The GO 4-parity HUD has to work on every aircraft MSDK V4 drives, so no screen may assume one model. This adds the capability layer the rest of the plan builds on (P0). ProductProfileBridge reads what the SDK can report at runtime (cameras and their ISO/shutter/aperture/EV ranges, gimbal axes, air link, FC and RC feature flags, batteries) and emits it as a productProfile event on connect and component change. Capability ranges stay empty until the camera handshakes, so it re-probes at 3, 10 and 30 s and emits only when something changed. On the Dart side, ProductProfile merges that with a static product_matrix keyed by the MSDK Model enum name, for facts the SDK cannot report: vision sensor layout, battery bay count, intelligent modes. SDK answers win and every fact records its source. HudFeatures lists each capability-gated element with its predicate, and Requires hides a widget the profile rules out. The flight page now gates its gimbal slider, camera column and vision pill, labels the link Wi-Fi or HD, and takes the gimbal pitch range from the profile. Settings > About > Capability profile shows the active profile, fact sources and which features are on. Matrix rows are seeded from published specs until runtime capture confirms them; nothing has run on a real aircraft yet. Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
PilotVault
A platform for drone operations management — remote control, live telemetry, intelligent flight scheduling, route management, and third-party integration — built on top of the DJI Mobile SDK V4.
Brand + design system live in
Design/PilotVault Project logo/ —
Vault Navy #0F1E3D with a single Signal Blue #3D7BF0 accent, Space
Grotesk (structure/display) · Space Mono (data, serials, timestamps, eyebrows),
and the Vector mark of two offset chevrons (flight, lift, parallax). All UI
surfaces implement it with a persisted light/dark toggle (data-*-theme
attribute); the Fly App follows the system theme.
Multiple surfaces sit in front of a shared PocketBase. The API Server is the only component that talks to PocketBase — the Web App and Fly App talk only to the API Server, which is the single gateway. Live device/telemetry state is held in memory by the API Server and fanned out over WebSockets.
┌────────────┐ ┌──────────────────┐ ┌──────────────┐
│ Web App │──/bff─►│ │ │ │
│ (Vue/Go) │ │ API Server │──auth─►│ PocketBase │
├────────────┤ │ (Go) │ │ 10.2.1.10: │
│ Fly App │──/ws──►│ in-mem devices │ │ 8026 │
│ (Flutter) │ └──────────────────┘ └──────────────┘
└────────────┘
Surfaces
| Folder | Stack | Port | Status |
|---|---|---|---|
API Server/ |
Go (+ embedded Vue 3 / Tailwind panel) | :8080 |
✅ Built & verified — gateway, panel, plugin system |
Web App/ |
Go BFF + Vue 3 + Tailwind | :8090 |
✅ Built & verified — control panel |
Fly App/ |
Flutter (Android) + Kotlin DJI MSDK V4 bridge | — | ✅ Built & run on a real device; live telemetry uplink |
Adobe Plugin/ |
— | — | 🚧 Placeholder |
Phone App/ |
— | — | 🚧 Placeholder |
Docker/ · Docker AIO/ |
Docker Compose | :8080 :8090 :8070 |
✅ Combined stack + single all-in-one container |
Data model (PocketBase)
PocketBase provides auth + persistence only; device and telemetry state are
in-memory in the API Server. Schema + seed ship as idempotent migrations in
API Server/pocketbase/pb_migrations/.
users— auth, plusrole(superadmin | admin | user),organizationrelation (nullable), and apreferencesJSON blob.organizations— tenant grouping for users.
Roles: superadmin = global (all orgs/users); admin = scoped to its own
org (manages that org's users, cannot cross orgs); user = no management.
Org-scoping is enforced in the API Server (internal/api/users.go, orgs.go).
User/org management requires a PocketBase superuser service account in
API Server/.env (POCKETBASE_ADMIN_EMAIL/PASSWORD, gitignored); without it,
/api/users and /api/orgs return 503.
Run order
- PocketBase — reachable at
http://10.2.1.10:8026(override withPOCKETBASE_URL). - API Server (
:8080):The embedded, superadmin-only panel is at http://localhost:8080/ (live health, PocketBase connection settings, and the plugins manager).cd "API Server" Copy-Item .env.example .env # set POCKETBASE_URL and POCKETBASE_ADMIN_* cd panel; npm install; npm run build; cd .. # build the embedded panel ./scripts/Run-ApiServer.ps1 - Web App (
:8090):Open http://localhost:8090 and sign in.cd "Web App/web"; npm install; npm run build; cd ../server ./Run-WebApp.ps1 - Fly App — see
Fly App/README.md(install Flutter- JDK, put your DJI App Key in
~/.gradle/gradle.propertiesasPILOTVAULT_FLY_API_KEY— deliberately outside the repo, so it is never committed — thenflutter runon a connected Android device; the DJI SDK does not run on emulators).
- JDK, put your DJI App Key in
Docker
Docker/— combined stack (API Server + Web App) on a shared network:cd Docker; docker compose up --build.Docker AIO/— PocketBase + API Server + Web App in one container:cd "Docker AIO"; docker compose up --build.
Telemetry lifecycle
The Fly App connects on GET /ws/device?id={id} and streams typed events —
registration, connection, battery, telemetry (altitude, lat/lng,
velocity, GPS sats, flight mode…). The API Server merges each into a per-device
DeviceState, appends latitude/longitude to the device's GPS track, and fans
every update out to connected dashboards on /ws/ui as {type:"update", device, event}.
Plugins
The API Server integrates third-party services through a uniform plugin
contract (internal/plugins), managed by a superadmin from the panel. Two kinds
share one interface:
- Built-in — Go connectors compiled into the server (reference example: OpenSky Network live ADS-B flight data). Adding a new one needs a rebuild.
- External — a remote HTTP service registered at runtime, no rebuild;
answers
GET /health,GET /manifest,POST /invoke.
Enable-state and per-plugin config persist to a gitignored plugins.json. See
API Server/internal/plugins/README.md
for the developer guide.
Per-surface docs
- API Server README — full endpoint reference, panel, plugins
- Web App README — BFF proxy, dev/build
- Fly App README — Flutter + DJI MSDK V4 native bridge