# DriverVault — Docker AIO (all-in-one image) **PocketBase + API Server + Web App in a single container**, supervised by `supervisord` with nginx serving the SPA and proxying `/api/` to the API Server on localhost. One image, one volume set, no compose network — the simplest way to stand DriverVault up on a single host. Prefer the three-container stack in [`../Docker`](../Docker) when you want to scale, upgrade or restart the pieces independently. ``` :80 nginx ─► SPA, and /api/ ─► API Server on 127.0.0.1:8080 ─► PocketBase on :8070 ``` | File | Use | |---|---| | `Dockerfile` | the all-in-one image (build context must be the **repo root**) | | `docker-compose.yml` | **builds from source** — for development and local testing | | `docker-compose.prod.yml` | **pulls the prebuilt image** from the registry | | `.env.example` / `.env.prod.example` | copy to `.env` for the matching compose file | ## Run it ```bash cd "Docker-AIO" cp .env.example .env # then edit — PB_ADMIN_* have no safe defaults docker compose up -d --build ``` Production, from the registry: ```bash cp .env.prod.example .env # then edit docker compose -f docker-compose.prod.yml pull docker compose -f docker-compose.prod.yml up -d ``` Then: web app on `http://host:8090/`, the API Server's superadmin panel on `http://host:8080/`, PocketBase admin on `http://host:8070/_/`. Note the port mapping: inside the container the web app is on **80**, published as `WEB_PORT` (8090 by default) to line up with the other deployment. ## Building by hand The build context **must be the repo root** so the Dockerfile can reach both `API Server/` and `Web App/`: ```bash docker build -f "Docker-AIO/Dockerfile" -t drivervault-aio . ``` Build args: `VITE_API_BASE` (leave empty so the bundle uses same-origin `/api`) and `PB_VERSION`, which the Dockerfile already pins. Override it to build a different PocketBase; set it to an empty string to resolve the latest release at build time instead. ## First boot Identical to the multi-container stack, and idempotent: 1. PocketBase upserts its superuser from `PB_ADMIN_EMAIL` / `PB_ADMIN_PASSWORD`. 2. The API Server waits for PocketBase to report healthy, then creates any missing collections, reconciles existing ones, and creates the first app `superadmin` from `DRIVERVAULT_SUPERADMIN_EMAIL` / `_PASSWORD`. > Leave `PB_BOOTSTRAP` at `true`, including across upgrades. A release can add > collections or fields the server needs, and a stack that skipped the bootstrap > never gets them. The API Server self-heals exactly one thing — `app_settings`, > the collection holding the plugin settings, which it creates on demand because > it cannot serve the plugin panel without it. Every other schema change still > depends on this flag, so turn it off only for a database you know already > matches the release you are running. ## Volumes | Volume | Holds | |---|---| | `/pb/pb_data` | the PocketBase SQLite database and uploaded files — everything that persists | One volume, because the API Server keeps no state on disk. Plugin enable-state and global config live in the database like the rest of the settings, so backing up this one path backs up the whole image. It defaults to a Docker-managed named volume; set `PB_DATA` to an absolute host path in the prod file for a bind mount. > One thing does **not** persist: the API Server panel's *Settings → PocketBase* > and *Settings → Web App* screens apply immediately but only for the life of the > container. Set the corresponding environment variables to change them > permanently. ## File storage (SeaweedFS / S3) Uploaded files — document scans, service and refill receipts, workshop invoices, part photos — live inside `pb_data` by default, next to the database. Two further compose files put them in an S3 bucket instead, so the blobs and the database can be sized, backed up and moved independently. Nothing else changes: an attachment has always been fetched through the API Server (`GET /api/service-records/{id}/file`), never from a storage URL, so the Web App, the phone app and the Home Assistant plugin cannot tell the difference. Each shape is one self-contained compose file — nothing to layer, nothing to remember — with an `.env` example of the same name: | Shape | From the registry | From source | |---|---|---| | **Local storage** — the default, unchanged | `docker-compose.prod.yml` | `docker-compose.yml` | | **SeaweedFS beside the image** | `docker-compose.prod.seaweedfs.yml` | `docker-compose.seaweedfs.yml` | | **SeaweedFS, split into its roles** | `docker-compose.prod.seaweedfs.split.yml` | `docker-compose.seaweedfs.split.yml` | | **An S3 endpoint elsewhere** | `docker-compose.prod.s3.yml` | `docker-compose.s3.yml` | So `docker-compose.prod.seaweedfs.yml` is configured from `.env.prod.seaweedfs.example`, `docker-compose.s3.yml` from `.env.s3.example`, and so on: ```sh cp .env.prod.seaweedfs.example .env # then edit it — PB_S3_* have no defaults docker compose -f docker-compose.prod.seaweedfs.yml pull docker compose -f docker-compose.prod.seaweedfs.yml up -d ``` Set `PB_S3_ACCESS_KEY` and `PB_S3_SECRET` first — both storage files refuse to start without them. The SeaweedFS ones run the gateway as a **second container** (master, volume, filer and S3 in one process, on its own `seaweed_data` volume) rather than a fourth process under supervisord: keeping the object store in this image, on the volume the files are being moved off, would defeat the point and would mean rebuilding. They also run a one-shot `seaweedfs-init` that creates the bucket, because PocketBase never issues a `CreateBucket` of its own. The external-S3 ones add no containers at all: set `PB_S3_ENDPOINT`, and create the bucket yourself. ### Split SeaweedFS `weed server -s3` runs master, volume, filer and gateway as four goroutines in one process. The `.split.` files run them as four containers beside the all-in-one, plus a fifth: the SeaweedFS **admin UI** on port 23646, where the cluster can be inspected and — under *Object Store → Users* — further S3 identities minted and revoked. Split also gets you per-role restarts and upgrades, per-role Prometheus metrics, and room to add a second volume server later. Still none of them inside the image, for the reason above. Identities work differently there, and it matters. SeaweedFS reads credentials from, in descending priority: an `-s3.config` file, the filer's IAM store, then `AWS_ACCESS_KEY_ID` / `AWS_SECRET_ACCESS_KEY` — and a higher source *replaces* a lower one rather than adding to it. The single-gateway files use the env vars, which is why nothing else may write identities there: the first user added in a panel would displace PocketBase's key. So in the split files `seaweedfs-init` seeds PocketBase's identity into the filer's store instead — the same store the admin UI writes — and the gateway runs with no config file at all. One source of truth, PocketBase's key visible in the panel beside every other, and new keys picked up without a restart. Rotating `PB_S3_SECRET` in `.env` and restarting updates that identity in place. Set `SEAWEED_ADMIN_PASSWORD`: `weed admin` serves the panel with no authentication when it is empty, and a panel that can mint bucket credentials is the bucket. In the prod file it is bound to loopback like `SEAWEED_S3_BIND` — it is storage plumbing, not one of the app's own panels — so a remote host needs `SEAWEED_ADMIN_BIND=0.0.0.0` behind a reverse proxy. That file publishes nothing for master, volume and filer: the volume server serves file content by id with no authentication of any kind, and the admin UI already shows what those ports would. Switching between `docker-compose.seaweedfs.yml` and its `.split.` twin needs no migration: master, volume and filer share one `/data` mount, which is exactly the layout `weed server -dir=/data` writes. On every boot the API Server's bootstrap writes PocketBase's *Files storage* settings from those variables, then asks PocketBase to prove it can reach the bucket. Watch for it in the log: ``` [api] bootstrap: ✓ file storage → S3 (drivervault at http://seaweedfs:8333) [api] bootstrap: ✓ S3 storage reachable ``` A boot that finds the settings already correct logs `• file storage already on S3` and writes nothing. Two things to know before turning it on: - **Existing files are not migrated.** PocketBase copies nothing when the setting flips, so attachments uploaded before the switch stop resolving. Copy `pb_data/storage///` into the bucket root, keeping that layout, *before* enabling it — or start from a stack with no attachments. - **Going back to the plain compose file is not an off switch.** It leaves PocketBase pointed at the bucket, deliberately: files already written there are reachable only while it is. Move them back and turn it off in PocketBase's own admin UI. For the same reason a rotation of `PB_S3_SECRET` alone is invisible to the bootstrap — PocketBase masks the stored secret on read — so change another `PB_S3_*` value alongside it, or set it in the admin UI. ## Charger control (OCPP) Chargers in own/proxy mode dial in to `/ocpp/{serial}` on the **API Server port (8080)** — not through nginx — authenticating with a per-charger control token in an OCPP Basic-auth header. Because a plaintext `ws://` would expose that token, `OCPP_REQUIRE_TLS` defaults to `true`. This image serves plain HTTP, so charger control needs TLS terminated in front of it, with `OCPP_PUBLIC_URL` set to the public `wss://` base. Only drop `OCPP_REQUIRE_TLS` on a trusted network. ## Caveats - PocketBase and the API Server run as the unprivileged `app` user; only nginx stays root, because it binds port 80. A crash of `supervisord` still takes all three services down together — that is the trade for the simplicity. - Logs from all three processes are interleaved on the container's stdout/stderr (`docker logs drivervault-aio`). - `PB_VERSION` is pinned in the Dockerfile so two builds of the same source agree. Setting it to an empty string restores the old behaviour of resolving the latest release **at build time**, which also costs an unauthenticated GitHub API call and is subject to that 60/hour per-IP rate limit. - The container reports health once all three processes answer their probes, so a wedged component shows up in `docker ps` rather than looking up.