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Audited the five CLAUDE.md files and all twenty-one README.md files against the
tree, machine-checking every in-repo path they name and verifying the testable
claims against the live hosts.
The one that matters is in the root file: dev was documented as reachable on
the mesh at 10.10.0.2:8137. It is not, and never was from anywhere but vps1 —
infra/docker-compose.yml binds the port to 127.0.0.1, and the address answers
from neither vps2 nor vps1 itself. Anyone following it gets a connection
refused with nothing to explain it.
The rest are stale paths, several from the reunification:
* assetlinks.json moved under frontend/static/ in the subtree merge; the TWA
README kept the pre-merge path in both places it names it. Following it
would put the file where nothing serves it and Android app-link
verification would fail silently.
* push.py and notify.py now live in backend/notifications/.
* INFRA.md and deploy/stack/README have never existed in this repo, in any
branch.
* the Caddyfile is at deploy/stack/lb/Caddyfile.
* three bare relative paths that resolve for a reader but not from the
directory the file sits in: units.js is the frontend's, deploy.sh is
infra's, entrypoint.sh is the backend's.
Also records why mesh clients must pin the ROOT_URL host and not only the image
host: the registry's bearer-token realm follows ROOT_URL, so pinning
git.thermograph.org alone still sends the token request out the public route,
where the /v2/* matcher returns 403 and docker falls back to anonymous. That
surfaces as `unauthorized: reqPackageAccess`, indistinguishable from a bad
credential.
Verified true and left alone: the four-domain layout, both .claude runbooks,
the absence of any domain-level .forgejo directory, the pinned compose project
name, the deploy contract, prod's eight stack services, beta's five prefixed
ones with no db of its own, dev's five, and every documented make target.
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||
|---|---|---|
| .. | ||
| .claude/skills/key-gaps | ||
| deploy | ||
| lake-iceberg | ||
| openbao | ||
| ops | ||
| terraform | ||
| .env.example | ||
| .gitignore | ||
| .sops.yaml | ||
| ACCESS.md | ||
| CLAUDE.md | ||
| DEPLOY-DEV.md | ||
| DEPLOY.md | ||
| docker-compose.dev.yml | ||
| docker-compose.openmeteo.yml | ||
| docker-compose.yml | ||
| Makefile | ||
| README.md | ||
infra/
Infrastructure for Thermograph: Terraform host
provisioning, the SOPS+age secrets vault, WireGuard/Swarm networking, Forgejo,
Caddy, mail, and the deploy scripts that run the already-built app images on each
host. This is a domain of the Jinemi/thermograph monorepo — a host's checkout
(/opt/thermograph, /opt/thermograph-beta, or /opt/thermograph-dev) is a
checkout of the whole monorepo, and infra/ never builds app source; it only
runs published images.
terraform/— provisions/configures hosts (SSH-driven by default; an optional GCP-creating module is scaffolded, no live resources yet). Seeterraform/README.md. No tfstate is persisted anywhere — treatapplyas executable documentation, not a routine operation.deploy/secrets/— the git-native SOPS+age secrets vault (every app secret, encrypted at rest, rendered at deploy time). Seedeploy/secrets/README.md.deploy/swarm/,deploy/forgejo/— the WireGuard/Swarm mesh spanning vps1, vps2 and the desktop, and Forgejo (git + CI + registry), pinned to vps1. SeeACCESS.md.deploy/env-topology.sh— the single source of truth for where each environment (dev/beta/prod) lives: host, checkout path, branch, deploy mode, stack/compose name, env file, LB ports, DB role/database, service-name prefix. Every deploy path sources it and derives its behavior from it rather than guessing from the host it happens to be running on — necessary since vps2 alone now runs two environments.deploy/deploy.sh— the single deploy entry point for dev, beta and prod. TakesSERVICE=backend|frontend|allplusBACKEND_IMAGE_TAG/FRONTEND_IMAGE_TAG(and, on vps2,THERMOGRAPH_ENV=beta|prodto say which of the two checkouts it's acting on), resets the host checkout, renders secrets, and routes to the right orchestrator perenv-topology.sh.deploy/deploy-dev.sh— a thin dev-specific wrapper arounddeploy.sh(dev compose overlay, dev's secrets policy). SeeDEPLOY-DEV.md.deploy/stack/— the Swarm path, live on vps2 for both prod and beta:thermograph-stack.yml(prod: db, web, worker, lake, daemon, frontend, autoscaler, autoscaler-lake) andthermograph-beta-stack.yml(beta: the same service shape minusdband the autoscalers, every service name prefixedbeta-).deploy-stack.sh,autoscale.shandlb/are shared by both. Rolling updates are start-first, health-gated, with auto-rollback.STACK_TEST=1rehearses the whole stack on throwaway volumes and ports.docker-compose*.yml— the compose path, live only on dev (vps1) (db, backend, lake, daemon, frontend).docker-compose.dev.ymlis dev's mesh-only overlay;docker-compose.openmeteo.ymlis the self-hosted Open-Meteo overlay (prod only).make dev-upalso runs this path locally as a laptop convenience — that is not an "environment", just a local rehearsal.
Which path an environment takes is decided by deploy/env-topology.sh
(TG_DEPLOY_MODE, keyed by dev/beta/prod): dev is compose, beta and prod
are both stack. The old host-wide marker /etc/thermograph/deploy-mode still
exists as a fallback for a by-hand run with no explicit environment, but it
cannot describe vps2, which runs two environments in two different checkouts —
so it is no longer the thing that decides where files go. The workflows never
need to know which mode an environment runs; they only pass THERMOGRAPH_ENV.
Branches & how changes reach each environment
dev— deploys to dev on vps1 (/opt/thermograph-dev).main— deploys to beta on vps2 (/opt/thermograph-beta).release— deploys to prod on vps2 (/opt/thermograph).
App code IS environment-staged this way (dev→main→release maps to
vps1/dev → vps2/beta → vps2/prod via image tags, one Deploy workflow keyed by
branch). Infra itself is not environment-staged the same way: infra-sync.yml
fires on a push touching infra/** — on dev it fast-forwards vps1's dev
checkout, on main it fast-forwards both of vps2's checkouts (beta and
prod) — re-rendering each environment's own env file from the vault. It
deliberately does not roll any service: image tags are the app domains'
axis, not infra's. A compose or stack change that must recreate containers
takes effect on the next app deploy, or a by-hand SERVICE=all … deploy/deploy.sh (or deploy-dev.sh) run.
Note the asymmetry this leaves: dev's infra checkout tracks dev, the same
branch its app images are staged by. Beta's and prod's infra checkouts both
track main — prod's app images are staged by release, but prod's infra
checkout follows main, same as beta's.