README covers the pitch and how this differs from Vault/Doppler (too heavy) and a static age/sops-encrypted file in git (no live rotation, no access log). IMPLEMENTATION covers the multi-recipient key-wrapping scheme (age/sops-style, adapted to libsodium primitives already used in flit/waste-go), the flat vault/recipient/grant/access-log schema, rotation and revocation semantics (including the standard "revoke doesn't retroactively unread already-decrypted secrets" caveat), CLI surface, and deploy-script integration. Motivated by a real, already-felt annoyance: every repo in this project family (goonk, wisp, npm-statuspage, flit, waste-go) has its own hand-copied .env today, with no rotation story and no record of which machine has which secret. No code yet — design stage. Admin auth mechanism flagged as needing a decision before implementation starts. Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
3.6 KiB
keep
A self-hosted, end-to-end encrypted secrets store for deploy scripts.
keep pull wisp/production gets you a .env-shaped bundle of secrets,
decrypted locally — the server never sees plaintext values, and never
sees the key that would let it.
Why
Across this project family — goonk, wisp, npm-statuspage, flit,
waste-go — every repo has its own .env/.env.example pair, and every
one of those .env files exists today by being hand-copied onto whatever
machine needs it. That's a real, already-felt annoyance, not a
hypothetical one:
- Rotating a credential means finding and updating every machine that has a copy, by hand.
- There's no record of which machine has which secret, or when it was last updated.
- Onboarding a new deploy target means manually reconstructing a
.envfrom memory, a password manager note, or asking "hey, what's the value for X."
keep is a small always-on service that holds encrypted secret bundles
and lets authorized machines/people pull them, decrypted locally, without
ever exposing plaintext to the server in between.
What it isn't
- Not Vault or Doppler. Those are the established, heavier answers —
full policy engines, dynamic secrets, enterprise everything.
keepis the "already-solved problem, but self-hosted and scoped to what this actually needs" answer, closer in spirit toage/sops(multi-recipient encrypted files) than to a full secrets-management platform. - Not a static encrypted file committed to git, which is what
age/sopstypically produce.keepexists specifically for the two things a committed encrypted file can't give you without re-running a tool and re-committing: live rotation (push once, everyone with access can pull the update) and an access log (who/what actually fetched a secret bundle, and when — a git history shows content changes, not access). - Not wisp. wisp is ephemeral and single-retrieval by design — the opposite of what a secret needs to be. A deploy script needs to fetch the same bundle on every deploy, not once and then have it vanish.
Core model
Adapts the pattern age/sops/PGP already use for multi-recipient
encrypted files — a symmetric key encrypts the actual payload, and that
symmetric key is separately "wrapped" (encrypted) once per authorized
recipient's public key — into a live service instead of a static file:
- Each client (a developer's machine, a deploy script running on a VPS)
has its own Ed25519/X25519 keypair — same identity model already
built twice over in
flitandwaste-go. - A vault (
wisp/production,goonk/production, whatever key) holds one encrypted blob — the actual secret bundle, encrypted under a random symmetric key. - That symmetric key is wrapped separately for every recipient granted access to that vault. The server stores N small wrapped-key blobs, one per recipient, alongside the one encrypted payload.
keep pull <vault>fetches the payload plus this identity's wrapped key, unwraps locally with the private key, decrypts, and prints (or writes) the.env-shaped result.- Revoking a recipient's access is deleting their one wrapped-key row — the payload and every other recipient's access are untouched.
- Rotating a secret is
keep push <vault>again — a new random symmetric key, re-wrapped for every currently-granted recipient. Cheap, since the recipient list rarely changes.
Full design — data model, the atomic-grant/revoke details, the CLI surface, and what this explicitly does and doesn't protect against — is in IMPLEMENTATION.md.
Status
Design only. No code yet.