I expected the 35 remaining findings to need a VaultIndex remodel. They did not. `vaultIndexSchema` and every entry schema are `.loose()`, which already gives both types an index signature — so `index["_system"]`, `entry["label"]` and assignment to `Record<string, unknown>` all compile with no cast at all. I checked before rewriting anything, and the answer was that 38 of the 44 were simply redundant, copied from each other rather than needed. That is the linter's real value here: it did not find a design flaw, it made me test an assumption I would otherwise have acted on. The remodel would have been work done to satisfy a belief that was false. Removing them let the compiler see three things the casts had been hiding: - `nextTotpIndex` filtered on `type === "totp" || kind === "totp"`, and TS reported the second half as unreachable. It is: withKind() populates kind from type at parse time and the union is discriminated on kind, so the fallback could never fire. Now filters on the discriminant alone. - `ensureIndex0Payload` always ran normalizeIndex0 and then returned `Dict`, throwing the guarantee away, so all three callers asserted it back with `as unknown as Index0`. It now returns an `Index0Payload` that carries what the function established, built in that shape rather than asserted into it, and the type propagates through compactIndex0Payload and rebuildCanonicalViewsPayload. - `sign()` in recoveryDrills declared a DrillRecord parameter it never used as one — it HMACs a canonical serialization — which forced the verifier to assert a shape it had not established while checking a signature. Also `rebuildIndex0Checkpoints` typed to the one field it reads, and console.ts asking `"isTTY" in this.out` rather than asserting a shape onto a WritableStream. One assertion remains, in entrySchema, and it is structural rather than evidential: z.preprocess types its output from an inner union deliberately wider than Entry, and no zod spelling expresses "parses to a superset, hands back the narrow type". Disabled inline with that written down. 44 -> 0. The lint step is now in ci_prepush.sh, and the gate runs green in 44.5 seconds. 689 tests still pass. Co-Authored-By: Claude Opus 5 (1M context) <[email protected]> Claude-Session: https://claude.ai/code/session_01Vtx94nXDmNgXEeThUZP4QN
seedpass-js
The SeedPass command-line interface, TypeScript port.
It reads and writes the same ~/.seedpass profiles as the Python
implementation — same derivations, same vault format, same Nostr sync — and
adds a session agent plus a scoped-token surface designed for AI agents and
automation.
Install
Requires Node.js 22 or newer.
# from a checkout
cd js && pnpm install && pnpm --filter @seedpass/cli build
node packages/cli/dist/seedpass-js.mjs --version
The build produces one self-contained file (dist/seedpass-js.mjs) plus a
.sha256 next to it. Copy it anywhere on your PATH; it has no runtime
dependencies beyond Node itself.
Quick start
export SEEDPASS_APP_DIR=~/.seedpass # omit to use the default
# Create a profile (mnemonic and password come from the environment,
# never from the command line)
export SEEDPASS_MNEMONIC="your twelve or twenty-four words"
export SEEDPASS_PASSWORD="your master password"
seedpass-js fingerprint add --name main
unset SEEDPASS_MNEMONIC # not needed again
# Unlock once per session through the agent
seedpass-js agent start &
seedpass-js vault unlock --ttl 900
seedpass-js entry add password github.com --length 20 --username you
seedpass-js entry reveal github.com
seedpass-js entry totp-codes
seedpass-js use github.com --clipboard
seedpass-js vault lock
Design: reference-first output
Default output never contains secret values. Entries are addressed by
reference (sp://entry/<id>), and secret-bearing fields are reported as
has_* flags:
$ seedpass-js entry get api-token
{ "id": "5", "ref": "sp://entry/5", "label": "api-token",
"kind": "key_value", "has_value": true, ... }
Plaintext leaves the vault only through commands that say so
(entry reveal, entry totp-codes, entry export-document,
util generate-password), or through a sink, which delivers a secret to its
destination without routing it through this process's output:
seedpass-js use api-token --exec ./deploy.sh # SEEDPASS_SECRET in the child env
seedpass-js use api-token --stdin-to "wc -c" # quote specs that contain flags
seedpass-js use api-token --clipboard
Scoped tokens for agents
An agent can be given a token that grants exactly what it needs and nothing else. Secrets are materialized inside the session agent, so the token holder never receives the seed and can never escalate to owner operations.
# As the owner:
seedpass-js agent token-issue --scope read use \
--kind key_value --label-regex '^api-' --uses 2 --ttl 600
# In the agent's process — no mnemonic, no password:
export SEEDPASS_TOKEN=<token>
seedpass-js entry list # metadata only
seedpass-js use api-token --exec ./deploy.sh # permitted
seedpass-js entry reveal api-token # denied: scope 'reveal' not granted
# Back as the owner — every grant, delivery and denial is recorded:
seedpass-js agent audit-verify
seedpass-js agent audit-tail -n 20
Environment
| Variable | Purpose |
|---|---|
SEEDPASS_APP_DIR |
Profile directory (default ~/.seedpass) |
SEEDPASS_MNEMONIC |
Parent seed; needed for profile creation, otherwise use the agent |
SEEDPASS_PASSWORD |
Master password, for fingerprint add and vault unlock |
SEEDPASS_TOKEN |
Scoped token; puts the CLI in token mode |
SEEDPASS_AGENT_SOCK |
Override the agent socket path |
SEEDPASS_SECRET |
Set by use --exec in the child process only |
Compatibility
Interoperability with the Python implementation is verified on every change
by scripts/cross_impl_check.py: each side opens the other's profiles,
backups round-trip, edits are mutually visible, conflict merges agree, and a
snapshot published by Python restores here with secrets intact. See
docs/typescript_port_compatibility_matrix.md.
Not yet ported: PGP RSA keys (not byte-reproducible; ed25519 is at parity),
and the semantic and api command groups.