0x02).
These are direct messages that can be decrypted with contact ECDH keys.
"""
cursor = await db.conn.execute(
"SELECT id, data, timestamp FROM raw_packets WHERE message_id IS NULL ORDER BY timestamp ASC"
)
rows = await cursor.fetchall()
# Filter for TEXT_MESSAGE packets
result = []
for row in rows:
data = bytes(row["data"])
payload_type = get_packet_payload_type(data)
if payload_type == PayloadType.TEXT_MESSAGE:
result.append((row["id"], data, row["timestamp"]))
return result

View File

@@ -1,415 +0,0 @@
import json
import logging
import time
from typing import Any, Literal
from app.database import db
from app.models import AppSettings, Favorite
from app.path_utils import parse_packet_envelope
logger = logging.getLogger(__name__)
SECONDS_1H = 3600
SECONDS_24H = 86400
SECONDS_7D = 604800
class AppSettingsRepository:
"""Repository for app_settings table (single-row pattern)."""
@staticmethod
async def get() -> AppSettings:
"""Get the current app settings.
Always returns settings - creates default row if needed (migration handles initial row).
"""
cursor = await db.conn.execute(
"""
SELECT max_radio_contacts, favorites, auto_decrypt_dm_on_advert,
sidebar_sort_order, last_message_times, preferences_migrated,
advert_interval, last_advert_time, flood_scope,
blocked_keys, blocked_names
FROM app_settings WHERE id = 1
"""
)
row = await cursor.fetchone()
if not row:
# Should not happen after migration, but handle gracefully
return AppSettings()
# Parse favorites JSON
favorites = []
if row["favorites"]:
try:
favorites_data = json.loads(row["favorites"])
favorites = [Favorite(**f) for f in favorites_data]
except (json.JSONDecodeError, TypeError, KeyError) as e:
logger.warning(
"Failed to parse favorites JSON, using empty list: %s (data=%r)",
e,
row["favorites"][:100] if row["favorites"] else None,
)
favorites = []
# Parse last_message_times JSON
last_message_times: dict[str, int] = {}
if row["last_message_times"]:
try:
last_message_times = json.loads(row["last_message_times"])
except (json.JSONDecodeError, TypeError) as e:
logger.warning(
"Failed to parse last_message_times JSON, using empty dict: %s",
e,
)
last_message_times = {}
# Parse blocked_keys JSON
blocked_keys: list[str] = []
if row["blocked_keys"]:
try:
blocked_keys = json.loads(row["blocked_keys"])
except (json.JSONDecodeError, TypeError):
blocked_keys = []
# Parse blocked_names JSON
blocked_names: list[str] = []
if row["blocked_names"]:
try:
blocked_names = json.loads(row["blocked_names"])
except (json.JSONDecodeError, TypeError):
blocked_names = []
# Validate sidebar_sort_order (fallback to "recent" if invalid)
sort_order = row["sidebar_sort_order"]
if sort_order not in ("recent", "alpha"):
sort_order = "recent"
return AppSettings(
max_radio_contacts=row["max_radio_contacts"],
favorites=favorites,
auto_decrypt_dm_on_advert=bool(row["auto_decrypt_dm_on_advert"]),
sidebar_sort_order=sort_order,
last_message_times=last_message_times,
preferences_migrated=bool(row["preferences_migrated"]),
advert_interval=row["advert_interval"] or 0,
last_advert_time=row["last_advert_time"] or 0,
flood_scope=row["flood_scope"] or "",
blocked_keys=blocked_keys,
blocked_names=blocked_names,
)
@staticmethod
async def update(
max_radio_contacts: int | None = None,
favorites: list[Favorite] | None = None,
auto_decrypt_dm_on_advert: bool | None = None,
sidebar_sort_order: str | None = None,
last_message_times: dict[str, int] | None = None,
preferences_migrated: bool | None = None,
advert_interval: int | None = None,
last_advert_time: int | None = None,
flood_scope: str | None = None,
blocked_keys: list[str] | None = None,
blocked_names: list[str] | None = None,
) -> AppSettings:
"""Update app settings. Only provided fields are updated."""
updates = []
params: list[Any] = []
if max_radio_contacts is not None:
updates.append("max_radio_contacts = ?")
params.append(max_radio_contacts)
if favorites is not None:
updates.append("favorites = ?")
favorites_json = json.dumps([f.model_dump() for f in favorites])
params.append(favorites_json)
if auto_decrypt_dm_on_advert is not None:
updates.append("auto_decrypt_dm_on_advert = ?")
params.append(1 if auto_decrypt_dm_on_advert else 0)
if sidebar_sort_order is not None:
updates.append("sidebar_sort_order = ?")
params.append(sidebar_sort_order)
if last_message_times is not None:
updates.append("last_message_times = ?")
params.append(json.dumps(last_message_times))
if preferences_migrated is not None:
updates.append("preferences_migrated = ?")
params.append(1 if preferences_migrated else 0)
if advert_interval is not None:
updates.append("advert_interval = ?")
params.append(advert_interval)
if last_advert_time is not None:
updates.append("last_advert_time = ?")
params.append(last_advert_time)
if flood_scope is not None:
updates.append("flood_scope = ?")
params.append(flood_scope)
if blocked_keys is not None:
updates.append("blocked_keys = ?")
params.append(json.dumps(blocked_keys))
if blocked_names is not None:
updates.append("blocked_names = ?")
params.append(json.dumps(blocked_names))
if updates:
query = f"UPDATE app_settings SET {', '.join(updates)} WHERE id = 1"
await db.conn.execute(query, params)
await db.conn.commit()
return await AppSettingsRepository.get()
@staticmethod
async def add_favorite(fav_type: Literal["channel", "contact"], fav_id: str) -> AppSettings:
"""Add a favorite, avoiding duplicates."""
settings = await AppSettingsRepository.get()
# Check if already favorited
if any(f.type == fav_type and f.id == fav_id for f in settings.favorites):
return settings
new_favorites = settings.favorites + [Favorite(type=fav_type, id=fav_id)]
return await AppSettingsRepository.update(favorites=new_favorites)
@staticmethod
async def remove_favorite(fav_type: Literal["channel", "contact"], fav_id: str) -> AppSettings:
"""Remove a favorite."""
settings = await AppSettingsRepository.get()
new_favorites = [
f for f in settings.favorites if not (f.type == fav_type and f.id == fav_id)
]
return await AppSettingsRepository.update(favorites=new_favorites)
@staticmethod
async def toggle_blocked_key(key: str) -> AppSettings:
"""Toggle a public key in the blocked list. Keys are normalized to lowercase."""
normalized = key.lower()
settings = await AppSettingsRepository.get()
if normalized in settings.blocked_keys:
new_keys = [k for k in settings.blocked_keys if k != normalized]
else:
new_keys = settings.blocked_keys + [normalized]
return await AppSettingsRepository.update(blocked_keys=new_keys)
@staticmethod
async def toggle_blocked_name(name: str) -> AppSettings:
"""Toggle a display name in the blocked list."""
settings = await AppSettingsRepository.get()
if name in settings.blocked_names:
new_names = [n for n in settings.blocked_names if n != name]
else:
new_names = settings.blocked_names + [name]
return await AppSettingsRepository.update(blocked_names=new_names)
@staticmethod
async def migrate_preferences_from_frontend(
favorites: list[dict],
sort_order: str,
last_message_times: dict[str, int],
) -> tuple[AppSettings, bool]:
"""Migrate all preferences from frontend localStorage.
This is a one-time migration. If already migrated, returns current settings
without overwriting. Returns (settings, did_migrate) tuple.
"""
settings = await AppSettingsRepository.get()
if settings.preferences_migrated:
# Already migrated, don't overwrite
return settings, False
# Convert frontend favorites format to Favorite objects
new_favorites = []
for f in favorites:
if f.get("type") in ("channel", "contact") and f.get("id"):
new_favorites.append(Favorite(type=f["type"], id=f["id"]))
# Update with migrated preferences and mark as migrated
settings = await AppSettingsRepository.update(
favorites=new_favorites,
sidebar_sort_order=sort_order if sort_order in ("recent", "alpha") else "recent",
last_message_times=last_message_times,
preferences_migrated=True,
)
return settings, True
class StatisticsRepository:
@staticmethod
async def _activity_counts(*, contact_type: int, exclude: bool = False) -> dict[str, int]:
"""Get time-windowed counts for contacts/repeaters heard."""
now = int(time.time())
op = "!=" if exclude else "="
cursor = await db.conn.execute(
f"""
SELECT
SUM(CASE WHEN last_seen >= ? THEN 1 ELSE 0 END) AS last_hour,
SUM(CASE WHEN last_seen >= ? THEN 1 ELSE 0 END) AS last_24_hours,
SUM(CASE WHEN last_seen >= ? THEN 1 ELSE 0 END) AS last_week
FROM contacts
WHERE type {op} ? AND last_seen IS NOT NULL
""",
(now - SECONDS_1H, now - SECONDS_24H, now - SECONDS_7D, contact_type),
)
row = await cursor.fetchone()
assert row is not None # Aggregate query always returns a row
return {
"last_hour": row["last_hour"] or 0,
"last_24_hours": row["last_24_hours"] or 0,
"last_week": row["last_week"] or 0,
}
@staticmethod
async def _path_hash_width_24h() -> dict[str, int | float]:
"""Count parsed raw packets from the last 24h by hop hash width."""
now = int(time.time())
cursor = await db.conn.execute(
"SELECT data FROM raw_packets WHERE timestamp >= ?",
(now - SECONDS_24H,),
)
rows = await cursor.fetchall()
single_byte = 0
double_byte = 0
triple_byte = 0
for row in rows:
envelope = parse_packet_envelope(bytes(row["data"]))
if envelope is None:
continue
if envelope.hash_size == 1:
single_byte += 1
elif envelope.hash_size == 2:
double_byte += 1
elif envelope.hash_size == 3:
triple_byte += 1
total_packets = single_byte + double_byte + triple_byte
if total_packets == 0:
return {
"total_packets": 0,
"single_byte": 0,
"double_byte": 0,
"triple_byte": 0,
"single_byte_pct": 0.0,
"double_byte_pct": 0.0,
"triple_byte_pct": 0.0,
}
return {
"total_packets": total_packets,
"single_byte": single_byte,
"double_byte": double_byte,
"triple_byte": triple_byte,
"single_byte_pct": (single_byte / total_packets) * 100,
"double_byte_pct": (double_byte / total_packets) * 100,
"triple_byte_pct": (triple_byte / total_packets) * 100,
}
@staticmethod
async def get_all() -> dict:
"""Aggregate all statistics from existing tables."""
now = int(time.time())
# Top 5 busiest channels in last 24h
cursor = await db.conn.execute(
"""
SELECT m.conversation_key, COALESCE(c.name, m.conversation_key) AS channel_name,
COUNT(*) AS message_count
FROM messages m
LEFT JOIN channels c ON m.conversation_key = c.key
WHERE m.type = 'CHAN' AND m.received_at >= ?
GROUP BY m.conversation_key
ORDER BY COUNT(*) DESC
LIMIT 5
""",
(now - SECONDS_24H,),
)
rows = await cursor.fetchall()
busiest_channels_24h = [
{
"channel_key": row["conversation_key"],
"channel_name": row["channel_name"],
"message_count": row["message_count"],
}
for row in rows
]
# Entity counts
cursor = await db.conn.execute("SELECT COUNT(*) AS cnt FROM contacts WHERE type != 2")
row = await cursor.fetchone()
assert row is not None
contact_count: int = row["cnt"]
cursor = await db.conn.execute("SELECT COUNT(*) AS cnt FROM contacts WHERE type = 2")
row = await cursor.fetchone()
assert row is not None
repeater_count: int = row["cnt"]
cursor = await db.conn.execute("SELECT COUNT(*) AS cnt FROM channels")
row = await cursor.fetchone()
assert row is not None
channel_count: int = row["cnt"]
# Packet split
cursor = await db.conn.execute(
"""
SELECT COUNT(*) AS total,
SUM(CASE WHEN message_id IS NOT NULL THEN 1 ELSE 0 END) AS decrypted
FROM raw_packets
"""
)
pkt_row = await cursor.fetchone()
assert pkt_row is not None
total_packets = pkt_row["total"] or 0
decrypted_packets = pkt_row["decrypted"] or 0
undecrypted_packets = total_packets - decrypted_packets
# Message type counts
cursor = await db.conn.execute("SELECT COUNT(*) AS cnt FROM messages WHERE type = 'PRIV'")
row = await cursor.fetchone()
assert row is not None
total_dms: int = row["cnt"]
cursor = await db.conn.execute("SELECT COUNT(*) AS cnt FROM messages WHERE type = 'CHAN'")
row = await cursor.fetchone()
assert row is not None
total_channel_messages: int = row["cnt"]
# Outgoing count
cursor = await db.conn.execute("SELECT COUNT(*) AS cnt FROM messages WHERE outgoing = 1")
row = await cursor.fetchone()
assert row is not None
total_outgoing: int = row["cnt"]
# Activity windows
contacts_heard = await StatisticsRepository._activity_counts(contact_type=2, exclude=True)
repeaters_heard = await StatisticsRepository._activity_counts(contact_type=2)
path_hash_width_24h = await StatisticsRepository._path_hash_width_24h()
return {
"busiest_channels_24h": busiest_channels_24h,
"contact_count": contact_count,
"repeater_count": repeater_count,
"channel_count": channel_count,
"total_packets": total_packets,
"decrypted_packets": decrypted_packets,
"undecrypted_packets": undecrypted_packets,
"total_dms": total_dms,
"total_channel_messages": total_channel_messages,
"total_outgoing": total_outgoing,
"contacts_heard": contacts_heard,
"repeaters_heard": repeaters_heard,
"path_hash_width_24h": path_hash_width_24h,
}

View File

@@ -1,22 +1,19 @@
import logging
from hashlib import sha256
from fastapi import APIRouter, HTTPException
from fastapi import APIRouter, HTTPException, Query
from meshcore import EventType
from pydantic import BaseModel, Field
from app.models import Channel, ChannelDetail, ChannelMessageCounts, ChannelTopSender
from app.region_scope import normalize_region_scope
from app.repository import ChannelRepository, MessageRepository
from app.websocket import broadcast_event
from app.dependencies import require_connected
from app.models import Channel
from app.radio_sync import ensure_default_channels
from app.repository import ChannelRepository
logger = logging.getLogger(__name__)
router = APIRouter(prefix="/channels", tags=["channels"])
def _broadcast_channel_update(channel: Channel) -> None:
broadcast_event("channel", channel.model_dump())
class CreateChannelRequest(BaseModel):
name: str = Field(min_length=1, max_length=32)
key: str | None = Field(
@@ -25,34 +22,21 @@ class CreateChannelRequest(BaseModel):
)
class ChannelFloodScopeOverrideRequest(BaseModel):
flood_scope_override: str = Field(
description="Blank clears the override; non-empty values temporarily override flood scope"
)
@router.get("", response_model=list[Channel])
async def list_channels() -> list[Channel]:
"""List all channels from the database."""
# Ensure Public channel always exists (self-healing)
await ensure_default_channels()
return await ChannelRepository.get_all()
@router.get("/{key}/detail", response_model=ChannelDetail)
async def get_channel_detail(key: str) -> ChannelDetail:
"""Get comprehensive channel profile data with message statistics."""
@router.get("/{key}", response_model=Channel)
async def get_channel(key: str) -> Channel:
"""Get a specific channel by key (32-char hex string)."""
channel = await ChannelRepository.get_by_key(key)
if not channel:
raise HTTPException(status_code=404, detail="Channel not found")
stats = await MessageRepository.get_channel_stats(channel.key)
return ChannelDetail(
channel=channel,
message_counts=ChannelMessageCounts(**stats["message_counts"]),
first_message_at=stats["first_message_at"],
unique_sender_count=stats["unique_sender_count"],
top_senders_24h=[ChannelTopSender(**s) for s in stats["top_senders_24h"]],
)
return channel
@router.post("", response_model=Channel)
@@ -89,12 +73,49 @@ async def create_channel(request: CreateChannelRequest) -> Channel:
on_radio=False,
)
stored = await ChannelRepository.get_by_key(key_hex)
if stored is None:
raise HTTPException(status_code=500, detail="Channel was created but could not be reloaded")
return Channel(
key=key_hex,
name=request.name,
is_hashtag=is_hashtag,
on_radio=False,
)
_broadcast_channel_update(stored)
return stored
@router.post("/sync")
async def sync_channels_from_radio(max_channels: int = Query(default=40, ge=1, le=40)) -> dict:
"""Sync channels from the radio to the database."""
mc = require_connected()
logger.info("Syncing channels from radio (checking %d slots)", max_channels)
count = 0
for idx in range(max_channels):
result = await mc.commands.get_channel(idx)
if result.type == EventType.CHANNEL_INFO:
payload = result.payload
name = payload.get("channel_name", "")
secret = payload.get("channel_secret", b"")
# Skip empty channels
if not name or name == "\x00" * len(name):
continue
is_hashtag = name.startswith("#")
key_bytes = secret if isinstance(secret, bytes) else bytes(secret)
key_hex = key_bytes.hex().upper()
await ChannelRepository.upsert(
key=key_hex,
name=name,
is_hashtag=is_hashtag,
on_radio=True,
)
count += 1
logger.debug("Synced channel %s: %s", key_hex, name)
logger.info("Synced %d channels from radio", count)
return {"synced": count}
@router.post("/{key}/mark-read")
@@ -111,28 +132,6 @@ async def mark_channel_read(key: str) -> dict:
return {"status": "ok", "key": channel.key}
@router.post("/{key}/flood-scope-override", response_model=Channel)
async def set_channel_flood_scope_override(
key: str, request: ChannelFloodScopeOverrideRequest
) -> Channel:
"""Set or clear a per-channel flood-scope override."""
channel = await ChannelRepository.get_by_key(key)
if not channel:
raise HTTPException(status_code=404, detail="Channel not found")
override = normalize_region_scope(request.flood_scope_override) or None
updated = await ChannelRepository.update_flood_scope_override(channel.key, override)
if not updated:
raise HTTPException(status_code=500, detail="Failed to update flood-scope override")
refreshed = await ChannelRepository.get_by_key(channel.key)
if refreshed is None:
raise HTTPException(status_code=500, detail="Channel disappeared after update")
broadcast_event("channel", refreshed.model_dump())
return refreshed
@router.delete("/{key}")
async def delete_channel(key: str) -> dict:
"""Delete a channel from the database by key.
@@ -142,7 +141,4 @@ async def delete_channel(key: str) -> dict:
"""
logger.info("Deleting channel %s from database", key)
await ChannelRepository.delete(key)
broadcast_event("channel_deleted", {"key": key})
return {"status": "ok"}

View File

@@ -1,215 +1,68 @@
import asyncio
import logging
import random
from contextlib import suppress
from fastapi import APIRouter, BackgroundTasks, HTTPException, Query
from meshcore import EventType
from app.dependencies import require_connected
from app.models import (
CONTACT_TYPE_REPEATER,
AclEntry,
CommandRequest,
CommandResponse,
Contact,
ContactActiveRoom,
ContactAdvertPathSummary,
ContactAnalytics,
ContactRoutingOverrideRequest,
ContactUpsert,
CreateContactRequest,
NearestRepeater,
PathDiscoveryResponse,
PathDiscoveryRoute,
NeighborInfo,
TelemetryRequest,
TelemetryResponse,
TraceResponse,
)
from app.packet_processor import start_historical_dm_decryption
from app.path_utils import parse_explicit_hop_route
from app.repository import (
AmbiguousPublicKeyPrefixError,
ContactAdvertPathRepository,
ContactNameHistoryRepository,
ContactRepository,
MessageRepository,
)
from app.services.contact_reconciliation import (
promote_prefix_contacts_for_contact,
reconcile_contact_messages,
)
from app.services.radio_runtime import radio_runtime as radio_manager
from app.radio import radio_manager
from app.radio_sync import pause_polling
from app.repository import ContactRepository, MessageRepository
logger = logging.getLogger(__name__)
# ACL permission level names
ACL_PERMISSION_NAMES = {
0: "Guest",
1: "Read-only",
2: "Read-write",
3: "Admin",
}
router = APIRouter(prefix="/contacts", tags=["contacts"])
def _ambiguous_contact_detail(err: AmbiguousPublicKeyPrefixError) -> str:
sample = ", ".join(key[:12] for key in err.matches[:2])
return (
f"Ambiguous contact key prefix '{err.prefix}'. "
f"Use a full 64-character public key. Matching contacts: {sample}"
)
# Delay between repeater radio operations to allow key exchange and path establishment
REPEATER_OP_DELAY_SECONDS = 2.0
async def _resolve_contact_or_404(
public_key: str, not_found_detail: str = "Contact not found"
) -> Contact:
try:
contact = await ContactRepository.get_by_key_or_prefix(public_key)
except AmbiguousPublicKeyPrefixError as err:
raise HTTPException(status_code=409, detail=_ambiguous_contact_detail(err)) from err
if not contact:
raise HTTPException(status_code=404, detail=not_found_detail)
return contact
async def prepare_repeater_connection(mc, contact: Contact, password: str) -> None:
"""Prepare connection to a repeater by adding to radio and logging in.
Args:
mc: MeshCore instance
contact: The repeater contact
password: Password for login (empty string for no password)
async def _ensure_on_radio(mc, contact: Contact) -> None:
"""Add a contact to the radio for routing, raising 500 on failure."""
add_result = await mc.commands.add_contact(contact.to_radio_dict())
if add_result is not None and add_result.type == EventType.ERROR:
raise HTTPException(
status_code=500, detail=f"Failed to add contact to radio: {add_result.payload}"
)
Raises:
HTTPException: If login fails
"""
# Add contact to radio with path from DB
logger.info("Adding repeater %s to radio", contact.public_key[:12])
await mc.commands.add_contact(contact.to_radio_dict())
# Send login with password
logger.info("Sending login to repeater %s", contact.public_key[:12])
login_result = await mc.commands.send_login(contact.public_key, password)
async def _best_effort_push_contact_to_radio(contact: Contact, operation_name: str) -> None:
"""Best-effort push the current effective route to the radio when connected."""
if not radio_manager.is_connected:
return
if login_result.type == EventType.ERROR:
raise HTTPException(status_code=401, detail=f"Login failed: {login_result.payload}")
try:
async with radio_manager.radio_operation(operation_name) as mc:
result = await mc.commands.add_contact(contact.to_radio_dict())
if result is not None and result.type == EventType.ERROR:
logger.warning(
"Failed to push updated routing to radio for %s: %s",
contact.public_key[:12],
result.payload,
)
except Exception:
logger.warning(
"Failed to push updated routing to radio for %s",
contact.public_key[:12],
exc_info=True,
)
async def _broadcast_contact_update(contact: Contact) -> None:
from app.websocket import broadcast_event
broadcast_event("contact", contact.model_dump())
async def _broadcast_contact_resolution(previous_public_keys: list[str], contact: Contact) -> None:
from app.websocket import broadcast_event
for old_key in previous_public_keys:
broadcast_event(
"contact_resolved",
{
"previous_public_key": old_key,
"contact": contact.model_dump(),
},
)
def _path_hash_mode_from_hop_width(hop_width: object) -> int:
if not isinstance(hop_width, int):
return 0
return max(0, min(hop_width - 1, 2))
async def _build_keyed_contact_analytics(contact: Contact) -> ContactAnalytics:
name_history = await ContactNameHistoryRepository.get_history(contact.public_key)
dm_count = await MessageRepository.count_dm_messages(contact.public_key)
chan_count = await MessageRepository.count_channel_messages_by_sender(contact.public_key)
active_rooms_raw = await MessageRepository.get_most_active_rooms(contact.public_key)
advert_paths = await ContactAdvertPathRepository.get_recent_for_contact(contact.public_key)
hourly_activity, weekly_activity = await MessageRepository.get_contact_activity_series(
contact.public_key
)
most_active_rooms = [
ContactActiveRoom(channel_key=key, channel_name=name, message_count=count)
for key, name, count in active_rooms_raw
]
advert_frequency: float | None = None
if advert_paths:
total_observations = sum(p.heard_count for p in advert_paths)
earliest = min(p.first_seen for p in advert_paths)
latest = max(p.last_seen for p in advert_paths)
span_hours = (latest - earliest) / 3600.0
if span_hours > 0:
advert_frequency = round(total_observations / span_hours, 2)
first_hop_stats: dict[str, dict] = {}
for p in advert_paths:
prefix = p.next_hop
if prefix:
if prefix not in first_hop_stats:
first_hop_stats[prefix] = {
"heard_count": 0,
"path_len": p.path_len,
"last_seen": p.last_seen,
}
first_hop_stats[prefix]["heard_count"] += p.heard_count
first_hop_stats[prefix]["last_seen"] = max(
first_hop_stats[prefix]["last_seen"], p.last_seen
)
resolved_contacts = await ContactRepository.resolve_prefixes(list(first_hop_stats.keys()))
nearest_repeaters: list[NearestRepeater] = []
for prefix, stats in first_hop_stats.items():
resolved = resolved_contacts.get(prefix)
nearest_repeaters.append(
NearestRepeater(
public_key=resolved.public_key if resolved else prefix,
name=resolved.name if resolved else None,
path_len=stats["path_len"],
last_seen=stats["last_seen"],
heard_count=stats["heard_count"],
)
)
nearest_repeaters.sort(key=lambda r: r.heard_count, reverse=True)
return ContactAnalytics(
lookup_type="contact",
name=contact.name or contact.public_key[:12],
contact=contact,
name_history=name_history,
dm_message_count=dm_count,
channel_message_count=chan_count,
includes_direct_messages=True,
most_active_rooms=most_active_rooms,
advert_paths=advert_paths,
advert_frequency=advert_frequency,
nearest_repeaters=nearest_repeaters,
hourly_activity=hourly_activity,
weekly_activity=weekly_activity,
)
async def _build_name_only_contact_analytics(name: str) -> ContactAnalytics:
chan_count = await MessageRepository.count_channel_messages_by_sender_name(name)
name_first_seen_at = await MessageRepository.get_first_channel_message_by_sender_name(name)
active_rooms_raw = await MessageRepository.get_most_active_rooms_by_sender_name(name)
hourly_activity, weekly_activity = await MessageRepository.get_sender_name_activity_series(name)
most_active_rooms = [
ContactActiveRoom(channel_key=key, channel_name=room_name, message_count=count)
for key, room_name, count in active_rooms_raw
]
return ContactAnalytics(
lookup_type="name",
name=name,
name_first_seen_at=name_first_seen_at,
channel_message_count=chan_count,
includes_direct_messages=False,
most_active_rooms=most_active_rooms,
hourly_activity=hourly_activity,
weekly_activity=weekly_activity,
)
# Wait for key exchange to complete before sending requests
logger.debug("Waiting %.1fs for key exchange to complete", REPEATER_OP_DELAY_SECONDS)
await asyncio.sleep(REPEATER_OP_DELAY_SECONDS)
@router.get("", response_model=list[Contact])
@@ -221,40 +74,6 @@ async def list_contacts(
return await ContactRepository.get_all(limit=limit, offset=offset)
@router.get("/repeaters/advert-paths", response_model=list[ContactAdvertPathSummary])
async def list_repeater_advert_paths(
limit_per_repeater: int = Query(default=10, ge=1, le=50),
) -> list[ContactAdvertPathSummary]:
"""List recent unique advert paths for all repeaters.
Note: This endpoint now returns paths for all contacts (table was renamed).
The route is kept for backward compatibility.
"""
return await ContactAdvertPathRepository.get_recent_for_all_contacts(
limit_per_contact=limit_per_repeater
)
@router.get("/analytics", response_model=ContactAnalytics)
async def get_contact_analytics(
public_key: str | None = Query(default=None),
name: str | None = Query(default=None, min_length=1, max_length=200),
) -> ContactAnalytics:
"""Get unified contact analytics for either a keyed contact or a sender name."""
if bool(public_key) == bool(name):
raise HTTPException(status_code=400, detail="Specify exactly one of public_key or name")
if public_key:
contact = await _resolve_contact_or_404(public_key)
return await _build_keyed_contact_analytics(contact)
assert name is not None
normalized_name = name.strip()
if not normalized_name:
raise HTTPException(status_code=400, detail="name is required")
return await _build_name_only_contact_analytics(normalized_name)
@router.post("", response_model=Contact)
async def create_contact(
request: CreateContactRequest, background_tasks: BackgroundTasks
@@ -271,24 +90,27 @@ async def create_contact(
raise HTTPException(status_code=400, detail="Invalid public key: must be valid hex") from e
# Check if contact already exists
existing = await ContactRepository.get_by_key(request.public_key)
existing = await ContactRepository.get_by_key_or_prefix(request.public_key)
if existing:
# Update name if provided
if request.name:
await ContactRepository.upsert(existing.to_upsert(name=request.name))
refreshed = await ContactRepository.get_by_key(request.public_key)
if refreshed is not None:
existing = refreshed
promoted_keys = await promote_prefix_contacts_for_contact(
public_key=request.public_key,
log=logger,
)
if promoted_keys:
refreshed = await ContactRepository.get_by_key(request.public_key)
if refreshed is not None:
existing = refreshed
await _broadcast_contact_resolution(promoted_keys, existing)
await ContactRepository.upsert(
{
"public_key": existing.public_key,
"name": request.name,
"type": existing.type,
"flags": existing.flags,
"last_path": existing.last_path,
"last_path_len": existing.last_path_len,
"last_advert": existing.last_advert,
"lat": existing.lat,
"lon": existing.lon,
"last_seen": existing.last_seen,
"on_radio": existing.on_radio,
"last_contacted": existing.last_contacted,
}
)
existing.name = request.name
# Trigger historical decryption if requested (even for existing contacts)
if request.try_historical:
@@ -296,46 +118,131 @@ async def create_contact(
background_tasks, request.public_key, request.name or existing.name
)
await _broadcast_contact_update(existing)
return existing
# Create new contact
lower_key = request.public_key.lower()
contact_upsert = ContactUpsert(
public_key=lower_key,
name=request.name,
out_path_hash_mode=-1,
on_radio=False,
)
await ContactRepository.upsert(contact_upsert)
contact_data = {
"public_key": lower_key,
"name": request.name,
"type": 0, # Unknown
"flags": 0,
"last_path": None,
"last_path_len": -1,
"last_advert": None,
"lat": None,
"lon": None,
"last_seen": None,
"on_radio": False,
"last_contacted": None,
}
await ContactRepository.upsert(contact_data)
logger.info("Created contact %s", lower_key[:12])
promoted_keys = await promote_prefix_contacts_for_contact(
public_key=lower_key,
log=logger,
)
await reconcile_contact_messages(
public_key=lower_key,
contact_name=request.name,
log=logger,
)
# Promote any prefix-stored messages to this full key
claimed = await MessageRepository.claim_prefix_messages(lower_key)
if claimed > 0:
logger.info("Claimed %d prefix messages for contact %s", claimed, lower_key[:12])
# Trigger historical decryption if requested
if request.try_historical:
await start_historical_dm_decryption(background_tasks, lower_key, request.name)
stored = await ContactRepository.get_by_key(lower_key)
if stored is None:
raise HTTPException(status_code=500, detail="Contact was created but could not be reloaded")
await _broadcast_contact_update(stored)
await _broadcast_contact_resolution(promoted_keys, stored)
return stored
return Contact(**contact_data)
@router.get("/{public_key}", response_model=Contact)
async def get_contact(public_key: str) -> Contact:
"""Get a specific contact by public key or prefix."""
contact = await ContactRepository.get_by_key_or_prefix(public_key)
if not contact:
raise HTTPException(status_code=404, detail="Contact not found")
return contact
@router.post("/sync")
async def sync_contacts_from_radio() -> dict:
"""Sync contacts from the radio to the database."""
mc = require_connected()
logger.info("Syncing contacts from radio")
result = await mc.commands.get_contacts()
if result.type == EventType.ERROR:
raise HTTPException(status_code=500, detail=f"Failed to get contacts: {result.payload}")
contacts = result.payload
count = 0
for public_key, contact_data in contacts.items():
await ContactRepository.upsert(
Contact.from_radio_dict(public_key, contact_data, on_radio=True)
)
count += 1
logger.info("Synced %d contacts from radio", count)
return {"synced": count}
@router.post("/{public_key}/remove-from-radio")
async def remove_contact_from_radio(public_key: str) -> dict:
"""Remove a contact from the radio (keeps it in database)."""
mc = require_connected()
contact = await ContactRepository.get_by_key_or_prefix(public_key)
if not contact:
raise HTTPException(status_code=404, detail="Contact not found")
# Get the contact from radio
radio_contact = mc.get_contact_by_key_prefix(contact.public_key[:12])
if not radio_contact:
# Already not on radio
await ContactRepository.set_on_radio(contact.public_key, False)
return {"status": "ok", "message": "Contact was not on radio"}
logger.info("Removing contact %s from radio", contact.public_key[:12])
result = await mc.commands.remove_contact(radio_contact)
if result.type == EventType.ERROR:
raise HTTPException(status_code=500, detail=f"Failed to remove contact: {result.payload}")
await ContactRepository.set_on_radio(contact.public_key, False)
return {"status": "ok"}
@router.post("/{public_key}/add-to-radio")
async def add_contact_to_radio(public_key: str) -> dict:
"""Add a contact from the database to the radio."""
mc = require_connected()
contact = await ContactRepository.get_by_key_or_prefix(public_key)
if not contact:
raise HTTPException(status_code=404, detail="Contact not found in database")
# Check if already on radio
radio_contact = mc.get_contact_by_key_prefix(contact.public_key[:12])
if radio_contact:
return {"status": "ok", "message": "Contact already on radio"}
logger.info("Adding contact %s to radio", contact.public_key[:12])
result = await mc.commands.add_contact(contact.to_radio_dict())
if result.type == EventType.ERROR:
raise HTTPException(status_code=500, detail=f"Failed to add contact: {result.payload}")
await ContactRepository.set_on_radio(contact.public_key, True)
return {"status": "ok"}
@router.post("/{public_key}/mark-read")
async def mark_contact_read(public_key: str) -> dict:
"""Mark a contact conversation as read (update last_read_at timestamp)."""
contact = await _resolve_contact_or_404(public_key)
contact = await ContactRepository.get_by_key_or_prefix(public_key)
if not contact:
raise HTTPException(status_code=404, detail="Contact not found")
updated = await ContactRepository.update_last_read_at(contact.public_key)
if not updated:
@@ -347,29 +254,288 @@ async def mark_contact_read(public_key: str) -> dict:
@router.delete("/{public_key}")
async def delete_contact(public_key: str) -> dict:
"""Delete a contact from the database (and radio if present)."""
contact = await _resolve_contact_or_404(public_key)
contact = await ContactRepository.get_by_key_or_prefix(public_key)
if not contact:
raise HTTPException(status_code=404, detail="Contact not found")
# Remove from radio if connected and contact is on radio
if radio_manager.is_connected:
async with radio_manager.radio_operation("delete_contact_from_radio") as mc:
radio_contact = mc.get_contact_by_key_prefix(contact.public_key[:12])
if radio_contact:
logger.info(
"Removing contact %s from radio before deletion", contact.public_key[:12]
)
await mc.commands.remove_contact(radio_contact)
if radio_manager.is_connected and radio_manager.meshcore:
mc = radio_manager.meshcore
radio_contact = mc.get_contact_by_key_prefix(contact.public_key[:12])
if radio_contact:
logger.info("Removing contact %s from radio before deletion", contact.public_key[:12])
await mc.commands.remove_contact(radio_contact)
# Delete from database
await ContactRepository.delete(contact.public_key)
logger.info("Deleted contact %s", contact.public_key[:12])
from app.websocket import broadcast_event
broadcast_event("contact_deleted", {"public_key": contact.public_key})
return {"status": "ok"}
@router.post("/{public_key}/telemetry", response_model=TelemetryResponse)
async def request_telemetry(public_key: str, request: TelemetryRequest) -> TelemetryResponse:
"""Request telemetry from a repeater.
The contact must be a repeater (type=2). If not on the radio, it will be added.
Uses login + status request with retry logic.
"""
mc = require_connected()
# Get contact from database
contact = await ContactRepository.get_by_key_or_prefix(public_key)
if not contact:
raise HTTPException(status_code=404, detail="Contact not found")
# Verify it's a repeater
if contact.type != CONTACT_TYPE_REPEATER:
raise HTTPException(
status_code=400,
detail=f"Contact is not a repeater (type={contact.type}, expected {CONTACT_TYPE_REPEATER})",
)
# Prepare connection (add/remove dance + login)
await prepare_repeater_connection(mc, contact, request.password)
# Request status with retries
logger.info("Requesting status from repeater %s", contact.public_key[:12])
status = None
for attempt in range(1, 4):
logger.debug("Status request attempt %d/3", attempt)
status = await mc.commands.req_status_sync(contact.public_key, timeout=10, min_timeout=5)
if status:
break
logger.debug("Status request timeout, retrying...")
if not status:
raise HTTPException(status_code=504, detail="No response from repeater after 3 attempts")
logger.info("Received telemetry from %s: %s", contact.public_key[:12], status)
# Fetch neighbors (fetch_all_neighbours handles pagination)
logger.info("Fetching neighbors from repeater %s", contact.public_key[:12])
neighbors_data = None
for attempt in range(1, 4):
logger.debug("Neighbors request attempt %d/3", attempt)
neighbors_data = await mc.commands.fetch_all_neighbours(
contact.public_key, timeout=10, min_timeout=5
)
if neighbors_data:
break
logger.debug("Neighbors request timeout, retrying...")
# Process neighbors - resolve pubkey prefixes to contact names
neighbors: list[NeighborInfo] = []
if neighbors_data and "neighbours" in neighbors_data:
logger.info("Received %d neighbors", len(neighbors_data["neighbours"]))
for n in neighbors_data["neighbours"]:
pubkey_prefix = n.get("pubkey", "")
# Try to resolve to a contact name from our database
resolved_contact = await ContactRepository.get_by_key_prefix(pubkey_prefix)
neighbors.append(
NeighborInfo(
pubkey_prefix=pubkey_prefix,
name=resolved_contact.name if resolved_contact else None,
snr=n.get("snr", 0.0),
last_heard_seconds=n.get("secs_ago", 0),
)
)
# Fetch ACL
logger.info("Fetching ACL from repeater %s", contact.public_key[:12])
acl_data = None
for attempt in range(1, 4):
logger.debug("ACL request attempt %d/3", attempt)
acl_data = await mc.commands.req_acl_sync(contact.public_key, timeout=10, min_timeout=5)
if acl_data:
break
logger.debug("ACL request timeout, retrying...")
# Process ACL - resolve pubkey prefixes to contact names
acl_entries: list[AclEntry] = []
if acl_data and isinstance(acl_data, list):
logger.info("Received %d ACL entries", len(acl_data))
for entry in acl_data:
pubkey_prefix = entry.get("key", "")
perm = entry.get("perm", 0)
# Try to resolve to a contact name from our database
resolved_contact = await ContactRepository.get_by_key_prefix(pubkey_prefix)
acl_entries.append(
AclEntry(
pubkey_prefix=pubkey_prefix,
name=resolved_contact.name if resolved_contact else None,
permission=perm,
permission_name=ACL_PERMISSION_NAMES.get(perm, f"Unknown({perm})"),
)
)
# Fetch clock output (up to 2 attempts)
# Must pause polling and stop auto-fetch to prevent race condition where
# the CLI response is consumed before we can call get_msg()
logger.info("Fetching clock from repeater %s", contact.public_key[:12])
clock_output: str | None = None
async with pause_polling():
await mc.stop_auto_message_fetching()
try:
for attempt in range(1, 3):
logger.debug("Clock request attempt %d/2", attempt)
try:
send_result = await mc.commands.send_cmd(contact.public_key, "clock")
if send_result.type == EventType.ERROR:
logger.debug("Clock command send error: %s", send_result.payload)
continue
# Wait for response
wait_result = await mc.wait_for_event(EventType.MESSAGES_WAITING, timeout=5.0)
if wait_result is None:
logger.debug("Clock request timeout, retrying...")
continue
response_event = await mc.commands.get_msg()
if response_event.type == EventType.ERROR:
logger.debug("Clock get_msg error: %s", response_event.payload)
continue
clock_output = response_event.payload.get("text", "")
logger.info("Received clock output: %s", clock_output)
break
except Exception as e:
logger.debug("Clock request exception: %s", e)
continue
finally:
await mc.start_auto_message_fetching()
if clock_output is None:
clock_output = "Unable to fetch `clock` output (repeater did not respond)"
# Convert raw telemetry to response format
# bat is in mV, convert to V (e.g., 3775 -> 3.775)
return TelemetryResponse(
pubkey_prefix=status.get("pubkey_pre", contact.public_key[:12]),
battery_volts=status.get("bat", 0) / 1000.0,
tx_queue_len=status.get("tx_queue_len", 0),
noise_floor_dbm=status.get("noise_floor", 0),
last_rssi_dbm=status.get("last_rssi", 0),
last_snr_db=status.get("last_snr", 0.0),
packets_received=status.get("nb_recv", 0),
packets_sent=status.get("nb_sent", 0),
airtime_seconds=status.get("airtime", 0),
rx_airtime_seconds=status.get("rx_airtime", 0),
uptime_seconds=status.get("uptime", 0),
sent_flood=status.get("sent_flood", 0),
sent_direct=status.get("sent_direct", 0),
recv_flood=status.get("recv_flood", 0),
recv_direct=status.get("recv_direct", 0),
flood_dups=status.get("flood_dups", 0),
direct_dups=status.get("direct_dups", 0),
full_events=status.get("full_evts", 0),
neighbors=neighbors,
acl=acl_entries,
clock_output=clock_output,
)
@router.post("/{public_key}/command", response_model=CommandResponse)
async def send_repeater_command(public_key: str, request: CommandRequest) -> CommandResponse:
"""Send a CLI command to a repeater.
The contact must be a repeater (type=2). The user must have already logged in
via the telemetry endpoint. This endpoint ensures the contact is on the radio
before sending commands (the repeater remembers ACL permissions after login).
Common commands:
- get name, set name <value>
- get tx, set tx <dbm>
- get radio, set radio <freq,bw,sf,cr>
- tempradio <freq,bw,sf,cr,minutes>
- setperm <pubkey> <permission> (0=guest, 1=read-only, 2=read-write, 3=admin)
- clock, clock sync
- reboot
- ver
"""
mc = require_connected()
# Get contact from database
contact = await ContactRepository.get_by_key_or_prefix(public_key)
if not contact:
raise HTTPException(status_code=404, detail="Contact not found")
# Verify it's a repeater
if contact.type != CONTACT_TYPE_REPEATER:
raise HTTPException(
status_code=400,
detail=f"Contact is not a repeater (type={contact.type}, expected {CONTACT_TYPE_REPEATER})",
)
# Pause message polling to prevent it from stealing our response
async with pause_polling():
# Stop auto-fetch to prevent race condition where it consumes our CLI response
# before we can call get_msg(). This was causing every other command to fail
# with {'messages_available': False}.
await mc.stop_auto_message_fetching()
try:
# Add contact to radio with path from DB
logger.info("Adding repeater %s to radio", contact.public_key[:12])
await mc.commands.add_contact(contact.to_radio_dict())
# Send the command
logger.info(
"Sending command to repeater %s: %s", contact.public_key[:12], request.command
)
send_result = await mc.commands.send_cmd(contact.public_key, request.command)
if send_result.type == EventType.ERROR:
raise HTTPException(
status_code=500, detail=f"Failed to send command: {send_result.payload}"
)
# Wait for response (MESSAGES_WAITING event, then get_msg)
try:
wait_result = await mc.wait_for_event(EventType.MESSAGES_WAITING, timeout=10.0)
if wait_result is None:
# Timeout - no response received
logger.warning(
"No response from repeater %s for command: %s",
contact.public_key[:12],
request.command,
)
return CommandResponse(
command=request.command,
response="(no response - command may have been processed)",
)
response_event = await mc.commands.get_msg()
if response_event.type == EventType.ERROR:
return CommandResponse(
command=request.command, response=f"(error: {response_event.payload})"
)
# Extract the response text and timestamp from the payload
response_text = response_event.payload.get("text", str(response_event.payload))
sender_timestamp = response_event.payload.get("timestamp")
logger.info("Received response from %s: %s", contact.public_key[:12], response_text)
return CommandResponse(
command=request.command,
response=response_text,
sender_timestamp=sender_timestamp,
)
except Exception as e:
logger.error("Error waiting for response: %s", e)
return CommandResponse(
command=request.command, response=f"(error waiting for response: {e})"
)
finally:
# Always restart auto-fetch, even if an error occurred
await mc.start_auto_message_fetching()
@router.post("/{public_key}/trace", response_model=TraceResponse)
async def request_trace(public_key: str) -> TraceResponse:
"""Send a single-hop trace to a contact and wait for the result.
@@ -378,19 +544,22 @@ async def request_trace(public_key: str) -> TraceResponse:
(no intermediate repeaters). The radio firmware requires at least one
node in the path.
"""
require_connected()
mc = require_connected()
contact = await _resolve_contact_or_404(public_key)
contact = await ContactRepository.get_by_key_or_prefix(public_key)
if not contact:
raise HTTPException(status_code=404, detail="Contact not found")
tag = random.randint(1, 0xFFFFFFFF)
# First 2 hex chars of pubkey = 1-byte hash used by the trace protocol
contact_hash = contact.public_key[:2]
# Trace does not need auto-fetch suspension: response arrives as TRACE_DATA
# from the reader loop, not via get_msg().
async with radio_manager.radio_operation("request_trace", pause_polling=True) as mc:
# Note: unlike command/telemetry endpoints, trace does NOT need
# stop/start_auto_message_fetching because the response arrives as a
# TRACE_DATA event through the reader loop, not via get_msg().
async with pause_polling():
# Ensure contact is on radio so the trace can reach them
await _ensure_on_radio(mc, contact)
await mc.commands.add_contact(contact.to_radio_dict())
logger.info(
"Sending trace to %s (tag=%d, hash=%s)", contact.public_key[:12], tag, contact_hash
@@ -428,135 +597,3 @@ async def request_trace(public_key: str) -> TraceResponse:
)
return TraceResponse(remote_snr=remote_snr, local_snr=local_snr, path_len=path_len)
@router.post("/{public_key}/path-discovery", response_model=PathDiscoveryResponse)
async def request_path_discovery(public_key: str) -> PathDiscoveryResponse:
"""Discover the current forward and return paths to a known contact."""
require_connected()
contact = await _resolve_contact_or_404(public_key)
pubkey_prefix = contact.public_key[:12]
async with radio_manager.radio_operation("request_path_discovery", pause_polling=True) as mc:
await _ensure_on_radio(mc, contact)
response_task = asyncio.create_task(
mc.wait_for_event(
EventType.PATH_RESPONSE,
attribute_filters={"pubkey_pre": pubkey_prefix},
timeout=15,
)
)
try:
result = await mc.commands.send_path_discovery(contact.public_key)
if result.type == EventType.ERROR:
raise HTTPException(
status_code=500,
detail=f"Failed to send path discovery: {result.payload}",
)
event = await response_task
finally:
if not response_task.done():
response_task.cancel()
with suppress(asyncio.CancelledError):
await response_task
if event is None:
raise HTTPException(status_code=504, detail="No path discovery response heard")
payload = event.payload
forward_path = str(payload.get("out_path") or "")
forward_len = int(payload.get("out_path_len") or 0)
forward_mode = _path_hash_mode_from_hop_width(payload.get("out_path_hash_len"))
return_path = str(payload.get("in_path") or "")
return_len = int(payload.get("in_path_len") or 0)
return_mode = _path_hash_mode_from_hop_width(payload.get("in_path_hash_len"))
await ContactRepository.update_path(
contact.public_key,
forward_path,
forward_len,
forward_mode,
)
refreshed_contact = await _resolve_contact_or_404(contact.public_key)
try:
sync_result = await mc.commands.add_contact(refreshed_contact.to_radio_dict())
if sync_result is not None and sync_result.type == EventType.ERROR:
logger.warning(
"Failed to sync discovered path back to radio for %s: %s",
refreshed_contact.public_key[:12],
sync_result.payload,
)
except Exception:
logger.warning(
"Failed to sync discovered path back to radio for %s",
refreshed_contact.public_key[:12],
exc_info=True,
)
await _broadcast_contact_update(refreshed_contact)
return PathDiscoveryResponse(
contact=refreshed_contact,
forward_path=PathDiscoveryRoute(
path=forward_path,
path_len=forward_len,
path_hash_mode=forward_mode,
),
return_path=PathDiscoveryRoute(
path=return_path,
path_len=return_len,
path_hash_mode=return_mode,
),
)
@router.post("/{public_key}/routing-override")
async def set_contact_routing_override(
public_key: str, request: ContactRoutingOverrideRequest
) -> dict:
"""Set, force, or clear an explicit routing override for a contact."""
contact = await _resolve_contact_or_404(public_key)
route_text = request.route.strip()
if route_text == "":
await ContactRepository.clear_routing_override(contact.public_key)
await ContactRepository.update_path(contact.public_key, "", -1, -1)
logger.info(
"Cleared routing override and reset learned path to flood for %s",
contact.public_key[:12],
)
elif route_text == "-1":
await ContactRepository.set_routing_override(contact.public_key, "", -1, -1)
logger.info("Set forced flood routing override for %s", contact.public_key[:12])
elif route_text == "0":
await ContactRepository.set_routing_override(contact.public_key, "", 0, 0)
logger.info("Set forced direct routing override for %s", contact.public_key[:12])
else:
try:
path_hex, path_len, hash_mode = parse_explicit_hop_route(route_text)
except ValueError as err:
raise HTTPException(status_code=400, detail=str(err)) from err
await ContactRepository.set_routing_override(
contact.public_key,
path_hex,
path_len,
hash_mode,
)
logger.info(
"Set explicit routing override for %s: %d hop(s), %d-byte IDs",
contact.public_key[:12],
path_len,
hash_mode + 1,
)
updated_contact = await ContactRepository.get_by_key(contact.public_key)
if updated_contact:
await _best_effort_push_contact_to_radio(updated_contact, "set_routing_override_on_radio")
await _broadcast_contact_update(updated_contact)
return {"status": "ok", "public_key": contact.public_key}

View File

@@ -1,299 +0,0 @@
import hashlib
import importlib.metadata
import logging
import subprocess
import sys
from datetime import datetime, timezone
from pathlib import Path
from typing import Any
from fastapi import APIRouter
from meshcore import EventType
from pydantic import BaseModel, Field
from app.config import get_recent_log_lines, settings
from app.radio_sync import get_contacts_selected_for_radio_sync, get_radio_channel_limit
from app.repository import MessageRepository
from app.routers.health import HealthResponse, build_health_data
from app.services.radio_runtime import radio_runtime
logger = logging.getLogger(__name__)
router = APIRouter(tags=["debug"])
class DebugApplicationInfo(BaseModel):
version: str
commit_hash: str | None = None
git_branch: str | None = None
git_dirty: bool | None = None
python_version: str
class DebugRuntimeInfo(BaseModel):
connection_info: str | None = None
connection_desired: bool
setup_in_progress: bool
setup_complete: bool
channels_with_incoming_messages: int
max_channels: int
path_hash_mode: int
path_hash_mode_supported: bool
channel_slot_reuse_enabled: bool
channel_send_cache_capacity: int
remediation_flags: dict[str, bool]
class DebugContactAudit(BaseModel):
expected_and_found: int
expected_but_not_found: list[str]
found_but_not_expected: list[str]
class DebugChannelSlotMismatch(BaseModel):
slot_number: int
expected_sha256_of_room_key: str | None = None
actual_sha256_of_room_key: str | None = None
class DebugChannelAudit(BaseModel):
matched_slots: int
wrong_slots: list[DebugChannelSlotMismatch]
class DebugRadioProbe(BaseModel):
performed: bool
errors: list[str] = Field(default_factory=list)
self_info: dict[str, Any] | None = None
device_info: dict[str, Any] | None = None
stats_core: dict[str, Any] | None = None
stats_radio: dict[str, Any] | None = None
contacts: DebugContactAudit | None = None
channels: DebugChannelAudit | None = None
class DebugSnapshotResponse(BaseModel):
captured_at: str
application: DebugApplicationInfo
health: HealthResponse
runtime: DebugRuntimeInfo
radio_probe: DebugRadioProbe
logs: list[str]
def _repo_root() -> Path:
return Path(__file__).resolve().parents[2]
def _get_app_version() -> str:
try:
return importlib.metadata.version("remoteterm-meshcore")
except Exception:
pyproject = _repo_root() / "pyproject.toml"
try:
for line in pyproject.read_text().splitlines():
if line.startswith("version = "):
return line.split('"')[1]
except Exception:
pass
return "0.0.0"
def _git_output(*args: str) -> str | None:
try:
result = subprocess.run(
["git", *args],
cwd=_repo_root(),
check=True,
capture_output=True,
text=True,
)
except Exception:
return None
output = result.stdout.strip()
return output or None
def _build_application_info() -> DebugApplicationInfo:
dirty_output = _git_output("status", "--porcelain")
return DebugApplicationInfo(
version=_get_app_version(),
commit_hash=_git_output("rev-parse", "HEAD"),
git_branch=_git_output("rev-parse", "--abbrev-ref", "HEAD"),
git_dirty=(dirty_output is not None and dirty_output != ""),
python_version=sys.version.split()[0],
)
def _event_type_name(event: Any) -> str:
event_type = getattr(event, "type", None)
return getattr(event_type, "name", str(event_type))
def _sha256_hex(value: str) -> str:
return hashlib.sha256(value.encode("utf-8")).hexdigest()
def _normalize_channel_secret(payload: dict[str, Any]) -> bytes:
secret = payload.get("channel_secret", b"")
if isinstance(secret, bytes):
return secret
return bytes(secret)
def _is_empty_channel_payload(payload: dict[str, Any]) -> bool:
name = payload.get("channel_name", "")
return not name or name == "\x00" * len(name)
def _observed_channel_key(event: Any) -> str | None:
if getattr(event, "type", None) != EventType.CHANNEL_INFO:
return None
payload = event.payload or {}
if _is_empty_channel_payload(payload):
return None
return _normalize_channel_secret(payload).hex().upper()
def _coerce_live_max_channels(device_info: dict[str, Any] | None) -> int | None:
if not device_info or "max_channels" not in device_info:
return None
try:
return int(device_info["max_channels"])
except (TypeError, ValueError):
return None
async def _build_contact_audit(
observed_contacts_payload: dict[str, dict[str, Any]],
) -> DebugContactAudit:
expected_contacts = await get_contacts_selected_for_radio_sync()
expected_keys = {contact.public_key.lower() for contact in expected_contacts}
observed_keys = {public_key.lower() for public_key in observed_contacts_payload}
return DebugContactAudit(
expected_and_found=len(expected_keys & observed_keys),
expected_but_not_found=sorted(_sha256_hex(key) for key in (expected_keys - observed_keys)),
found_but_not_expected=sorted(_sha256_hex(key) for key in (observed_keys - expected_keys)),
)
async def _build_channel_audit(mc: Any, max_channels: int | None = None) -> DebugChannelAudit:
cache_key_by_slot = {
slot: channel_key for channel_key, slot in radio_runtime.get_channel_send_cache_snapshot()
}
matched_slots = 0
wrong_slots: list[DebugChannelSlotMismatch] = []
for slot in range(get_radio_channel_limit(max_channels)):
event = await mc.commands.get_channel(slot)
expected_key = cache_key_by_slot.get(slot)
observed_key = _observed_channel_key(event)
if expected_key == observed_key:
matched_slots += 1
continue
wrong_slots.append(
DebugChannelSlotMismatch(
slot_number=slot,
expected_sha256_of_room_key=_sha256_hex(expected_key) if expected_key else None,
actual_sha256_of_room_key=_sha256_hex(observed_key) if observed_key else None,
)
)
return DebugChannelAudit(
matched_slots=matched_slots,
wrong_slots=wrong_slots,
)
async def _probe_radio() -> DebugRadioProbe:
if not radio_runtime.is_connected:
return DebugRadioProbe(performed=False, errors=["Radio not connected"])
errors: list[str] = []
try:
async with radio_runtime.radio_operation(
"debug_support_snapshot",
suspend_auto_fetch=True,
) as mc:
device_info = None
stats_core = None
stats_radio = None
device_event = await mc.commands.send_device_query()
if getattr(device_event, "type", None) == EventType.DEVICE_INFO:
device_info = device_event.payload
else:
errors.append(f"send_device_query returned {_event_type_name(device_event)}")
core_event = await mc.commands.get_stats_core()
if getattr(core_event, "type", None) == EventType.STATS_CORE:
stats_core = core_event.payload
else:
errors.append(f"get_stats_core returned {_event_type_name(core_event)}")
radio_event = await mc.commands.get_stats_radio()
if getattr(radio_event, "type", None) == EventType.STATS_RADIO:
stats_radio = radio_event.payload
else:
errors.append(f"get_stats_radio returned {_event_type_name(radio_event)}")
contacts_event = await mc.commands.get_contacts()
observed_contacts_payload: dict[str, dict[str, Any]] = {}
if getattr(contacts_event, "type", None) != EventType.ERROR:
observed_contacts_payload = contacts_event.payload or {}
else:
errors.append(f"get_contacts returned {_event_type_name(contacts_event)}")
return DebugRadioProbe(
performed=True,
errors=errors,
self_info=dict(mc.self_info or {}),
device_info=device_info,
stats_core=stats_core,
stats_radio=stats_radio,
contacts=await _build_contact_audit(observed_contacts_payload),
channels=await _build_channel_audit(
mc,
max_channels=_coerce_live_max_channels(device_info),
),
)
except Exception as exc:
logger.warning("Debug support snapshot radio probe failed: %s", exc, exc_info=True)
errors.append(str(exc))
return DebugRadioProbe(performed=False, errors=errors)
@router.get("/debug", response_model=DebugSnapshotResponse)
async def debug_support_snapshot() -> DebugSnapshotResponse:
"""Return a support/debug snapshot with recent logs and live radio state."""
health_data = await build_health_data(radio_runtime.is_connected, radio_runtime.connection_info)
radio_probe = await _probe_radio()
channels_with_incoming_messages = (
await MessageRepository.count_channels_with_incoming_messages()
)
return DebugSnapshotResponse(
captured_at=datetime.now(timezone.utc).isoformat(),
application=_build_application_info(),
health=HealthResponse(**health_data),
runtime=DebugRuntimeInfo(
connection_info=radio_runtime.connection_info,
connection_desired=radio_runtime.connection_desired,
setup_in_progress=radio_runtime.is_setup_in_progress,
setup_complete=radio_runtime.is_setup_complete,
channels_with_incoming_messages=channels_with_incoming_messages,
max_channels=radio_runtime.max_channels,
path_hash_mode=radio_runtime.path_hash_mode,
path_hash_mode_supported=radio_runtime.path_hash_mode_supported,
channel_slot_reuse_enabled=radio_runtime.channel_slot_reuse_enabled(),
channel_send_cache_capacity=radio_runtime.get_channel_send_cache_capacity(),
remediation_flags={
"enable_message_poll_fallback": settings.enable_message_poll_fallback,
"force_channel_slot_reconfigure": settings.force_channel_slot_reconfigure,
},
),
radio_probe=radio_probe,
logs=get_recent_log_lines(limit=1000),
)

View File

@@ -1,426 +0,0 @@
"""REST API for fanout config CRUD."""
import ast
import inspect
import logging
import re
import string
from fastapi import APIRouter, HTTPException
from pydantic import BaseModel, Field
from app.config import settings as server_settings
from app.fanout.bot_exec import _analyze_bot_signature
from app.repository.fanout import FanoutConfigRepository
logger = logging.getLogger(__name__)
router = APIRouter(prefix="/fanout", tags=["fanout"])
_VALID_TYPES = {"mqtt_private", "mqtt_community", "bot", "webhook", "apprise", "sqs"}
_IATA_RE = re.compile(r"^[A-Z]{3}$")
_DEFAULT_COMMUNITY_MQTT_TOPIC_TEMPLATE = "meshcore/{IATA}/{PUBLIC_KEY}/packets"
_DEFAULT_COMMUNITY_MQTT_BROKER_HOST = "mqtt-us-v1.letsmesh.net"
_DEFAULT_COMMUNITY_MQTT_BROKER_PORT = 443
_DEFAULT_COMMUNITY_MQTT_TRANSPORT = "websockets"
_DEFAULT_COMMUNITY_MQTT_AUTH_MODE = "token"
_COMMUNITY_MQTT_TEMPLATE_FIELD_CANONICAL = {
"iata": "IATA",
"public_key": "PUBLIC_KEY",
}
_ALLOWED_COMMUNITY_MQTT_TRANSPORTS = {"tcp", "websockets"}
_ALLOWED_COMMUNITY_MQTT_AUTH_MODES = {"token", "password", "none"}
def _normalize_community_topic_template(topic_template: str) -> str:
"""Normalize Community MQTT topic template placeholders to canonical uppercase form."""
template = topic_template.strip() or _DEFAULT_COMMUNITY_MQTT_TOPIC_TEMPLATE
parts: list[str] = []
try:
parsed = string.Formatter().parse(template)
for literal_text, field_name, format_spec, conversion in parsed:
parts.append(literal_text)
if field_name is None:
continue
normalized_field = _COMMUNITY_MQTT_TEMPLATE_FIELD_CANONICAL.get(field_name.lower())
if normalized_field is None:
raise HTTPException(
status_code=400,
detail=(
f"topic_template may only use {{IATA}} and {{PUBLIC_KEY}}; got {field_name}"
),
)
replacement = ["{", normalized_field]
if conversion:
replacement.extend(["!", conversion])
if format_spec:
replacement.extend([":", format_spec])
replacement.append("}")
parts.append("".join(replacement))
except ValueError as exc:
raise HTTPException(status_code=400, detail=f"Invalid topic_template: {exc}") from None
return "".join(parts)
class FanoutConfigCreate(BaseModel):
type: str = Field(description="Integration type: 'mqtt_private' or 'mqtt_community'")
name: str = Field(min_length=1, description="User-assigned label")
config: dict = Field(default_factory=dict, description="Type-specific config blob")
scope: dict = Field(default_factory=dict, description="Scope controls")
enabled: bool = Field(default=True, description="Whether enabled on creation")
class FanoutConfigUpdate(BaseModel):
name: str | None = Field(default=None, min_length=1, description="Updated label")
config: dict | None = Field(default=None, description="Updated config blob")
scope: dict | None = Field(default=None, description="Updated scope controls")
enabled: bool | None = Field(default=None, description="Enable/disable toggle")
def _validate_mqtt_private_config(config: dict) -> None:
"""Validate mqtt_private config blob."""
if not config.get("broker_host"):
raise HTTPException(status_code=400, detail="broker_host is required for mqtt_private")
port = config.get("broker_port", 1883)
if not isinstance(port, int) or port < 1 or port > 65535:
raise HTTPException(status_code=400, detail="broker_port must be between 1 and 65535")
def _validate_mqtt_community_config(config: dict) -> None:
"""Validate mqtt_community config blob. Normalizes IATA to uppercase."""
broker_host = str(config.get("broker_host", _DEFAULT_COMMUNITY_MQTT_BROKER_HOST)).strip()
if not broker_host:
broker_host = _DEFAULT_COMMUNITY_MQTT_BROKER_HOST
config["broker_host"] = broker_host
port = config.get("broker_port", _DEFAULT_COMMUNITY_MQTT_BROKER_PORT)
if not isinstance(port, int) or port < 1 or port > 65535:
raise HTTPException(status_code=400, detail="broker_port must be between 1 and 65535")
config["broker_port"] = port
transport = str(config.get("transport", _DEFAULT_COMMUNITY_MQTT_TRANSPORT)).strip().lower()
if transport not in _ALLOWED_COMMUNITY_MQTT_TRANSPORTS:
raise HTTPException(
status_code=400,
detail="transport must be 'websockets' or 'tcp'",
)
config["transport"] = transport
config["use_tls"] = bool(config.get("use_tls", True))
config["tls_verify"] = bool(config.get("tls_verify", True))
auth_mode = str(config.get("auth_mode", _DEFAULT_COMMUNITY_MQTT_AUTH_MODE)).strip().lower()
if auth_mode not in _ALLOWED_COMMUNITY_MQTT_AUTH_MODES:
raise HTTPException(
status_code=400,
detail="auth_mode must be 'token', 'password', or 'none'",
)
config["auth_mode"] = auth_mode
username = str(config.get("username", "")).strip()
password = str(config.get("password", "")).strip()
if auth_mode == "password" and (not username or not password):
raise HTTPException(
status_code=400,
detail="username and password are required when auth_mode is 'password'",
)
config["username"] = username
config["password"] = password
token_audience = str(config.get("token_audience", "")).strip()
config["token_audience"] = token_audience
iata = config.get("iata", "").upper().strip()
if not iata or not _IATA_RE.fullmatch(iata):
raise HTTPException(
status_code=400,
detail="IATA code is required and must be exactly 3 uppercase alphabetic characters",
)
config["iata"] = iata
topic_template = str(
config.get("topic_template", _DEFAULT_COMMUNITY_MQTT_TOPIC_TEMPLATE)
).strip()
if not topic_template:
topic_template = _DEFAULT_COMMUNITY_MQTT_TOPIC_TEMPLATE
config["topic_template"] = _normalize_community_topic_template(topic_template)
def _validate_bot_config(config: dict) -> None:
"""Validate bot config blob (syntax-check the code and supported signature)."""
code = config.get("code", "")
if not code or not code.strip():
raise HTTPException(status_code=400, detail="Bot code cannot be empty")
try:
tree = ast.parse(code, filename="<bot_code>", mode="exec")
except SyntaxError as e:
raise HTTPException(
status_code=400,
detail=f"Bot code has syntax error at line {e.lineno}: {e.msg}",
) from None
bot_def = next(
(
node
for node in tree.body
if isinstance(node, (ast.FunctionDef, ast.AsyncFunctionDef)) and node.name == "bot"
),
None,
)
if bot_def is None:
raise HTTPException(
status_code=400,
detail=(
"Bot code must define a callable bot() function. "
"Use the default bot template as a reference."
),
)
try:
parameters: list[inspect.Parameter] = []
positional_args = [
*((arg, inspect.Parameter.POSITIONAL_ONLY) for arg in bot_def.args.posonlyargs),
*((arg, inspect.Parameter.POSITIONAL_OR_KEYWORD) for arg in bot_def.args.args),
]
positional_defaults_start = len(positional_args) - len(bot_def.args.defaults)
sentinel_default = object()
for index, (arg, kind) in enumerate(positional_args):
has_default = index >= positional_defaults_start
parameters.append(
inspect.Parameter(
arg.arg,
kind=kind,
default=sentinel_default if has_default else inspect.Parameter.empty,
)
)
if bot_def.args.vararg is not None:
parameters.append(
inspect.Parameter(bot_def.args.vararg.arg, kind=inspect.Parameter.VAR_POSITIONAL)
)
for kwonly_arg, kw_default in zip(
bot_def.args.kwonlyargs, bot_def.args.kw_defaults, strict=True
):
parameters.append(
inspect.Parameter(
kwonly_arg.arg,
kind=inspect.Parameter.KEYWORD_ONLY,
default=(
sentinel_default if kw_default is not None else inspect.Parameter.empty
),
)
)
if bot_def.args.kwarg is not None:
parameters.append(
inspect.Parameter(bot_def.args.kwarg.arg, kind=inspect.Parameter.VAR_KEYWORD)
)
_analyze_bot_signature(inspect.Signature(parameters))
except ValueError as exc:
raise HTTPException(status_code=400, detail=str(exc)) from None
def _validate_apprise_config(config: dict) -> None:
"""Validate apprise config blob."""
urls = config.get("urls", "")
if not urls or not urls.strip():
raise HTTPException(status_code=400, detail="At least one Apprise URL is required")
def _validate_webhook_config(config: dict) -> None:
"""Validate webhook config blob."""
url = config.get("url", "")
if not url:
raise HTTPException(status_code=400, detail="url is required for webhook")
if not url.startswith(("http://", "https://")):
raise HTTPException(status_code=400, detail="url must start with http:// or https://")
method = config.get("method", "POST").upper()
if method not in ("POST", "PUT", "PATCH"):
raise HTTPException(status_code=400, detail="method must be POST, PUT, or PATCH")
headers = config.get("headers", {})
if not isinstance(headers, dict):
raise HTTPException(status_code=400, detail="headers must be a JSON object")
def _validate_sqs_config(config: dict) -> None:
"""Validate sqs config blob."""
queue_url = str(config.get("queue_url", "")).strip()
if not queue_url:
raise HTTPException(status_code=400, detail="queue_url is required for sqs")
if not queue_url.startswith(("https://", "http://")):
raise HTTPException(status_code=400, detail="queue_url must start with http:// or https://")
endpoint_url = str(config.get("endpoint_url", "")).strip()
if endpoint_url and not endpoint_url.startswith(("https://", "http://")):
raise HTTPException(
status_code=400,
detail="endpoint_url must start with http:// or https://",
)
access_key_id = str(config.get("access_key_id", "")).strip()
secret_access_key = str(config.get("secret_access_key", "")).strip()
session_token = str(config.get("session_token", "")).strip()
has_static_keypair = bool(access_key_id) and bool(secret_access_key)
has_partial_keypair = bool(access_key_id) != bool(secret_access_key)
if has_partial_keypair:
raise HTTPException(
status_code=400,
detail="access_key_id and secret_access_key must be set together for sqs",
)
if session_token and not has_static_keypair:
raise HTTPException(
status_code=400,
detail="session_token requires access_key_id and secret_access_key for sqs",
)
def _enforce_scope(config_type: str, scope: dict) -> dict:
"""Enforce type-specific scope constraints. Returns normalized scope."""
if config_type == "mqtt_community":
return {"messages": "none", "raw_packets": "all"}
if config_type == "bot":
return {"messages": "all", "raw_packets": "none"}
if config_type in ("webhook", "apprise"):
messages = scope.get("messages", "all")
if messages not in ("all", "none") and not isinstance(messages, dict):
raise HTTPException(
status_code=400,
detail="scope.messages must be 'all', 'none', or a filter object",
)
return {"messages": messages, "raw_packets": "none"}
# For mqtt_private and sqs, validate scope values
messages = scope.get("messages", "all")
if messages not in ("all", "none") and not isinstance(messages, dict):
raise HTTPException(
status_code=400,
detail="scope.messages must be 'all', 'none', or a filter object",
)
raw_packets = scope.get("raw_packets", "all")
if raw_packets not in ("all", "none"):
raise HTTPException(
status_code=400,
detail="scope.raw_packets must be 'all' or 'none'",
)
return {"messages": messages, "raw_packets": raw_packets}
@router.get("")
async def list_fanout_configs() -> list[dict]:
"""List all fanout configs."""
return await FanoutConfigRepository.get_all()
@router.post("")
async def create_fanout_config(body: FanoutConfigCreate) -> dict:
"""Create a new fanout config."""
if body.type not in _VALID_TYPES:
raise HTTPException(
status_code=400,
detail=f"Invalid type '{body.type}'. Must be one of: {', '.join(sorted(_VALID_TYPES))}",
)
if body.type == "bot" and server_settings.disable_bots:
raise HTTPException(status_code=403, detail="Bot system disabled by server configuration")
# Only validate config when creating as enabled — disabled configs
# are drafts the user hasn't finished configuring yet.
if body.enabled:
if body.type == "mqtt_private":
_validate_mqtt_private_config(body.config)
elif body.type == "mqtt_community":
_validate_mqtt_community_config(body.config)
elif body.type == "bot":
_validate_bot_config(body.config)
elif body.type == "webhook":
_validate_webhook_config(body.config)
elif body.type == "apprise":
_validate_apprise_config(body.config)
elif body.type == "sqs":
_validate_sqs_config(body.config)
scope = _enforce_scope(body.type, body.scope)
cfg = await FanoutConfigRepository.create(
config_type=body.type,
name=body.name,
config=body.config,
scope=scope,
enabled=body.enabled,
)
# Start the module if enabled
if cfg["enabled"]:
from app.fanout.manager import fanout_manager
await fanout_manager.reload_config(cfg["id"])
logger.info("Created fanout config %s (type=%s, name=%s)", cfg["id"], body.type, body.name)
return cfg
@router.patch("/{config_id}")
async def update_fanout_config(config_id: str, body: FanoutConfigUpdate) -> dict:
"""Update a fanout config. Triggers module reload."""
existing = await FanoutConfigRepository.get(config_id)
if existing is None:
raise HTTPException(status_code=404, detail="Fanout config not found")
if existing["type"] == "bot" and server_settings.disable_bots:
raise HTTPException(status_code=403, detail="Bot system disabled by server configuration")
kwargs = {}
if body.name is not None:
kwargs["name"] = body.name
if body.enabled is not None:
kwargs["enabled"] = body.enabled
if body.config is not None:
kwargs["config"] = body.config
if body.scope is not None:
kwargs["scope"] = _enforce_scope(existing["type"], body.scope)
# Validate config when the result will be enabled
will_be_enabled = body.enabled if body.enabled is not None else existing["enabled"]
if will_be_enabled:
config_to_validate = body.config if body.config is not None else existing["config"]
if existing["type"] == "mqtt_private":
_validate_mqtt_private_config(config_to_validate)
elif existing["type"] == "mqtt_community":
_validate_mqtt_community_config(config_to_validate)
elif existing["type"] == "bot":
_validate_bot_config(config_to_validate)
elif existing["type"] == "webhook":
_validate_webhook_config(config_to_validate)
elif existing["type"] == "apprise":
_validate_apprise_config(config_to_validate)
elif existing["type"] == "sqs":
_validate_sqs_config(config_to_validate)
updated = await FanoutConfigRepository.update(config_id, **kwargs)
if updated is None:
raise HTTPException(status_code=404, detail="Fanout config not found")
# Reload the module to pick up changes
from app.fanout.manager import fanout_manager
await fanout_manager.reload_config(config_id)
logger.info("Updated fanout config %s", config_id)
return updated
@router.delete("/{config_id}")
async def delete_fanout_config(config_id: str) -> dict:
"""Delete a fanout config."""
existing = await FanoutConfigRepository.get(config_id)
if existing is None:
raise HTTPException(status_code=404, detail="Fanout config not found")
# Stop the module first
from app.fanout.manager import fanout_manager
await fanout_manager.remove_config(config_id)
await FanoutConfigRepository.delete(config_id)
logger.info("Deleted fanout config %s", config_id)
return {"deleted": True}

View File

@@ -1,12 +1,11 @@
import os
from typing import Any
from fastapi import APIRouter
from pydantic import BaseModel
from app.config import settings
from app.radio import radio_manager
from app.repository import RawPacketRepository
from app.services.radio_runtime import radio_runtime as radio_manager
router = APIRouter(tags=["health"])
@@ -14,16 +13,12 @@ router = APIRouter(tags=["health"])
class HealthResponse(BaseModel):
status: str
radio_connected: bool
radio_initializing: bool = False
radio_state: str = "disconnected"
connection_info: str | None
serial_port: str | None
database_size_mb: float
oldest_undecrypted_timestamp: int | None
fanout_statuses: dict[str, dict[str, str]] = {}
bots_disabled: bool = False
async def build_health_data(radio_connected: bool, connection_info: str | None) -> dict:
async def build_health_data(radio_connected: bool, serial_port: str | None) -> dict:
"""Build the health status payload used by REST endpoint and WebSocket broadcasts."""
db_size_mb = 0.0
try:
@@ -38,60 +33,17 @@ async def build_health_data(radio_connected: bool, connection_info: str | None)
except RuntimeError:
pass # Database not connected
# Fanout module statuses
fanout_statuses: dict[str, Any] = {}
try:
from app.fanout.manager import fanout_manager
fanout_statuses = fanout_manager.get_statuses()
except Exception:
pass
setup_in_progress = getattr(radio_manager, "is_setup_in_progress", False)
if not isinstance(setup_in_progress, bool):
setup_in_progress = False
setup_complete = getattr(radio_manager, "is_setup_complete", radio_connected)
if not isinstance(setup_complete, bool):
setup_complete = radio_connected
if not radio_connected:
setup_complete = False
connection_desired = getattr(radio_manager, "connection_desired", True)
if not isinstance(connection_desired, bool):
connection_desired = True
is_reconnecting = getattr(radio_manager, "is_reconnecting", False)
if not isinstance(is_reconnecting, bool):
is_reconnecting = False
radio_initializing = bool(radio_connected and (setup_in_progress or not setup_complete))
if not connection_desired:
radio_state = "paused"
elif radio_initializing:
radio_state = "initializing"
elif radio_connected:
radio_state = "connected"
elif is_reconnecting:
radio_state = "connecting"
else:
radio_state = "disconnected"
return {
"status": "ok" if radio_connected and not radio_initializing else "degraded",
"status": "ok" if radio_connected else "degraded",
"radio_connected": radio_connected,
"radio_initializing": radio_initializing,
"radio_state": radio_state,
"connection_info": connection_info,
"serial_port": serial_port,
"database_size_mb": db_size_mb,
"oldest_undecrypted_timestamp": oldest_ts,
"fanout_statuses": fanout_statuses,
"bots_disabled": settings.disable_bots,
}
@router.get("/health", response_model=HealthResponse)
async def healthcheck() -> HealthResponse:
"""Check if the API is running and if the radio is connected."""
data = await build_health_data(radio_manager.is_connected, radio_manager.connection_info)
data = await build_health_data(radio_manager.is_connected, radio_manager.port)
return HealthResponse(**data)

View File

@@ -1,52 +1,19 @@
import asyncio
import logging
import time
from fastapi import APIRouter, HTTPException, Query
from meshcore import EventType
from app.dependencies import require_connected
from app.event_handlers import track_pending_ack
from app.models import (
Message,
MessagesAroundResponse,
ResendChannelMessageResponse,
SendChannelMessageRequest,
SendDirectMessageRequest,
)
from app.repository import AmbiguousPublicKeyPrefixError, AppSettingsRepository, MessageRepository
from app.services.message_send import (
resend_channel_message_record,
send_channel_message_to_channel,
send_direct_message_to_contact,
)
from app.services.radio_runtime import radio_runtime as radio_manager
from app.websocket import broadcast_error, broadcast_event
from app.models import Message, SendChannelMessageRequest, SendDirectMessageRequest
from app.repository import MessageRepository
logger = logging.getLogger(__name__)
router = APIRouter(prefix="/messages", tags=["messages"])
@router.get("/around/{message_id}", response_model=MessagesAroundResponse)
async def get_messages_around(
message_id: int,
type: str | None = Query(default=None, description="Filter by type: PRIV or CHAN"),
conversation_key: str | None = Query(default=None, description="Filter by conversation key"),
context: int = Query(default=100, ge=1, le=500, description="Number of messages before/after"),
) -> MessagesAroundResponse:
"""Get messages around a specific message for jump-to-message navigation."""
settings = await AppSettingsRepository.get()
blocked_keys = settings.blocked_keys or None
blocked_names = settings.blocked_names or None
messages, has_older, has_newer = await MessageRepository.get_around(
message_id=message_id,
msg_type=type,
conversation_key=conversation_key,
context_size=context,
blocked_keys=blocked_keys,
blocked_names=blocked_names,
)
return MessagesAroundResponse(messages=messages, has_older=has_older, has_newer=has_newer)
@router.get("", response_model=list[Message])
async def list_messages(
limit: int = Query(default=100, ge=1, le=1000),
@@ -59,18 +26,8 @@ async def list_messages(
default=None, description="Cursor: received_at of last seen message"
),
before_id: int | None = Query(default=None, description="Cursor: id of last seen message"),
after: int | None = Query(
default=None, description="Forward cursor: received_at of last seen message"
),
after_id: int | None = Query(
default=None, description="Forward cursor: id of last seen message"
),
q: str | None = Query(default=None, description="Full-text search query"),
) -> list[Message]:
"""List messages from the database."""
settings = await AppSettingsRepository.get()
blocked_keys = settings.blocked_keys or None
blocked_names = settings.blocked_names or None
return await MessageRepository.get_all(
limit=limit,
offset=offset,
@@ -78,67 +35,122 @@ async def list_messages(
conversation_key=conversation_key,
before=before,
before_id=before_id,
after=after,
after_id=after_id,
q=q,
blocked_keys=blocked_keys,
blocked_names=blocked_names,
)
@router.post("/direct", response_model=Message)
async def send_direct_message(request: SendDirectMessageRequest) -> Message:
"""Send a direct message to a contact."""
require_connected()
mc = require_connected()
# First check our database for the contact
from app.repository import ContactRepository
try:
db_contact = await ContactRepository.get_by_key_or_prefix(request.destination)
except AmbiguousPublicKeyPrefixError as err:
sample = ", ".join(key[:12] for key in err.matches[:2])
raise HTTPException(
status_code=409,
detail=(
f"Ambiguous destination key prefix '{err.prefix}'. "
f"Use a full 64-character public key. Matching contacts: {sample}"
),
) from err
db_contact = await ContactRepository.get_by_key_or_prefix(request.destination)
if not db_contact:
raise HTTPException(
status_code=404, detail=f"Contact not found in database: {request.destination}"
)
if len(db_contact.public_key) < 64:
raise HTTPException(
status_code=409,
detail="Cannot send to an unresolved prefix-only contact until a full key is known",
)
return await send_direct_message_to_contact(
contact=db_contact,
text=request.text,
radio_manager=radio_manager,
broadcast_fn=broadcast_event,
track_pending_ack_fn=track_pending_ack,
now_fn=time.time,
message_repository=MessageRepository,
contact_repository=ContactRepository,
# Always add/update the contact on radio before sending.
# The library cache (get_contact_by_key_prefix) can be stale after radio reboot,
# so we can't rely on it to know if the firmware has the contact.
# add_contact is idempotent - updates if exists, adds if not.
contact_data = db_contact.to_radio_dict()
logger.debug("Ensuring contact %s is on radio before sending", db_contact.public_key[:12])
add_result = await mc.commands.add_contact(contact_data)
if add_result.type == EventType.ERROR:
logger.warning("Failed to add contact to radio: %s", add_result.payload)
# Continue anyway - might still work if contact exists
# Get the contact from the library cache (may have updated info like path)
contact = mc.get_contact_by_key_prefix(db_contact.public_key[:12])
if not contact:
contact = contact_data
logger.info("Sending direct message to %s", db_contact.public_key[:12])
# Capture timestamp BEFORE sending so we can pass the same value to both the radio
# and the database. This ensures consistency for deduplication.
now = int(time.time())
result = await mc.commands.send_msg(
dst=contact,
msg=request.text,
timestamp=now,
)
if result.type == EventType.ERROR:
raise HTTPException(status_code=500, detail=f"Failed to send message: {result.payload}")
# Preferred first radio slot used for sending channel messages.
# The send service may reuse/load other app-managed slots depending on transport
# and session cache state.
# Store outgoing message
message_id = await MessageRepository.create(
msg_type="PRIV",
text=request.text,
conversation_key=db_contact.public_key.lower(),
sender_timestamp=now,
received_at=now,
outgoing=True,
)
if message_id is None:
raise HTTPException(
status_code=500,
detail="Failed to store outgoing message - unexpected duplicate",
)
# Update last_contacted for the contact
await ContactRepository.update_last_contacted(db_contact.public_key.lower(), now)
# Track the expected ACK for this message
expected_ack = result.payload.get("expected_ack")
suggested_timeout: int = result.payload.get("suggested_timeout", 10000) # default 10s
if expected_ack:
ack_code = expected_ack.hex() if isinstance(expected_ack, bytes) else expected_ack
track_pending_ack(ack_code, message_id, suggested_timeout)
logger.debug("Tracking ACK %s for message %d", ack_code, message_id)
message = Message(
id=message_id,
type="PRIV",
conversation_key=db_contact.public_key.lower(),
text=request.text,
sender_timestamp=now,
received_at=now,
outgoing=True,
acked=0,
)
# Trigger bots for outgoing DMs (runs in background, doesn't block response)
from app.bot import run_bot_for_message
asyncio.create_task(
run_bot_for_message(
sender_name=None,
sender_key=db_contact.public_key.lower(),
message_text=request.text,
is_dm=True,
channel_key=None,
channel_name=None,
sender_timestamp=now,
path=None,
is_outgoing=True,
)
)
return message
# Temporary radio slot used for sending channel messages
TEMP_RADIO_SLOT = 0
@router.post("/channel", response_model=Message)
async def send_channel_message(request: SendChannelMessageRequest) -> Message:
"""Send a message to a channel."""
require_connected()
mc = require_connected()
# Get channel info from our database
from app.decoder import calculate_channel_hash
from app.repository import ChannelRepository
db_channel = await ChannelRepository.get_by_key(request.channel_key)
@@ -155,75 +167,91 @@ async def send_channel_message(request: SendChannelMessageRequest) -> Message:
status_code=400, detail=f"Invalid channel key format: {request.channel_key}"
) from None
return await send_channel_message_to_channel(
channel=db_channel,
channel_key_upper=request.channel_key.upper(),
key_bytes=key_bytes,
text=request.text,
radio_manager=radio_manager,
broadcast_fn=broadcast_event,
error_broadcast_fn=broadcast_error,
now_fn=time.time,
temp_radio_slot=TEMP_RADIO_SLOT,
message_repository=MessageRepository,
expected_hash = calculate_channel_hash(key_bytes)
logger.info(
"Sending to channel %s (%s) via radio slot %d, key hash: %s",
request.channel_key,
db_channel.name,
TEMP_RADIO_SLOT,
expected_hash,
)
RESEND_WINDOW_SECONDS = 30
@router.post(
"/channel/{message_id}/resend",
response_model=ResendChannelMessageResponse,
response_model_exclude_none=True,
)
async def resend_channel_message(
message_id: int,
new_timestamp: bool = Query(default=False),
) -> ResendChannelMessageResponse:
"""Resend a channel message.
When new_timestamp=False (default): byte-perfect resend using the original timestamp.
Only allowed within 30 seconds of the original send.
When new_timestamp=True: resend with a fresh timestamp so repeaters treat it as a
new packet. Creates a new message row in the database. No time window restriction.
"""
require_connected()
from app.repository import ChannelRepository
msg = await MessageRepository.get_by_id(message_id)
if not msg:
raise HTTPException(status_code=404, detail="Message not found")
if not msg.outgoing:
raise HTTPException(status_code=400, detail="Can only resend outgoing messages")
if msg.type != "CHAN":
raise HTTPException(status_code=400, detail="Can only resend channel messages")
if msg.sender_timestamp is None:
raise HTTPException(status_code=400, detail="Message has no timestamp")
# Byte-perfect resend enforces the 30s window; new-timestamp resend does not
if not new_timestamp:
elapsed = int(time.time()) - msg.sender_timestamp
if elapsed > RESEND_WINDOW_SECONDS:
raise HTTPException(status_code=400, detail="Resend window has expired (30 seconds)")
db_channel = await ChannelRepository.get_by_key(msg.conversation_key)
if not db_channel:
raise HTTPException(status_code=404, detail=f"Channel {msg.conversation_key} not found")
return await resend_channel_message_record(
message=msg,
channel=db_channel,
new_timestamp=new_timestamp,
radio_manager=radio_manager,
broadcast_fn=broadcast_event,
error_broadcast_fn=broadcast_error,
now_fn=time.time,
temp_radio_slot=TEMP_RADIO_SLOT,
message_repository=MessageRepository,
# Load the channel to a temporary radio slot before sending
set_result = await mc.commands.set_channel(
channel_idx=TEMP_RADIO_SLOT,
channel_name=db_channel.name,
channel_secret=key_bytes,
)
if set_result.type == EventType.ERROR:
logger.warning(
"Failed to set channel on radio slot %d before sending: %s",
TEMP_RADIO_SLOT,
set_result.payload,
)
# Continue anyway - the channel might already be correctly configured
logger.info("Sending channel message to %s: %s", db_channel.name, request.text[:50])
# Capture timestamp BEFORE sending so we can pass the same value to both the radio
# and the database. This ensures the echo's timestamp matches our stored message
# for proper deduplication.
now = int(time.time())
result = await mc.commands.send_chan_msg(
chan=TEMP_RADIO_SLOT,
msg=request.text,
timestamp=now.to_bytes(4, "little"), # Pass as bytes for compatibility
)
if result.type == EventType.ERROR:
raise HTTPException(status_code=500, detail=f"Failed to send message: {result.payload}")
# Store outgoing message with sender prefix (to match echo format)
# The radio includes "SenderName: " prefix when broadcasting, so we store it the same way
# to enable proper deduplication when the echo comes back
channel_key_upper = request.channel_key.upper()
radio_name = mc.self_info.get("name", "") if mc.self_info else ""
text_with_sender = f"{radio_name}: {request.text}" if radio_name else request.text
message_id = await MessageRepository.create(
msg_type="CHAN",
text=text_with_sender,
conversation_key=channel_key_upper,
sender_timestamp=now,
received_at=now,
outgoing=True,
)
if message_id is None:
raise HTTPException(
status_code=500,
detail="Failed to store outgoing message - unexpected duplicate",
)
message = Message(
id=message_id,
type="CHAN",
conversation_key=channel_key_upper,
text=text_with_sender,
sender_timestamp=now,
received_at=now,
outgoing=True,
acked=0,
)
# Trigger bots for outgoing channel messages (runs in background, doesn't block response)
from app.bot import run_bot_for_message
asyncio.create_task(
run_bot_for_message(
sender_name=radio_name or None,
sender_key=None,
message_text=request.text,
is_dm=False,
channel_key=channel_key_upper,
channel_name=db_channel.name,
sender_timestamp=now,
path=None,
is_outgoing=True,
)
)
return message

View File

@@ -1,8 +1,6 @@
import logging
from hashlib import sha256
from sqlite3 import OperationalError
import aiosqlite
from fastapi import APIRouter, BackgroundTasks
from pydantic import BaseModel, Field
@@ -71,8 +69,7 @@ async def _run_historical_channel_decryption(
timestamp=result.timestamp,
received_at=packet_timestamp,
path=path_hex,
path_len=packet_info.path_length if packet_info else None,
realtime=False, # Historical decryption should not trigger fanout
trigger_bot=False, # Historical decryption should not trigger bot
)
if msg_id is not None:
@@ -213,7 +210,7 @@ async def decrypt_historical_packets(
# Try to find contact name for display
from app.repository import ContactRepository
contact = await ContactRepository.get_by_key(contact_public_key_hex)
contact = await ContactRepository.get_by_key_or_prefix(contact_public_key_hex)
display_name = contact.name if contact else None
background_tasks.add_task(
@@ -238,12 +235,8 @@ async def decrypt_historical_packets(
class MaintenanceRequest(BaseModel):
prune_undecrypted_days: int | None = Field(
default=None, ge=1, description="Delete undecrypted packets older than this many days"
)
purge_linked_raw_packets: bool = Field(
default=False,
description="Delete raw packets already linked to a stored message",
prune_undecrypted_days: int = Field(
ge=1, description="Delete undecrypted packets older than this many days"
)
@@ -255,44 +248,21 @@ class MaintenanceResult(BaseModel):
@router.post("/maintenance", response_model=MaintenanceResult)
async def run_maintenance(request: MaintenanceRequest) -> MaintenanceResult:
"""
Run packet maintenance tasks and reclaim disk space.
Clean up old undecrypted packets and reclaim disk space.
- Optionally deletes undecrypted packets older than the specified number of days
- Optionally deletes raw packets already linked to stored messages
- Deletes undecrypted packets older than the specified number of days
- Runs VACUUM to reclaim disk space
"""
deleted = 0
logger.info(
"Running maintenance: pruning packets older than %d days", request.prune_undecrypted_days
)
if request.prune_undecrypted_days is not None:
logger.info(
"Running maintenance: pruning undecrypted packets older than %d days",
request.prune_undecrypted_days,
)
pruned_undecrypted = await RawPacketRepository.prune_old_undecrypted(
request.prune_undecrypted_days
)
deleted += pruned_undecrypted
logger.info("Deleted %d old undecrypted packets", pruned_undecrypted)
# Prune old undecrypted packets
deleted = await RawPacketRepository.prune_old_undecrypted(request.prune_undecrypted_days)
logger.info("Deleted %d old undecrypted packets", deleted)
if request.purge_linked_raw_packets:
logger.info("Running maintenance: purging raw packets linked to stored messages")
purged_linked = await RawPacketRepository.purge_linked_to_messages()
deleted += purged_linked
logger.info("Deleted %d linked raw packets", purged_linked)
# Run VACUUM to reclaim space (must be outside transaction, use executescript)
await db.conn.executescript("VACUUM;")
logger.info("Database vacuumed")
# Run VACUUM to reclaim space on a dedicated connection.
# VACUUM requires exclusive access — if the main connection is actively
# writing (background sync, message processing, etc.) it fails with
# SQLITE_BUSY. This is expected; we just report vacuumed=False.
vacuumed = False
try:
async with aiosqlite.connect(db.db_path) as vacuum_conn:
await vacuum_conn.executescript("VACUUM;")
vacuumed = True
logger.info("Database vacuumed")
except OperationalError as e:
logger.warning("VACUUM skipped (database busy): %s", e)
except Exception as e:
logger.error("VACUUM failed unexpectedly: %s", e)
return MaintenanceResult(packets_deleted=deleted, vacuumed=vacuumed)
return MaintenanceResult(packets_deleted=deleted, vacuumed=True)

View File

@@ -1,59 +1,16 @@
import asyncio
import logging
import random
import time
from typing import Literal, TypeAlias
from fastapi import APIRouter, HTTPException
from meshcore import EventType
from pydantic import BaseModel, Field
from app.dependencies import require_connected
from app.models import (
ContactUpsert,
RadioDiscoveryRequest,
RadioDiscoveryResponse,
RadioDiscoveryResult,
)
from app.radio_sync import send_advertisement as do_send_advertisement
from app.radio_sync import sync_radio_time
from app.repository import ContactRepository
from app.services.radio_commands import (
KeystoreRefreshError,
PathHashModeUnsupportedError,
RadioCommandRejectedError,
apply_radio_config_update,
import_private_key_and_refresh_keystore,
)
from app.services.radio_runtime import radio_runtime as radio_manager
from app.websocket import broadcast_event, broadcast_health
logger = logging.getLogger(__name__)
router = APIRouter(prefix="/radio", tags=["radio"])
AdvertLocationSource = Literal["off", "current"]
DiscoveryNodeType: TypeAlias = Literal["repeater", "sensor"]
DISCOVERY_WINDOW_SECONDS = 8.0
_DISCOVERY_TARGET_BITS = {
"repeaters": 1 << 2,
"sensors": 1 << 4,
"all": (1 << 2) | (1 << 4),
}
_DISCOVERY_NODE_TYPES: dict[int, DiscoveryNodeType] = {
2: "repeater",
4: "sensor",
}
async def _prepare_connected(*, broadcast_on_success: bool) -> bool:
return await radio_manager.prepare_connected(broadcast_on_success=broadcast_on_success)
async def _reconnect_and_prepare(*, broadcast_on_success: bool) -> bool:
return await radio_manager.reconnect_and_prepare(
broadcast_on_success=broadcast_on_success,
)
class RadioSettings(BaseModel):
freq: float = Field(description="Frequency in MHz")
@@ -70,16 +27,6 @@ class RadioConfigResponse(BaseModel):
tx_power: int = Field(description="Transmit power in dBm")
max_tx_power: int = Field(description="Maximum transmit power in dBm")
radio: RadioSettings
path_hash_mode: int = Field(
default=0, description="Path hash mode (0=1-byte, 1=2-byte, 2=3-byte)"
)
path_hash_mode_supported: bool = Field(
default=False, description="Whether firmware supports path hash mode setting"
)
advert_location_source: AdvertLocationSource = Field(
default="current",
description="Whether adverts include the node's current location state",
)
class RadioConfigUpdate(BaseModel):
@@ -88,104 +35,12 @@ class RadioConfigUpdate(BaseModel):
lon: float | None = None
tx_power: int | None = Field(default=None, description="Transmit power in dBm")
radio: RadioSettings | None = None
path_hash_mode: int | None = Field(
default=None,
ge=0,
le=2,
description="Path hash mode (0=1-byte, 1=2-byte, 2=3-byte)",
)
advert_location_source: AdvertLocationSource | None = Field(
default=None,
description="Whether adverts include the node's current location state",
)
class PrivateKeyUpdate(BaseModel):
private_key: str = Field(description="Private key as hex string")
def _monotonic() -> float:
return time.monotonic()
def _better_signal(first: float | None, second: float | None) -> float | None:
if first is None:
return second
if second is None:
return first
return second if second > first else first
def _coerce_float(value: object) -> float | None:
if isinstance(value, (int, float)):
return float(value)
return None
def _coerce_int(value: object) -> int | None:
if isinstance(value, int):
return value
return None
def _merge_discovery_result(
existing: RadioDiscoveryResult | None, event_payload: dict[str, object]
) -> RadioDiscoveryResult | None:
public_key = event_payload.get("pubkey")
node_type_code = event_payload.get("node_type")
if not isinstance(public_key, str) or not public_key:
return existing
if not isinstance(node_type_code, int):
return existing
node_type = _DISCOVERY_NODE_TYPES.get(node_type_code)
if node_type is None:
return existing
if existing is None:
return RadioDiscoveryResult(
public_key=public_key,
node_type=node_type,
heard_count=1,
local_snr=_coerce_float(event_payload.get("SNR")),
local_rssi=_coerce_int(event_payload.get("RSSI")),
remote_snr=_coerce_float(event_payload.get("SNR_in")),
)
existing.heard_count += 1
existing.local_snr = _better_signal(existing.local_snr, _coerce_float(event_payload.get("SNR")))
current_rssi = _coerce_int(event_payload.get("RSSI"))
if existing.local_rssi is None or (
current_rssi is not None and current_rssi > existing.local_rssi
):
existing.local_rssi = current_rssi
existing.remote_snr = _better_signal(
existing.remote_snr,
_coerce_float(event_payload.get("SNR_in")),
)
return existing
async def _persist_new_discovery_contacts(results: list[RadioDiscoveryResult]) -> None:
now = int(time.time())
for result in results:
existing = await ContactRepository.get_by_key(result.public_key)
if existing is not None:
continue
contact = ContactUpsert(
public_key=result.public_key,
type=2 if result.node_type == "repeater" else 4,
last_seen=now,
first_seen=now,
on_radio=False,
)
await ContactRepository.upsert(contact)
created = await ContactRepository.get_by_key(result.public_key)
if created is not None:
broadcast_event("contact", created.model_dump())
@router.get("/config", response_model=RadioConfigResponse)
async def get_radio_config() -> RadioConfigResponse:
"""Get the current radio configuration."""
@@ -195,9 +50,6 @@ async def get_radio_config() -> RadioConfigResponse:
if not info:
raise HTTPException(status_code=503, detail="Radio info not available")
adv_loc_policy = info.get("adv_loc_policy", 1)
advert_location_source: AdvertLocationSource = "off" if adv_loc_policy == 0 else "current"
return RadioConfigResponse(
public_key=info.get("public_key", ""),
name=info.get("name", ""),
@@ -211,30 +63,51 @@ async def get_radio_config() -> RadioConfigResponse:
sf=info.get("radio_sf", 0),
cr=info.get("radio_cr", 0),
),
path_hash_mode=radio_manager.path_hash_mode,
path_hash_mode_supported=radio_manager.path_hash_mode_supported,
advert_location_source=advert_location_source,
)
@router.patch("/config", response_model=RadioConfigResponse)
async def update_radio_config(update: RadioConfigUpdate) -> RadioConfigResponse:
"""Update radio configuration. Only provided fields will be updated."""
require_connected()
mc = require_connected()
async with radio_manager.radio_operation("update_radio_config") as mc:
try:
await apply_radio_config_update(
mc,
update,
path_hash_mode_supported=radio_manager.path_hash_mode_supported,
set_path_hash_mode=lambda mode: setattr(radio_manager, "path_hash_mode", mode),
sync_radio_time_fn=sync_radio_time,
)
except PathHashModeUnsupportedError as exc:
raise HTTPException(status_code=400, detail=str(exc)) from exc
except RadioCommandRejectedError as exc:
raise HTTPException(status_code=500, detail=str(exc)) from exc
if update.name is not None:
logger.info("Setting radio name to %s", update.name)
await mc.commands.set_name(update.name)
if update.lat is not None or update.lon is not None:
current_info = mc.self_info
lat = update.lat if update.lat is not None else current_info.get("adv_lat", 0.0)
lon = update.lon if update.lon is not None else current_info.get("adv_lon", 0.0)
logger.info("Setting radio coordinates to %f, %f", lat, lon)
await mc.commands.set_coords(lat=lat, lon=lon)
if update.tx_power is not None:
logger.info("Setting TX power to %d dBm", update.tx_power)
await mc.commands.set_tx_power(val=update.tx_power)
if update.radio is not None:
logger.info(
"Setting radio params: freq=%f MHz, bw=%f kHz, sf=%d, cr=%d",
update.radio.freq,
update.radio.bw,
update.radio.sf,
update.radio.cr,
)
await mc.commands.set_radio(
freq=update.radio.freq,
bw=update.radio.bw,
sf=update.radio.sf,
cr=update.radio.cr,
)
# Sync time with system clock
await sync_radio_time()
# Re-fetch self_info so the response reflects the changes we just made.
# Commands like set_name() write to flash but don't update the cached
# self_info — send_appstart() triggers a fresh SELF_INFO from the radio.
await mc.commands.send_appstart()
return await get_radio_config()
@@ -242,7 +115,7 @@ async def update_radio_config(update: RadioConfigUpdate) -> RadioConfigResponse:
@router.put("/private-key")
async def set_private_key(update: PrivateKeyUpdate) -> dict:
"""Set the radio's private key. This is write-only."""
require_connected()
mc = require_connected()
try:
key_bytes = bytes.fromhex(update.private_key)
@@ -250,17 +123,12 @@ async def set_private_key(update: PrivateKeyUpdate) -> dict:
raise HTTPException(status_code=400, detail="Invalid hex string for private key") from None
logger.info("Importing private key")
async with radio_manager.radio_operation("import_private_key") as mc:
from app.keystore import export_and_store_private_key
result = await mc.commands.import_private_key(key_bytes)
try:
await import_private_key_and_refresh_keystore(
mc,
key_bytes,
export_and_store_private_key_fn=export_and_store_private_key,
)
except (RadioCommandRejectedError, KeystoreRefreshError) as exc:
raise HTTPException(status_code=500, detail=str(exc)) from exc
if result.type == EventType.ERROR:
raise HTTPException(
status_code=500, detail=f"Failed to import private key: {result.payload}"
)
return {"status": "ok"}
@@ -279,8 +147,7 @@ async def send_advertisement() -> dict:
require_connected()
logger.info("Sending flood advertisement")
async with radio_manager.radio_operation("manual_advertisement") as mc:
success = await do_send_advertisement(mc, force=True)
success = await do_send_advertisement(force=True)
if not success:
raise HTTPException(status_code=500, detail="Failed to send advertisement")
@@ -288,114 +155,6 @@ async def send_advertisement() -> dict:
return {"status": "ok"}
@router.post("/discover", response_model=RadioDiscoveryResponse)
async def discover_mesh(request: RadioDiscoveryRequest) -> RadioDiscoveryResponse:
"""Run a short node-discovery sweep from the local radio."""
require_connected()
target_bits = _DISCOVERY_TARGET_BITS[request.target]
tag = random.randint(1, 0xFFFFFFFF)
tag_hex = tag.to_bytes(4, "little", signed=False).hex()
events: asyncio.Queue = asyncio.Queue()
async with radio_manager.radio_operation(
"discover_mesh",
pause_polling=True,
suspend_auto_fetch=True,
) as mc:
subscription = mc.subscribe(
EventType.DISCOVER_RESPONSE,
lambda event: events.put_nowait(event),
{"tag": tag_hex},
)
try:
send_result = await mc.commands.send_node_discover_req(
target_bits,
prefix_only=False,
tag=tag,
)
if send_result is None or send_result.type == EventType.ERROR:
raise HTTPException(status_code=500, detail="Failed to start mesh discovery")
deadline = _monotonic() + DISCOVERY_WINDOW_SECONDS
results_by_key: dict[str, RadioDiscoveryResult] = {}
while True:
remaining = deadline - _monotonic()
if remaining <= 0:
break
try:
event = await asyncio.wait_for(events.get(), timeout=remaining)
except asyncio.TimeoutError:
break
merged = _merge_discovery_result(
results_by_key.get(event.payload.get("pubkey")),
event.payload,
)
if merged is not None:
results_by_key[merged.public_key] = merged
finally:
subscription.unsubscribe()
results = sorted(
results_by_key.values(),
key=lambda item: (
item.node_type,
-(item.local_snr if item.local_snr is not None else -999.0),
item.public_key,
),
)
await _persist_new_discovery_contacts(results)
return RadioDiscoveryResponse(
target=request.target,
duration_seconds=DISCOVERY_WINDOW_SECONDS,
results=results,
)
async def _attempt_reconnect() -> dict:
"""Shared reconnection logic for reboot and reconnect endpoints."""
radio_manager.resume_connection()
if radio_manager.is_reconnecting:
return {
"status": "pending",
"message": "Reconnection already in progress",
"connected": False,
}
try:
success = await _reconnect_and_prepare(broadcast_on_success=True)
except Exception as e:
logger.exception("Post-connect setup failed after reconnect")
raise HTTPException(
status_code=503,
detail=f"Radio connected but setup failed: {e}",
) from e
if not success:
raise HTTPException(
status_code=503, detail="Failed to reconnect. Check radio connection and power."
)
return {"status": "ok", "message": "Reconnected successfully", "connected": True}
@router.post("/disconnect")
async def disconnect_radio() -> dict:
"""Disconnect from the radio and pause automatic reconnect attempts."""
logger.info("Manual radio disconnect requested")
await radio_manager.pause_connection()
broadcast_health(False, radio_manager.connection_info)
return {
"status": "ok",
"message": "Disconnected. Automatic reconnect is paused.",
"connected": False,
"paused": True,
}
@router.post("/reboot")
async def reboot_radio() -> dict:
"""Reboot the radio, or reconnect if not currently connected.
@@ -403,17 +162,36 @@ async def reboot_radio() -> dict:
If connected: sends reboot command, connection will temporarily drop and auto-reconnect.
If not connected: attempts to reconnect (same as /reconnect endpoint).
"""
if radio_manager.is_connected:
from app.radio import radio_manager
# If connected, send reboot command
if radio_manager.is_connected and radio_manager.meshcore:
logger.info("Rebooting radio")
async with radio_manager.radio_operation("reboot_radio") as mc:
await mc.commands.reboot()
await radio_manager.meshcore.commands.reboot()
return {
"status": "ok",
"message": "Reboot command sent. Radio will reconnect automatically.",
}
# Not connected - attempt to reconnect
if radio_manager.is_reconnecting:
return {
"status": "pending",
"message": "Reconnection already in progress",
"connected": False,
}
logger.info("Radio not connected, attempting reconnect")
return await _attempt_reconnect()
success = await radio_manager.reconnect()
if success:
await radio_manager.post_connect_setup()
return {"status": "ok", "message": "Reconnected successfully", "connected": True}
else:
raise HTTPException(
status_code=503, detail="Failed to reconnect. Check radio connection and power."
)
@router.post("/reconnect")
@@ -424,23 +202,26 @@ async def reconnect_radio() -> dict:
if no specific port is configured. Useful when the radio has been disconnected
or power-cycled.
"""
if radio_manager.is_connected:
if radio_manager.is_setup_complete:
return {"status": "ok", "message": "Already connected", "connected": True}
from app.radio import radio_manager
logger.info("Radio connected but setup incomplete, retrying setup")
try:
if not await _prepare_connected(broadcast_on_success=True):
raise HTTPException(status_code=503, detail="Radio connection is paused")
return {"status": "ok", "message": "Setup completed", "connected": True}
except HTTPException:
raise
except Exception as e:
logger.exception("Post-connect setup failed")
raise HTTPException(
status_code=503,
detail=f"Radio connected but setup failed: {e}",
) from e
if radio_manager.is_connected:
return {"status": "ok", "message": "Already connected", "connected": True}
if radio_manager.is_reconnecting:
return {
"status": "pending",
"message": "Reconnection already in progress",
"connected": False,
}
logger.info("Manual reconnect requested")
return await _attempt_reconnect()
success = await radio_manager.reconnect()
if success:
await radio_manager.post_connect_setup()
return {"status": "ok", "message": "Reconnected successfully", "connected": True}
else:
raise HTTPException(
status_code=503, detail="Failed to reconnect. Check radio connection and power."
)

View File

@@ -3,40 +3,26 @@
import logging
import time
from fastapi import APIRouter
from fastapi import APIRouter, Query
from app.database import db
from app.models import UnreadCounts
from app.repository import (
AppSettingsRepository,
ChannelRepository,
ContactRepository,
MessageRepository,
)
from app.services.radio_runtime import radio_runtime as radio_manager
from app.repository import ChannelRepository, ContactRepository, MessageRepository
logger = logging.getLogger(__name__)
router = APIRouter(prefix="/read-state", tags=["read-state"])
@router.get("/unreads", response_model=UnreadCounts)
async def get_unreads() -> UnreadCounts:
async def get_unreads(
name: str | None = Query(default=None, description="User's name for @mention detection"),
) -> UnreadCounts:
"""Get unread counts, mention flags, and last message times for all conversations.
Computes unread counts server-side using last_read_at timestamps on
channels and contacts, avoiding the need to fetch bulk messages.
The radio's own name is sourced directly from the connected radio
for @mention detection.
"""
name: str | None = None
mc = radio_manager.meshcore
if mc and mc.self_info:
name = mc.self_info.get("name") or None
settings = await AppSettingsRepository.get()
blocked_keys = settings.blocked_keys or None
blocked_names = settings.blocked_names or None
data = await MessageRepository.get_unread_counts(
name, blocked_keys=blocked_keys, blocked_names=blocked_names
)
data = await MessageRepository.get_unread_counts(name)
return UnreadCounts(**data)
@@ -45,12 +31,13 @@ async def mark_all_read() -> dict:
"""Mark all contacts and channels as read.
Updates last_read_at to current timestamp for all contacts and channels
using two repository updates (same timestamp value across both tables).
in a single database transaction.
"""
now = int(time.time())
await ContactRepository.mark_all_read(now)
await ChannelRepository.mark_all_read(now)
await db.conn.commit()
logger.info("Marked all contacts and channels as read at %d", now)
return {"status": "ok", "timestamp": now}

View File

@@ -1,527 +0,0 @@
import asyncio
import logging
import time
from typing import TYPE_CHECKING
from fastapi import APIRouter, HTTPException
from meshcore import EventType
from app.dependencies import require_connected
from app.models import (
CONTACT_TYPE_REPEATER,
AclEntry,
CommandRequest,
CommandResponse,
Contact,
LppSensor,
NeighborInfo,
RepeaterAclResponse,
RepeaterAdvertIntervalsResponse,
RepeaterLoginRequest,
RepeaterLoginResponse,
RepeaterLppTelemetryResponse,
RepeaterNeighborsResponse,
RepeaterNodeInfoResponse,
RepeaterOwnerInfoResponse,
RepeaterRadioSettingsResponse,
RepeaterStatusResponse,
)
from app.repository import ContactRepository
from app.routers.contacts import _ensure_on_radio, _resolve_contact_or_404
from app.services.radio_runtime import radio_runtime as radio_manager
if TYPE_CHECKING:
from meshcore.events import Event
logger = logging.getLogger(__name__)
# ACL permission level names
ACL_PERMISSION_NAMES = {
0: "Guest",
1: "Read-only",
2: "Read-write",
3: "Admin",
}
router = APIRouter(prefix="/contacts", tags=["repeaters"])
# Delay between repeater radio operations to allow key exchange and path establishment
REPEATER_OP_DELAY_SECONDS = 2.0
def _monotonic() -> float:
"""Wrapper around time.monotonic() for testability.
Patching time.monotonic directly breaks the asyncio event loop which also
uses it. This indirection allows tests to control the clock safely.
"""
return time.monotonic()
def _extract_response_text(event) -> str:
"""Extract text from a CLI response event, stripping the firmware '> ' prefix."""
text = event.payload.get("text", str(event.payload))
if text.startswith("> "):
text = text[2:]
return text
async def _fetch_repeater_response(
mc,
target_pubkey_prefix: str,
timeout: float = 20.0,
) -> "Event | None":
"""Fetch a CLI response from a specific repeater via a validated get_msg() loop.
Calls get_msg() repeatedly until a matching CLI response (txt_type=1) from the
target repeater arrives or the wall-clock deadline expires. Unrelated messages
are safe to skip — meshcore's event dispatcher already delivers them to the
normal subscription handlers (on_contact_message, etc.) when get_msg() returns.
Args:
mc: MeshCore instance
target_pubkey_prefix: 12-char hex prefix of the repeater's public key
timeout: Wall-clock seconds before giving up
Returns:
The matching Event, or None if no response arrived before the deadline.
"""
deadline = _monotonic() + timeout
while _monotonic() < deadline:
try:
result = await mc.commands.get_msg(timeout=2.0)
except asyncio.TimeoutError:
continue
except Exception as e:
logger.debug("get_msg() exception: %s", e)
await asyncio.sleep(1.0)
continue
if result.type == EventType.NO_MORE_MSGS:
# No messages queued yet — wait and retry
await asyncio.sleep(1.0)
continue
if result.type == EventType.ERROR:
logger.debug("get_msg() error: %s", result.payload)
await asyncio.sleep(1.0)
continue
if result.type == EventType.CONTACT_MSG_RECV:
msg_prefix = result.payload.get("pubkey_prefix", "")
txt_type = result.payload.get("txt_type", 0)
if msg_prefix == target_pubkey_prefix and txt_type == 1:
return result
# Not our target — already dispatched to subscribers by meshcore,
# so just continue draining the queue.
logger.debug(
"Skipping non-target message (from=%s, txt_type=%d) while waiting for %s",
msg_prefix,
txt_type,
target_pubkey_prefix,
)
continue
if result.type == EventType.CHANNEL_MSG_RECV:
# Already dispatched to subscribers by meshcore; skip.
logger.debug(
"Skipping channel message (channel_idx=%s) during repeater fetch",
result.payload.get("channel_idx"),
)
continue
logger.debug("Unexpected event type %s during repeater fetch, skipping", result.type)
logger.warning("No CLI response from repeater %s within %.1fs", target_pubkey_prefix, timeout)
return None
async def prepare_repeater_connection(mc, contact: Contact, password: str) -> None:
"""Prepare connection to a repeater by adding to radio and logging in.
Args:
mc: MeshCore instance
contact: The repeater contact
password: Password for login (empty string for no password)
Raises:
HTTPException: If login fails
"""
# Add contact to radio with path from DB (non-fatal — contact may already be loaded)
logger.info("Adding repeater %s to radio", contact.public_key[:12])
await _ensure_on_radio(mc, contact)
# Send login with password
logger.info("Sending login to repeater %s", contact.public_key[:12])
login_result = await mc.commands.send_login(contact.public_key, password)
if login_result.type == EventType.ERROR:
raise HTTPException(status_code=401, detail=f"Login failed: {login_result.payload}")
# Wait for key exchange to complete before sending requests
logger.debug("Waiting %.1fs for key exchange to complete", REPEATER_OP_DELAY_SECONDS)
await asyncio.sleep(REPEATER_OP_DELAY_SECONDS)
def _require_repeater(contact: Contact) -> None:
"""Raise 400 if contact is not a repeater."""
if contact.type != CONTACT_TYPE_REPEATER:
raise HTTPException(
status_code=400,
detail=f"Contact is not a repeater (type={contact.type}, expected {CONTACT_TYPE_REPEATER})",
)
# ---------------------------------------------------------------------------
# Granular repeater endpoints — one attempt, no server-side retries.
# Frontend manages retry logic for better UX control.
# ---------------------------------------------------------------------------
@router.post("/{public_key}/repeater/login", response_model=RepeaterLoginResponse)
async def repeater_login(public_key: str, request: RepeaterLoginRequest) -> RepeaterLoginResponse:
"""Log in to a repeater. Adds contact to radio, sends login, waits for key exchange."""
require_connected()
contact = await _resolve_contact_or_404(public_key)
_require_repeater(contact)
async with radio_manager.radio_operation(
"repeater_login",
pause_polling=True,
suspend_auto_fetch=True,
) as mc:
await prepare_repeater_connection(mc, contact, request.password)
return RepeaterLoginResponse(status="ok")
@router.post("/{public_key}/repeater/status", response_model=RepeaterStatusResponse)
async def repeater_status(public_key: str) -> RepeaterStatusResponse:
"""Fetch status telemetry from a repeater (single attempt, 10s timeout)."""
require_connected()
contact = await _resolve_contact_or_404(public_key)
_require_repeater(contact)
async with radio_manager.radio_operation(
"repeater_status", pause_polling=True, suspend_auto_fetch=True
) as mc:
# Ensure contact is on radio for routing
await _ensure_on_radio(mc, contact)
status = await mc.commands.req_status_sync(contact.public_key, timeout=10, min_timeout=5)
if status is None:
raise HTTPException(status_code=504, detail="No status response from repeater")
return RepeaterStatusResponse(
battery_volts=status.get("bat", 0) / 1000.0,
tx_queue_len=status.get("tx_queue_len", 0),
noise_floor_dbm=status.get("noise_floor", 0),
last_rssi_dbm=status.get("last_rssi", 0),
last_snr_db=status.get("last_snr", 0.0),
packets_received=status.get("nb_recv", 0),
packets_sent=status.get("nb_sent", 0),
airtime_seconds=status.get("airtime", 0),
rx_airtime_seconds=status.get("rx_airtime", 0),
uptime_seconds=status.get("uptime", 0),
sent_flood=status.get("sent_flood", 0),
sent_direct=status.get("sent_direct", 0),
recv_flood=status.get("recv_flood", 0),
recv_direct=status.get("recv_direct", 0),
flood_dups=status.get("flood_dups", 0),
direct_dups=status.get("direct_dups", 0),
full_events=status.get("full_evts", 0),
)
@router.post("/{public_key}/repeater/lpp-telemetry", response_model=RepeaterLppTelemetryResponse)
async def repeater_lpp_telemetry(public_key: str) -> RepeaterLppTelemetryResponse:
"""Fetch CayenneLPP sensor telemetry from a repeater (single attempt, 10s timeout)."""
require_connected()
contact = await _resolve_contact_or_404(public_key)
_require_repeater(contact)
async with radio_manager.radio_operation(
"repeater_lpp_telemetry", pause_polling=True, suspend_auto_fetch=True
) as mc:
await _ensure_on_radio(mc, contact)
telemetry = await mc.commands.req_telemetry_sync(
contact.public_key, timeout=10, min_timeout=5
)
if telemetry is None:
raise HTTPException(status_code=504, detail="No telemetry response from repeater")
sensors: list[LppSensor] = []
for entry in telemetry:
channel = entry.get("channel", 0)
type_name = str(entry.get("type", "unknown"))
value = entry.get("value", 0)
sensors.append(LppSensor(channel=channel, type_name=type_name, value=value))
return RepeaterLppTelemetryResponse(sensors=sensors)
@router.post("/{public_key}/repeater/neighbors", response_model=RepeaterNeighborsResponse)
async def repeater_neighbors(public_key: str) -> RepeaterNeighborsResponse:
"""Fetch neighbors from a repeater (single attempt, 10s timeout)."""
require_connected()
contact = await _resolve_contact_or_404(public_key)
_require_repeater(contact)
async with radio_manager.radio_operation(
"repeater_neighbors", pause_polling=True, suspend_auto_fetch=True
) as mc:
# Ensure contact is on radio for routing
await _ensure_on_radio(mc, contact)
neighbors_data = await mc.commands.fetch_all_neighbours(
contact.public_key, timeout=10, min_timeout=5
)
neighbors: list[NeighborInfo] = []
if neighbors_data and "neighbours" in neighbors_data:
for n in neighbors_data["neighbours"]:
pubkey_prefix = n.get("pubkey", "")
resolved_contact = await ContactRepository.get_by_key_prefix(pubkey_prefix)
neighbors.append(
NeighborInfo(
pubkey_prefix=pubkey_prefix,
name=resolved_contact.name if resolved_contact else None,
snr=n.get("snr", 0.0),
last_heard_seconds=n.get("secs_ago", 0),
)
)
return RepeaterNeighborsResponse(neighbors=neighbors)
@router.post("/{public_key}/repeater/acl", response_model=RepeaterAclResponse)
async def repeater_acl(public_key: str) -> RepeaterAclResponse:
"""Fetch ACL from a repeater (single attempt, 10s timeout)."""
require_connected()
contact = await _resolve_contact_or_404(public_key)
_require_repeater(contact)
async with radio_manager.radio_operation(
"repeater_acl", pause_polling=True, suspend_auto_fetch=True
) as mc:
# Ensure contact is on radio for routing
await _ensure_on_radio(mc, contact)
acl_data = await mc.commands.req_acl_sync(contact.public_key, timeout=10, min_timeout=5)
acl_entries: list[AclEntry] = []
if acl_data and isinstance(acl_data, list):
for entry in acl_data:
pubkey_prefix = entry.get("key", "")
perm = entry.get("perm", 0)
resolved_contact = await ContactRepository.get_by_key_prefix(pubkey_prefix)
acl_entries.append(
AclEntry(
pubkey_prefix=pubkey_prefix,
name=resolved_contact.name if resolved_contact else None,
permission=perm,
permission_name=ACL_PERMISSION_NAMES.get(perm, f"Unknown({perm})"),
)
)
return RepeaterAclResponse(acl=acl_entries)
async def _batch_cli_fetch(
contact: Contact,
operation_name: str,
commands: list[tuple[str, str]],
) -> dict[str, str | None]:
"""Send a batch of CLI commands to a repeater and collect responses.
Opens a radio operation with polling paused and auto-fetch suspended (since
we call get_msg() directly via _fetch_repeater_response), adds the contact
to the radio for routing, then sends each command sequentially with a 1-second
gap between them.
Returns a dict mapping field names to response strings (or None on timeout).
"""
results: dict[str, str | None] = {field: None for _, field in commands}
async with radio_manager.radio_operation(
operation_name,
pause_polling=True,
suspend_auto_fetch=True,
) as mc:
await _ensure_on_radio(mc, contact)
await asyncio.sleep(1.0)
for i, (cmd, field) in enumerate(commands):
if i > 0:
await asyncio.sleep(1.0)
send_result = await mc.commands.send_cmd(contact.public_key, cmd)
if send_result.type == EventType.ERROR:
logger.debug("Command '%s' send error: %s", cmd, send_result.payload)
continue
response_event = await _fetch_repeater_response(
mc, contact.public_key[:12], timeout=10.0
)
if response_event is not None:
results[field] = _extract_response_text(response_event)
else:
logger.warning("No response for command '%s' (%s)", cmd, field)
return results
@router.post("/{public_key}/repeater/node-info", response_model=RepeaterNodeInfoResponse)
async def repeater_node_info(public_key: str) -> RepeaterNodeInfoResponse:
"""Fetch repeater identity/location info via a small CLI batch."""
require_connected()
contact = await _resolve_contact_or_404(public_key)
_require_repeater(contact)
results = await _batch_cli_fetch(
contact,
"repeater_node_info",
[
("get name", "name"),
("get lat", "lat"),
("get lon", "lon"),
("clock", "clock_utc"),
],
)
return RepeaterNodeInfoResponse(**results)
@router.post("/{public_key}/repeater/radio-settings", response_model=RepeaterRadioSettingsResponse)
async def repeater_radio_settings(public_key: str) -> RepeaterRadioSettingsResponse:
"""Fetch radio settings from a repeater via radio/config CLI commands."""
require_connected()
contact = await _resolve_contact_or_404(public_key)
_require_repeater(contact)
results = await _batch_cli_fetch(
contact,
"repeater_radio_settings",
[
("ver", "firmware_version"),
("get radio", "radio"),
("get tx", "tx_power"),
("get af", "airtime_factor"),
("get repeat", "repeat_enabled"),
("get flood.max", "flood_max"),
],
)
return RepeaterRadioSettingsResponse(**results)
@router.post(
"/{public_key}/repeater/advert-intervals", response_model=RepeaterAdvertIntervalsResponse
)
async def repeater_advert_intervals(public_key: str) -> RepeaterAdvertIntervalsResponse:
"""Fetch advertisement intervals from a repeater via CLI commands."""
require_connected()
contact = await _resolve_contact_or_404(public_key)
_require_repeater(contact)
results = await _batch_cli_fetch(
contact,
"repeater_advert_intervals",
[
("get advert.interval", "advert_interval"),
("get flood.advert.interval", "flood_advert_interval"),
],
)
return RepeaterAdvertIntervalsResponse(**results)
@router.post("/{public_key}/repeater/owner-info", response_model=RepeaterOwnerInfoResponse)
async def repeater_owner_info(public_key: str) -> RepeaterOwnerInfoResponse:
"""Fetch owner info and guest password from a repeater via CLI commands."""
require_connected()
contact = await _resolve_contact_or_404(public_key)
_require_repeater(contact)
results = await _batch_cli_fetch(
contact,
"repeater_owner_info",
[
("get owner.info", "owner_info"),
("get guest.password", "guest_password"),
],
)
return RepeaterOwnerInfoResponse(**results)
@router.post("/{public_key}/command", response_model=CommandResponse)
async def send_repeater_command(public_key: str, request: CommandRequest) -> CommandResponse:
"""Send a CLI command to a repeater.
The contact must be a repeater (type=2). The user must have already logged in
via the repeater/login endpoint. This endpoint ensures the contact is on the
radio before sending commands (the repeater remembers ACL permissions after login).
Common commands:
- get name, set name <value>
- get tx, set tx <dbm>
- get radio, set radio <freq,bw,sf,cr>
- tempradio <freq,bw,sf,cr,minutes>
- setperm <pubkey> <permission> (0=guest, 1=read-only, 2=read-write, 3=admin)
- clock, clock sync, time <epoch_seconds>
- reboot
- ver
"""
require_connected()
# Get contact from database
contact = await _resolve_contact_or_404(public_key)
_require_repeater(contact)
async with radio_manager.radio_operation(
"send_repeater_command",
pause_polling=True,
suspend_auto_fetch=True,
) as mc:
# Add contact to radio with path from DB (non-fatal — contact may already be loaded)
logger.info("Adding repeater %s to radio", contact.public_key[:12])
await _ensure_on_radio(mc, contact)
await asyncio.sleep(1.0)
# Send the command
logger.info("Sending command to repeater %s: %s", contact.public_key[:12], request.command)
send_result = await mc.commands.send_cmd(contact.public_key, request.command)
if send_result.type == EventType.ERROR:
raise HTTPException(
status_code=500, detail=f"Failed to send command: {send_result.payload}"
)
# Wait for response using validated fetch loop
response_event = await _fetch_repeater_response(mc, contact.public_key[:12])
if response_event is None:
logger.warning(
"No response from repeater %s for command: %s",
contact.public_key[:12],
request.command,
)
return CommandResponse(
command=request.command,
response="(no response - command may have been processed)",
)
# CONTACT_MSG_RECV payloads use sender_timestamp in meshcore.
response_text = _extract_response_text(response_event)
sender_timestamp = response_event.payload.get(
"sender_timestamp",
response_event.payload.get("timestamp"),
)
logger.info("Received response from %s: %s", contact.public_key[:12], response_text)
return CommandResponse(
command=request.command,
response=response_text,
sender_timestamp=sender_timestamp,
)

View File

@@ -1,27 +1,43 @@
import asyncio
import logging
from typing import Literal
from fastapi import APIRouter
from fastapi import APIRouter, HTTPException
from pydantic import BaseModel, Field
from app.models import AppSettings
from app.region_scope import normalize_region_scope
from app.models import AppSettings, BotConfig
from app.repository import AppSettingsRepository
logger = logging.getLogger(__name__)
router = APIRouter(prefix="/settings", tags=["settings"])
def validate_bot_code(code: str, bot_name: str | None = None) -> None:
"""Validate bot code syntax. Raises HTTPException on error."""
if not code or not code.strip():
return # Empty code is valid (disables bot)
try:
compile(code, "<bot_code>", "exec")
except SyntaxError as e:
name_part = f"'{bot_name}' " if bot_name else ""
raise HTTPException(
status_code=400,
detail=f"Bot {name_part}has syntax error at line {e.lineno}: {e.msg}",
) from None
def validate_all_bots(bots: list[BotConfig]) -> None:
"""Validate all bots' code syntax. Raises HTTPException on first error."""
for bot in bots:
validate_bot_code(bot.code, bot.name)
class AppSettingsUpdate(BaseModel):
max_radio_contacts: int | None = Field(
default=None,
ge=1,
le=1000,
description=(
"Configured radio contact capacity used for maintenance thresholds and "
"background refill behavior"
),
description="Maximum non-repeater contacts to keep on radio (1-1000)",
)
auto_decrypt_dm_on_advert: bool | None = Field(
default=None,
@@ -34,28 +50,12 @@ class AppSettingsUpdate(BaseModel):
advert_interval: int | None = Field(
default=None,
ge=0,
description="Periodic advertisement interval in seconds (0 = disabled, minimum 3600)",
description="Periodic advertisement interval in seconds (0 = disabled)",
)
flood_scope: str | None = Field(
bots: list[BotConfig] | None = Field(
default=None,
description="Outbound flood scope / region name (empty = disabled)",
description="List of bot configurations",
)
blocked_keys: list[str] | None = Field(
default=None,
description="Public keys whose messages are hidden from the UI",
)
blocked_names: list[str] | None = Field(
default=None,
description="Display names whose messages are hidden from the UI",
)
class BlockKeyRequest(BaseModel):
key: str = Field(description="Public key to toggle block status")
class BlockNameRequest(BaseModel):
name: str = Field(description="Display name to toggle block status")
class FavoriteRequest(BaseModel):
@@ -109,42 +109,16 @@ async def update_settings(update: AppSettingsUpdate) -> AppSettings:
kwargs["sidebar_sort_order"] = update.sidebar_sort_order
if update.advert_interval is not None:
# Enforce minimum 1-hour interval; 0 means disabled
interval = update.advert_interval
if 0 < interval < 3600:
interval = 3600
logger.info("Updating advert_interval to %d", interval)
kwargs["advert_interval"] = interval
logger.info("Updating advert_interval to %d", update.advert_interval)
kwargs["advert_interval"] = update.advert_interval
# Block lists
if update.blocked_keys is not None:
kwargs["blocked_keys"] = [k.lower() for k in update.blocked_keys]
if update.blocked_names is not None:
kwargs["blocked_names"] = update.blocked_names
# Flood scope
flood_scope_changed = False
if update.flood_scope is not None:
kwargs["flood_scope"] = normalize_region_scope(update.flood_scope)
flood_scope_changed = True
if update.bots is not None:
validate_all_bots(update.bots)
logger.info("Updating bots (count=%d)", len(update.bots))
kwargs["bots"] = update.bots
if kwargs:
result = await AppSettingsRepository.update(**kwargs)
# Apply flood scope to radio immediately if changed
if flood_scope_changed:
from app.services.radio_runtime import radio_runtime as radio_manager
if radio_manager.is_connected:
try:
scope = result.flood_scope
async with radio_manager.radio_operation("set_flood_scope") as mc:
await mc.commands.set_flood_scope(scope if scope else "")
logger.info("Applied flood_scope=%r to radio", scope or "(disabled)")
except Exception as e:
logger.warning("Failed to apply flood_scope to radio: %s", e)
return result
return await AppSettingsRepository.update(**kwargs)
return await AppSettingsRepository.get()
@@ -157,33 +131,10 @@ async def toggle_favorite(request: FavoriteRequest) -> AppSettings:
if is_favorited:
logger.info("Removing favorite: %s %s", request.type, request.id[:12])
result = await AppSettingsRepository.remove_favorite(request.type, request.id)
return await AppSettingsRepository.remove_favorite(request.type, request.id)
else:
logger.info("Adding favorite: %s %s", request.type, request.id[:12])
result = await AppSettingsRepository.add_favorite(request.type, request.id)
# When a contact is newly favorited, load just that contact to the radio
# immediately so DM ACK support does not wait for the next maintenance cycle.
if request.type == "contact" and not is_favorited:
from app.radio_sync import ensure_contact_on_radio
asyncio.create_task(ensure_contact_on_radio(request.id, force=True))
return result
@router.post("/blocked-keys/toggle", response_model=AppSettings)
async def toggle_blocked_key(request: BlockKeyRequest) -> AppSettings:
"""Toggle a public key's blocked status."""
logger.info("Toggling blocked key: %s", request.key[:12])
return await AppSettingsRepository.toggle_blocked_key(request.key)
@router.post("/blocked-names/toggle", response_model=AppSettings)
async def toggle_blocked_name(request: BlockNameRequest) -> AppSettings:
"""Toggle a display name's blocked status."""
logger.info("Toggling blocked name: %s", request.name)
return await AppSettingsRepository.toggle_blocked_name(request.name)
return await AppSettingsRepository.add_favorite(request.type, request.id)
@router.post("/migrate", response_model=MigratePreferencesResponse)

View File

@@ -1,12 +0,0 @@
from fastapi import APIRouter
from app.models import StatisticsResponse
from app.repository import StatisticsRepository
router = APIRouter(prefix="/statistics", tags=["statistics"])
@router.get("", response_model=StatisticsResponse)
async def get_statistics() -> StatisticsResponse:
data = await StatisticsRepository.get_all()
return StatisticsResponse(**data)

View File

@@ -4,8 +4,8 @@ import logging
from fastapi import APIRouter, WebSocket, WebSocketDisconnect
from app.radio import radio_manager
from app.routers.health import build_health_data
from app.services.radio_runtime import radio_runtime as radio_manager
from app.websocket import ws_manager
logger = logging.getLogger(__name__)
@@ -23,9 +23,7 @@ async def websocket_endpoint(websocket: WebSocket) -> None:
# Send initial health status
try:
health_data = await build_health_data(
radio_manager.is_connected, radio_manager.connection_info
)
health_data = await build_health_data(radio_manager.is_connected, radio_manager.port)
await ws_manager.send_personal(websocket, "health", health_data)
except Exception as e:

View File

@@ -1,121 +0,0 @@
"""ASGI middleware for optional app-wide HTTP Basic authentication."""
from __future__ import annotations
import base64
import binascii
import json
import logging
import secrets
from typing import Any
from starlette.datastructures import Headers
logger = logging.getLogger(__name__)
_AUTH_REALM = "RemoteTerm"
_UNAUTHORIZED_BODY = json.dumps({"detail": "Unauthorized"}).encode("utf-8")
class BasicAuthMiddleware:
"""Protect all HTTP and WebSocket entrypoints with HTTP Basic auth."""
def __init__(self, app, *, username: str, password: str, realm: str = _AUTH_REALM) -> None:
self.app = app
self.username = username
self.password = password
self.realm = realm
self._challenge_value = f'Basic realm="{realm}", charset="UTF-8"'.encode("latin-1")
def _is_authorized(self, scope: dict[str, Any]) -> bool:
headers = Headers(scope=scope)
authorization = headers.get("authorization")
if not authorization:
return False
scheme, _, token = authorization.partition(" ")
if not token or scheme.lower() != "basic":
return False
token = token.strip()
try:
decoded = base64.b64decode(token, validate=True).decode("utf-8")
except (binascii.Error, UnicodeDecodeError):
logger.debug("Rejecting malformed basic auth header")
return False
username, sep, password = decoded.partition(":")
if not sep:
return False
return secrets.compare_digest(username, self.username) and secrets.compare_digest(
password, self.password
)
async def _send_http_unauthorized(self, send) -> None:
await send(
{
"type": "http.response.start",
"status": 401,
"headers": [
(b"content-type", b"application/json"),
(b"cache-control", b"no-store"),
(b"content-length", str(len(_UNAUTHORIZED_BODY)).encode("ascii")),
(b"www-authenticate", self._challenge_value),
],
}
)
await send(
{
"type": "http.response.body",
"body": _UNAUTHORIZED_BODY,
}
)
async def _send_websocket_unauthorized(self, send) -> None:
await send(
{
"type": "websocket.http.response.start",
"status": 401,
"headers": [
(b"content-type", b"application/json"),
(b"cache-control", b"no-store"),
(b"content-length", str(len(_UNAUTHORIZED_BODY)).encode("ascii")),
(b"www-authenticate", self._challenge_value),
],
}
)
await send(
{
"type": "websocket.http.response.body",
"body": _UNAUTHORIZED_BODY,
}
)
async def __call__(self, scope, receive, send) -> None:
scope_type = scope["type"]
if scope_type not in {"http", "websocket"}:
await self.app(scope, receive, send)
return
if self._is_authorized(scope):
await self.app(scope, receive, send)
return
if scope_type == "http":
await self._send_http_unauthorized(send)
return
await self._send_websocket_unauthorized(send)
def add_optional_basic_auth_middleware(app, settings) -> None:
"""Enable app-wide basic auth when configured via environment variables."""
if not settings.basic_auth_enabled:
return
app.add_middleware(
BasicAuthMiddleware,
username=settings.basic_auth_username,
password=settings.basic_auth_password,
)

View File

@@ -1 +0,0 @@
"""Backend service-layer helpers."""

View File

@@ -1,133 +0,0 @@
"""Shared contact/message reconciliation helpers."""
import logging
from app.repository import ContactNameHistoryRepository, ContactRepository, MessageRepository
logger = logging.getLogger(__name__)
async def promote_prefix_contacts_for_contact(
*,
public_key: str,
contact_repository=ContactRepository,
log: logging.Logger | None = None,
) -> list[str]:
"""Promote prefix-only placeholder contacts once a full key is known."""
normalized_key = public_key.lower()
promoted = await contact_repository.promote_prefix_placeholders(normalized_key)
if promoted:
(log or logger).info(
"Promoted %d prefix contact placeholder(s) for %s",
len(promoted),
normalized_key[:12],
)
return promoted
async def claim_prefix_messages_for_contact(
*,
public_key: str,
message_repository=MessageRepository,
log: logging.Logger | None = None,
) -> int:
"""Promote prefix-key DMs to a resolved full public key."""
normalized_key = public_key.lower()
claimed = await message_repository.claim_prefix_messages(normalized_key)
if claimed > 0:
(log or logger).info(
"Claimed %d prefix DM message(s) for contact %s",
claimed,
normalized_key[:12],
)
return claimed
async def backfill_channel_sender_for_contact(
*,
public_key: str,
contact_name: str | None,
message_repository=MessageRepository,
log: logging.Logger | None = None,
) -> int:
"""Backfill channel sender attribution once a contact name is known."""
if not contact_name:
return 0
normalized_key = public_key.lower()
backfilled = await message_repository.backfill_channel_sender_key(
normalized_key,
contact_name,
)
if backfilled > 0:
(log or logger).info(
"Backfilled sender_key on %d channel message(s) for %s",
backfilled,
contact_name,
)
return backfilled
async def reconcile_contact_messages(
*,
public_key: str,
contact_name: str | None,
message_repository=MessageRepository,
log: logging.Logger | None = None,
) -> tuple[int, int]:
"""Apply message reconciliation once a contact's identity is resolved."""
claimed = await claim_prefix_messages_for_contact(
public_key=public_key,
message_repository=message_repository,
log=log,
)
backfilled = await backfill_channel_sender_for_contact(
public_key=public_key,
contact_name=contact_name,
message_repository=message_repository,
log=log,
)
return claimed, backfilled
async def record_contact_name(
*,
public_key: str,
contact_name: str | None,
timestamp: int,
contact_name_history_repository=ContactNameHistoryRepository,
) -> bool:
"""Record contact name history when a non-empty name is available."""
if not contact_name:
return False
await contact_name_history_repository.record_name(
public_key.lower(),
contact_name,
timestamp,
)
return True
async def record_contact_name_and_reconcile(
*,
public_key: str,
contact_name: str | None,
timestamp: int,
message_repository=MessageRepository,
contact_name_history_repository=ContactNameHistoryRepository,
log: logging.Logger | None = None,
) -> tuple[int, int]:
"""Record name history, then reconcile message identity for the contact."""
await record_contact_name(
public_key=public_key,
contact_name=contact_name,
timestamp=timestamp,
contact_name_history_repository=contact_name_history_repository,
)
return await reconcile_contact_messages(
public_key=public_key,
contact_name=contact_name,
message_repository=message_repository,
log=log,
)

View File

@@ -1,73 +0,0 @@
"""Shared pending ACK tracking for outgoing direct messages."""
import logging
import time
logger = logging.getLogger(__name__)
PendingAck = tuple[int, float, int]
BUFFERED_ACK_TTL_SECONDS = 30.0
_pending_acks: dict[str, PendingAck] = {}
_buffered_acks: dict[str, float] = {}
def track_pending_ack(expected_ack: str, message_id: int, timeout_ms: int) -> bool:
"""Track an expected ACK code for an outgoing direct message.
Returns True when the ACK was already observed and buffered before registration.
"""
buffered_at = _buffered_acks.pop(expected_ack, None)
if buffered_at is not None:
logger.debug(
"Matched buffered ACK %s immediately for message %d",
expected_ack,
message_id,
)
return True
_pending_acks[expected_ack] = (message_id, time.time(), timeout_ms)
logger.debug(
"Tracking pending ACK %s for message %d (timeout %dms)",
expected_ack,
message_id,
timeout_ms,
)
return False
def buffer_unmatched_ack(ack_code: str) -> None:
"""Remember an ACK that arrived before its message registration."""
_buffered_acks[ack_code] = time.time()
logger.debug("Buffered unmatched ACK %s for late registration", ack_code)
def cleanup_expired_acks() -> None:
"""Remove stale pending ACK entries."""
now = time.time()
expired_codes = [
code
for code, (_message_id, created_at, timeout_ms) in _pending_acks.items()
if now - created_at > (timeout_ms / 1000) * 2
]
for code in expired_codes:
del _pending_acks[code]
logger.debug("Expired pending ACK %s", code)
expired_buffered_codes = [
code
for code, buffered_at in _buffered_acks.items()
if now - buffered_at > BUFFERED_ACK_TTL_SECONDS
]
for code in expired_buffered_codes:
del _buffered_acks[code]
logger.debug("Expired buffered ACK %s", code)
def pop_pending_ack(ack_code: str) -> int | None:
"""Claim the tracked message ID for an ACK code if present."""
pending = _pending_acks.pop(ack_code, None)
if pending is None:
return None
message_id, _, _ = pending
return message_id

View File

@@ -1,541 +0,0 @@
"""Shared send/resend orchestration for outgoing messages."""
import asyncio
import logging
from collections.abc import Callable
from typing import Any
from fastapi import HTTPException
from meshcore import EventType
from app.models import ResendChannelMessageResponse
from app.region_scope import normalize_region_scope
from app.repository import AppSettingsRepository, ContactRepository, MessageRepository
from app.services.messages import (
build_message_model,
create_outgoing_channel_message,
create_outgoing_direct_message,
increment_ack_and_broadcast,
)
logger = logging.getLogger(__name__)
BroadcastFn = Callable[..., Any]
TrackAckFn = Callable[[str, int, int], bool]
NowFn = Callable[[], float]
OutgoingReservationKey = tuple[str, str, str]
_pending_outgoing_timestamp_reservations: dict[OutgoingReservationKey, set[int]] = {}
_outgoing_timestamp_reservations_lock = asyncio.Lock()
async def allocate_outgoing_sender_timestamp(
*,
message_repository,
msg_type: str,
conversation_key: str,
text: str,
requested_timestamp: int,
) -> int:
"""Pick a sender timestamp that will not collide with an existing stored message."""
reservation_key = (msg_type, conversation_key, text)
candidate = requested_timestamp
while True:
async with _outgoing_timestamp_reservations_lock:
reserved = _pending_outgoing_timestamp_reservations.get(reservation_key, set())
is_reserved = candidate in reserved
if is_reserved:
candidate += 1
continue
existing = await message_repository.get_by_content(
msg_type=msg_type,
conversation_key=conversation_key,
text=text,
sender_timestamp=candidate,
)
if existing is not None:
candidate += 1
continue
async with _outgoing_timestamp_reservations_lock:
reserved = _pending_outgoing_timestamp_reservations.setdefault(reservation_key, set())
if candidate in reserved:
candidate += 1
continue
reserved.add(candidate)
break
if candidate != requested_timestamp:
logger.info(
"Bumped outgoing %s timestamp for %s from %d to %d to avoid same-content collision",
msg_type,
conversation_key[:12],
requested_timestamp,
candidate,
)
return candidate
async def release_outgoing_sender_timestamp(
*,
msg_type: str,
conversation_key: str,
text: str,
sender_timestamp: int,
) -> None:
reservation_key = (msg_type, conversation_key, text)
async with _outgoing_timestamp_reservations_lock:
reserved = _pending_outgoing_timestamp_reservations.get(reservation_key)
if not reserved:
return
reserved.discard(sender_timestamp)
if not reserved:
_pending_outgoing_timestamp_reservations.pop(reservation_key, None)
async def send_channel_message_with_effective_scope(
*,
mc,
channel,
channel_key: str,
key_bytes: bytes,
text: str,
timestamp_bytes: bytes,
action_label: str,
radio_manager,
temp_radio_slot: int,
error_broadcast_fn: BroadcastFn,
app_settings_repository=AppSettingsRepository,
) -> Any:
"""Send a channel message, temporarily overriding flood scope when configured."""
override_scope = normalize_region_scope(channel.flood_scope_override)
baseline_scope = ""
if override_scope:
settings = await app_settings_repository.get()
baseline_scope = normalize_region_scope(settings.flood_scope)
if override_scope and override_scope != baseline_scope:
logger.info(
"Temporarily applying channel flood_scope override for %s: %r",
channel.name,
override_scope,
)
override_result = await mc.commands.set_flood_scope(override_scope)
if override_result is not None and override_result.type == EventType.ERROR:
logger.warning(
"Failed to apply channel flood_scope override for %s: %s",
channel.name,
override_result.payload,
)
raise HTTPException(
status_code=500,
detail=(
f"Failed to apply regional override {override_scope!r} before {action_label}: "
f"{override_result.payload}"
),
)
try:
channel_slot, needs_configure, evicted_channel_key = radio_manager.plan_channel_send_slot(
channel_key,
preferred_slot=temp_radio_slot,
)
if needs_configure:
logger.debug(
"Loading channel %s into radio slot %d before %s%s",
channel.name,
channel_slot,
action_label,
(
f" (evicting cached {evicted_channel_key[:8]})"
if evicted_channel_key is not None
else ""
),
)
try:
set_result = await mc.commands.set_channel(
channel_idx=channel_slot,
channel_name=channel.name,
channel_secret=key_bytes,
)
except Exception:
if evicted_channel_key is not None:
radio_manager.invalidate_cached_channel_slot(evicted_channel_key)
raise
if set_result.type == EventType.ERROR:
if evicted_channel_key is not None:
radio_manager.invalidate_cached_channel_slot(evicted_channel_key)
logger.warning(
"Failed to set channel on radio slot %d before %s: %s",
channel_slot,
action_label,
set_result.payload,
)
raise HTTPException(
status_code=500,
detail=f"Failed to configure channel on radio before {action_label}",
)
radio_manager.note_channel_slot_loaded(channel_key, channel_slot)
else:
logger.debug(
"Reusing cached radio slot %d for channel %s before %s",
channel_slot,
channel.name,
action_label,
)
send_result = await mc.commands.send_chan_msg(
chan=channel_slot,
msg=text,
timestamp=timestamp_bytes,
)
if send_result.type == EventType.ERROR:
radio_manager.invalidate_cached_channel_slot(channel_key)
else:
radio_manager.note_channel_slot_used(channel_key)
return send_result
finally:
if override_scope and override_scope != baseline_scope:
try:
restore_result = await mc.commands.set_flood_scope(
baseline_scope if baseline_scope else ""
)
if restore_result is not None and restore_result.type == EventType.ERROR:
logger.error(
"Failed to restore baseline flood_scope after sending to %s: %s",
channel.name,
restore_result.payload,
)
error_broadcast_fn(
"Regional override restore failed",
(
f"Sent to {channel.name}, but restoring flood scope failed. "
"The radio may still be region-scoped. Consider rebooting the radio."
),
)
else:
logger.debug(
"Restored baseline flood_scope after channel send: %r",
baseline_scope or "(disabled)",
)
except Exception:
logger.exception(
"Failed to restore baseline flood_scope after sending to %s",
channel.name,
)
error_broadcast_fn(
"Regional override restore failed",
(
f"Sent to {channel.name}, but restoring flood scope failed. "
"The radio may still be region-scoped. Consider rebooting the radio."
),
)
async def send_direct_message_to_contact(
*,
contact,
text: str,
radio_manager,
broadcast_fn: BroadcastFn,
track_pending_ack_fn: TrackAckFn,
now_fn: NowFn,
message_repository=MessageRepository,
contact_repository=ContactRepository,
) -> Any:
"""Send a direct message and persist/broadcast the outgoing row."""
contact_data = contact.to_radio_dict()
sent_at: int | None = None
sender_timestamp: int | None = None
message = None
result = None
try:
async with radio_manager.radio_operation("send_direct_message") as mc:
logger.debug("Ensuring contact %s is on radio before sending", contact.public_key[:12])
add_result = await mc.commands.add_contact(contact_data)
if add_result.type == EventType.ERROR:
logger.warning("Failed to add contact to radio: %s", add_result.payload)
cached_contact = mc.get_contact_by_key_prefix(contact.public_key[:12])
if not cached_contact:
cached_contact = contact_data
logger.info("Sending direct message to %s", contact.public_key[:12])
sent_at = int(now_fn())
sender_timestamp = await allocate_outgoing_sender_timestamp(
message_repository=message_repository,
msg_type="PRIV",
conversation_key=contact.public_key.lower(),
text=text,
requested_timestamp=sent_at,
)
result = await mc.commands.send_msg(
dst=cached_contact,
msg=text,
timestamp=sender_timestamp,
)
if result is None or result.type == EventType.ERROR:
raise HTTPException(status_code=500, detail=f"Failed to send message: {result.payload}")
message = await create_outgoing_direct_message(
conversation_key=contact.public_key.lower(),
text=text,
sender_timestamp=sender_timestamp,
received_at=sent_at,
broadcast_fn=broadcast_fn,
message_repository=message_repository,
)
if message is None:
raise HTTPException(
status_code=500,
detail="Failed to store outgoing message - unexpected duplicate",
)
finally:
if sender_timestamp is not None:
await release_outgoing_sender_timestamp(
msg_type="PRIV",
conversation_key=contact.public_key.lower(),
text=text,
sender_timestamp=sender_timestamp,
)
if sent_at is None or sender_timestamp is None or message is None or result is None:
raise HTTPException(status_code=500, detail="Failed to store outgoing message")
await contact_repository.update_last_contacted(contact.public_key.lower(), sent_at)
expected_ack = result.payload.get("expected_ack")
suggested_timeout: int = result.payload.get("suggested_timeout", 10000)
if expected_ack:
ack_code = expected_ack.hex() if isinstance(expected_ack, bytes) else expected_ack
matched_immediately = track_pending_ack_fn(ack_code, message.id, suggested_timeout) is True
logger.debug("Tracking ACK %s for message %d", ack_code, message.id)
if matched_immediately:
ack_count = await increment_ack_and_broadcast(
message_id=message.id,
broadcast_fn=broadcast_fn,
)
message.acked = ack_count
return message
async def send_channel_message_to_channel(
*,
channel,
channel_key_upper: str,
key_bytes: bytes,
text: str,
radio_manager,
broadcast_fn: BroadcastFn,
error_broadcast_fn: BroadcastFn,
now_fn: NowFn,
temp_radio_slot: int,
message_repository=MessageRepository,
) -> Any:
"""Send a channel message and persist/broadcast the outgoing row."""
sent_at: int | None = None
sender_timestamp: int | None = None
radio_name = ""
our_public_key: str | None = None
text_with_sender = text
outgoing_message = None
try:
async with radio_manager.radio_operation("send_channel_message") as mc:
radio_name = mc.self_info.get("name", "") if mc.self_info else ""
our_public_key = (mc.self_info.get("public_key") or None) if mc.self_info else None
text_with_sender = f"{radio_name}: {text}" if radio_name else text
logger.info("Sending channel message to %s: %s", channel.name, text[:50])
sent_at = int(now_fn())
sender_timestamp = await allocate_outgoing_sender_timestamp(
message_repository=message_repository,
msg_type="CHAN",
conversation_key=channel_key_upper,
text=text_with_sender,
requested_timestamp=sent_at,
)
timestamp_bytes = sender_timestamp.to_bytes(4, "little")
result = await send_channel_message_with_effective_scope(
mc=mc,
channel=channel,
channel_key=channel_key_upper,
key_bytes=key_bytes,
text=text,
timestamp_bytes=timestamp_bytes,
action_label="sending message",
radio_manager=radio_manager,
temp_radio_slot=temp_radio_slot,
error_broadcast_fn=error_broadcast_fn,
)
if result.type == EventType.ERROR:
raise HTTPException(
status_code=500, detail=f"Failed to send message: {result.payload}"
)
outgoing_message = await create_outgoing_channel_message(
conversation_key=channel_key_upper,
text=text_with_sender,
sender_timestamp=sender_timestamp,
received_at=sent_at,
sender_name=radio_name or None,
sender_key=our_public_key,
channel_name=channel.name,
broadcast_fn=broadcast_fn,
message_repository=message_repository,
)
if outgoing_message is None:
raise HTTPException(
status_code=500,
detail="Failed to store outgoing message - unexpected duplicate",
)
finally:
if sender_timestamp is not None:
await release_outgoing_sender_timestamp(
msg_type="CHAN",
conversation_key=channel_key_upper,
text=text_with_sender,
sender_timestamp=sender_timestamp,
)
if sent_at is None or sender_timestamp is None or outgoing_message is None:
raise HTTPException(status_code=500, detail="Failed to store outgoing message")
message_id = outgoing_message.id
acked_count, paths = await message_repository.get_ack_and_paths(message_id)
return build_message_model(
message_id=message_id,
msg_type="CHAN",
conversation_key=channel_key_upper,
text=text_with_sender,
sender_timestamp=sender_timestamp,
received_at=sent_at,
paths=paths,
outgoing=True,
acked=acked_count,
sender_name=radio_name or None,
sender_key=our_public_key,
channel_name=channel.name,
)
async def resend_channel_message_record(
*,
message,
channel,
new_timestamp: bool,
radio_manager,
broadcast_fn: BroadcastFn,
error_broadcast_fn: BroadcastFn,
now_fn: NowFn,
temp_radio_slot: int,
message_repository=MessageRepository,
) -> ResendChannelMessageResponse:
"""Resend a stored outgoing channel message."""
try:
key_bytes = bytes.fromhex(message.conversation_key)
except ValueError:
raise HTTPException(
status_code=400,
detail=f"Invalid channel key format: {message.conversation_key}",
) from None
sent_at: int | None = None
sender_timestamp = message.sender_timestamp
timestamp_bytes = message.sender_timestamp.to_bytes(4, "little")
resend_public_key: str | None = None
radio_name = ""
new_message = None
stored_text = message.text
try:
async with radio_manager.radio_operation("resend_channel_message") as mc:
radio_name = mc.self_info.get("name", "") if mc.self_info else ""
resend_public_key = (mc.self_info.get("public_key") or None) if mc.self_info else None
text_to_send = message.text
if radio_name and text_to_send.startswith(f"{radio_name}: "):
text_to_send = text_to_send[len(f"{radio_name}: ") :]
if new_timestamp:
sent_at = int(now_fn())
sender_timestamp = await allocate_outgoing_sender_timestamp(
message_repository=message_repository,
msg_type="CHAN",
conversation_key=message.conversation_key,
text=stored_text,
requested_timestamp=sent_at,
)
timestamp_bytes = sender_timestamp.to_bytes(4, "little")
result = await send_channel_message_with_effective_scope(
mc=mc,
channel=channel,
channel_key=message.conversation_key,
key_bytes=key_bytes,
text=text_to_send,
timestamp_bytes=timestamp_bytes,
action_label="resending message",
radio_manager=radio_manager,
temp_radio_slot=temp_radio_slot,
error_broadcast_fn=error_broadcast_fn,
)
if result.type == EventType.ERROR:
raise HTTPException(
status_code=500,
detail=f"Failed to resend message: {result.payload}",
)
if new_timestamp:
if sent_at is None:
raise HTTPException(status_code=500, detail="Failed to assign resend timestamp")
new_message = await create_outgoing_channel_message(
conversation_key=message.conversation_key,
text=message.text,
sender_timestamp=sender_timestamp,
received_at=sent_at,
sender_name=radio_name or None,
sender_key=resend_public_key,
channel_name=channel.name,
broadcast_fn=broadcast_fn,
message_repository=message_repository,
)
if new_message is None:
raise HTTPException(
status_code=500,
detail="Failed to store resent message - unexpected duplicate",
)
finally:
if new_timestamp and sent_at is not None:
await release_outgoing_sender_timestamp(
msg_type="CHAN",
conversation_key=message.conversation_key,
text=stored_text,
sender_timestamp=sender_timestamp,
)
if new_timestamp:
if sent_at is None or new_message is None:
raise HTTPException(status_code=500, detail="Failed to assign resend timestamp")
logger.info(
"Resent channel message %d as new message %d to %s",
message.id,
new_message.id,
channel.name,
)
return ResendChannelMessageResponse(
status="ok",
message_id=new_message.id,
message=new_message,
)
logger.info("Resent channel message %d to %s", message.id, channel.name)
return ResendChannelMessageResponse(status="ok", message_id=message.id)

View File

@@ -1,542 +0,0 @@
import logging
import time
from collections.abc import Callable
from typing import TYPE_CHECKING, Any
from app.models import CONTACT_TYPE_REPEATER, Message, MessagePath
from app.repository import ContactRepository, MessageRepository, RawPacketRepository
if TYPE_CHECKING:
from app.decoder import DecryptedDirectMessage
logger = logging.getLogger(__name__)
BroadcastFn = Callable[..., Any]
LOG_MESSAGE_PREVIEW_LEN = 32
def _truncate_for_log(text: str, max_chars: int = LOG_MESSAGE_PREVIEW_LEN) -> str:
"""Return a compact single-line message preview for log output."""
normalized = " ".join(text.split())
if len(normalized) <= max_chars:
return normalized
return f"{normalized[:max_chars].rstrip()}..."
def _format_channel_log_target(channel_name: str | None, channel_key: str) -> str:
"""Return a human-friendly channel label for logs."""
return channel_name or channel_key
def _format_contact_log_target(contact_name: str | None, public_key: str) -> str:
"""Return a human-friendly DM target label for logs."""
return contact_name or public_key[:12]
def build_message_paths(
path: str | None,
received_at: int,
path_len: int | None = None,
) -> list[MessagePath] | None:
"""Build the single-path list used by message payloads."""
return (
[MessagePath(path=path or "", received_at=received_at, path_len=path_len)]
if path is not None
else None
)
def build_message_model(
*,
message_id: int,
msg_type: str,
conversation_key: str,
text: str,
sender_timestamp: int | None,
received_at: int,
paths: list[MessagePath] | None = None,
txt_type: int = 0,
signature: str | None = None,
sender_key: str | None = None,
outgoing: bool = False,
acked: int = 0,
sender_name: str | None = None,
channel_name: str | None = None,
) -> Message:
"""Build a Message model with the canonical backend payload shape."""
return Message(
id=message_id,
type=msg_type,
conversation_key=conversation_key,
text=text,
sender_timestamp=sender_timestamp,
received_at=received_at,
paths=paths,
txt_type=txt_type,
signature=signature,
sender_key=sender_key,
outgoing=outgoing,
acked=acked,
sender_name=sender_name,
channel_name=channel_name,
)
def broadcast_message(
*,
message: Message,
broadcast_fn: BroadcastFn,
realtime: bool | None = None,
) -> None:
"""Broadcast a message payload, preserving the caller's broadcast signature."""
payload = message.model_dump()
if realtime is None:
broadcast_fn("message", payload)
else:
broadcast_fn("message", payload, realtime=realtime)
def broadcast_message_acked(
*,
message_id: int,
ack_count: int,
paths: list[MessagePath] | None,
broadcast_fn: BroadcastFn,
) -> None:
"""Broadcast a message_acked payload."""
broadcast_fn(
"message_acked",
{
"message_id": message_id,
"ack_count": ack_count,
"paths": [path.model_dump() for path in paths] if paths else [],
},
)
async def increment_ack_and_broadcast(
*,
message_id: int,
broadcast_fn: BroadcastFn,
) -> int:
"""Increment a message's ACK count and broadcast the update."""
ack_count = await MessageRepository.increment_ack_count(message_id)
broadcast_fn("message_acked", {"message_id": message_id, "ack_count": ack_count})
return ack_count
async def handle_duplicate_message(
*,
packet_id: int | None,
msg_type: str,
conversation_key: str,
text: str,
sender_timestamp: int,
path: str | None,
received_at: int,
path_len: int | None = None,
broadcast_fn: BroadcastFn,
) -> None:
"""Handle a duplicate message by updating paths/acks on the existing record."""
existing_msg = await MessageRepository.get_by_content(
msg_type=msg_type,
conversation_key=conversation_key,
text=text,
sender_timestamp=sender_timestamp,
)
if not existing_msg:
label = "message" if msg_type == "CHAN" else "DM"
logger.warning(
"Duplicate %s for %s but couldn't find existing",
label,
conversation_key[:12],
)
return
logger.debug(
"Duplicate %s for %s (msg_id=%d, outgoing=%s) - adding path",
msg_type,
conversation_key[:12],
existing_msg.id,
existing_msg.outgoing,
)
if path is not None:
paths = await MessageRepository.add_path(existing_msg.id, path, received_at, path_len)
else:
paths = existing_msg.paths or []
if existing_msg.outgoing and existing_msg.type == "CHAN":
ack_count = await MessageRepository.increment_ack_count(existing_msg.id)
else:
ack_count = existing_msg.acked
if existing_msg.outgoing or path is not None:
broadcast_message_acked(
message_id=existing_msg.id,
ack_count=ack_count,
paths=paths,
broadcast_fn=broadcast_fn,
)
if packet_id is not None:
await RawPacketRepository.mark_decrypted(packet_id, existing_msg.id)
async def create_message_from_decrypted(
*,
packet_id: int,
channel_key: str,
sender: str | None,
message_text: str,
timestamp: int,
received_at: int | None = None,
path: str | None = None,
path_len: int | None = None,
channel_name: str | None = None,
realtime: bool = True,
broadcast_fn: BroadcastFn,
) -> int | None:
"""Store and broadcast a decrypted channel message."""
received = received_at or int(time.time())
text = f"{sender}: {message_text}" if sender else message_text
channel_key_normalized = channel_key.upper()
resolved_sender_key: str | None = None
if sender:
candidates = await ContactRepository.get_by_name(sender)
if len(candidates) == 1:
resolved_sender_key = candidates[0].public_key
msg_id = await MessageRepository.create(
msg_type="CHAN",
text=text,
conversation_key=channel_key_normalized,
sender_timestamp=timestamp,
received_at=received,
path=path,
path_len=path_len,
sender_name=sender,
sender_key=resolved_sender_key,
)
if msg_id is None:
await handle_duplicate_message(
packet_id=packet_id,
msg_type="CHAN",
conversation_key=channel_key_normalized,
text=text,
sender_timestamp=timestamp,
path=path,
received_at=received,
path_len=path_len,
broadcast_fn=broadcast_fn,
)
return None
logger.info(
'Stored channel message "%s" for %r (msg ID %d in chan ID %s)',
_truncate_for_log(text),
_format_channel_log_target(channel_name, channel_key_normalized),
msg_id,
channel_key_normalized,
)
await RawPacketRepository.mark_decrypted(packet_id, msg_id)
broadcast_message(
message=build_message_model(
message_id=msg_id,
msg_type="CHAN",
conversation_key=channel_key_normalized,
text=text,
sender_timestamp=timestamp,
received_at=received,
paths=build_message_paths(path, received, path_len),
sender_name=sender,
sender_key=resolved_sender_key,
channel_name=channel_name,
),
broadcast_fn=broadcast_fn,
realtime=realtime,
)
return msg_id
async def create_dm_message_from_decrypted(
*,
packet_id: int,
decrypted: "DecryptedDirectMessage",
their_public_key: str,
our_public_key: str | None,
received_at: int | None = None,
path: str | None = None,
path_len: int | None = None,
outgoing: bool = False,
realtime: bool = True,
broadcast_fn: BroadcastFn,
) -> int | None:
"""Store and broadcast a decrypted direct message."""
contact = await ContactRepository.get_by_key(their_public_key)
if contact and contact.type == CONTACT_TYPE_REPEATER:
logger.debug(
"Skipping message from repeater %s (CLI responses not stored): %s",
their_public_key[:12],
(decrypted.message or "")[:50],
)
return None
received = received_at or int(time.time())
conversation_key = their_public_key.lower()
sender_name = contact.name if contact and not outgoing else None
msg_id = await MessageRepository.create(
msg_type="PRIV",
text=decrypted.message,
conversation_key=conversation_key,
sender_timestamp=decrypted.timestamp,
received_at=received,
path=path,
path_len=path_len,
outgoing=outgoing,
sender_key=conversation_key if not outgoing else None,
sender_name=sender_name,
)
if msg_id is None:
await handle_duplicate_message(
packet_id=packet_id,
msg_type="PRIV",
conversation_key=conversation_key,
text=decrypted.message,
sender_timestamp=decrypted.timestamp,
path=path,
received_at=received,
path_len=path_len,
broadcast_fn=broadcast_fn,
)
return None
logger.info(
'Stored direct message "%s" for %r (msg ID %d in contact ID %s, outgoing=%s)',
_truncate_for_log(decrypted.message),
_format_contact_log_target(contact.name if contact else None, conversation_key),
msg_id,
conversation_key,
outgoing,
)
await RawPacketRepository.mark_decrypted(packet_id, msg_id)
broadcast_message(
message=build_message_model(
message_id=msg_id,
msg_type="PRIV",
conversation_key=conversation_key,
text=decrypted.message,
sender_timestamp=decrypted.timestamp,
received_at=received,
paths=build_message_paths(path, received, path_len),
outgoing=outgoing,
sender_name=sender_name,
sender_key=conversation_key if not outgoing else None,
),
broadcast_fn=broadcast_fn,
realtime=realtime,
)
await ContactRepository.update_last_contacted(conversation_key, received)
return msg_id
async def create_fallback_direct_message(
*,
conversation_key: str,
text: str,
sender_timestamp: int,
received_at: int,
path: str | None,
path_len: int | None,
txt_type: int,
signature: str | None,
sender_name: str | None,
sender_key: str | None,
broadcast_fn: BroadcastFn,
message_repository=MessageRepository,
) -> Message | None:
"""Store and broadcast a CONTACT_MSG_RECV fallback direct message."""
msg_id = await message_repository.create(
msg_type="PRIV",
text=text,
conversation_key=conversation_key,
sender_timestamp=sender_timestamp,
received_at=received_at,
path=path,
path_len=path_len,
txt_type=txt_type,
signature=signature,
sender_key=sender_key,
sender_name=sender_name,
)
if msg_id is None:
return None
message = build_message_model(
message_id=msg_id,
msg_type="PRIV",
conversation_key=conversation_key,
text=text,
sender_timestamp=sender_timestamp,
received_at=received_at,
paths=build_message_paths(path, received_at, path_len),
txt_type=txt_type,
signature=signature,
sender_key=sender_key,
sender_name=sender_name,
)
broadcast_message(message=message, broadcast_fn=broadcast_fn)
return message
async def create_fallback_channel_message(
*,
conversation_key: str,
message_text: str,
sender_timestamp: int,
received_at: int,
path: str | None,
path_len: int | None,
txt_type: int,
sender_name: str | None,
channel_name: str | None,
broadcast_fn: BroadcastFn,
message_repository=MessageRepository,
) -> Message | None:
"""Store and broadcast a CHANNEL_MSG_RECV fallback channel message."""
conversation_key_normalized = conversation_key.upper()
text = f"{sender_name}: {message_text}" if sender_name else message_text
resolved_sender_key: str | None = None
if sender_name:
candidates = await ContactRepository.get_by_name(sender_name)
if len(candidates) == 1:
resolved_sender_key = candidates[0].public_key
msg_id = await message_repository.create(
msg_type="CHAN",
text=text,
conversation_key=conversation_key_normalized,
sender_timestamp=sender_timestamp,
received_at=received_at,
path=path,
path_len=path_len,
txt_type=txt_type,
sender_name=sender_name,
sender_key=resolved_sender_key,
)
if msg_id is None:
await handle_duplicate_message(
packet_id=None,
msg_type="CHAN",
conversation_key=conversation_key_normalized,
text=text,
sender_timestamp=sender_timestamp,
path=path,
received_at=received_at,
path_len=path_len,
broadcast_fn=broadcast_fn,
)
return None
message = build_message_model(
message_id=msg_id,
msg_type="CHAN",
conversation_key=conversation_key_normalized,
text=text,
sender_timestamp=sender_timestamp,
received_at=received_at,
paths=build_message_paths(path, received_at, path_len),
txt_type=txt_type,
sender_name=sender_name,
sender_key=resolved_sender_key,
channel_name=channel_name,
)
broadcast_message(message=message, broadcast_fn=broadcast_fn)
return message
async def create_outgoing_direct_message(
*,
conversation_key: str,
text: str,
sender_timestamp: int,
received_at: int,
broadcast_fn: BroadcastFn,
message_repository=MessageRepository,
) -> Message | None:
"""Store and broadcast an outgoing direct message."""
msg_id = await message_repository.create(
msg_type="PRIV",
text=text,
conversation_key=conversation_key,
sender_timestamp=sender_timestamp,
received_at=received_at,
outgoing=True,
)
if msg_id is None:
return None
message = build_message_model(
message_id=msg_id,
msg_type="PRIV",
conversation_key=conversation_key,
text=text,
sender_timestamp=sender_timestamp,
received_at=received_at,
outgoing=True,
acked=0,
)
broadcast_message(message=message, broadcast_fn=broadcast_fn)
return message
async def create_outgoing_channel_message(
*,
conversation_key: str,
text: str,
sender_timestamp: int,
received_at: int,
sender_name: str | None,
sender_key: str | None,
channel_name: str | None,
broadcast_fn: BroadcastFn,
message_repository=MessageRepository,
) -> Message | None:
"""Store and broadcast an outgoing channel message."""
msg_id = await message_repository.create(
msg_type="CHAN",
text=text,
conversation_key=conversation_key,
sender_timestamp=sender_timestamp,
received_at=received_at,
outgoing=True,
sender_name=sender_name,
sender_key=sender_key,
)
if msg_id is None:
return None
message = build_message_model(
message_id=msg_id,
msg_type="CHAN",
conversation_key=conversation_key,
text=text,
sender_timestamp=sender_timestamp,
received_at=received_at,
outgoing=True,
acked=0,
sender_name=sender_name,
sender_key=sender_key,
channel_name=channel_name,
)
broadcast_message(message=message, broadcast_fn=broadcast_fn)
return message

View File

@@ -1,114 +0,0 @@
import logging
from collections.abc import Awaitable, Callable
from typing import Any
from meshcore import EventType
logger = logging.getLogger(__name__)
class RadioCommandServiceError(RuntimeError):
"""Base error for reusable radio command workflows."""
class PathHashModeUnsupportedError(RadioCommandServiceError):
"""Raised when firmware does not support path hash mode updates."""
class RadioCommandRejectedError(RadioCommandServiceError):
"""Raised when the radio reports an error for a command."""
class KeystoreRefreshError(RadioCommandServiceError):
"""Raised when server-side keystore refresh fails after import."""
async def apply_radio_config_update(
mc,
update,
*,
path_hash_mode_supported: bool,
set_path_hash_mode: Callable[[int], None],
sync_radio_time_fn: Callable[[Any], Awaitable[Any]],
) -> None:
"""Apply a validated radio-config update to the connected radio."""
if update.advert_location_source is not None:
advert_loc_policy = 0 if update.advert_location_source == "off" else 1
logger.info(
"Setting advert location policy to %s",
update.advert_location_source,
)
result = await mc.commands.set_advert_loc_policy(advert_loc_policy)
if result is not None and result.type == EventType.ERROR:
raise RadioCommandRejectedError(
f"Failed to set advert location policy: {result.payload}"
)
if update.name is not None:
logger.info("Setting radio name to %s", update.name)
await mc.commands.set_name(update.name)
if update.lat is not None or update.lon is not None:
current_info = mc.self_info
lat = update.lat if update.lat is not None else current_info.get("adv_lat", 0.0)
lon = update.lon if update.lon is not None else current_info.get("adv_lon", 0.0)
logger.info("Setting radio coordinates to %f, %f", lat, lon)
await mc.commands.set_coords(lat=lat, lon=lon)
if update.tx_power is not None:
logger.info("Setting TX power to %d dBm", update.tx_power)
await mc.commands.set_tx_power(val=update.tx_power)
if update.radio is not None:
logger.info(
"Setting radio params: freq=%f MHz, bw=%f kHz, sf=%d, cr=%d",
update.radio.freq,
update.radio.bw,
update.radio.sf,
update.radio.cr,
)
await mc.commands.set_radio(
freq=update.radio.freq,
bw=update.radio.bw,
sf=update.radio.sf,
cr=update.radio.cr,
)
if update.path_hash_mode is not None:
if not path_hash_mode_supported:
raise PathHashModeUnsupportedError("Firmware does not support path hash mode setting")
logger.info("Setting path hash mode to %d", update.path_hash_mode)
result = await mc.commands.set_path_hash_mode(update.path_hash_mode)
if result is not None and result.type == EventType.ERROR:
raise RadioCommandRejectedError(f"Failed to set path hash mode: {result.payload}")
set_path_hash_mode(update.path_hash_mode)
await sync_radio_time_fn(mc)
# Commands like set_name() write to flash but don't update cached self_info.
# send_appstart() forces a fresh SELF_INFO so the response reflects changes.
await mc.commands.send_appstart()
async def import_private_key_and_refresh_keystore(
mc,
key_bytes: bytes,
*,
export_and_store_private_key_fn: Callable[[Any], Awaitable[bool]],
) -> None:
"""Import a private key and refresh the in-memory keystore immediately."""
result = await mc.commands.import_private_key(key_bytes)
if result.type == EventType.ERROR:
raise RadioCommandRejectedError(f"Failed to import private key: {result.payload}")
keystore_refreshed = await export_and_store_private_key_fn(mc)
if not keystore_refreshed:
logger.warning("Keystore refresh failed after import, retrying once")
keystore_refreshed = await export_and_store_private_key_fn(mc)
if not keystore_refreshed:
raise KeystoreRefreshError(
"Private key imported on radio, but server-side keystore refresh failed. "
"Reconnect to apply the new key for DM decryption."
)

View File

@@ -1,287 +0,0 @@
import asyncio
import logging
logger = logging.getLogger(__name__)
POST_CONNECT_SETUP_TIMEOUT_SECONDS = 300
POST_CONNECT_SETUP_MAX_ATTEMPTS = 2
async def run_post_connect_setup(radio_manager) -> None:
"""Run shared radio initialization after a transport connection succeeds."""
from app.event_handlers import register_event_handlers
from app.keystore import export_and_store_private_key
from app.radio_sync import (
drain_pending_messages,
send_advertisement,
start_message_polling,
start_periodic_advert,
start_periodic_sync,
sync_and_offload_all,
sync_radio_time,
)
if not radio_manager.meshcore:
return
if radio_manager._setup_lock is None:
radio_manager._setup_lock = asyncio.Lock()
async def _setup_body() -> None:
if not radio_manager.meshcore:
return
radio_manager._setup_in_progress = True
radio_manager._setup_complete = False
try:
# Hold the operation lock for all radio I/O during setup.
# This prevents user-initiated operations (send message, etc.)
# from interleaving commands on the serial link.
await radio_manager._acquire_operation_lock("post_connect_setup", blocking=True)
try:
mc = radio_manager.meshcore
if not mc:
return
# Register event handlers against the locked, current transport.
register_event_handlers(mc)
await export_and_store_private_key(mc)
# Sync radio clock with system time
await sync_radio_time(mc)
# Apply flood scope from settings (best-effort; older firmware
# may not support set_flood_scope)
from app.region_scope import normalize_region_scope
from app.repository import AppSettingsRepository
app_settings = await AppSettingsRepository.get()
scope = normalize_region_scope(app_settings.flood_scope)
try:
await mc.commands.set_flood_scope(scope if scope else "")
logger.info("Applied flood_scope=%r", scope or "(disabled)")
except Exception as exc:
logger.warning("set_flood_scope failed (firmware may not support it): %s", exc)
# Query path hash mode support (best-effort; older firmware won't report it).
# If the library's parsed payload is missing path_hash_mode (e.g. stale
# .pyc on WSL2 Windows mounts), fall back to raw-frame extraction.
reader = mc._reader
_original_handle_rx = reader.handle_rx
_captured_frame: list[bytes] = []
async def _capture_handle_rx(data: bytearray) -> None:
from meshcore.packets import PacketType
if len(data) > 0 and data[0] == PacketType.DEVICE_INFO.value:
_captured_frame.append(bytes(data))
return await _original_handle_rx(data)
reader.handle_rx = _capture_handle_rx
radio_manager.max_channels = 40
radio_manager.path_hash_mode = 0
radio_manager.path_hash_mode_supported = False
try:
device_query = await mc.commands.send_device_query()
if device_query and "max_channels" in device_query.payload:
radio_manager.max_channels = max(
1, int(device_query.payload["max_channels"])
)
if device_query and "path_hash_mode" in device_query.payload:
radio_manager.path_hash_mode = device_query.payload["path_hash_mode"]
radio_manager.path_hash_mode_supported = True
elif _captured_frame:
# Raw-frame fallback:
# byte 1 = fw_ver, byte 3 = max_channels, byte 81 = path_hash_mode
raw = _captured_frame[-1]
fw_ver = raw[1] if len(raw) > 1 else 0
if fw_ver >= 3 and len(raw) >= 4:
radio_manager.max_channels = max(1, raw[3])
if fw_ver >= 10 and len(raw) >= 82:
radio_manager.path_hash_mode = raw[81]
radio_manager.path_hash_mode_supported = True
logger.warning(
"path_hash_mode=%d extracted from raw frame "
"(stale .pyc? try: rm %s)",
radio_manager.path_hash_mode,
getattr(
__import__("meshcore.reader", fromlist=["reader"]),
"__cached__",
"meshcore __pycache__/reader.*.pyc",
),
)
if radio_manager.path_hash_mode_supported:
logger.info("Path hash mode: %d (supported)", radio_manager.path_hash_mode)
else:
logger.debug("Firmware does not report path_hash_mode")
logger.info("Max channel slots: %d", radio_manager.max_channels)
except Exception as exc:
logger.debug("Failed to query device info capabilities: %s", exc)
finally:
reader.handle_rx = _original_handle_rx
# Sync contacts/channels from radio to DB and clear radio
logger.info("Syncing and offloading radio data...")
result = await sync_and_offload_all(mc)
logger.info("Sync complete: %s", result)
# Send advertisement to announce our presence (if enabled and not throttled)
if await send_advertisement(mc):
logger.info("Advertisement sent")
else:
logger.debug("Advertisement skipped (disabled or throttled)")
# Drain any messages that were queued before we connected.
# This must happen BEFORE starting auto-fetch, otherwise both
# compete on get_msg() with interleaved radio I/O.
drained = await drain_pending_messages(mc)
if drained > 0:
logger.info("Drained %d pending message(s)", drained)
radio_manager.clear_pending_message_channel_slots()
await mc.start_auto_message_fetching()
logger.info("Auto message fetching started")
finally:
radio_manager._release_operation_lock("post_connect_setup")
# Start background tasks AFTER releasing the operation lock.
# These tasks acquire their own locks when they need radio access.
start_periodic_sync()
start_periodic_advert()
start_message_polling()
radio_manager._setup_complete = True
finally:
radio_manager._setup_in_progress = False
async with radio_manager._setup_lock:
await asyncio.wait_for(_setup_body(), timeout=POST_CONNECT_SETUP_TIMEOUT_SECONDS)
logger.info("Post-connect setup complete")
async def prepare_connected_radio(radio_manager, *, broadcast_on_success: bool = True) -> bool:
"""Finish setup for an already-connected radio and optionally broadcast health."""
from app.websocket import broadcast_error, broadcast_health
if not radio_manager.connection_desired:
if radio_manager.is_connected:
await radio_manager.disconnect()
return False
for attempt in range(1, POST_CONNECT_SETUP_MAX_ATTEMPTS + 1):
try:
await radio_manager.post_connect_setup()
break
except asyncio.TimeoutError as exc:
if attempt < POST_CONNECT_SETUP_MAX_ATTEMPTS:
logger.warning(
"Post-connect setup timed out after %ds on attempt %d/%d; retrying once",
POST_CONNECT_SETUP_TIMEOUT_SECONDS,
attempt,
POST_CONNECT_SETUP_MAX_ATTEMPTS,
)
continue
logger.error(
"Post-connect setup timed out after %ds on %d attempts. Initial radio offload "
"took too long; something is probably wrong.",
POST_CONNECT_SETUP_TIMEOUT_SECONDS,
POST_CONNECT_SETUP_MAX_ATTEMPTS,
)
broadcast_error(
"Radio startup appears stuck",
"Initial radio offload took too long. Reboot the radio and restart the server.",
)
raise RuntimeError("Post-connect setup timed out") from exc
if not radio_manager.connection_desired:
if radio_manager.is_connected:
await radio_manager.disconnect()
return False
radio_manager._last_connected = True
if broadcast_on_success:
broadcast_health(True, radio_manager.connection_info)
return True
async def reconnect_and_prepare_radio(
radio_manager,
*,
broadcast_on_success: bool = True,
) -> bool:
"""Reconnect the transport, then run post-connect setup before reporting healthy."""
connected = await radio_manager.reconnect(broadcast_on_success=False)
if not connected:
return False
return await prepare_connected_radio(radio_manager, broadcast_on_success=broadcast_on_success)
async def connection_monitor_loop(radio_manager) -> None:
"""Monitor radio health and keep transport/setup state converged."""
from app.websocket import broadcast_health
check_interval_seconds = 5
unresponsive_threshold = 3
consecutive_setup_failures = 0
while True:
try:
await asyncio.sleep(check_interval_seconds)
current_connected = radio_manager.is_connected
connection_desired = radio_manager.connection_desired
if radio_manager._last_connected and not current_connected:
logger.warning("Radio connection lost, broadcasting status change")
broadcast_health(False, radio_manager.connection_info)
radio_manager._last_connected = False
consecutive_setup_failures = 0
if not connection_desired:
if current_connected:
logger.info("Radio connection paused by operator; disconnecting transport")
await radio_manager.disconnect()
consecutive_setup_failures = 0
continue
if not current_connected:
if not radio_manager.is_reconnecting and await reconnect_and_prepare_radio(
radio_manager,
broadcast_on_success=True,
):
consecutive_setup_failures = 0
elif not radio_manager._last_connected and current_connected:
logger.info("Radio connection restored")
await prepare_connected_radio(radio_manager, broadcast_on_success=True)
consecutive_setup_failures = 0
elif (
current_connected
and not radio_manager.is_setup_complete
and not radio_manager.is_setup_in_progress
):
logger.info("Retrying post-connect setup...")
await prepare_connected_radio(radio_manager, broadcast_on_success=True)
consecutive_setup_failures = 0
except asyncio.CancelledError:
break
except Exception as e:
consecutive_setup_failures += 1
if consecutive_setup_failures == unresponsive_threshold:
logger.error(
"Post-connect setup has failed %d times in a row. "
"The radio port appears open but the radio is not "
"responding to commands. Common causes: another "
"process has the serial port open (check for other "
"RemoteTerm instances, serial monitors, etc.), the "
"firmware is in repeater mode (not client), or the "
"radio needs a power cycle. Will keep retrying.",
consecutive_setup_failures,
)
elif consecutive_setup_failures < unresponsive_threshold:
logger.exception("Error in connection monitor, continuing: %s", e)

View File

@@ -1,93 +0,0 @@
"""Shared access seam over the global RadioManager instance.
This module deliberately keeps behavior thin and forwarding-only. The goal is
to reduce direct `app.radio.radio_manager` imports across routers and helpers
without changing radio lifecycle, lock, or connection semantics.
"""
from collections.abc import Callable
from contextlib import asynccontextmanager
from typing import Any
from fastapi import HTTPException
import app.radio as radio_module
class RadioRuntime:
"""Thin forwarding wrapper around the process-global RadioManager."""
def __init__(self, manager_or_getter=None):
if manager_or_getter is None:
self._manager_getter: Callable[[], Any] = lambda: radio_module.radio_manager
elif callable(manager_or_getter):
self._manager_getter = manager_or_getter
else:
self._manager_getter = lambda: manager_or_getter
@property
def manager(self) -> Any:
return self._manager_getter()
def __getattr__(self, name: str) -> Any:
"""Forward unknown attributes to the current global manager."""
return getattr(self.manager, name)
@staticmethod
def _is_local_runtime_attr(name: str) -> bool:
return name.startswith("_") or hasattr(RadioRuntime, name)
def __setattr__(self, name: str, value: Any) -> None:
if self._is_local_runtime_attr(name):
object.__setattr__(self, name, value)
return
setattr(self.manager, name, value)
def __delattr__(self, name: str) -> None:
if self._is_local_runtime_attr(name):
object.__delattr__(self, name)
return
delattr(self.manager, name)
def require_connected(self):
"""Return MeshCore when available, mirroring existing HTTP semantics."""
if self.is_setup_in_progress:
raise HTTPException(status_code=503, detail="Radio is initializing")
if not self.is_connected:
raise HTTPException(status_code=503, detail="Radio not connected")
mc = self.meshcore
if mc is None:
raise HTTPException(status_code=503, detail="Radio not connected")
return mc
@asynccontextmanager
async def radio_operation(self, name: str, **kwargs):
async with self.manager.radio_operation(name, **kwargs) as mc:
yield mc
async def start_connection_monitor(self) -> None:
await self.manager.start_connection_monitor()
async def stop_connection_monitor(self) -> None:
await self.manager.stop_connection_monitor()
async def disconnect(self) -> None:
await self.manager.disconnect()
async def prepare_connected(self, *, broadcast_on_success: bool = True) -> bool:
from app.services.radio_lifecycle import prepare_connected_radio
return await prepare_connected_radio(
self.manager, broadcast_on_success=broadcast_on_success
)
async def reconnect_and_prepare(self, *, broadcast_on_success: bool = True) -> bool:
from app.services.radio_lifecycle import reconnect_and_prepare_radio
return await reconnect_and_prepare_radio(
self.manager,
broadcast_on_success=broadcast_on_success,
)
radio_runtime = RadioRuntime()

View File

@@ -1,13 +1,12 @@
"""WebSocket manager for real-time updates."""
import asyncio
import json
import logging
from typing import Any
from fastapi import WebSocket
from app.events import dump_ws_event
logger = logging.getLogger(__name__)
# Timeout for individual WebSocket send operations (seconds)
@@ -46,7 +45,7 @@ class WebSocketManager:
if not self.active_connections:
return
message = dump_ws_event(event_type, data)
message = json.dumps({"type": event_type, "data": data})
# Copy connection list under lock to avoid holding lock during I/O
async with self._lock:
@@ -82,7 +81,7 @@ class WebSocketManager:
async def send_personal(self, websocket: WebSocket, event_type: str, data: Any) -> None:
"""Send an event to a specific client."""
message = dump_ws_event(event_type, data)
message = json.dumps({"type": event_type, "data": data})
try:
await websocket.send_text(message)
except Exception as e:
@@ -93,27 +92,14 @@ class WebSocketManager:
ws_manager = WebSocketManager()
def broadcast_event(event_type: str, data: dict, *, realtime: bool = True) -> None:
def broadcast_event(event_type: str, data: dict) -> None:
"""Schedule a broadcast without blocking.
Convenience function that creates an asyncio task to broadcast
an event to all connected WebSocket clients and forward to fanout modules.
Args:
event_type: Event type string (e.g. "message", "raw_packet")
data: Event payload dict
realtime: If False, skip fanout dispatch (used for historical decryption)
an event to all connected WebSocket clients.
"""
asyncio.create_task(ws_manager.broadcast(event_type, data))
if realtime:
from app.fanout.manager import fanout_manager
if event_type == "message":
asyncio.create_task(fanout_manager.broadcast_message(data))
elif event_type == "raw_packet":
asyncio.create_task(fanout_manager.broadcast_raw(data))
def broadcast_error(message: str, details: str | None = None) -> None:
"""Broadcast an error notification to all connected clients.
@@ -137,13 +123,13 @@ def broadcast_success(message: str, details: str | None = None) -> None:
asyncio.create_task(ws_manager.broadcast("success", data))
def broadcast_health(radio_connected: bool, connection_info: str | None = None) -> None:
def broadcast_health(radio_connected: bool, serial_port: str | None = None) -> None:
"""Broadcast health status change to all connected clients."""
async def _broadcast():
from app.routers.health import build_health_data
data = await build_health_data(radio_connected, connection_info)
data = await build_health_data(radio_connected, serial_port)
await ws_manager.broadcast("health", data)
asyncio.create_task(_broadcast())

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@@ -1,32 +0,0 @@
services:
remoteterm:
build: .
# image: jkingsman/remoteterm-meshcore:latest
# Optional on Linux: run container as your host user to avoid root-owned files in ./data
# user: "${UID:-1000}:${GID:-1000}"
ports:
- "8000:8000"
volumes:
- ./data:/app/data
################################################
# Set your serial device for passthrough here! #
################################################
devices:
- /dev/ttyACM0:/dev/ttyUSB0
environment:
MESHCORE_DATABASE_PATH: data/meshcore.db
# Radio connection -- optional if you map just a single serial device above, as the app will autodetect
# Serial (USB)
# MESHCORE_SERIAL_PORT: /dev/ttyUSB0
# MESHCORE_SERIAL_BAUDRATE: 115200
# TCP
# MESHCORE_TCP_HOST: 192.168.1.100
# MESHCORE_TCP_PORT: 4000
# Logging
# MESHCORE_LOG_LEVEL: INFO
restart: unless-stopped

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@@ -1 +0,0 @@
install-links=true

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View File

@@ -6,50 +6,13 @@
<meta name="mobile-web-app-capable" content="yes" />
<meta name="apple-mobile-web-app-status-bar-style" content="black-translucent" />
<meta name="apple-mobile-web-app-title" content="MCTerm" />
<meta name="theme-color" content="#111419" />
<meta name="description" content="Web interface for MeshCore mesh radio networks. Send and receive messages, manage contacts and channels, and configure your radio." />
<meta name="theme-color" content="#0a0a0a" />
<title>RemoteTerm for MeshCore</title>
<link rel="icon" type="image/png" href="/favicon-96x96.png" sizes="96x96" />
<link rel="icon" type="image/svg+xml" href="/favicon.svg" />
<link rel="shortcut icon" href="/favicon.ico" />
<link rel="apple-touch-icon" sizes="180x180" href="/apple-touch-icon.png" />
<link rel="manifest" href="/site.webmanifest" />
<script>
// Start critical data fetches before React/Vite JS loads.
// Must be in <head> BEFORE the module script so the browser queues these
// fetches before it discovers and starts downloading the JS bundle.
// React hooks consume the promises via window.__prefetch.
var fetchJsonOrThrow = function(url) {
return fetch(url).then(function(response) {
if (response.ok) {
return response.json();
}
return response.text().then(function(rawError) {
var message = rawError || response.statusText || ('HTTP ' + response.status);
try {
var parsed = JSON.parse(rawError);
if (parsed && typeof parsed.detail === 'string' && parsed.detail.length > 0) {
message = parsed.detail;
}
} catch {
// Keep raw text fallback when body is not JSON.
}
throw new Error('Prefetch failed for ' + url + ': ' + message);
});
}).catch(function(err) {
console.error(err);
throw err;
});
};
window.__prefetch = {
config: fetchJsonOrThrow('/api/radio/config'),
settings: fetchJsonOrThrow('/api/settings'),
channels: fetchJsonOrThrow('/api/channels'),
contacts: fetchJsonOrThrow('/api/contacts?limit=1000&offset=0'),
unreads: fetchJsonOrThrow('/api/read-state/unreads'),
undecryptedCount: fetchJsonOrThrow('/api/packets/undecrypted/count'),
};
</script>
</head>
<body>
<div id="root"></div>

View File

@@ -1,21 +0,0 @@
MIT License
Copyright (c) 2025 Michael Hart <michaelhart@michaelhart.me> (https://github.com/michaelhart)
Permission is hereby granted, free of charge, to any person obtaining a copy
of this software and associated documentation files (the "Software"), to deal
in the Software without restriction, including without limitation the rights
to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
copies of the Software, and to permit persons to whom the Software is
furnished to do so, subject to the following conditions:
The above copyright notice and this permission notice shall be included in all
copies or substantial portions of the Software.
THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
SOFTWARE.

View File

@@ -1,453 +0,0 @@
# MeshCore Decoder
A TypeScript library for decoding MeshCore mesh networking packets with full cryptographic support. Uses WebAssembly (WASM) for Ed25519 key derivation through the [orlp/ed25519 library](https://github.com/orlp/ed25519).
This powers the [MeshCore Packet Analyzer](https://analyzer.letsme.sh/).
## Features
- **Packet Decoding**: Decode MeshCore packets
- **Built-in Decryption**: Decrypt GroupText, TextMessage, and other encrypted payloads
- **Developer Friendly**: TypeScript-first with full type safety and portability of JavaScript
## Installation
### Install to a single project
```bash
npm install @michaelhart/meshcore-decoder
```
### Install CLI (install globally)
```bash
npm install -g @michaelhart/meshcore-decoder
```
## Quick Start
```typescript
import {
MeshCoreDecoder,
PayloadType,
Utils,
DecodedPacket,
AdvertPayload
} from '@michaelhart/meshcore-decoder';
// Decode a MeshCore packet
const hexData: string = '11007E7662676F7F0850A8A355BAAFBFC1EB7B4174C340442D7D7161C9474A2C94006CE7CF682E58408DD8FCC51906ECA98EBF94A037886BDADE7ECD09FD92B839491DF3809C9454F5286D1D3370AC31A34593D569E9A042A3B41FD331DFFB7E18599CE1E60992A076D50238C5B8F85757375354522F50756765744D65736820436F75676172';
const packet: DecodedPacket = MeshCoreDecoder.decode(hexData);
console.log(`Route Type: ${Utils.getRouteTypeName(packet.routeType)}`);
console.log(`Payload Type: ${Utils.getPayloadTypeName(packet.payloadType)}`);
console.log(`Message Hash: ${packet.messageHash}`);
if (packet.payloadType === PayloadType.Advert && packet.payload.decoded) {
const advert: AdvertPayload = packet.payload.decoded as AdvertPayload;
console.log(`Device Name: ${advert.appData.name}`);
console.log(`Device Role: ${Utils.getDeviceRoleName(advert.appData.deviceRole)}`);
if (advert.appData.location) {
console.log(`Location: ${advert.appData.location.latitude}, ${advert.appData.location.longitude}`);
}
}
```
## Full Packet Structure Example
Here's what a complete decoded packet looks like:
```typescript
import { MeshCoreDecoder, DecodedPacket } from '@michaelhart/meshcore-decoder';
const hexData: string = '11007E7662676F7F0850A8A355BAAFBFC1EB7B4174C340442D7D7161C9474A2C94006CE7CF682E58408DD8FCC51906ECA98EBF94A037886BDADE7ECD09FD92B839491DF3809C9454F5286D1D3370AC31A34593D569E9A042A3B41FD331DFFB7E18599CE1E60992A076D50238C5B8F85757375354522F50756765744D65736820436F75676172';
const packet: DecodedPacket = MeshCoreDecoder.decode(hexData);
console.log(JSON.stringify(packet, null, 2));
```
**Output:**
```json
{
"messageHash": "F9C060FE",
"routeType": 1,
"payloadType": 4,
"payloadVersion": 0,
"pathLength": 0,
"path": null,
"payload": {
"raw": "7E7662676F7F0850A8A355BAAFBFC1EB7B4174C340442D7D7161C9474A2C94006CE7CF682E58408DD8FCC51906ECA98EBF94A037886BDADE7ECD09FD92B839491DF3809C9454F5286D1D3370AC31A34593D569E9A042A3B41FD331DFFB7E18599CE1E60992A076D50238C5B8F85757375354522F50756765744D65736820436F75676172",
"decoded": {
"type": 4,
"version": 0,
"isValid": true,
"publicKey": "7E7662676F7F0850A8A355BAAFBFC1EB7B4174C340442D7D7161C9474A2C9400",
"timestamp": 1758455660,
"signature": "2E58408DD8FCC51906ECA98EBF94A037886BDADE7ECD09FD92B839491DF3809C9454F5286D1D3370AC31A34593D569E9A042A3B41FD331DFFB7E18599CE1E609",
"appData": {
"flags": 146,
"deviceRole": 2,
"hasLocation": true,
"hasName": true,
"location": {
"latitude": 47.543968,
"longitude": -122.108616
},
"name": "WW7STR/PugetMesh Cougar"
}
}
},
"totalBytes": 134,
"isValid": true
}
```
## Packet Support
| Value | Name | Description | Decoding | Decryption | Segment Analysis |
|-------|------|-------------|----------|------------|------------------|
| `0x00` | Request | Request (destination/source hashes + MAC) | ✅ | 🚧 | ✅ |
| `0x01` | Response | Response to REQ or ANON_REQ | ✅ | 🚧 | ✅ |
| `0x02` | Plain text message | Plain text message | ✅ | 🚧 | ✅ |
| `0x03` | Acknowledgment | Acknowledgment | ✅ | N/A | ✅ |
| `0x04` | Node advertisement | Node advertisement | ✅ | N/A | ✅ |
| `0x05` | Group text message | Group text message | ✅ | ✅ | ✅ |
| `0x06` | Group datagram | Group datagram | 🚧 | 🚧 | 🚧 |
| `0x07` | Anonymous request | Anonymous request | ✅ | 🚧 | ✅ |
| `0x08` | Returned path | Returned path | ✅ | N/A | ✅ |
| `0x09` | Trace | Trace a path, collecting SNI for each hop | ✅ | N/A | ✅ |
| `0x0A` | Multi-part packet | Packet is part of a sequence of packets | 🚧 | 🚧 | 🚧 |
| `0x0F` | Custom packet | Custom packet (raw bytes, custom encryption) | 🚧 | 🚧 | 🚧 |
**Legend:**
- ✅ Fully implemented
- 🚧 Planned/In development
- `-` Not applicable
For some packet types not yet supported here, they may not exist in MeshCore yet or I have yet to observe these packet types on the mesh.
## Decryption Support
Simply provide your channel secret keys and the library handles everything else:
```typescript
import {
MeshCoreDecoder,
PayloadType,
CryptoKeyStore,
DecodedPacket,
GroupTextPayload
} from '@michaelhart/meshcore-decoder';
// Create a key store with channel secret keys
const keyStore: CryptoKeyStore = MeshCoreDecoder.createKeyStore({
channelSecrets: [
'8b3387e9c5cdea6ac9e5edbaa115cd72', // Public channel (channel hash 11)
'ff2b7d74e8d20f71505bda9ea8d59a1c', // A different channel's secret
]
});
const groupTextHexData: string = '...'; // Your encrypted GroupText packet hex
// Decode encrypted GroupText message
const encryptedPacket: DecodedPacket = MeshCoreDecoder.decode(groupTextHexData, { keyStore });
if (encryptedPacket.payloadType === PayloadType.GroupText && encryptedPacket.payload.decoded) {
const groupText: GroupTextPayload = encryptedPacket.payload.decoded as GroupTextPayload;
if (groupText.decrypted) {
console.log(`Sender: ${groupText.decrypted.sender}`);
console.log(`Message: ${groupText.decrypted.message}`);
console.log(`Timestamp: ${new Date(groupText.decrypted.timestamp * 1000).toISOString()}`);
} else {
console.log('Message encrypted (no key available)');
}
}
```
The library automatically:
- Calculates channel hashes from your secret keys using SHA256
- Handles hash collisions (multiple keys with same first byte) by trying all matching keys
- Verifies message authenticity using HMAC-SHA256
- Decrypts using AES-128 ECB
## Packet Structure Analysis
For detailed packet analysis and debugging, use `analyzeStructure()` to get byte-level breakdowns:
```typescript
import { MeshCoreDecoder, PacketStructure } from '@michaelhart/meshcore-decoder';
console.log('=== Packet Breakdown ===');
const hexData: string = '11007E7662676F7F0850A8A355BAAFBFC1EB7B4174C340442D7D7161C9474A2C94006CE7CF682E58408DD8FCC51906ECA98EBF94A037886BDADE7ECD09FD92B839491DF3809C9454F5286D1D3370AC31A34593D569E9A042A3B41FD331DFFB7E18599CE1E60992A076D50238C5B8F85757375354522F50756765744D65736820436F75676172';
console.log('Packet length:', hexData.length);
console.log('Expected bytes:', hexData.length / 2);
const structure: PacketStructure = MeshCoreDecoder.analyzeStructure(hexData);
console.log('\nMain segments:');
structure.segments.forEach((seg, i) => {
console.log(`${i+1}. ${seg.name} (bytes ${seg.startByte}-${seg.endByte}): ${seg.value}`);
});
console.log('\nPayload segments:');
structure.payload.segments.forEach((seg, i) => {
console.log(`${i+1}. ${seg.name} (bytes ${seg.startByte}-${seg.endByte}): ${seg.value}`);
console.log(` Description: ${seg.description}`);
});
```
**Output:**
```
=== Packet Breakdown ===
Packet length: 268
Expected bytes: 134
Main segments:
1. Header (bytes 0-0): 0x11
2. Path Length (bytes 1-1): 0x00
3. Payload (bytes 2-133): 7E7662676F7F0850A8A355BAAFBFC1EB7B4174C340442D7D7161C9474A2C94006CE7CF682E58408DD8FCC51906ECA98EBF94A037886BDADE7ECD09FD92B839491DF3809C9454F5286D1D3370AC31A34593D569E9A042A3B41FD331DFFB7E18599CE1E60992A076D50238C5B8F85757375354522F50756765744D65736820436F75676172
Payload segments:
1. Public Key (bytes 0-31): 7E7662676F7F0850A8A355BAAFBFC1EB7B4174C340442D7D7161C9474A2C9400
Description: Ed25519 public key
2. Timestamp (bytes 32-35): 6CE7CF68
Description: 1758455660 (2025-09-21T11:54:20Z)
3. Signature (bytes 36-99): 2E58408DD8FCC51906ECA98EBF94A037886BDADE7ECD09FD92B839491DF3809C9454F5286D1D3370AC31A34593D569E9A042A3B41FD331DFFB7E18599CE1E609
Description: Ed25519 signature
4. App Flags (bytes 100-100): 92
Description: Binary: 10010010 | Bits 0-3 (Role): Room server | Bit 4 (Location): Yes | Bit 5 (Feature1): No | Bit 6 (Feature2): No | Bit 7 (Name): Yes
5. Latitude (bytes 101-104): A076D502
Description: 47.543968° (47.543968)
6. Longitude (bytes 105-108): 38C5B8F8
Description: -122.108616° (-122.108616)
7. Node Name (bytes 109-131): 5757375354522F50756765744D65736820436F75676172
Description: Node name: "WW7STR/PugetMesh Cougar"
```
The `analyzeStructure()` method provides:
- **Header breakdown** with bit-level field analysis
- **Byte-accurate segments** with start/end positions
- **Payload field parsing** for all supported packet types
- **Human-readable descriptions** for each field
## Ed25519 Key Derivation
The library includes MeshCore-compatible Ed25519 key derivation using the exact orlp/ed25519 algorithm via WebAssembly:
```typescript
import { Utils } from '@michaelhart/meshcore-decoder';
// Derive public key from MeshCore private key (64-byte format)
const privateKey = '18469d6140447f77de13cd8d761e605431f52269fbff43b0925752ed9e6745435dc6a86d2568af8b70d3365db3f88234760c8ecc645ce469829bc45b65f1d5d5';
const publicKey = await Utils.derivePublicKey(privateKey);
console.log('Derived Public Key:', publicKey);
// Output: 4852B69364572B52EFA1B6BB3E6D0ABED4F389A1CBFBB60A9BBA2CCE649CAF0E
// Validate a key pair
const isValid = await Utils.validateKeyPair(privateKey, publicKey);
console.log('Key pair valid:', isValid); // true
```
### Command Line Interface
For quick analysis from the terminal, install globally and use the CLI:
```bash
# Install globally
npm install -g @michaelhart/meshcore-decoder
# Analyze a packet
meshcore-decoder 11007E7662676F7F0850A8A355BAAFBFC1EB7B4174C340442D7D7161C9474A2C94006CE7CF682E58408DD8FCC51906ECA98EBF94A037886BDADE7ECD09FD92B839491DF3809C9454F5286D1D3370AC31A34593D569E9A042A3B41FD331DFFB7E18599CE1E60992A076D50238C5B8F85757375354522F50756765744D65736820436F75676172
# With decryption (provide channel secrets)
meshcore-decoder 150011C3C1354D619BAE9590E4D177DB7EEAF982F5BDCF78005D75157D9535FA90178F785D --key 8b3387e9c5cdea6ac9e5edbaa115cd72
# Show detailed structure analysis
meshcore-decoder --structure 11007E7662676F7F0850A8A355BAAFBFC1EB7B4174C340442D7D7161C9474A2C94006CE7CF682E58408DD8FCC51906ECA98EBF94A037886BDADE7ECD09FD92B839491DF3809C9454F5286D1D3370AC31A34593D569E9A042A3B41FD331DFFB7E18599CE1E60992A076D50238C5B8F85757375354522F50756765744D65736820436F75676172
# JSON output
meshcore-decoder --json 11007E7662676F7F0850A8A355BAAFBFC1EB7B4174C340442D7D7161C9474A2C94006CE7CF682E58408DD8FCC51906ECA98EBF94A037886BDADE7ECD09FD92B839491DF3809C9454F5286D1D3370AC31A34593D569E9A042A3B41FD331DFFB7E18599CE1E60992A076D50238C5B8F85757375354522F50756765744D65736820436F75676172
# Derive public key from MeshCore private key
meshcore-decoder derive-key 18469d6140447f77de13cd8d761e605431f52269fbff43b0925752ed9e6745435dc6a86d2568af8b70d3365db3f88234760c8ecc645ce469829bc45b65f1d5d5
# Validate key pair
meshcore-decoder derive-key 18469d6140447f77de13cd8d761e605431f52269fbff43b0925752ed9e6745435dc6a86d2568af8b70d3365db3f88234760c8ecc645ce469829bc45b65f1d5d5 --validate 4852b69364572b52efa1b6bb3e6d0abed4f389a1cbfbb60a9bba2cce649caf0e
# Key derivation with JSON output
meshcore-decoder derive-key 18469d6140447f77de13cd8d761e605431f52269fbff43b0925752ed9e6745435dc6a86d2568af8b70d3365db3f88234760c8ecc645ce469829bc45b65f1d5d5 --json
```
## Using with Angular
The library works in Angular (and other browser-based) applications but requires additional configuration for WASM support and browser compatibility.
### 1. Configure Assets in `angular.json`
Add the WASM files to your Angular assets configuration:
```json
{
"projects": {
"your-app": {
"architect": {
"build": {
"options": {
"assets": [
// ... your existing assets ...
{
"glob": "orlp-ed25519.*",
"input": "./node_modules/@michaelhart/meshcore-decoder/lib",
"output": "assets/"
}
]
}
}
}
}
}
}
```
### 2. Create a WASM Service
Create `src/app/services/meshcore-wasm.ts`:
```typescript
import { Injectable } from '@angular/core';
import { BehaviorSubject } from 'rxjs';
@Injectable({ providedIn: 'root' })
export class MeshCoreWasmService {
private wasm: any = null;
public ready = new BehaviorSubject<boolean>(false);
constructor() {
this.loadWasm();
}
private async loadWasm() {
try {
const jsResponse = await fetch('/assets/orlp-ed25519.js');
const jsText = await jsResponse.text();
const script = document.createElement('script');
script.textContent = jsText;
document.head.appendChild(script);
this.wasm = await (window as any).OrlpEd25519({
locateFile: (path: string) => path === 'orlp-ed25519.wasm' ? '/assets/orlp-ed25519.wasm' : path
});
this.ready.next(true);
} catch (error) {
console.error('WASM load failed:', error);
this.ready.next(false);
}
}
derivePublicKey(privateKeyHex: string): string | null {
if (!this.wasm) return null;
const privateKeyBytes = this.hexToBytes(privateKeyHex);
const privateKeyPtr = 1024;
const publicKeyPtr = 1088;
this.wasm.HEAPU8.set(privateKeyBytes, privateKeyPtr);
const result = this.wasm.ccall('orlp_derive_public_key', 'number', ['number', 'number'], [publicKeyPtr, privateKeyPtr]);
if (result === 0) {
const publicKeyBytes = this.wasm.HEAPU8.subarray(publicKeyPtr, publicKeyPtr + 32);
return this.bytesToHex(publicKeyBytes);
}
return null;
}
private hexToBytes(hex: string): Uint8Array {
const bytes = new Uint8Array(hex.length / 2);
for (let i = 0; i < hex.length; i += 2) {
bytes[i / 2] = parseInt(hex.substr(i, 2), 16);
}
return bytes;
}
private bytesToHex(bytes: Uint8Array): string {
return Array.from(bytes).map(b => b.toString(16).padStart(2, '0')).join('').toUpperCase();
}
}
```
### 3. Basic Usage
```typescript
import { MeshCorePacketDecoder } from '@michaelhart/meshcore-decoder';
import { MeshCoreWasmService } from './services/meshcore-wasm';
// Basic packet decoding (works immediately)
const packet = MeshCorePacketDecoder.decode(hexData);
// Key derivation (wait for WASM)
wasmService.ready.subscribe(isReady => {
if (isReady) {
const publicKey = wasmService.derivePublicKey(privateKeyHex);
}
});
```
### Angular/Browser: Important Notes
- **WASM Loading**: The library uses WebAssembly for Ed25519 key derivation. This requires proper asset configuration and a service to handle async WASM loading.
- **Browser Compatibility**: The library automatically detects the environment and uses Web Crypto API in browsers, Node.js crypto in Node.js.
- **Async Operations**: Key derivation is async due to WASM loading. Always wait for the `WasmService.ready` observable.
- **Error Handling**: WASM operations may fail in some environments. Always wrap in try-catch blocks.
## Development
```bash
# Install dependencies
npm install
# Run tests
npm test
# Run tests in watch mode
npm run test:watch
# Build for production
npm run build
# Development with ts-node
npm run dev
```
## License
MIT License
Copyright (c) 2025 Michael Hart <michaelhart@michaelhart.me> (https://github.com/michaelhart)
Permission is hereby granted, free of charge, to any person obtaining a copy
of this software and associated documentation files (the "Software"), to deal
in the Software without restriction, including without limitation the rights
to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
copies of the Software, and to permit persons to whom the Software is
furnished to do so, subject to the following conditions:
The above copyright notice and this permission notice shall be included in all
copies or substantial portions of the Software.
THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
SOFTWARE.

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@@ -1,3 +0,0 @@
#!/usr/bin/env node
export {};
//# sourceMappingURL=cli.d.ts.map

View File

@@ -1 +0,0 @@
{"version":3,"file":"cli.d.ts","sourceRoot":"","sources":["../src/cli.ts"],"names":[],"mappings":""}

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@@ -1,409 +0,0 @@
#!/usr/bin/env node
"use strict";
var __createBinding = (this && this.__createBinding) || (Object.create ? (function(o, m, k, k2) {
if (k2 === undefined) k2 = k;
var desc = Object.getOwnPropertyDescriptor(m, k);
if (!desc || ("get" in desc ? !m.__esModule : desc.writable || desc.configurable)) {
desc = { enumerable: true, get: function() { return m[k]; } };
}
Object.defineProperty(o, k2, desc);
}) : (function(o, m, k, k2) {
if (k2 === undefined) k2 = k;
o[k2] = m[k];
}));
var __setModuleDefault = (this && this.__setModuleDefault) || (Object.create ? (function(o, v) {
Object.defineProperty(o, "default", { enumerable: true, value: v });
}) : function(o, v) {
o["default"] = v;
});
var __importStar = (this && this.__importStar) || (function () {
var ownKeys = function(o) {
ownKeys = Object.getOwnPropertyNames || function (o) {
var ar = [];
for (var k in o) if (Object.prototype.hasOwnProperty.call(o, k)) ar[ar.length] = k;
return ar;
};
return ownKeys(o);
};
return function (mod) {
if (mod && mod.__esModule) return mod;
var result = {};
if (mod != null) for (var k = ownKeys(mod), i = 0; i < k.length; i++) if (k[i] !== "default") __createBinding(result, mod, k[i]);
__setModuleDefault(result, mod);
return result;
};
})();
var __importDefault = (this && this.__importDefault) || function (mod) {
return (mod && mod.__esModule) ? mod : { "default": mod };
};
Object.defineProperty(exports, "__esModule", { value: true });
const packet_decoder_1 = require("./decoder/packet-decoder");
const enums_1 = require("./types/enums");
const enum_names_1 = require("./utils/enum-names");
const index_1 = require("./index");
const commander_1 = require("commander");
const chalk_1 = __importDefault(require("chalk"));
const packageJson = __importStar(require("../package.json"));
commander_1.program
.name('meshcore-decoder')
.description('CLI tool for decoding MeshCore packets')
.version(packageJson.version);
// Default decode command
commander_1.program
.command('decode', { isDefault: true })
.description('Decode a MeshCore packet')
.argument('<hex>', 'Hex string of the packet to decode')
.option('-k, --key <keys...>', 'Channel secret keys for decryption (hex)')
.option('-j, --json', 'Output as JSON instead of formatted text')
.option('-s, --structure', 'Show detailed packet structure analysis')
.action(async (hex, options) => {
try {
// Clean up hex input
const cleanHex = hex.replace(/\s+/g, '').replace(/^0x/i, '');
// Create key store if keys provided
let keyStore;
if (options.key && options.key.length > 0) {
keyStore = packet_decoder_1.MeshCorePacketDecoder.createKeyStore({
channelSecrets: options.key
});
}
// Decode packet with signature verification
const packet = await packet_decoder_1.MeshCorePacketDecoder.decodeWithVerification(cleanHex, { keyStore });
if (options.json) {
// JSON output
if (options.structure) {
const structure = await packet_decoder_1.MeshCorePacketDecoder.analyzeStructureWithVerification(cleanHex, { keyStore });
console.log(JSON.stringify({ packet, structure }, null, 2));
}
else {
console.log(JSON.stringify(packet, null, 2));
}
}
else {
// Formatted output
console.log(chalk_1.default.cyan('=== MeshCore Packet Analysis ===\n'));
if (!packet.isValid) {
console.log(chalk_1.default.red('❌ Invalid Packet'));
if (packet.errors) {
packet.errors.forEach(error => console.log(chalk_1.default.red(` ${error}`)));
}
}
else {
console.log(chalk_1.default.green('✅ Valid Packet'));
}
console.log(`${chalk_1.default.bold('Message Hash:')} ${packet.messageHash}`);
console.log(`${chalk_1.default.bold('Route Type:')} ${(0, enum_names_1.getRouteTypeName)(packet.routeType)}`);
console.log(`${chalk_1.default.bold('Payload Type:')} ${(0, enum_names_1.getPayloadTypeName)(packet.payloadType)}`);
console.log(`${chalk_1.default.bold('Total Bytes:')} ${packet.totalBytes}`);
if (packet.path && packet.path.length > 0) {
console.log(`${chalk_1.default.bold('Path:')} ${packet.path.join(' → ')}`);
}
// Show payload details (even for invalid packets)
if (packet.payload.decoded) {
console.log(chalk_1.default.cyan('\n=== Payload Details ==='));
showPayloadDetails(packet.payload.decoded);
}
// Exit with error code if packet is invalid
if (!packet.isValid) {
process.exit(1);
}
// Show structure if requested
if (options.structure) {
const structure = await packet_decoder_1.MeshCorePacketDecoder.analyzeStructureWithVerification(cleanHex, { keyStore });
console.log(chalk_1.default.cyan('\n=== Packet Structure ==='));
console.log(chalk_1.default.yellow('\nMain Segments:'));
structure.segments.forEach((seg, i) => {
console.log(`${i + 1}. ${chalk_1.default.bold(seg.name)} (bytes ${seg.startByte}-${seg.endByte}): ${seg.value}`);
if (seg.description) {
console.log(` ${chalk_1.default.dim(seg.description)}`);
}
});
if (structure.payload.segments.length > 0) {
console.log(chalk_1.default.yellow('\nPayload Segments:'));
structure.payload.segments.forEach((seg, i) => {
console.log(`${i + 1}. ${chalk_1.default.bold(seg.name)} (bytes ${seg.startByte}-${seg.endByte}): ${seg.value}`);
console.log(` ${chalk_1.default.dim(seg.description)}`);
});
}
}
}
}
catch (error) {
console.error(chalk_1.default.red('Error:'), error.message);
process.exit(1);
}
});
function showPayloadDetails(payload) {
switch (payload.type) {
case enums_1.PayloadType.Advert:
const advert = payload;
console.log(`${chalk_1.default.bold('Device Role:')} ${(0, enum_names_1.getDeviceRoleName)(advert.appData.deviceRole)}`);
if (advert.appData.name) {
console.log(`${chalk_1.default.bold('Device Name:')} ${advert.appData.name}`);
}
if (advert.appData.location) {
console.log(`${chalk_1.default.bold('Location:')} ${advert.appData.location.latitude}, ${advert.appData.location.longitude}`);
}
console.log(`${chalk_1.default.bold('Timestamp:')} ${new Date(advert.timestamp * 1000).toISOString()}`);
// Show signature verification status
if (advert.signatureValid !== undefined) {
if (advert.signatureValid) {
console.log(`${chalk_1.default.bold('Signature:')} ${chalk_1.default.green('✅ Valid Ed25519 signature')}`);
}
else {
console.log(`${chalk_1.default.bold('Signature:')} ${chalk_1.default.red('❌ Invalid Ed25519 signature')}`);
if (advert.signatureError) {
console.log(`${chalk_1.default.bold('Error:')} ${chalk_1.default.red(advert.signatureError)}`);
}
}
}
else {
console.log(`${chalk_1.default.bold('Signature:')} ${chalk_1.default.yellow('⚠️ Not verified (use async verification)')}`);
}
break;
case enums_1.PayloadType.GroupText:
const groupText = payload;
console.log(`${chalk_1.default.bold('Channel Hash:')} ${groupText.channelHash}`);
if (groupText.decrypted) {
console.log(chalk_1.default.green('🔓 Decrypted Message:'));
if (groupText.decrypted.sender) {
console.log(`${chalk_1.default.bold('Sender:')} ${groupText.decrypted.sender}`);
}
console.log(`${chalk_1.default.bold('Message:')} ${groupText.decrypted.message}`);
console.log(`${chalk_1.default.bold('Timestamp:')} ${new Date(groupText.decrypted.timestamp * 1000).toISOString()}`);
}
else {
console.log(chalk_1.default.yellow('🔒 Encrypted (no key available)'));
console.log(`${chalk_1.default.bold('Ciphertext:')} ${groupText.ciphertext.substring(0, 32)}...`);
}
break;
case enums_1.PayloadType.Trace:
const trace = payload;
console.log(`${chalk_1.default.bold('Trace Tag:')} ${trace.traceTag}`);
console.log(`${chalk_1.default.bold('Auth Code:')} ${trace.authCode}`);
if (trace.snrValues && trace.snrValues.length > 0) {
console.log(`${chalk_1.default.bold('SNR Values:')} ${trace.snrValues.map(snr => `${snr.toFixed(1)}dB`).join(', ')}`);
}
break;
default:
console.log(`${chalk_1.default.bold('Type:')} ${(0, enum_names_1.getPayloadTypeName)(payload.type)}`);
console.log(`${chalk_1.default.bold('Valid:')} ${payload.isValid ? '✅' : '❌'}`);
}
}
// Add key derivation command
commander_1.program
.command('derive-key')
.description('Derive Ed25519 public key from MeshCore private key')
.argument('<private-key>', '64-byte private key in hex format')
.option('-v, --validate <public-key>', 'Validate against expected public key')
.option('-j, --json', 'Output as JSON')
.action(async (privateKeyHex, options) => {
try {
// Clean up hex input
const cleanPrivateKey = privateKeyHex.replace(/\s+/g, '').replace(/^0x/i, '');
if (cleanPrivateKey.length !== 128) {
console.error(chalk_1.default.red('❌ Error: Private key must be exactly 64 bytes (128 hex characters)'));
process.exit(1);
}
if (options.json) {
// JSON output
const result = {
privateKey: cleanPrivateKey,
derivedPublicKey: await index_1.Utils.derivePublicKey(cleanPrivateKey)
};
if (options.validate) {
const cleanExpectedKey = options.validate.replace(/\s+/g, '').replace(/^0x/i, '');
result.expectedPublicKey = cleanExpectedKey;
result.isValid = await index_1.Utils.validateKeyPair(cleanPrivateKey, cleanExpectedKey);
result.match = result.derivedPublicKey.toLowerCase() === cleanExpectedKey.toLowerCase();
}
console.log(JSON.stringify(result, null, 2));
}
else {
// Formatted output
console.log(chalk_1.default.cyan('=== MeshCore Ed25519 Key Derivation ===\n'));
console.log(chalk_1.default.bold('Private Key (64 bytes):'));
console.log(chalk_1.default.gray(cleanPrivateKey));
console.log();
console.log(chalk_1.default.bold('Derived Public Key (32 bytes):'));
const derivedKey = await index_1.Utils.derivePublicKey(cleanPrivateKey);
console.log(chalk_1.default.green(derivedKey));
console.log();
if (options.validate) {
const cleanExpectedKey = options.validate.replace(/\s+/g, '').replace(/^0x/i, '');
console.log(chalk_1.default.bold('Expected Public Key:'));
console.log(chalk_1.default.gray(cleanExpectedKey));
console.log();
const match = derivedKey.toLowerCase() === cleanExpectedKey.toLowerCase();
console.log(chalk_1.default.bold('Validation:'));
console.log(match ? chalk_1.default.green('Keys match') : chalk_1.default.red('Keys do not match'));
if (!match) {
process.exit(1);
}
}
console.log(chalk_1.default.green('Key derivation completed successfully'));
}
}
catch (error) {
const errorMessage = error instanceof Error ? error.message : 'Unknown error';
if (options.json) {
console.log(JSON.stringify({ error: errorMessage }, null, 2));
}
else {
console.error(chalk_1.default.red(`Error: ${errorMessage}`));
}
process.exit(1);
}
});
// Add auth-token command
commander_1.program
.command('auth-token')
.description('Generate JWT authentication token signed with Ed25519 private key')
.argument('<public-key>', '32-byte public key in hex format')
.argument('<private-key>', '64-byte private key in hex format')
.option('-e, --exp <seconds>', 'Token expiration in seconds from now (default: 86400 = 24 hours)', '86400')
.option('-c, --claims <json>', 'Additional claims as JSON object (e.g., \'{"aud":"mqtt.example.com","sub":"device-123"}\')')
.option('-j, --json', 'Output as JSON')
.action(async (publicKeyHex, privateKeyHex, options) => {
try {
const { createAuthToken } = await Promise.resolve().then(() => __importStar(require('./utils/auth-token')));
// Clean up hex inputs
const cleanPublicKey = publicKeyHex.replace(/\s+/g, '').replace(/^0x/i, '');
const cleanPrivateKey = privateKeyHex.replace(/\s+/g, '').replace(/^0x/i, '');
if (cleanPublicKey.length !== 64) {
console.error(chalk_1.default.red('❌ Error: Public key must be exactly 32 bytes (64 hex characters)'));
process.exit(1);
}
if (cleanPrivateKey.length !== 128) {
console.error(chalk_1.default.red('❌ Error: Private key must be exactly 64 bytes (128 hex characters)'));
process.exit(1);
}
const expSeconds = parseInt(options.exp);
const iat = Math.floor(Date.now() / 1000);
const exp = iat + expSeconds;
const payload = {
publicKey: cleanPublicKey.toUpperCase(),
iat,
exp
};
// Parse and merge additional claims if provided
if (options.claims) {
try {
const additionalClaims = JSON.parse(options.claims);
Object.assign(payload, additionalClaims);
}
catch (e) {
console.error(chalk_1.default.red('❌ Error: Invalid JSON in --claims option'));
process.exit(1);
}
}
const token = await createAuthToken(payload, cleanPrivateKey, cleanPublicKey.toUpperCase());
if (options.json) {
console.log(JSON.stringify({
token,
payload
}, null, 2));
}
else {
console.log(token);
}
}
catch (error) {
const errorMessage = error instanceof Error ? error.message : 'Unknown error';
if (options.json) {
console.log(JSON.stringify({ error: errorMessage }, null, 2));
}
else {
console.error(chalk_1.default.red(`Error: ${errorMessage}`));
}
process.exit(1);
}
});
// Add verify-token command
commander_1.program
.command('verify-token')
.description('Verify JWT authentication token')
.argument('<token>', 'JWT token to verify')
.option('-p, --public-key <key>', 'Expected public key in hex format (optional)')
.option('-j, --json', 'Output as JSON')
.action(async (token, options) => {
try {
const { verifyAuthToken } = await Promise.resolve().then(() => __importStar(require('./utils/auth-token')));
const cleanToken = token.trim();
let expectedPublicKey;
if (options.publicKey) {
const cleanKey = options.publicKey.replace(/\s+/g, '').replace(/^0x/i, '').toUpperCase();
if (cleanKey.length !== 64) {
console.error(chalk_1.default.red('❌ Error: Public key must be exactly 32 bytes (64 hex characters)'));
process.exit(1);
}
expectedPublicKey = cleanKey;
}
const payload = await verifyAuthToken(cleanToken, expectedPublicKey);
if (payload) {
const now = Math.floor(Date.now() / 1000);
const isExpired = payload.exp && now > payload.exp;
const timeToExpiry = payload.exp ? payload.exp - now : null;
if (options.json) {
console.log(JSON.stringify({
valid: true,
expired: isExpired,
payload,
timeToExpiry
}, null, 2));
}
else {
console.log(chalk_1.default.green('✅ Token is valid'));
console.log(chalk_1.default.cyan('\nPayload:'));
console.log(` Public Key: ${payload.publicKey}`);
console.log(` Issued At: ${new Date(payload.iat * 1000).toISOString()} (${payload.iat})`);
if (payload.exp) {
console.log(` Expires At: ${new Date(payload.exp * 1000).toISOString()} (${payload.exp})`);
if (isExpired) {
console.log(chalk_1.default.red(` Status: EXPIRED`));
}
else {
console.log(chalk_1.default.green(` Status: Valid for ${timeToExpiry} more seconds`));
}
}
// Show any additional claims
const standardClaims = ['publicKey', 'iat', 'exp'];
const customClaims = Object.keys(payload).filter(k => !standardClaims.includes(k));
if (customClaims.length > 0) {
console.log(chalk_1.default.cyan('\nCustom Claims:'));
customClaims.forEach(key => {
console.log(` ${key}: ${JSON.stringify(payload[key])}`);
});
}
}
}
else {
if (options.json) {
console.log(JSON.stringify({
valid: false,
error: 'Token verification failed'
}, null, 2));
}
else {
console.error(chalk_1.default.red('❌ Token verification failed'));
console.error(chalk_1.default.yellow('Possible reasons:'));
console.error(' - Invalid signature');
console.error(' - Token format is incorrect');
console.error(' - Public key mismatch (if --public-key was provided)');
}
process.exit(1);
}
}
catch (error) {
const errorMessage = error instanceof Error ? error.message : 'Unknown error';
if (options.json) {
console.log(JSON.stringify({ valid: false, error: errorMessage }, null, 2));
}
else {
console.error(chalk_1.default.red(`Error: ${errorMessage}`));
}
process.exit(1);
}
});
commander_1.program.parse();
//# sourceMappingURL=cli.js.map

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@@ -1,15 +0,0 @@
import { DecryptionResult } from '../types/crypto';
export declare class ChannelCrypto {
/**
* Decrypt GroupText message using MeshCore algorithm:
* - HMAC-SHA256 verification with 2-byte MAC
* - AES-128 ECB decryption
*/
static decryptGroupTextMessage(ciphertext: string, cipherMac: string, channelKey: string): DecryptionResult;
/**
* Calculate MeshCore channel hash from secret key
* Returns the first byte of SHA256(secret) as hex string
*/
static calculateChannelHash(secretKeyHex: string): string;
}
//# sourceMappingURL=channel-crypto.d.ts.map

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@@ -1 +0,0 @@
{"version":3,"file":"channel-crypto.d.ts","sourceRoot":"","sources":["../../src/crypto/channel-crypto.ts"],"names":[],"mappings":"AAIA,OAAO,EAAE,gBAAgB,EAAE,MAAM,iBAAiB,CAAC;AAGnD,qBAAa,aAAa;IACxB;;;;OAIG;IACH,MAAM,CAAC,uBAAuB,CAC5B,UAAU,EAAE,MAAM,EAClB,SAAS,EAAE,MAAM,EACjB,UAAU,EAAE,MAAM,GACjB,gBAAgB;IAuFnB;;;OAGG;IACH,MAAM,CAAC,oBAAoB,CAAC,YAAY,EAAE,MAAM,GAAG,MAAM;CAK1D"}

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@@ -1,94 +0,0 @@
"use strict";
// Copyright (c) 2025 Michael Hart: https://github.com/michaelhart/meshcore-decoder
// MIT License
Object.defineProperty(exports, "__esModule", { value: true });
exports.ChannelCrypto = void 0;
const crypto_js_1 = require("crypto-js");
const hex_1 = require("../utils/hex");
class ChannelCrypto {
/**
* Decrypt GroupText message using MeshCore algorithm:
* - HMAC-SHA256 verification with 2-byte MAC
* - AES-128 ECB decryption
*/
static decryptGroupTextMessage(ciphertext, cipherMac, channelKey) {
try {
// convert hex strings to byte arrays
const channelKey16 = (0, hex_1.hexToBytes)(channelKey);
const macBytes = (0, hex_1.hexToBytes)(cipherMac);
// MeshCore uses 32-byte channel secret: 16-byte key + 16 zero bytes
const channelSecret = new Uint8Array(32);
channelSecret.set(channelKey16, 0);
// Step 1: Verify HMAC-SHA256 using full 32-byte channel secret
const calculatedMac = (0, crypto_js_1.HmacSHA256)(crypto_js_1.enc.Hex.parse(ciphertext), crypto_js_1.enc.Hex.parse((0, hex_1.bytesToHex)(channelSecret)));
const calculatedMacBytes = (0, hex_1.hexToBytes)(calculatedMac.toString(crypto_js_1.enc.Hex));
const calculatedMacFirst2 = calculatedMacBytes.slice(0, 2);
if (calculatedMacFirst2[0] !== macBytes[0] || calculatedMacFirst2[1] !== macBytes[1]) {
return { success: false, error: 'MAC verification failed' };
}
// Step 2: Decrypt using AES-128 ECB with first 16 bytes of channel secret
const keyWords = crypto_js_1.enc.Hex.parse(channelKey);
const ciphertextWords = crypto_js_1.enc.Hex.parse(ciphertext);
const decrypted = crypto_js_1.AES.decrypt(crypto_js_1.lib.CipherParams.create({ ciphertext: ciphertextWords }), keyWords, { mode: crypto_js_1.mode.ECB, padding: crypto_js_1.pad.NoPadding });
const decryptedBytes = (0, hex_1.hexToBytes)(decrypted.toString(crypto_js_1.enc.Hex));
if (!decryptedBytes || decryptedBytes.length < 5) {
return { success: false, error: 'Decrypted content too short' };
}
// parse MeshCore format: timestamp(4) + flags(1) + message_text
const timestamp = decryptedBytes[0] |
(decryptedBytes[1] << 8) |
(decryptedBytes[2] << 16) |
(decryptedBytes[3] << 24);
const flagsAndAttempt = decryptedBytes[4];
// extract message text with UTF-8 decoding
const messageBytes = decryptedBytes.slice(5);
const decoder = new TextDecoder('utf-8');
let messageText = decoder.decode(messageBytes);
// remove null terminator if present
const nullIndex = messageText.indexOf('\0');
if (nullIndex >= 0) {
messageText = messageText.substring(0, nullIndex);
}
// parse sender and message (format: "sender: message")
const colonIndex = messageText.indexOf(': ');
let sender;
let content;
if (colonIndex > 0 && colonIndex < 50) {
const potentialSender = messageText.substring(0, colonIndex);
if (!/[:\[\]]/.test(potentialSender)) {
sender = potentialSender;
content = messageText.substring(colonIndex + 2);
}
else {
content = messageText;
}
}
else {
content = messageText;
}
return {
success: true,
data: {
timestamp,
flags: flagsAndAttempt,
sender,
message: content
}
};
}
catch (error) {
return { success: false, error: error instanceof Error ? error.message : 'Decryption failed' };
}
}
/**
* Calculate MeshCore channel hash from secret key
* Returns the first byte of SHA256(secret) as hex string
*/
static calculateChannelHash(secretKeyHex) {
const hash = (0, crypto_js_1.SHA256)(crypto_js_1.enc.Hex.parse(secretKeyHex));
const hashBytes = (0, hex_1.hexToBytes)(hash.toString(crypto_js_1.enc.Hex));
return hashBytes[0].toString(16).padStart(2, '0');
}
}
exports.ChannelCrypto = ChannelCrypto;
//# sourceMappingURL=channel-crypto.js.map

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@@ -1 +0,0 @@
{"version":3,"file":"channel-crypto.js","sourceRoot":"","sources":["../../src/crypto/channel-crypto.ts"],"names":[],"mappings":";AAAA,mFAAmF;AACnF,cAAc;;;AAEd,yCAAyE;AAEzE,sCAAsD;AAEtD,MAAa,aAAa;IACxB;;;;OAIG;IACH,MAAM,CAAC,uBAAuB,CAC5B,UAAkB,EAClB,SAAiB,EACjB,UAAkB;QAElB,IAAI,CAAC;YACH,qCAAqC;YACrC,MAAM,YAAY,GAAG,IAAA,gBAAU,EAAC,UAAU,CAAC,CAAC;YAC5C,MAAM,QAAQ,GAAG,IAAA,gBAAU,EAAC,SAAS,CAAC,CAAC;YAEvC,oEAAoE;YACpE,MAAM,aAAa,GAAG,IAAI,UAAU,CAAC,EAAE,CAAC,CAAC;YACzC,aAAa,CAAC,GAAG,CAAC,YAAY,EAAE,CAAC,CAAC,CAAC;YAEnC,+DAA+D;YAC/D,MAAM,aAAa,GAAG,IAAA,sBAAU,EAAC,eAAG,CAAC,GAAG,CAAC,KAAK,CAAC,UAAU,CAAC,EAAE,eAAG,CAAC,GAAG,CAAC,KAAK,CAAC,IAAA,gBAAU,EAAC,aAAa,CAAC,CAAC,CAAC,CAAC;YACtG,MAAM,kBAAkB,GAAG,IAAA,gBAAU,EAAC,aAAa,CAAC,QAAQ,CAAC,eAAG,CAAC,GAAG,CAAC,CAAC,CAAC;YACvE,MAAM,mBAAmB,GAAG,kBAAkB,CAAC,KAAK,CAAC,CAAC,EAAE,CAAC,CAAC,CAAC;YAE3D,IAAI,mBAAmB,CAAC,CAAC,CAAC,KAAK,QAAQ,CAAC,CAAC,CAAC,IAAI,mBAAmB,CAAC,CAAC,CAAC,KAAK,QAAQ,CAAC,CAAC,CAAC,EAAE,CAAC;gBACrF,OAAO,EAAE,OAAO,EAAE,KAAK,EAAE,KAAK,EAAE,yBAAyB,EAAE,CAAC;YAC9D,CAAC;YAED,0EAA0E;YAC1E,MAAM,QAAQ,GAAG,eAAG,CAAC,GAAG,CAAC,KAAK,CAAC,UAAU,CAAC,CAAC;YAC3C,MAAM,eAAe,GAAG,eAAG,CAAC,GAAG,CAAC,KAAK,CAAC,UAAU,CAAC,CAAC;YAElD,MAAM,SAAS,GAAG,eAAG,CAAC,OAAO,CAC3B,eAAG,CAAC,YAAY,CAAC,MAAM,CAAC,EAAE,UAAU,EAAE,eAAe,EAAE,CAAC,EACxD,QAAQ,EACR,EAAE,IAAI,EAAE,gBAAI,CAAC,GAAG,EAAE,OAAO,EAAE,eAAG,CAAC,SAAS,EAAE,CAC3C,CAAC;YAEF,MAAM,cAAc,GAAG,IAAA,gBAAU,EAAC,SAAS,CAAC,QAAQ,CAAC,eAAG,CAAC,GAAG,CAAC,CAAC,CAAC;YAE/D,IAAI,CAAC,cAAc,IAAI,cAAc,CAAC,MAAM,GAAG,CAAC,EAAE,CAAC;gBACjD,OAAO,EAAE,OAAO,EAAE,KAAK,EAAE,KAAK,EAAE,6BAA6B,EAAE,CAAC;YAClE,CAAC;YAED,gEAAgE;YAChE,MAAM,SAAS,GAAG,cAAc,CAAC,CAAC,CAAC;gBAClB,CAAC,cAAc,CAAC,CAAC,CAAC,IAAI,CAAC,CAAC;gBACxB,CAAC,cAAc,CAAC,CAAC,CAAC,IAAI,EAAE,CAAC;gBACzB,CAAC,cAAc,CAAC,CAAC,CAAC,IAAI,EAAE,CAAC,CAAC;YAE3C,MAAM,eAAe,GAAG,cAAc,CAAC,CAAC,CAAC,CAAC;YAE1C,2CAA2C;YAC3C,MAAM,YAAY,GAAG,cAAc,CAAC,KAAK,CAAC,CAAC,CAAC,CAAC;YAC7C,MAAM,OAAO,GAAG,IAAI,WAAW,CAAC,OAAO,CAAC,CAAC;YACzC,IAAI,WAAW,GAAG,OAAO,CAAC,MAAM,CAAC,YAAY,CAAC,CAAC;YAE/C,oCAAoC;YACpC,MAAM,SAAS,GAAG,WAAW,CAAC,OAAO,CAAC,IAAI,CAAC,CAAC;YAC5C,IAAI,SAAS,IAAI,CAAC,EAAE,CAAC;gBACnB,WAAW,GAAG,WAAW,CAAC,SAAS,CAAC,CAAC,EAAE,SAAS,CAAC,CAAC;YACpD,CAAC;YAED,uDAAuD;YACvD,MAAM,UAAU,GAAG,WAAW,CAAC,OAAO,CAAC,IAAI,CAAC,CAAC;YAC7C,IAAI,MAA0B,CAAC;YAC/B,IAAI,OAAe,CAAC;YAEpB,IAAI,UAAU,GAAG,CAAC,IAAI,UAAU,GAAG,EAAE,EAAE,CAAC;gBACtC,MAAM,eAAe,GAAG,WAAW,CAAC,SAAS,CAAC,CAAC,EAAE,UAAU,CAAC,CAAC;gBAC7D,IAAI,CAAC,SAAS,CAAC,IAAI,CAAC,eAAe,CAAC,EAAE,CAAC;oBACrC,MAAM,GAAG,eAAe,CAAC;oBACzB,OAAO,GAAG,WAAW,CAAC,SAAS,CAAC,UAAU,GAAG,CAAC,CAAC,CAAC;gBAClD,CAAC;qBAAM,CAAC;oBACN,OAAO,GAAG,WAAW,CAAC;gBACxB,CAAC;YACH,CAAC;iBAAM,CAAC;gBACN,OAAO,GAAG,WAAW,CAAC;YACxB,CAAC;YAED,OAAO;gBACL,OAAO,EAAE,IAAI;gBACb,IAAI,EAAE;oBACJ,SAAS;oBACT,KAAK,EAAE,eAAe;oBACtB,MAAM;oBACN,OAAO,EAAE,OAAO;iBACjB;aACF,CAAC;QACJ,CAAC;QAAC,OAAO,KAAK,EAAE,CAAC;YACf,OAAO,EAAE,OAAO,EAAE,KAAK,EAAE,KAAK,EAAE,KAAK,YAAY,KAAK,CAAC,CAAC,CAAC,KAAK,CAAC,OAAO,CAAC,CAAC,CAAC,mBAAmB,EAAE,CAAC;QACjG,CAAC;IACH,CAAC;IAID;;;OAGG;IACH,MAAM,CAAC,oBAAoB,CAAC,YAAoB;QAC9C,MAAM,IAAI,GAAG,IAAA,kBAAM,EAAC,eAAG,CAAC,GAAG,CAAC,KAAK,CAAC,YAAY,CAAC,CAAC,CAAC;QACjD,MAAM,SAAS,GAAG,IAAA,gBAAU,EAAC,IAAI,CAAC,QAAQ,CAAC,eAAG,CAAC,GAAG,CAAC,CAAC,CAAC;QACrD,OAAO,SAAS,CAAC,CAAC,CAAC,CAAC,QAAQ,CAAC,EAAE,CAAC,CAAC,QAAQ,CAAC,CAAC,EAAE,GAAG,CAAC,CAAC;IACpD,CAAC;CACF;AA1GD,sCA0GC"}

View File

@@ -1,48 +0,0 @@
export declare class Ed25519SignatureVerifier {
/**
* Verify an Ed25519 signature for MeshCore advertisement packets
*
* According to MeshCore protocol, the signed message for advertisements is:
* timestamp (4 bytes LE) + flags (1 byte) + location (8 bytes LE, if present) + name (variable, if present)
*/
static verifyAdvertisementSignature(publicKeyHex: string, signatureHex: string, timestamp: number, appDataHex: string): Promise<boolean>;
/**
* Construct the signed message for MeshCore advertisements
* According to MeshCore source (Mesh.cpp lines 242-248):
* Format: public_key (32 bytes) + timestamp (4 bytes LE) + app_data (variable length)
*/
private static constructAdvertSignedMessage;
/**
* Get a human-readable description of what was signed
*/
static getSignedMessageDescription(publicKeyHex: string, timestamp: number, appDataHex: string): string;
/**
* Get the hex representation of the signed message for debugging
*/
static getSignedMessageHex(publicKeyHex: string, timestamp: number, appDataHex: string): string;
/**
* Derive Ed25519 public key from orlp/ed25519 private key format
* This implements the same algorithm as orlp/ed25519's ed25519_derive_pub()
*
* @param privateKeyHex - 64-byte private key in hex format (orlp/ed25519 format)
* @returns 32-byte public key in hex format
*/
static derivePublicKey(privateKeyHex: string): Promise<string>;
/**
* Derive Ed25519 public key from orlp/ed25519 private key format (synchronous version)
* This implements the same algorithm as orlp/ed25519's ed25519_derive_pub()
*
* @param privateKeyHex - 64-byte private key in hex format (orlp/ed25519 format)
* @returns 32-byte public key in hex format
*/
static derivePublicKeySync(privateKeyHex: string): string;
/**
* Validate that a private key correctly derives to the expected public key
*
* @param privateKeyHex - 64-byte private key in hex format
* @param expectedPublicKeyHex - Expected 32-byte public key in hex format
* @returns true if the private key derives to the expected public key
*/
static validateKeyPair(privateKeyHex: string, expectedPublicKeyHex: string): Promise<boolean>;
}
//# sourceMappingURL=ed25519-verifier.d.ts.map

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@@ -1 +0,0 @@
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@@ -1,217 +0,0 @@
"use strict";
// Copyright (c) 2025 Michael Hart: https://github.com/michaelhart/meshcore-decoder
// MIT License
var __createBinding = (this && this.__createBinding) || (Object.create ? (function(o, m, k, k2) {
if (k2 === undefined) k2 = k;
var desc = Object.getOwnPropertyDescriptor(m, k);
if (!desc || ("get" in desc ? !m.__esModule : desc.writable || desc.configurable)) {
desc = { enumerable: true, get: function() { return m[k]; } };
}
Object.defineProperty(o, k2, desc);
}) : (function(o, m, k, k2) {
if (k2 === undefined) k2 = k;
o[k2] = m[k];
}));
var __setModuleDefault = (this && this.__setModuleDefault) || (Object.create ? (function(o, v) {
Object.defineProperty(o, "default", { enumerable: true, value: v });
}) : function(o, v) {
o["default"] = v;
});
var __importStar = (this && this.__importStar) || (function () {
var ownKeys = function(o) {
ownKeys = Object.getOwnPropertyNames || function (o) {
var ar = [];
for (var k in o) if (Object.prototype.hasOwnProperty.call(o, k)) ar[ar.length] = k;
return ar;
};
return ownKeys(o);
};
return function (mod) {
if (mod && mod.__esModule) return mod;
var result = {};
if (mod != null) for (var k = ownKeys(mod), i = 0; i < k.length; i++) if (k[i] !== "default") __createBinding(result, mod, k[i]);
__setModuleDefault(result, mod);
return result;
};
})();
Object.defineProperty(exports, "__esModule", { value: true });
exports.Ed25519SignatureVerifier = void 0;
const ed25519 = __importStar(require("@noble/ed25519"));
const hex_1 = require("../utils/hex");
const orlp_ed25519_wasm_1 = require("./orlp-ed25519-wasm");
// Cross-platform SHA-512 implementation
async function sha512Hash(data) {
// Browser environment - use Web Crypto API
if (typeof globalThis !== 'undefined' && globalThis.crypto && globalThis.crypto.subtle) {
const hashBuffer = await globalThis.crypto.subtle.digest('SHA-512', data);
return new Uint8Array(hashBuffer);
}
// Node.js environment - use crypto module
if (typeof require !== 'undefined') {
try {
const { createHash } = require('crypto');
return createHash('sha512').update(data).digest();
}
catch (error) {
// Fallback for environments where require is not available
}
}
throw new Error('No SHA-512 implementation available');
}
function sha512HashSync(data) {
// Node.js environment - use crypto module
if (typeof require !== 'undefined') {
try {
const { createHash } = require('crypto');
return createHash('sha512').update(data).digest();
}
catch (error) {
// Fallback
}
}
// Browser environment fallback - use crypto-js for sync operation
try {
const CryptoJS = require('crypto-js');
const wordArray = CryptoJS.lib.WordArray.create(data);
const hash = CryptoJS.SHA512(wordArray);
const hashBytes = new Uint8Array(64);
// Convert CryptoJS hash to Uint8Array
for (let i = 0; i < 16; i++) {
const word = hash.words[i] || 0;
hashBytes[i * 4] = (word >>> 24) & 0xff;
hashBytes[i * 4 + 1] = (word >>> 16) & 0xff;
hashBytes[i * 4 + 2] = (word >>> 8) & 0xff;
hashBytes[i * 4 + 3] = word & 0xff;
}
return hashBytes;
}
catch (error) {
// Final fallback - this should not happen since crypto-js is a dependency
throw new Error('No SHA-512 implementation available for synchronous operation');
}
}
// Set up SHA-512 for @noble/ed25519
ed25519.etc.sha512Async = sha512Hash;
// Always set up sync version - @noble/ed25519 requires it
// It will throw in browser environments, which @noble/ed25519 can handle
try {
ed25519.etc.sha512Sync = sha512HashSync;
}
catch (error) {
console.debug('Could not set up synchronous SHA-512:', error);
}
class Ed25519SignatureVerifier {
/**
* Verify an Ed25519 signature for MeshCore advertisement packets
*
* According to MeshCore protocol, the signed message for advertisements is:
* timestamp (4 bytes LE) + flags (1 byte) + location (8 bytes LE, if present) + name (variable, if present)
*/
static async verifyAdvertisementSignature(publicKeyHex, signatureHex, timestamp, appDataHex) {
try {
// Convert hex strings to Uint8Arrays
const publicKey = (0, hex_1.hexToBytes)(publicKeyHex);
const signature = (0, hex_1.hexToBytes)(signatureHex);
const appData = (0, hex_1.hexToBytes)(appDataHex);
// Construct the signed message according to MeshCore format
const message = this.constructAdvertSignedMessage(publicKeyHex, timestamp, appData);
// Verify the signature using noble-ed25519
return await ed25519.verify(signature, message, publicKey);
}
catch (error) {
console.error('Ed25519 signature verification failed:', error);
return false;
}
}
/**
* Construct the signed message for MeshCore advertisements
* According to MeshCore source (Mesh.cpp lines 242-248):
* Format: public_key (32 bytes) + timestamp (4 bytes LE) + app_data (variable length)
*/
static constructAdvertSignedMessage(publicKeyHex, timestamp, appData) {
const publicKey = (0, hex_1.hexToBytes)(publicKeyHex);
// Timestamp (4 bytes, little-endian)
const timestampBytes = new Uint8Array(4);
timestampBytes[0] = timestamp & 0xFF;
timestampBytes[1] = (timestamp >> 8) & 0xFF;
timestampBytes[2] = (timestamp >> 16) & 0xFF;
timestampBytes[3] = (timestamp >> 24) & 0xFF;
// Concatenate: public_key + timestamp + app_data
const message = new Uint8Array(32 + 4 + appData.length);
message.set(publicKey, 0);
message.set(timestampBytes, 32);
message.set(appData, 36);
return message;
}
/**
* Get a human-readable description of what was signed
*/
static getSignedMessageDescription(publicKeyHex, timestamp, appDataHex) {
return `Public Key: ${publicKeyHex} + Timestamp: ${timestamp} (${new Date(timestamp * 1000).toISOString()}) + App Data: ${appDataHex}`;
}
/**
* Get the hex representation of the signed message for debugging
*/
static getSignedMessageHex(publicKeyHex, timestamp, appDataHex) {
const appData = (0, hex_1.hexToBytes)(appDataHex);
const message = this.constructAdvertSignedMessage(publicKeyHex, timestamp, appData);
return (0, hex_1.bytesToHex)(message);
}
/**
* Derive Ed25519 public key from orlp/ed25519 private key format
* This implements the same algorithm as orlp/ed25519's ed25519_derive_pub()
*
* @param privateKeyHex - 64-byte private key in hex format (orlp/ed25519 format)
* @returns 32-byte public key in hex format
*/
static async derivePublicKey(privateKeyHex) {
try {
const privateKeyBytes = (0, hex_1.hexToBytes)(privateKeyHex);
if (privateKeyBytes.length !== 64) {
throw new Error(`Invalid private key length: expected 64 bytes, got ${privateKeyBytes.length}`);
}
// Use the orlp/ed25519 WebAssembly implementation
return await (0, orlp_ed25519_wasm_1.derivePublicKey)(privateKeyHex);
}
catch (error) {
throw new Error(`Failed to derive public key: ${error instanceof Error ? error.message : 'Unknown error'}`);
}
}
/**
* Derive Ed25519 public key from orlp/ed25519 private key format (synchronous version)
* This implements the same algorithm as orlp/ed25519's ed25519_derive_pub()
*
* @param privateKeyHex - 64-byte private key in hex format (orlp/ed25519 format)
* @returns 32-byte public key in hex format
*/
static derivePublicKeySync(privateKeyHex) {
try {
const privateKeyBytes = (0, hex_1.hexToBytes)(privateKeyHex);
if (privateKeyBytes.length !== 64) {
throw new Error(`Invalid private key length: expected 64 bytes, got ${privateKeyBytes.length}`);
}
// Note: WASM operations are async, so this sync version throws an error
throw new Error('Synchronous key derivation not supported with WASM. Use derivePublicKey() instead.');
}
catch (error) {
throw new Error(`Failed to derive public key: ${error instanceof Error ? error.message : 'Unknown error'}`);
}
}
/**
* Validate that a private key correctly derives to the expected public key
*
* @param privateKeyHex - 64-byte private key in hex format
* @param expectedPublicKeyHex - Expected 32-byte public key in hex format
* @returns true if the private key derives to the expected public key
*/
static async validateKeyPair(privateKeyHex, expectedPublicKeyHex) {
try {
return await (0, orlp_ed25519_wasm_1.validateKeyPair)(privateKeyHex, expectedPublicKeyHex);
}
catch (error) {
return false;
}
}
}
exports.Ed25519SignatureVerifier = Ed25519SignatureVerifier;
//# sourceMappingURL=ed25519-verifier.js.map

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import { CryptoKeyStore } from '../types/crypto';
export declare class MeshCoreKeyStore implements CryptoKeyStore {
nodeKeys: Map<string, string>;
private channelHashToKeys;
constructor(initialKeys?: {
channelSecrets?: string[];
nodeKeys?: Record<string, string>;
});
addNodeKey(publicKey: string, privateKey: string): void;
hasChannelKey(channelHash: string): boolean;
hasNodeKey(publicKey: string): boolean;
/**
* Get all channel keys that match the given channel hash (handles collisions)
*/
getChannelKeys(channelHash: string): string[];
getNodeKey(publicKey: string): string | undefined;
/**
* Add channel keys by secret keys (new simplified API)
* Automatically calculates channel hashes
*/
addChannelSecrets(secretKeys: string[]): void;
}
//# sourceMappingURL=key-manager.d.ts.map

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"use strict";
// Copyright (c) 2025 Michael Hart: https://github.com/michaelhart/meshcore-decoder
// MIT License
Object.defineProperty(exports, "__esModule", { value: true });
exports.MeshCoreKeyStore = void 0;
const channel_crypto_1 = require("./channel-crypto");
class MeshCoreKeyStore {
constructor(initialKeys) {
this.nodeKeys = new Map();
// internal map for hash -> multiple keys (collision handling)
this.channelHashToKeys = new Map();
if (initialKeys?.channelSecrets) {
this.addChannelSecrets(initialKeys.channelSecrets);
}
if (initialKeys?.nodeKeys) {
Object.entries(initialKeys.nodeKeys).forEach(([pubKey, privKey]) => {
this.addNodeKey(pubKey, privKey);
});
}
}
addNodeKey(publicKey, privateKey) {
const normalizedPubKey = publicKey.toUpperCase();
this.nodeKeys.set(normalizedPubKey, privateKey);
}
hasChannelKey(channelHash) {
const normalizedHash = channelHash.toLowerCase();
return this.channelHashToKeys.has(normalizedHash);
}
hasNodeKey(publicKey) {
const normalizedPubKey = publicKey.toUpperCase();
return this.nodeKeys.has(normalizedPubKey);
}
/**
* Get all channel keys that match the given channel hash (handles collisions)
*/
getChannelKeys(channelHash) {
const normalizedHash = channelHash.toLowerCase();
return this.channelHashToKeys.get(normalizedHash) || [];
}
getNodeKey(publicKey) {
const normalizedPubKey = publicKey.toUpperCase();
return this.nodeKeys.get(normalizedPubKey);
}
/**
* Add channel keys by secret keys (new simplified API)
* Automatically calculates channel hashes
*/
addChannelSecrets(secretKeys) {
for (const secretKey of secretKeys) {
const channelHash = channel_crypto_1.ChannelCrypto.calculateChannelHash(secretKey).toLowerCase();
// Handle potential hash collisions
if (!this.channelHashToKeys.has(channelHash)) {
this.channelHashToKeys.set(channelHash, []);
}
this.channelHashToKeys.get(channelHash).push(secretKey);
}
}
}
exports.MeshCoreKeyStore = MeshCoreKeyStore;
//# sourceMappingURL=key-manager.js.map

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@@ -1 +0,0 @@
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@@ -1,34 +0,0 @@
/**
* Derive Ed25519 public key from private key using the exact orlp/ed25519 algorithm
*
* @param privateKeyHex - 64-byte private key in hex format (orlp/ed25519 format)
* @returns 32-byte public key in hex format
*/
export declare function derivePublicKey(privateKeyHex: string): Promise<string>;
/**
* Validate that a private key and public key pair match using orlp/ed25519
*
* @param privateKeyHex - 64-byte private key in hex format
* @param expectedPublicKeyHex - 32-byte public key in hex format
* @returns true if the keys match, false otherwise
*/
export declare function validateKeyPair(privateKeyHex: string, expectedPublicKeyHex: string): Promise<boolean>;
/**
* Sign a message using Ed25519 with orlp/ed25519 implementation
*
* @param messageHex - Message to sign in hex format
* @param privateKeyHex - 64-byte private key in hex format (orlp/ed25519 format)
* @param publicKeyHex - 32-byte public key in hex format
* @returns 64-byte signature in hex format
*/
export declare function sign(messageHex: string, privateKeyHex: string, publicKeyHex: string): Promise<string>;
/**
* Verify an Ed25519 signature using orlp/ed25519 implementation
*
* @param signatureHex - 64-byte signature in hex format
* @param messageHex - Message that was signed in hex format
* @param publicKeyHex - 32-byte public key in hex format
* @returns true if signature is valid, false otherwise
*/
export declare function verify(signatureHex: string, messageHex: string, publicKeyHex: string): Promise<boolean>;
//# sourceMappingURL=orlp-ed25519-wasm.d.ts.map

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@@ -1 +0,0 @@
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@@ -1,150 +0,0 @@
"use strict";
// WebAssembly wrapper for orlp/ed25519 key derivation
// This provides the exact orlp algorithm for JavaScript
Object.defineProperty(exports, "__esModule", { value: true });
exports.derivePublicKey = derivePublicKey;
exports.validateKeyPair = validateKeyPair;
exports.sign = sign;
exports.verify = verify;
const hex_1 = require("../utils/hex");
// Import the generated WASM module
const OrlpEd25519 = require('../../lib/orlp-ed25519.js');
/**
* Get a fresh WASM instance
* Loads a fresh instance each time because the WASM module could behave unpredictably otherwise
*/
async function getWasmInstance() {
return await OrlpEd25519();
}
/**
* Derive Ed25519 public key from private key using the exact orlp/ed25519 algorithm
*
* @param privateKeyHex - 64-byte private key in hex format (orlp/ed25519 format)
* @returns 32-byte public key in hex format
*/
async function derivePublicKey(privateKeyHex) {
const wasmModule = await getWasmInstance();
const privateKeyBytes = (0, hex_1.hexToBytes)(privateKeyHex);
if (privateKeyBytes.length !== 64) {
throw new Error(`Invalid private key length: expected 64 bytes, got ${privateKeyBytes.length}`);
}
// Allocate memory buffers directly in WASM heap
const privateKeyPtr = 1024; // Use fixed memory locations
const publicKeyPtr = 1024 + 64;
// Copy private key to WASM memory
wasmModule.HEAPU8.set(privateKeyBytes, privateKeyPtr);
// Call the orlp key derivation function
const result = wasmModule.ccall('orlp_derive_public_key', 'number', ['number', 'number'], [publicKeyPtr, privateKeyPtr]);
if (result !== 0) {
throw new Error('orlp key derivation failed: invalid private key');
}
// Read the public key from WASM memory
const publicKeyBytes = new Uint8Array(32);
publicKeyBytes.set(wasmModule.HEAPU8.subarray(publicKeyPtr, publicKeyPtr + 32));
return (0, hex_1.bytesToHex)(publicKeyBytes);
}
/**
* Validate that a private key and public key pair match using orlp/ed25519
*
* @param privateKeyHex - 64-byte private key in hex format
* @param expectedPublicKeyHex - 32-byte public key in hex format
* @returns true if the keys match, false otherwise
*/
async function validateKeyPair(privateKeyHex, expectedPublicKeyHex) {
try {
const wasmModule = await getWasmInstance();
const privateKeyBytes = (0, hex_1.hexToBytes)(privateKeyHex);
const expectedPublicKeyBytes = (0, hex_1.hexToBytes)(expectedPublicKeyHex);
if (privateKeyBytes.length !== 64) {
return false;
}
if (expectedPublicKeyBytes.length !== 32) {
return false;
}
// Allocate memory buffers directly in WASM heap
const privateKeyPtr = 2048; // Use different fixed memory locations
const publicKeyPtr = 2048 + 64;
// Copy keys to WASM memory
wasmModule.HEAPU8.set(privateKeyBytes, privateKeyPtr);
wasmModule.HEAPU8.set(expectedPublicKeyBytes, publicKeyPtr);
// Call the validation function (note: C function expects public_key first, then private_key)
const result = wasmModule.ccall('orlp_validate_keypair', 'number', ['number', 'number'], [publicKeyPtr, privateKeyPtr]);
return result === 1;
}
catch (error) {
// Invalid hex strings or other errors should return false
return false;
}
}
/**
* Sign a message using Ed25519 with orlp/ed25519 implementation
*
* @param messageHex - Message to sign in hex format
* @param privateKeyHex - 64-byte private key in hex format (orlp/ed25519 format)
* @param publicKeyHex - 32-byte public key in hex format
* @returns 64-byte signature in hex format
*/
async function sign(messageHex, privateKeyHex, publicKeyHex) {
const wasmModule = await getWasmInstance();
const messageBytes = (0, hex_1.hexToBytes)(messageHex);
const privateKeyBytes = (0, hex_1.hexToBytes)(privateKeyHex);
const publicKeyBytes = (0, hex_1.hexToBytes)(publicKeyHex);
if (privateKeyBytes.length !== 64) {
throw new Error(`Invalid private key length: expected 64 bytes, got ${privateKeyBytes.length}`);
}
if (publicKeyBytes.length !== 32) {
throw new Error(`Invalid public key length: expected 32 bytes, got ${publicKeyBytes.length}`);
}
// Allocate memory buffers with large gaps to avoid conflicts with scratch space
const messagePtr = 100000;
const privateKeyPtr = 200000;
const publicKeyPtr = 300000;
const signaturePtr = 400000;
// Copy data to WASM memory
wasmModule.HEAPU8.set(messageBytes, messagePtr);
wasmModule.HEAPU8.set(privateKeyBytes, privateKeyPtr);
wasmModule.HEAPU8.set(publicKeyBytes, publicKeyPtr);
// Call orlp_sign
wasmModule.ccall('orlp_sign', 'void', ['number', 'number', 'number', 'number', 'number'], [signaturePtr, messagePtr, messageBytes.length, publicKeyPtr, privateKeyPtr]);
// Read signature
const signatureBytes = new Uint8Array(64);
signatureBytes.set(wasmModule.HEAPU8.subarray(signaturePtr, signaturePtr + 64));
return (0, hex_1.bytesToHex)(signatureBytes);
}
/**
* Verify an Ed25519 signature using orlp/ed25519 implementation
*
* @param signatureHex - 64-byte signature in hex format
* @param messageHex - Message that was signed in hex format
* @param publicKeyHex - 32-byte public key in hex format
* @returns true if signature is valid, false otherwise
*/
async function verify(signatureHex, messageHex, publicKeyHex) {
try {
const wasmModule = await getWasmInstance();
const signatureBytes = (0, hex_1.hexToBytes)(signatureHex);
const messageBytes = (0, hex_1.hexToBytes)(messageHex);
const publicKeyBytes = (0, hex_1.hexToBytes)(publicKeyHex);
if (signatureBytes.length !== 64) {
return false;
}
if (publicKeyBytes.length !== 32) {
return false;
}
// Allocate memory buffers with large gaps to avoid conflicts with scratch space
const messagePtr = 500000;
const signaturePtr = 600000;
const publicKeyPtr = 700000;
// Copy data to WASM memory
wasmModule.HEAPU8.set(signatureBytes, signaturePtr);
wasmModule.HEAPU8.set(messageBytes, messagePtr);
wasmModule.HEAPU8.set(publicKeyBytes, publicKeyPtr);
// Call the orlp verify function
const result = wasmModule.ccall('orlp_verify', 'number', ['number', 'number', 'number', 'number'], [signaturePtr, messagePtr, messageBytes.length, publicKeyPtr]);
return result === 1;
}
catch (error) {
return false;
}
}
//# sourceMappingURL=orlp-ed25519-wasm.js.map

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@@ -1 +0,0 @@
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View File

@@ -1,51 +0,0 @@
import { DecodedPacket, PacketStructure } from '../types/packet';
import { DecryptionOptions, ValidationResult, CryptoKeyStore } from '../types/crypto';
export declare class MeshCorePacketDecoder {
/**
* Decode a raw packet from hex string
*/
static decode(hexData: string, options?: DecryptionOptions): DecodedPacket;
/**
* Decode a raw packet from hex string with signature verification for advertisements
*/
static decodeWithVerification(hexData: string, options?: DecryptionOptions): Promise<DecodedPacket>;
/**
* Analyze packet structure for detailed breakdown
*/
static analyzeStructure(hexData: string, options?: DecryptionOptions): PacketStructure;
/**
* Analyze packet structure for detailed breakdown with signature verification for advertisements
*/
static analyzeStructureWithVerification(hexData: string, options?: DecryptionOptions): Promise<PacketStructure>;
/**
* Internal unified parsing method
*/
private static parseInternal;
/**
* Internal unified parsing method with signature verification for advertisements
*/
private static parseInternalAsync;
/**
* Validate packet format without full decoding
*/
static validate(hexData: string): ValidationResult;
/**
* Calculate message hash for a packet
*/
static calculateMessageHash(bytes: Uint8Array, routeType: number, payloadType: number, payloadVersion: number): string;
/**
* Create a key store for decryption
*/
static createKeyStore(initialKeys?: {
channelSecrets?: string[];
nodeKeys?: Record<string, string>;
}): CryptoKeyStore;
/**
* Decode a path_len byte into hash size, hop count, and total byte length.
* Firmware reference: Packet.h lines 79-83
* Bits 7:6 = hash size selector: (path_len >> 6) + 1 = 1, 2, or 3 bytes per hop
* Bits 5:0 = hop count (0-63)
*/
private static decodePathLenByte;
}
//# sourceMappingURL=packet-decoder.d.ts.map

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