Two related changes — both aimed at "can you tell what's deployed?"
1. SW auto-update (no more "refresh twice")
The default vite-plugin-pwa autoUpdate behavior was: new SW
downloads on first reload, activates on second reload. Users
refresh after a deploy, still see old bundle, get confused.
Now:
• workbox: skipWaiting + clientsClaim → new SW activates and
takes control of existing pages immediately on install.
• main.ts listens for `controllerchange` and calls reload() once.
New SW takes over → page reloads → new bundle loads.
Net: deploys land on the FIRST refresh after the new bundle is
reachable. (Caveat: the SW that's currently running has to
download the new SW first, so the very first refresh after a
deploy may serve stale + then auto-reload a beat later.)
2. Visible build sha in the footer
vite.config.ts now runs `git rev-parse --short HEAD` at build
time and injects __BUILD_SHA__ + __BUILD_TIME__ via Vite's
`define`. App.svelte's footer renders the sha as a small monospace
chip linking to the commit on gitea, with the build time on
hover.
"kez-chat web v0.1" → "kez-chat [abc1234] · source"
So when you refresh and the chip changes value, you know the new
build landed. When it doesn't, you know the SW is still serving
the old bundle.
3. Killed the `apple-mobile-web-app-capable` deprecation warning by
adding the standard `mobile-web-app-capable` next to it.
Co-Authored-By: Claude Opus 4.7 <noreply@anthropic.com>
KEZ
KEZ is a portable, decentralized identity graph. It lets a person say:
"These accounts, keys, domains, and identities are all me."
…without depending on any central authority. Every connection is proven by a cryptographic signature against a key the user already controls (a nostr key, an Ed25519 key, etc.), and the proofs are published in places only the claimed account itself can publish to (their gist, their DNS, their nostr relay event). Anyone can verify the graph without trusting a server.
Repository layout
.
├── SPEC.md ← The protocol. Language-agnostic, normative.
├── rust/ ← Rust implementation (kez-core, kez-channels, kez-cli)
├── nodejs/ ← TypeScript/Node implementation (same shape, same CLI)
├── rust-sig-server/ ← Optional HTTP store for sigchains (axum + SQLite)
├── crosstest.sh ← Interop test: artifacts move between implementations
└── README.md ← (this file)
Two parallel implementations. Wire-compatible: a claim signed in Rust verifies in Node and vice versa. The cross-test harness proves it.
A separate rust-sig-server/ crate provides an optional
HTTP storage tier for sigchains — useful when a user doesn't want to set up
DNS/hosting/nostr, but never required; the protocol stays decentralized.
Documentation
Start here:
SPEC.md— the language-agnostic protocol spec (v0.2). Normative for every implementation.rust/README.md— Rust implementation guide: crate layout (kez-core/kez-channels/kez-cli), full CLI reference, channel plugin model, library examples, and the gap list.nodejs/README.md— Node/TypeScript port: same shape as Rust, npm workspaces layout, crypto stack rationale, CLI reference.rust-sig-server/README.md— the optional storage server: API reference, no-auth design + threat model, deployment recipes (bare-metal, Docker, PaaS), and how channel-based publishing remains the fallback if the server is down.
Quick start
Rust
cd rust
cargo build
cargo test # 99 tests
cargo install --path crates/kez-cli # → `kez` on PATH
kez verify id github:jason
Full guide: rust/README.md.
Node.js
cd nodejs
npm install
npm test # 91 tests
npm run cli -- verify id github:jason
Full guide: nodejs/README.md.
Sigchain storage server (optional)
cd rust-sig-server
cargo build --release
./target/release/kez-sig-server # listens on :7878
Full guide: rust-sig-server/README.md.
Cross-testing
./crosstest.sh
Runs 19 scenarios that swap implementations at the artifact boundary:
| # | Scenario |
|---|---|
| 1–2 | nostr-signed JSON claim, both directions |
| 3–4 | nostr-signed compact claim, both directions |
| 5–6 | nostr-signed markdown claim, both directions |
| 7–8 | nostr-signed DNS zone form, both directions |
| 9–10 | ed25519-signed JSON claim, both directions |
| 11–12 | ed25519-signed compact claim, both directions |
| 13–14 | ed25519-signed markdown claim, both directions |
| 15 | rust builds 3-event nostr sigchain → node parses + shows |
| 16 | rust-exported sigchain JSONL == node-exported JSONL (byte-identical) |
| 17 | node builds 3-event nostr sigchain → rust parses + shows |
| 18 | rust builds ed25519 sigchain → node parses + shows |
| 19 | node builds ed25519 sigchain → rust parses + shows |
If all 19 pass: JCS canonicalization, both signature suites (BIP-340 Schnorr
and Ed25519), the compact kez:z1: zstd+base64url encoding, the Markdown
fence, the DNS TXT shape, and the sigchain JSONL bundle format are all
byte-compatible across implementations.
Pass -v for verbose output (echoes intermediate commands and proofs).
What ships in v0.2
- Five channel plugins in each implementation:
dns:,github:,nostr:,bluesky:,ap:(aliasmastodon:). - Four wire encodings: JSON, compact, Markdown fence, DNS TXT.
- Two primary-key algorithms: nostr/secp256k1 Schnorr (BIP-340) and Ed25519 (RFC 8032).
- JCS (RFC 8785) canonicalization for everything signed.
- No API keys required for any channel.
What's not done yet
Tracked in rust/README.md and the
spec:
verify idconsulting the sigchain. Sigchain types, CLI commands (kez sigchain add/revoke/show/export/publish), and the storage server all exist. But proof verification doesn't yet fetch the chain to check for revocations — everyverifyis still a single one-shot proof check.rotateandadd_devicesigchain ops.expires_atenforcement during claim verify.- Typed
VerificationStatus.statusreflecting the five failure modes (valid/revoked/expired/unreachable/fork). - Auth-required publishers (GitHub gist, Bluesky, ActivityPub).
License
Dual-licensed under MIT or Apache-2.0.