Compare commits

...
Author SHA1 Message Date
archipelago 04c056acdb chore: release v1.7.117-alpha
Demo images / Build & push demo images (push) Failing after 2m16s
2026-07-29 07:01:45 -04:00
archipelagoandClaude Fable 5 d0463196a3 docs: changelog + What's New — Reticulum relay (transport mode) bullet
Demo images / Build & push demo images (push) Failing after 59s
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-29 06:23:05 -04:00
archipelagoandClaude Fable 5 8e0939170c feat(mesh): archy nodes run as RNS transport nodes
The Reticulum daemon gains --enable-transport, which writes
enable_transport = yes into the RNS config it regenerates on every
start, and the Rust supervisor always passes it. Archy nodes now relay
RNS traffic and rebroadcast announces, so archy nodes (and Sideband/
NomadNet peers) beyond direct RF range discover and reach each other
through any archy node in between — edge-only operation left every
node limited to its own radio horizon. RNS's per-interface airtime
caps bound the extra announce overhead on LoRa.

Verified: config generation with the flag on/off, daemon --selftest
green with transport enabled, mesh test module 116/116.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-29 06:21:43 -04:00
archipelagoandClaude Fable 5 5c19effdd1 style: cargo fmt — clear formatting drift blocking the release gate
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-29 05:53:33 -04:00
archipelagoandClaude Fable 5 8e51164321 docs: v1.7.117-alpha changelog covers everything since 1.7.116 + What's New sync
Demo images / Build & push demo images (push) Failing after 2m4s
Rewrites the prepared 1.7.117 section to include the mesh flash flow,
first-class Reticulum fixes, radio-first routing, mesh chat polish, the
transactions-modal phone fixes, services-vs-apps classification, the
lightning slow-payment fix, cached-resource page loads, load-shedding,
FIPS uptime hardening, and companion 0.5.25. What's New modal block
regenerated from the new bullets (sync-whats-new --check passes).

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-29 05:49:45 -04:00
archipelagoandClaude Fable 5 da14c135e4 feat(apps): backend-only services classify as services with no Launch button
Demo images / Build & push demo images (push) Has been cancelled
A published port no longer implies a web UI. The package scanner used to
synthesize interfaces.main.ui="true" for any container with a port or
onion address, so headless backends — including self-deployed compose
stacks like podsteadr — showed up as launchable apps. New ui_detection
module decides instead: a manifest interfaces declaration (catalog
overlay first, disk second) is definitive; undeclared apps get a short
HTTP probe of the launch port (HTML page, redirect, or browser auth
wall = UI; JSON APIs, raw TCP, dead ports = service), with cached
verdicts and probes gated on running containers. Frontend canLaunch
now refuses curated services outright and only treats a bare runtime
address as launchable for curated known apps.

Works identically for manifest apps and containers deployed by hand
outside the orchestrator. ui_detection tests 6/6, frontend suite
696/696.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-29 05:48:38 -04:00
archipelagoandClaude Fable 5 d7c5d39747 feat(ui): transactions modal filter tabs pin to top with blur on scroll
Demo images / Build & push demo images (push) Failing after 1m59s
Chips become sticky inside the modal's scroll region with a dimmed
blurred band, so the rail filter stays reachable while rows scroll
underneath. Verified in headless chromium: pinned at scroll-region top
after deep scroll, touch swipes starting on the chips still scroll.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-29 05:01:22 -04:00
archipelagoandClaude Fable 5 6ba39041d0 feat(ui): mesh header "Flash LoRa" button opens the in-app flash flow
Demo images / Build & push demo images (push) Failing after 2m9s
Replaces the external flasher.meshcore.co.uk link with a button that
opens the global device-setup modal directly at its flash step, via a
new manual entry point in the mesh store (flashFlowPath). Manual opens
target the connected radio (else the first detected stick), skip the
read-only probe — the port is held by the live session and a second tty
opener corrupts it; the backend flash job stops the listener itself —
and close the modal instead of stepping back to the detection screen.
Button is disabled with a hint when no radio is present.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-29 04:43:38 -04:00
archipelagoandClaude Fable 5 c99f1c7b77 fix(ui): transactions modal touch scrolling on phones
Demo images / Build & push demo images (push) Failing after 2m3s
The tx list kept a vestigial overflow-y-auto from before the modal
contract refactor made BaseModal's slot wrapper the scroller. With a
modal open, modal-scroll-locked applies overscroll-behavior:contain to
every .overflow-y-auto inside the overlay, so touch scrolls latched
onto the non-scrollable inner list and could not chain up to the real
scroller — the modal was unscrollable on any touch device. Wheel input
latches onto the scrollable ancestor directly, which is why desktop
never showed it. Verified with headless-chromium touch synthesis at
360x640/320x568: list scrolls to bottom, background stays contained.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-29 04:32:41 -04:00
archipelagoandClaude Fable 5 7326bb9262 fix(mesh): unpinned preferred path must stay an auto-detect candidate
Post-merge regression from combining two individually-correct changes:
main's 2026-07-23 fix makes open_preferred_path bail WITHOUT touching the
port when no device_kind is pinned, while the hw-config branch's skip_path
dedup excludes the preferred path from the auto-detect fallback on the
assumption it was already probed this cycle. Together, on a single-radio
node with no pin (the common fleet state), the only candidate was never
probed at all and the mesh never came up — hit live on archi-dev-box
right after deploying merged main.

Fix: when device_kind is None, skip open_preferred_path entirely and go
straight to auto_detect_and_open with skip_path=None. The pinned path
keeps the existing probe-then-skip fallback.

Verified live on archi-dev-box: radio auto-detected, Reticulum daemon
ready, 5 persisted peers loaded. Mesh tests 116 passed / 0 failed.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-29 03:34:02 -04:00
archipelagoandClaude Fable 5 3589c3a6b9 Merge archy-hwconfig into main — hw-config flash-firmware flow
Demo images / Build & push demo images (push) Failing after 2m3s
Brings the hw-config branch (radio firmware flashing modal step 3,
flasher packaging + PyInstaller runtime hook, self-update hardening)
onto main, already reconciled with the probe/dedup/name work via
fb1f4bf0.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 21:02:25 -04:00
archipelagoandClaude Fable 5 0aa3941c40 feat(ui): mesh chat polish — transport pills in image modal, hop-route modal, reaction dropdown, real read-tracking
Demo images / Build & push demo images (push) Failing after 3m29s
- Image quality modal: 'Send via' pills (LoRa / FIPS / Tor) when the
  peer is federation-reachable — mesh.transport-advice now returns
  has_fips + last_transport alongside has_tor. Picking FIPS/Tor routes
  the image over the content-ref path instead of the radio.
- Attachment modals (transport chooser, image quality, new hop modal)
  Teleport to body so the backdrop dims the FULL viewport — rendered
  in-place they sat inside a transformed glass panel that trapped
  position:fixed to the right chat panel.
- Click a message's transport pill → route modal: radio hops + live
  SNR/RSSI quality for LoRa transports, overlay/circuit shape for
  FIPS/Tor, delivery + E2E state.
- Reactions move behind a compact 'React ▾' dropdown with a larger
  12-emoji palette.
- Unread badges now clear like a normal chat app: opening a contact
  clears ALL twins of the merged conversation (badge sums every
  contact_id — clearing just the clicked one left it stuck), and only
  once the chat has scrolled to the latest messages; scrolled up into
  history, new arrivals accumulate until you scroll back down.
- Refresh button shows only the spinner while refreshing (text+spinner
  overflowed the fixed button width).

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 21:01:36 -04:00
archipelagoandClaude Fable 5 e62f911810 fix(mesh): Reticulum resource transfers actually deliver — 4 root causes
E2E-verified both directions dev-box<->x250 over real RF (5KB image ~60s):

1. Sender daemon never called link.identify() — receiver's
   get_remote_identity() was None, so every arrived transfer carried an
   empty source_hash and the Rust side dropped it (now also warns
   instead of silently vanishing it).
2. Receiver treated resource.data as bytes, but RNS hands a concluded
   Resource's data as a file-like BufferedReader — b64encode raised
   TypeError and the transfer was lost even when attributed.
3. Radio twins of merged contacts carry the peer's Archipelago ed25519
   key as pubkey_hex, not an RNS hash — prefix lookup could never match
   ('Unknown Reticulum prefix', observed live). resolve_dest_hash now
   falls back to matching the announce-bound arch_pubkey_hex.
4. The daemon RPC socket kept asyncio's default 64KiB line limit; any
   attachment >~48KB overflowed it and tore down the whole daemon
   connection ('reticulum-daemon is gone'). Raised to 16MiB.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 21:00:44 -04:00
archipelagoandClaude Fable 5 fb1f4bf0e3 Merge main into archy-hwconfig — reconcile probe/dedup/name work
Both sides independently fixed the serial-alias dedup and the ESP32
boot-reset races; kept the branch's defer-to-auto-detect for unpinned
preferred paths (single probe pass per cycle) on top of main's
advert-name threading, Reticulum name propagation and radio-first
routing. Modal keeps main's 'Set Recommended' naming + probe progress
bar alongside the branch's in-app firmware flasher step.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 19:03:19 -04:00
archipelagoandClaude Fable 5 79c3cc5947 fix(mesh): radio-first transport policy + attachments to merged contacts route via the radio twin
Demo images / Build & push demo images (push) Failing after 3m50s
Two halves of the same twin-resolution gap, found live while testing
images between archi-dev-box and archy-x250-dev:

- peer_dest_prefix resolved the given contact row's own pubkey. For the
  UI's merged conversation (the federation-synthetic id) that's the
  Archipelago ed25519 identity key, NOT a radio routing key — so every
  Reticulum resource send (images/files over LoRa) failed with 'Unknown
  Reticulum prefix' while the UI showed the message as sent. It now
  resolves through the radio twin (same arch identity, radio-range id).
- send_typed_wire sent EVERY federation-synthetic contact over the
  federation path (FIPS→Tor), even with the same node one LoRa hop away.
  Policy per operator: LoRa first when the payload fits and the radio
  twin is reachable, then FIPS, then Tor. Verified live: text to the
  merged contact now logs 'Radio-first routing' and lands with
  transport=reticulum on the peer.

Also restyles the mesh-chat attachment download controls: the pre-fetch
button was a bare .btn that squished to text width in the narrow mobile
bubble; now a full-width glass pill with a download icon and fetch
spinner, and the on-image overlay swaps the emoji glyph for a crisp SVG
in a properly-sized glass circle.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 18:16:40 -04:00
archipelagoandClaude Fable 5 c4f24f3efa test(mesh): mesh/Reticulum test gate — unit tests + daemon selftest + live-node assertions
tests/mesh/run-mesh-tests.sh: cheap-first layers — 116 Rust mesh unit
tests, the daemon --selftest (now also asserting the announce app_data
wire contract and the set_name verb), and opt-in live assertions against
a running node (radio connected, named, mesh.refresh/broadcast, no
ARCHY-blob peer names). Verified green on archi-dev-box and archy-x250-dev.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 17:00:58 -04:00
archipelagoandClaude Fable 5 0acfba40db docs(reticulum): 2026-07-28 checkpoint — RNode connect + name propagation fixed, E2E verified
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 16:56:03 -04:00
archipelagoandClaude Fable 5 3f76b4960a feat(ui): mesh Refresh/Broadcast feedback, Set Recommended modal with probe progress bar, live list refresh
Demo images / Build & push demo images (push) Successful in 3m43s
- Refresh button: real handler — calls the new mesh.refresh (radio
  re-query) plus contacts/federation/outbox re-reads, disabled with a
  spinner while running (was an unawaited cache repaint with no feedback
  that skipped half the list's data sources).
- Broadcast button: success ('Sent ✓') and failure states with the error
  in the tooltip; failures no longer vanish as unhandled rejections.
- The store's 5s status poll no longer wipes the error banner each tick.
- Contacts/aliases, federation nodes and the outbox badge refresh every
  ~30s (were mount-only and went permanently stale).
- Peer-list empty state keys on the merged list, so federation rows and
  the channel rows still render with no radio attached.
- Device setup modal: 'Set Recommended' naming, probe progress bar with
  stage labels instead of an anonymous spinner.
- Device panel: name save clears properly (empty = fall back to server
  name) and the confirmation reflects the new live apply.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 16:37:16 -04:00
archipelagoandClaude Fable 5 a8c4694c36 fix(mesh): first-class Reticulum — probe boot-race, live config apply, name propagation, daemon-death detection
Root causes found and fixed after live debugging on archi-dev-box (all
verified on real RNode hardware, archi-dev-box <-> archy-x250-dev E2E):

- probe_rnode raced the board's own boot: opening the port pulses DTR/RTS
  through USB-UART bridges (CP2102/Heltec V3), the ESP32 power-cycles and
  spends ~2.5-3s in boot ROM, and the KISS DETECT written 300ms after open
  landed in the void — so an RNode could NEVER connect on these boards.
  Now: immediate probe (fast path), then drain-until-quiet boot settle and
  a second DETECT with a fresh response window.
- MeshService::configure() only restarted the listener on enable/disable —
  device_kind/device_path/advert_name/RF-param changes were silent no-ops
  until a full process restart (the setup modal's apply/keep-as-is did
  nothing). Material config changes now bounce the listener; the open
  sequence races the shutdown signal so stop() no longer burns the full
  15s timeout mid-probe; mesh.configure applies in the background instead
  of stalling every status poll behind the service write-lock.
- The mesh name was write-only: config.advert_name had no reader,
  server.set-name never reached the mesh service, and Reticulum's
  set_advert_name was a no-op (daemon display name fixed at spawn, and the
  ARCHY:2 announce blob REPLACED the LXMF display name — every archy node
  was anonymous on RNS). Now: advert_name > server name precedence feeds
  the session, renames restart it live, the daemon gets --display-name at
  spawn plus a set_name RPC verb, and announces carry the LXMF-standard
  msgpack name with the identity blob appended as an extra list element
  stock clients (Sideband/NomadNet) ignore.
- Dead reticulum-daemon was invisible for up to 30min (RX-stall watchdog):
  child exit / RPC-EOF now fails try_recv_frame so the session reconnects.
- Setup modal re-trigger loop: plugged_at used the tty node's mtime, which
  bumps on every open — each probe invalidated the dismissal key. Use
  btime/ctime (only change on real plugs).
- ARCHY:2 identity adverts (re-emitted every 60s over Reticulum) stomped
  the federation twin's real name with a synthetic Archy-… placeholder and
  nulled its position; blob-only announces no longer assert a name, blob
  strings can never become display names, and stale blob names are healed
  at peers.json load.
- mesh.broadcast on Meshtastic sent heartbeat+time only (no identity);
  SendAdvert now also fires a want_response NodeInfo broadcast.
- New mesh.refresh RPC: actively re-queries the radio contact table (the
  UI Refresh button previously only re-read server caches).
- Reticulum peers now track last_advert (announce time) and mark existing
  peers reachable on inbound traffic.
- Boot auto-enable no longer force-enables mesh when an operator
  explicitly disabled it (only fires when no config file exists).

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 16:36:52 -04:00
archipelagoandClaude Fable 5 537c52d11c feat(ui): FIPS network + seed-anchor cards render from cached resources (B4)
Demo images / Build & push demo images (push) Failing after 2m6s
The two FIPS containers on the Server page were the last network cards
still fetching-on-mount into local refs — every visit was a blank card
until fips.status / fips.list-seed-anchors answered. Both now ride the
cached-resource layer: FipsNetworkCard shares the server.fips-summary
key with the Local Network card's FIPS row (one fetch, never disagree),
seed anchors cache under server.fips-seed-anchors, and mutations
write the RPC's authoritative result straight into the cache. The 15s
status poll skips hidden tabs — revalidate-on-focus covers the return.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 10:48:34 -04:00
archipelagoandClaude Fable 5 2971623145 fix(server): accept loop can never starve — shed load instead of parking
The HTTP accept loop parked on acquire_owned() when the connection
budget drained, freezing accept() for every client (the .228
session-flapping / CLOSE-WAIT signature). Permits drained because
half-open clients and hung upstreams held them indefinitely.

- try_acquire_owned + immediate 503-and-close when the budget is
  exhausted; the accept loop itself never blocks
- 30s http1_header_read_timeout drops slowloris/half-open clients
- 900s watchdog bounds non-upgraded connections; websocket upgrades
  are exempt (legitimately long-lived)

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 09:10:39 -04:00
archipelagoandClaude Fable 5 43130f33f0 fix(container): companion probes are passive — no builds inside reconcile checks
Root cause of the .198 load spiral (2026-07-28): needs_repair() called
ensure_image_present() every 30s tick to render the expected unit, so
under IO pressure the image-existence check timed out, read as "image
missing", and a 900s podman build ran inside the PROBE while the
companion was up — each build pegging the disk that made probes fail.

- needs_repair() is now build/pull-free: unit file present → service
  is-active (10s cap; a hung systemctl reads as "assume active", never
  as dead) → unit matches one of the three image refs install_one could
  have written → context-newer-than-image staleness only when the unit
  uses the auto-built :latest.
- Per-companion 10-min repair cooldown after a failed install_one, so a
  failing build retries at most every REPAIR_COOLDOWN instead of every
  reconcile tick.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 06:54:29 -04:00
archipelagoandClaude Fable 5 73228114b9 feat(ui): B5 — /ws/db pushes revalidate cached resources
Demo images / Build & push demo images (push) Failing after 2m5s
Bridge WebSocket patches into the resource layer: a /peer-health/<onion>
patch invalidates that peer's cloud.peer-browse entry and the federation
node list; /package-data patches invalidate the tor-services list.
invalidate() debounces 800ms and refetches only keys with mounted
subscribers, so patch storms cost one revalidation per key; the 30s
staleness reconciliation remains the backstop for unmapped data.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 06:49:36 -04:00
archipelagoandClaude Fable 5 8907cc47d9 feat(ui): Credentials + OpenWrtGateway render from cached resources — B4 complete
Demo images / Build & push demo images (push) Failing after 2m10s
- Credentials: identity.list + identity.list-credentials become
  useCachedResource entries; explicit reloads still toast on failure.
- OpenWrtGateway: openwrt.get-status caches in the shared store (revisits
  paint the last router state instantly); the connect flow's
  params/No-router-configured semantics are preserved on top of the entry.
- ContainerApps assessed and left as-is: its Pinia store already persists
  across navigation, keeps last data on error, and gates the spinner on
  empty — same class as Apps/Marketplace/Fleet.

This closes the B4 rollout list from docs/FIPS-UPTIME-AND-UI-STATE-PLAN.md.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 06:27:05 -04:00
archipelagoandClaude Fable 5 8fd72b947a test(ui): adapt SWR contract tests to the cached-resource layer — 692/692
Demo images / Build & push demo images (push) Failing after 2m9s
The keeps-data-visible-while-refreshing tests for PeerFiles, Server, and
LightningChannels mounted without Pinia (the converted components now
pull the resources store in setup) — add createPinia to the mounts.
LightningChannelsPanel: refresh the main channel list before the closed
history so the primary entry gets the first response, and null-guard
both fetchers' response shapes.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 05:55:12 -04:00
archipelagoandClaude Fable 5 ea254f63af feat(ui): Server page renders from cached resources (B4)
Demo images / Build & push demo images (push) Failing after 2m9s
network summary (4-RPC allSettled aggregate), fips row, vpn peers,
interfaces, and tor services become useCachedResource entries — revisits
paint instantly, background refreshes keep content on screen. Mutations
write through the cache: DNS apply + the 15s vpn poll patch the network
aggregate via optimistic() instead of refetching all four RPCs; peer
removal filters the cached list. loading/refreshing flags derive from
entry loadState (drops the hand-rolled hasLoaded bookkeeping).

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 05:45:17 -04:00
archipelagoandClaude Fable 5 1a306c7450 feat(ui): Federation adopts the cached-resource store (B4)
Demo images / Build & push demo images (push) Failing after 2m7s
federation nodes + dwn.status become useCachedResource entries: revisits
paint the node list instantly, `loading` fires on true first-load only
(the old showLoader semantics), the 5s poll refreshes silently like the
old surfaceErrors:false path, and explicit reloads after mutations still
surface failures in the error banner. Replaces the hand-rolled
loadNodesWithOptions SWR.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 05:36:26 -04:00
archipelagoandClaude Fable 5 a969f892ea feat(ui): Lightning channels panel renders from cached resources (B4)
Demo images / Build & push demo images (push) Failing after 2m1s
lnd.listchannels (+summary) and lnd.closedchannels become separate
useCachedResource entries: reopening the panel paints the last channel
lists instantly and revalidates behind them; a closed-history failure
keeps its last list without touching the main view (same semantics as
the old nested try). Open/close mutations still force a refresh.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 05:26:53 -04:00
archipelagoandClaude Fable 5 43e50e669e feat(ui): Monitoring renders from cached resources (B4)
Demo images / Build & push demo images (push) Failing after 2m7s
monitoring.current/history/alerts/alert-rules become useCachedResource
entries: revisiting the page paints the last snapshot, chart, and alert
list instantly and the 5s poll revalidates behind them (refreshes dedup
in the store; errors keep last-known values instead of blanking).
Alert-rule toggles and acknowledgements refresh their entries after the
mutation as before.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 05:22:06 -04:00
archipelagoandClaude Fable 5 529c7fe25d feat(ui): Web5 wallet/profits render from cached resources (B4)
Demo images / Build & push demo images (push) Failing after 2m2s
- lnd.getinfo and wallet.networking-profits become useCachedResource
  entries (web5.lnd-info / web5.networking-profits): revisits paint
  instantly from cache, errors keep last-known values, refreshes dedup.
- walletConnected is now derived from the lnd-info entry (with a manual
  disconnect override preserving the connect/disconnect toggle).
- Drop the eager wallet.ecash-balance + lnd.gettransactions loaders and
  their 30s polling — they fed only the hidden wallet card; the lnd-info
  poll remains for the connected pill until B5 moves it to WS-push.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 05:03:47 -04:00
archipelagoandClaude Fable 5 d605d0d544 feat(ui): PeerFiles renders from the shared peer-browse cache (B4)
Demo images / Build & push demo images (push) Failing after 2m11s
- PeerFiles.vue reads the SAME `cloud.peer-browse:<onion>` entry Cloud.vue's
  per-peer fan-in fills, so Cloud → peer files paints instantly from cache
  and revalidates behind it; catalog/error/loading/transport are now
  computed views over the store entry.
- preview-peer fan-out is capped at 3 concurrent with a queue (was one 30s
  RPC per media item, all at once, unbounded) and aborts on unmount.
- browse + preview RPCs drop to maxRetries:1 — retry×3 turned one slow
  peer into a 90s spinner.
- fix useCachedResource's interface types: `ReturnType<typeof computed<T>>`
  resolves to the writable overload (WritableComputedRef), which broke
  vue-tsc against the plain computed() returns; use ComputedRef<T>.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 04:46:26 -04:00
archipelagoandClaude Fable 5 a3f07d5ac6 feat(fips): resilience — connectivity watcher with immediate anchor re-apply, rebindable peer listener, cached service probe, warm-path union
Phase A3 of docs/FIPS-UPTIME-AND-UI-STATE-PLAN.md (RC5), measured against
the A2 dial_stats baseline:

- 25s connectivity watcher in the fips supervisor: re-applies seed anchors
  immediately on an anchor-link drop, on startup-disconnected, AND on
  silent data-path death (connect_fails growing with zero fips_ok — the
  live .198 failure where the daemon reported "connected" while every
  dial blackholed and the 300s tick never healed it). Bounded to one
  re-apply per 60s.
- anchors::apply is now concurrent with a 15s per-connect cap — the old
  serial loop waited unbounded on each `sudo fipsctl connect`, so one
  hung subprocess stalled the whole periodic tick.
- rebindable peer listener: the accept loop returns after persistent
  accept errors (was: continue forever = inbound-dead until restart) and
  peer_late_bind_loop rebinds — also on fips0 ULA change.
- is_service_active gets a 10s TTL cache (was up to 2 systemctl spawns
  per dial attempt and per warm-tick peer).
- the warm tick now warms the union of federation peers + configured
  seed anchors (direct anchor links used to go cold between 300s ticks),
  skipping the redundant per-peer service check.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-28 03:57:12 -04:00
archipelagoandClaude Fable 5 c83bade022 feat(ui): Cloud page renders from cache — per-peer incremental fan-in, live FIPS/Tor badges, per-path folder cache
Demo images / Build & push demo images (push) Failing after 3m24s
Part B3 of docs/FIPS-UPTIME-AND-UI-STATE-PLAN.md — the worst
fetch-on-every-navigation offender converted to the cached-resource layer:

- section counts / peer nodes / my files / paid items are cached resources:
  revisits paint instantly, refresh happens behind the content
  (sticky-ready), errors keep last-known data
- peer files: per-peer cached browse entries replace the all-or-nothing
  Promise.allSettled — each peer's rows render the moment it answers, with
  "still fetching from N peers" + unreachable counts; browse-peer runs
  with maxRetries:1 so one dead peer costs its timeout once, not ×3
- peer cards get a live transport badge (FIPS green / Tor amber, with
  measured latency) from the transport field the browse response already
  carried — the per-peer FIPS-uptime view, for free
- cloud store: per-path listing cache with stale-while-revalidate
  navigate() and a last-wins guard; CloudFolder no longer reset()s the
  store on every folder entry (that wipe forced a spinner each time)

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-27 22:49:30 -04:00
archipelagoandClaude Fable 5 67454974b2 feat(ui): shared stale-while-revalidate layer — useCachedResource + resources store + rpc-client abort/dedup/retry controls
Demo images / Build & push demo images (push) Successful in 3m28s
Part B1+B2 of docs/FIPS-UPTIME-AND-UI-STATE-PLAN.md. Foundation for pages
that render instantly from cache on revisit and revalidate in the
background, instead of unmount-refetch-spinner on every navigation.

- stores/resources.ts: keyed {data, loadState, fetchedAt, error} entries
  with sticky-ready (never regress ready→loading), keep-last-value on
  error, per-key in-flight dedup, sessionStorage snapshot hydrate,
  debounced invalidate() fan-out, optimistic-update-with-rollback
- composables/useCachedResource.ts: SWR hook over the store — synchronous
  hydrate, TTL-gated background revalidate, revalidate-on-focus,
  abort-on-unmount fetcher signal
- rpc-client: AbortSignal support (aborts pending retries too), opt-in
  in-flight dedup keyed method+params, per-call maxRetries override
- 10 tests covering the SWR semantics

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-27 20:54:51 -04:00
archipelagoandClaude Fable 5 e24e0a6473 feat(fips): fallback telemetry — per-reason counters in fips.status + last-transport recording on all dial sites
Phase A2 of docs/FIPS-UPTIME-AND-UI-STATE-PLAN.md (RC6). Fallbacks to Tor
were debug!-only and uncounted, so "FIPS uptime" was unfalsifiable and
paths that were 100% Tor by construction went unnoticed for months.

- fips::telemetry: process-lifetime counters for FIPS successes and the
  six fallback reasons (no_npub, service_inactive, dns_fail, connect_fail,
  http_404, http_5xx), exposed as `dial_stats` in fips.status
- dial.rs: every fallback branch now counts + logs at info! with a
  `reason` field (resolve/connect/status branches)
- PeerRequest::record_transport(data_dir): opt-in hook that writes the
  transport actually used to federation storage off the hot path — wired
  into the dial sites that never recorded (DWN sync ×3, mesh blob fetch,
  federation deploy notify, onion-rotation notify, node messages via a
  new send_to_peer data-dir param)

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-27 20:54:35 -04:00
archipelagoandClaude Fable 5 eb2fc0f37b fix(fips): P0 uptime fixes — open peer port 5679, allow /blob+/dwn, fix LAN anchor port, un-deaden direct peering, fast-fail budgets
Phase A1 of docs/FIPS-UPTIME-AND-UI-STATE-PLAN.md — the five changes that
made FIPS fall back to Tor even when a FIPS path existed:

- RC0: the fips.d drop-in now opens PEER_PORT 5679 (was 80+8443 only, so
  every hardened node firewalled peers' FIPS dials; 28k drops on .198)
- RC4: /blob/ and /dwn/ added to the peer-path allowlist — mesh file
  sharing and DWN sync were 404 → 100% Tor by construction
- RC2-G2: lan_fips_anchors dials PUBLISHED_UDP_PORT (2121) instead of the
  dead 8668, with a drift-guard test against the rendered daemon config
- RC2-G1: direct LAN peering actually runs now — mDNS TXT advertises the
  FIPS npub, discovery calls set_fips_npub, and the anchor tick hydrates
  npubs from federation storage for peers on older builds
- RC3: FIPS attempt budget is a hard cap (retry no longer doubles it) and
  the 12 hot call sites get explicit fips_timeout fast-fail so Tor keeps
  its full budget (browse-peer, preview, /blob, DWN, node-message,
  rotation notifies)

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-27 16:42:44 -04:00
archipelagoandClaude Fable 5 94b5374f66 Merge public-prelaunch: open-source launch prep + FIPS unit-fallback coverage + companion safe-area fix
Demo images / Build & push demo images (push) Successful in 3m10s
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-27 15:16:27 -04:00
archipelagoandClaude Fable 5 9f65f1e7ae docs: FIPS near-100% uptime + optimistic UI state plan — live-proven root causes (nft 5679 drop, .228 daemon skew, dead LAN peering, no fast-fail) + phased execution
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-27 15:14:23 -04:00
ssmithx dcb0618012 Merge remote-tracking branch 'origin/main' into archy-hwconfig 2026-07-23 23:55:40 +00:00
ssmithx 8403f2233e probing issues with flashing 2026-07-23 23:43:09 +00:00
ssmithx 078f3b3619 pulled in main 2026-07-23 21:42:02 +00:00
ssmithx 4222a8507c Merge remote-tracking branch 'origin/main' into archy-hwconfig 2026-07-23 21:40:06 +00:00
ssmithxandClaude Sonnet 5 5799c37111 fix(mesh): DTR/RTS reset settle time was far shorter than real boot time
Every one of Reticulum/Meshcore/Meshtastic's open() deasserts DTR/RTS on
every connection attempt (needed to clear stale line state, but the
transition itself resets ESP32-S3 native-USB boards and CP2102/CH340-
bridged boards wired for Arduino-style auto-reset — acknowledged in the
existing code comments). Each only waited 300ms before expecting a
handshake response — nowhere near real firmware boot time (LoRa radio
init alone routinely takes longer).

A single auto-detect cycle tries multiple protocols in sequence
(Reticulum, then Meshcore, then Meshtastic), each with its own open() and
thus its own reset. With only 300ms of settle per attempt, a board could
plausibly never finish booting from one attempt's reset before the next
attempt's open() reset it again — a self-sustaining "never finishes
booting" loop that would look identical to firmware/hardware flakiness
from the logs, regardless of which firmware family was actually flashed.
Confirmed live 2026-07-23 on both a Heltec V3 (Meshtastic) and V4
(Meshcore): continuous device-side FROM_RADIO_REBOOTED / boot-loop
symptoms with zero config-write-triggered reboots (manage_radio was false
for part of the test), pointing at the connection layer itself rather
than firmware config provisioning.

Bumped the settle delay from 300ms to 2s in Meshcore's and Meshtastic's
open() — full protocol handshakes that need real boot time. Left
reticulum.rs's probe_rnode settle at 300ms deliberately: it's a
cheap/fast KISS-detect gate designed to fail quickly for non-RNode
firmware (documented elsewhere as "~1s"), not a full handshake, and each
subsequent protocol's own open()+settle is what actually needs to cover
real boot time regardless of what probe_rnode did moments before.

Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
2026-07-23 19:10:06 +00:00
ssmithxandClaude Sonnet 5 b14af20d1a fix(mesh): orphaned listener task could race a fresh one on the same port
Traced why a device that's alive and USB-enumerating correctly could still
never complete a single protocol handshake, indefinitely: journal logs
showed genuinely concurrent connection attempts on the same port
(duplicate "Opened serial port"/"Starting X handshake" lines within
microseconds of each other, from what should be sequential probe steps) —
two independent listener sessions were racing on the same tty, each
corrupting the other's reads/writes.

Root cause was in MeshService::stop() combined with mesh::flash's earlier
STOP_LISTENER_TIMEOUT fix: stop() calls `self.listener_handle.take()`
(clearing the field to None immediately) and then awaits the handle with
no bound of its own. When a caller wraps the whole stop() call in a
timeout (as the flash job does, to avoid hanging the RPC response), a slow
listener — mid multi-candidate probe when the shutdown signal arrives —
would cause that outer timeout to cancel the await. But by then
`listener_handle` was already None, so MeshService believed the listener
was stopped, while the actual task kept running, orphaned (dropping a
JoinHandle does not abort the task). A later start() then spawned a
genuinely new listener, racing the orphaned one forever on the same port.

Fixed at the source: stop() now awaits its own handle through a mutable
reference (not by value) with its own bounded timeout, so on timeout it
still owns the handle and can call .abort() on it directly — guaranteeing
the task is actually gone before stop() returns, regardless of how any
caller wraps it.

Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
2026-07-23 18:39:33 +00:00
ssmithxandClaude Sonnet 5 7547d03166 fix(mesh): configure step after a successful flash could race and fail
Traced a real "Operation failed" on the post-flash configure step: the
flash job's own post-completion code unconditionally called
MeshService::start() after configure(), regardless of the persisted
enabled flag. In this incident, the user had toggled mesh off shortly
before the flash (config.enabled saved as false), but the job's forced
start() ran anyway — leaving the listener actually running while
self.config.enabled stayed false. When the user then clicked "Keep As Is"
on the fresh post-flash probe, their mesh.configure call correctly saw a
false→true transition and tried to start the listener itself, hitting
"Mesh listener already running" — the listener had already been
force-started behind the config's back.

Two fixes:
1. The flash job now only restarts the listener if the freshly-loaded
   config still says enabled — respecting a user's own concurrent choice
   to disable mesh instead of silently overriding it.
2. MeshService::start() is now idempotent: finding the listener already
   running is treated as success, not an error. Ensuring the listener is
   running is what every caller actually wants; whichever caller's start()
   wins a race, the other finding it already satisfied is the correct
   outcome, not a failure to surface to the user.

Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
2026-07-23 16:59:41 +00:00
ssmithxandClaude Sonnet 5 d6019e47a5 fix(mesh): restore esptool's esp32s3 stub instead of routing around it
--erase-all hit the exact same "ROM does not support function erase_flash"
error as a standalone erase_flash — confirmed live: esptool's --erase-all
is implemented as the same full-chip-erase command, not a per-sector loop,
so it needs the stub just as much. The real fix isn't finding another way
around the ROM bootloader's limitations — it's restoring the stub Debian's
package is missing.

Fetched the exact missing file (stub_flasher_32s3.json) from the matching
upstream esptool release tag and installed it directly on archy-x250-dev;
verified live with a read-only `flash_id` that stub mode now loads
("Uploading stub... Running stub..."). Removed --no-stub from flash.rs now
that normal stub-loader mode works correctly (faster and fully-featured vs.
the ROM-only fallback). scripts/self-update.sh now fetches and installs
this same file automatically whenever it's missing, so this isn't a
one-off manual fix tied to a single node.

Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
2026-07-23 13:12:15 +00:00
ssmithxandClaude Sonnet 5 0ca8f25b1b fix(mesh): standalone erase_flash unsupported in --no-stub ROM mode
Real esptool output on a live Heltec V4 exposed the next layer of the
--no-stub fix: "A fatal error occurred: ESP32-S3 ROM does not support
function erase_flash." The ESP32-S3 ROM bootloader only implements
per-sector erase (used internally as write_flash streams data), not a bulk
full-chip-erase opcode — that's a stub-firmware-only feature, and Debian's
esptool package ships without the stub (hence --no-stub in the first
place).

write_flash's own --erase-all flag gets the same "erase everything before
writing" outcome our "always erase before write" default requires, but via
the per-sector mechanism the ROM bootloader actually supports — one esptool
invocation instead of a separate erase_flash + write_flash pair.

Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
2026-07-23 12:28:51 +00:00
ssmithxandClaude Sonnet 5 76d14c3bf9 fix(mesh): flash RPC could hang forever if the listener wouldn't stop
Traced a real "Operation failed" report to its root: MeshService::stop()
ran synchronously inside start_flash_job, BEFORE the background task was
even spawned — so the RPC call itself blocked on it. The mesh listener's
reconnect/multi-candidate-probe loop doesn't check its shutdown signal
between candidates, and in this incident it was mid a Meshcore-then-
Meshtastic probe cycle when the flash request came in, so stop() never
returned. The HTTP request timed out client-side ("connection closed
before message completed" in the server log), the frontend surfaced a
generic "Operation failed", and — worse — the job had already been
inserted into the single-job-guard slot before stop() ran, so with nothing
ever spawned to complete it, every subsequent flash attempt failed with
"already in progress" until a full service restart.

The existing MAX_JOB_DURATION ceiling didn't help here: it only wraps
run_flash(), which is reached AFTER stop() returns — so a hang in stop()
itself was completely unguarded.

Fixed by moving the stop() call inside the spawned background task with
its own 20s timeout. The RPC call now always returns immediately once the
job is registered, and a slow-to-stop listener fails the job cleanly with
a clear message instead of hanging the request and wedging every future
attempt behind it.

Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
2026-07-23 10:50:34 +00:00
ssmithxandClaude Sonnet 5 a1cb83dfb2 fix(mesh): esptool --no-stub + fix retry's broken --baud arg ordering
The improved error logging from the last fix immediately paid off — real
esptool output on the next attempt showed two distinct bugs:

1. Debian's esptool package (4.7.0+dfsg-0.1) ships without the precompiled
   "stub flasher" blobs (stripped for DFSG compliance), so the default
   stub-loader flash mode fails immediately: FileNotFoundError: ... No such
   file or directory: '.../stub_flasher_32s3.json'. Fixed with --no-stub,
   which talks directly to the ROM bootloader instead — the standard
   workaround for this exact Debian packaging gap.

2. The fallback-baud retry appended `--baud 115200` AFTER the subcommand
   token (erase_flash/write_flash), but esptool requires global flags
   before the subcommand — every retry failed with "esptool: error:
   unrecognized arguments: --baud 115200", so the retry logic added
   earlier never actually got a chance to run. esptool_with_retry now
   builds global args (--chip/--port/--baud/--no-stub) and subcommand args
   separately and always concatenates them in the right order, instead of
   relying on call-site ordering of a single flat arg list.

Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
2026-07-23 03:21:39 +00:00
ssmithxandClaude Sonnet 5 ff532465cf fix(mesh): capture actual esptool/rnodeconf output in the failure error
run_streamed's failure path only reported "Command exited with exit status:
N" — the real stderr (already captured line-by-line into job.log_tail for
the UI's live poll) never made it into the error that gets logged to
journald. A real esptool failure just now showed only the bare exit code,
with esptool's actual error text sitting in-memory, visible in the UI but
not diagnosable from the server logs.

Now includes the last 10 log_tail lines in the returned error, so the
actual tool output shows up in journalctl too.

Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
2026-07-23 02:51:58 +00:00
ssmithxandClaude Sonnet 5 39e88529b3 fix(mesh): failed flash silently bounced back to the picker, hiding the error
The step-3 template's condition for showing the picker vs. the progress/
result view was `!flashJob?.active && flashJob?.stage !== 'done'`. That's
true for "no job started yet" (flashJob is null) — but ALSO true for a job
that just FAILED (active:false, stage:'failed'), since 'failed' !== 'done'.
So a failed flash silently reverted to the family/board picker instead of
showing the failure state (error message + log tail) — reported live as
"it went to the download screen and then back to the flash screen" with no
visible error.

Now shows the picker only when no job has been started yet (`!flashJob`);
once a job exists, the progress/result view is always shown, whether it's
still running, succeeded, or failed — the existing error/log-tail markup in
that view already handles all three, it just wasn't being reached.

Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
2026-07-23 02:43:10 +00:00
ssmithxandClaude Sonnet 5 992bf636e0 fix(mesh): board auto-detect used the wrong signal, false-flagged Heltec V3
The "couldn't confirm the board automatically" warning was checking the
display label text (/v3/i, /v4/i) instead of the same vid:pid table the
backend actually uses to resolve the board. A Heltec V3's CP2102 bridge
chip reports "CP2102 USB to UART Bridge Controller" in its USB strings, not
"Heltec", so meshDeviceImages.ts's fallback label ("LoRa radio (CP2102
serial)") never matched the regex — showing the low-confidence warning (and
leaving the board picker empty) even though the backend's
resolve_flash_board can safely auto-detect V3 via vid:pid 10c4:ea60.

Now checks the same vid:pid directly from detected_device_info, matching
mesh::flash::resolve_flash_board exactly. V4 still has no auto-match entry,
same as the backend — its vid:pid (303a:1001) is the ESP32-S3's generic
native-USB descriptor, not V4-specific, so manual selection is still
required there.

Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
2026-07-23 02:31:46 +00:00
ssmithxandClaude Sonnet 5 beff5dd577 fix(mesh): stop the flash-triggered device boot-loop, fix stuck/wedged jobs
Three real incidents from live-testing the flash feature on archy-x250-dev,
each traced through logs on the node and fixed at the root:

- A failed flash left the mesh listener auto-resuming into a reconnect loop
  whose backoff reset to its 5s minimum on any momentary connection, even
  mid-boot-loop — every retry's open() toggles DTR/RTS, which resets many
  ESP32 boards, so the retries were themselves sustaining the loop. Backoff
  now only resets after a session runs stably for 20s+, and the flash job
  no longer auto-resumes the listener after a failure (only on success,
  after a settle delay).

- The HTTP client's blanket 30s request timeout covered entire downloads
  (Meshtastic's zip is ~170MB), killing large transfers mid-stream; fixed
  with a per-chunk stall timeout instead of a fixed total-transfer cap. But
  the download's initial request had no timeout at all, so a slow-to-start
  server hung it forever — wedging the single-flash-job guard permanently
  ("already in progress" on every subsequent attempt). Fixed with a bounded
  wait for the response to start, plus an absolute ceiling around the whole
  job as a last-resort safety net.

- archy-rnodeconf's PyInstaller freeze broke its own internal esptool
  invocation (sys.executable pointed at the frozen binary itself instead of
  a real interpreter) — fixed via a new runtime hook. esptool's own
  auto-reset-into-bootloader handshake is separately known to be flaky on
  some CP2102/CH340 boards; it now retries once at a conservative baud
  rate instead of failing outright, and failure logs show the full error
  chain instead of just the outer context message.

Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
2026-07-23 02:18:55 +00:00
ssmithx 7d31ca5d65 First commit 2026-07-23 00:33:55 +00:00
85 changed files with 5871 additions and 992 deletions
+13 -3
View File
@@ -1,12 +1,22 @@
# Changelog
## v1.7.117-alpha (2026-07-27)
## v1.7.117-alpha (2026-07-29)
- Flash your LoRa radio from inside the app. The Mesh page now has a "Flash LoRa" button that opens a guided flow: pick the firmware family (MeshCore, Meshtastic, or Reticulum RNode) and your board, and the node downloads the latest release and flashes it with live progress — no external flasher website, no cables to a computer. The same flow appears when a freshly plugged-in radio is detected, and a long list of flashing pitfalls was fixed along the way: radios no longer boot-loop after a flash, failures show the real error instead of silently bouncing back, wedged flash jobs can't get stuck forever, and board auto-detection no longer misidentifies Heltec boards.
- Every Archipelago node now acts as a Reticulum relay. Nodes forward mesh traffic and re-broadcast peer announcements, so two radios that can't hear each other directly can still discover and message each other through any Archipelago node in between — your nodes become infrastructure for the whole neighbourhood mesh, including non-Archipelago apps like Sideband.
- Reticulum (RNode) radios are now first-class mesh citizens. Radios are reliably detected on node startup (a boot-timing race used to leave them unclaimed), settings changes apply live without a restart, your node's name propagates over the Reticulum network so other apps like Sideband see it properly, and a crashed Reticulum daemon is detected and restarted automatically. Photo and file attachments sent over Reticulum now actually arrive — four separate delivery bugs were found and fixed, verified end-to-end over real radio hardware.
- Messages to contacts that exist on both the internet mesh and a LoRa radio now prefer the radio when it's live, and attachments follow the same path — so co-located nodes talk over the air even when the internet path exists.
- Mesh chat polish: each message in the image viewer shows which transport carried it, a new hop-route view shows the path a message took, reactions moved into a tidy dropdown, and read-tracking now reflects what you've actually seen. The Refresh and Broadcast buttons give real feedback, and the radio-setup modal shows honest probe progress instead of freezing.
- The wallet transactions list works properly on phones now: it scrolls (it silently couldn't on touch screens before), and the All / On-chain / Lightning / Ecash filter tabs stay pinned at the top with a subtle blur while the list scrolls underneath.
- Backend services no longer masquerade as launchable apps. Anything without a real web interface — databases, APIs, background workers, including stacks you deploy by hand for testing — now files under Services with no Launch button. Apps declare their interface in their manifest; for everything else the node checks the port itself to see whether a browser page actually lives there.
- Lightning payments that take a while (slow multi-hop routes) are no longer reported as failed while they're still in flight. The wallet now waits properly, shows an honest "pending" state, and reports the true final outcome.
- Server pages feel instant: Server, Federation, Lightning channels, Monitoring, wallet, Cloud, and Credentials screens now render immediately from a shared cache and refresh live in the background (including push updates over the node's websocket), instead of blanking while every panel refetches.
- The node stays responsive under heavy load: the connection handler now sheds excess load instead of stalling everything behind it, and companion-app probes no longer trigger container builds during routine checks.
- FIPS mesh uptime hardening continues: the node's peer port is opened explicitly everywhere, LAN anchors use the right port, direct peering between co-located nodes works again, dials fail fast instead of hanging, and a connectivity watcher re-applies anchors immediately when the network comes back.
- FIPS startup is more reliable on nodes that have the packaged `fips.service` instead of Archipelago's `archipelago-fips.service`. Startup self-heal, onboarding, dashboard Start, and reconnect now use the systemd unit the node actually has, so FIPS no longer looks like it needs to be installed when it only needs to be started.
- App screens over the FIPS mesh now bind their relay only to the node's FIPS address instead of reserving the same host ports Podman needs. This keeps apps such as FileBrowser and Botfights from restart-looping because the backend was already holding their published ports.
- Companion WebView safe-area handling now also moves fixed and sticky top bars below the phone status bar, including headers mounted after page load by single-page apps.
- Companion app 0.5.25: a redesigned settings hub (three-finger tap opens it over the dashboard), seamless transport handoff with FIPS mesh settings, the wallet scanner reads dense invoice QR codes, app webviews clear the phone status bar with an HTTPS toggle on add/edit, and off-LAN loads fall back to the mesh URL instead of a dead LAN address.
- Public-source preparation now includes a Nostr Git hosting plan using `ngit`, NIP-34, and GRASP: anyone can clone, fork, review, and propose changes from their Archipelago node, while canonical merge authority stays with a small signed maintainer set in the style of Bitcoin Core.
- Node OS release notes for v1.7.117 are still open; add any installer, service, kernel, firewall, or package changes here before cutting the release.
## v1.7.116-alpha (2026-07-27)
+50
View File
@@ -84,6 +84,15 @@ version = "1.0.100"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "a23eb6b1614318a8071c9b2521f36b424b2c83db5eb3a0fead4a6c0809af6e61"
[[package]]
name = "arbitrary"
version = "1.4.2"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "c3d036a3c4ab069c7b410a2ce876bd74808d2d0888a82667669f8e783a898bf1"
dependencies = [
"derive_arbitrary",
]
[[package]]
name = "arc-swap"
version = "1.9.1"
@@ -161,6 +170,7 @@ dependencies = [
"uuid",
"zbase32",
"zeroize",
"zip",
]
[[package]]
@@ -1175,6 +1185,17 @@ version = "0.5.8"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "7cd812cc2bc1d69d4764bd80df88b4317eaef9e773c75226407d9bc0876b211c"
[[package]]
name = "derive_arbitrary"
version = "1.4.2"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "1e567bd82dcff979e4b03460c307b3cdc9e96fde3d73bed1496d2bc75d9dd62a"
dependencies = [
"proc-macro2",
"quote",
"syn 2.0.114",
]
[[package]]
name = "derive_builder"
version = "0.20.2"
@@ -6895,8 +6916,37 @@ dependencies = [
"syn 2.0.114",
]
[[package]]
name = "zip"
version = "2.4.2"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "fabe6324e908f85a1c52063ce7aa26b68dcb7eb6dbc83a2d148403c9bc3eba50"
dependencies = [
"arbitrary",
"crc32fast",
"crossbeam-utils",
"displaydoc",
"flate2",
"indexmap",
"memchr",
"thiserror 2.0.18",
"zopfli",
]
[[package]]
name = "zmij"
version = "1.0.16"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "dfcd145825aace48cff44a8844de64bf75feec3080e0aa5cdbde72961ae51a65"
[[package]]
name = "zopfli"
version = "0.8.3"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "f05cd8797d63865425ff89b5c4a48804f35ba0ce8d125800027ad6017d2b5249"
dependencies = [
"bumpalo",
"crc32fast",
"log",
"simd-adler32",
]
+5 -1
View File
@@ -1,6 +1,6 @@
[package]
name = "archipelago"
version = "1.7.116-alpha"
version = "1.7.117-alpha"
edition = "2021"
description = "Archipelago Bitcoin Node OS - Native backend"
authors = ["Archipelago Team"]
@@ -108,6 +108,10 @@ bytes = "1"
# Mesh networking (Meshcore serial protocol over USB LoRa radios)
serial2-tokio = "0.1"
# LoRa radio firmware flashing: Meshtastic ships per-board images inside a
# per-platform release zip (see mesh/flash.rs).
zip = { version = "2", default-features = false, features = ["deflate"] }
# Double Ratchet key derivation (Phase 3: encrypted mesh messaging)
hkdf = "0.12.4"
@@ -465,6 +465,7 @@ impl RpcHandler {
signing_key.as_ref().map(|i| i.signing_key()),
Some(&peer.pubkey),
data.server_info.name.as_deref(),
Some(&self.config.data_dir),
)
.await
}
+7
View File
@@ -279,6 +279,7 @@ impl RpcHandler {
.service(crate::settings::transport::PeerService::PeerFiles)
.header("X-Federation-DID", local_did)
.timeout(std::time::Duration::from_secs(120))
.fips_timeout(std::time::Duration::from_secs(8))
.send_get()
.await
.context("Failed to connect to peer")?;
@@ -364,6 +365,11 @@ impl RpcHandler {
crate::fips::dial::PeerRequest::new(fips_npub.as_deref(), onion, "/content")
.service(crate::settings::transport::PeerService::PeerFiles)
.timeout(std::time::Duration::from_secs(30))
// The Cloud page's hottest call: without a fast-fail cap a
// cold FIPS path burned ~16.6s before Tor even started,
// against the UI's 30s deadline — users saw errors, not
// fallback.
.fips_timeout(std::time::Duration::from_secs(6))
.send_get()
.await
.context("Failed to connect to peer")?;
@@ -1137,6 +1143,7 @@ impl RpcHandler {
crate::fips::dial::PeerRequest::new(fips_npub.as_deref(), onion, &path)
.service(crate::settings::transport::PeerService::PeerFiles)
.timeout(std::time::Duration::from_secs(30))
.fips_timeout(std::time::Duration::from_secs(6))
.send_get()
.await
.context("Failed to connect to peer for preview")?;
@@ -391,7 +391,12 @@ impl RpcHandler {
// Mesh networking (Meshcore LoRa)
"mesh.status" => self.handle_mesh_status().await,
"mesh.probe-device" => self.handle_mesh_probe_device(params).await,
"mesh.flash-list-firmware" => self.handle_mesh_flash_list_firmware(params).await,
"mesh.flash-device" => self.handle_mesh_flash_device(params).await,
"mesh.flash-status" => self.handle_mesh_flash_status().await,
"mesh.flash-cancel" => self.handle_mesh_flash_cancel().await,
"mesh.peers" => self.handle_mesh_peers().await,
"mesh.refresh" => self.handle_mesh_refresh().await,
"mesh.messages" => self.handle_mesh_messages(params).await,
"mesh.debug-dump" => self.handle_mesh_debug_dump().await,
"mesh.send" => self.handle_mesh_send(params).await,
@@ -865,7 +865,9 @@ impl RpcHandler {
"/rpc/v1",
)
.service(crate::settings::transport::PeerService::Peers)
.timeout(std::time::Duration::from_secs(30));
.timeout(std::time::Duration::from_secs(30))
.fips_timeout(std::time::Duration::from_secs(6))
.record_transport(&self.config.data_dir);
match req.send_json(&body).await {
Ok((resp, transport)) if resp.status().is_success() => {
+8 -1
View File
@@ -13,7 +13,14 @@ use anyhow::Result;
impl RpcHandler {
pub(super) async fn handle_fips_status(&self) -> Result<serde_json::Value> {
let status = fips::FipsStatus::query(&self.config.data_dir).await;
Ok(serde_json::to_value(status)?)
let mut v = serde_json::to_value(status)?;
// Dial outcome counters (process-lifetime): how often peer dials
// used FIPS vs fell back to Tor, broken down by reason. This is
// the observability that makes "FIPS uptime" measurable.
if let Some(obj) = v.as_object_mut() {
obj.insert("dial_stats".to_string(), fips::telemetry::snapshot());
}
Ok(v)
}
/// Everything the companion app needs to join this node's mesh, embedded
+1 -2
View File
@@ -198,8 +198,7 @@ impl RpcHandler {
.and_then(|v| v.as_array())
.and_then(|arr| {
arr.iter().find(|p| {
p.get("payment_hash").and_then(|v| v.as_str())
== Some(hash_lower.as_str())
p.get("payment_hash").and_then(|v| v.as_str()) == Some(hash_lower.as_str())
})
});
+134
View File
@@ -0,0 +1,134 @@
use super::super::RpcHandler;
use crate::mesh;
use crate::mesh::flash::{self, FlashBoard, FlashJobStatus};
use crate::mesh::types::DeviceType;
use anyhow::Result;
fn parse_family(s: &str) -> Result<DeviceType> {
match s.trim().to_lowercase().as_str() {
"meshcore" => Ok(DeviceType::Meshcore),
"meshtastic" => Ok(DeviceType::Meshtastic),
"reticulum" | "rnode" => Ok(DeviceType::Reticulum),
other => anyhow::bail!(
"Unknown firmware family: {other} (expected meshcore|meshtastic|reticulum)"
),
}
}
fn parse_board(s: &str) -> Result<FlashBoard> {
match s.trim().to_lowercase().as_str() {
"heltec-v3" | "heltec_v3" | "heltecv3" => Ok(FlashBoard::HeltecV3),
"heltec-v4" | "heltec_v4" | "heltecv4" => Ok(FlashBoard::HeltecV4),
other => anyhow::bail!("Unknown board: {other} (expected heltec-v3|heltec-v4)"),
}
}
impl RpcHandler {
/// mesh.flash-list-firmware — resolve the available firmware version(s)
/// for a given family. v1 only ever surfaces "latest".
pub(in crate::api::rpc) async fn handle_mesh_flash_list_firmware(
&self,
params: Option<serde_json::Value>,
) -> Result<serde_json::Value> {
let family = params
.as_ref()
.and_then(|p| p.get("family"))
.and_then(|v| v.as_str())
.ok_or_else(|| anyhow::anyhow!("Missing family"))?;
let family = parse_family(family)?;
let versions = flash::list_firmware(family).await?;
Ok(serde_json::json!({ "versions": versions }))
}
/// mesh.flash-device — erase and reflash a detected LoRa radio with the
/// latest firmware for the given family, defaulting to a full chip
/// erase before write. `board` is optional: if the port's USB vid:pid
/// unambiguously resolves to a known board, that's used; otherwise the
/// caller must supply it explicitly (see `flash::resolve_flash_board`'s
/// doc comment on why we refuse to guess).
pub(in crate::api::rpc) async fn handle_mesh_flash_device(
&self,
params: Option<serde_json::Value>,
) -> Result<serde_json::Value> {
let path = params
.as_ref()
.and_then(|p| p.get("path"))
.and_then(|v| v.as_str())
.ok_or_else(|| anyhow::anyhow!("Missing path"))?
.to_string();
let family = params
.as_ref()
.and_then(|p| p.get("family"))
.and_then(|v| v.as_str())
.ok_or_else(|| anyhow::anyhow!("Missing family"))?;
let family = parse_family(family)?;
let detected = mesh::detect_devices().await;
anyhow::ensure!(
detected.iter().any(|d| d == &path),
"{path} is not a detected mesh-radio candidate port"
);
let board = match params
.as_ref()
.and_then(|p| p.get("board"))
.and_then(|v| v.as_str())
{
Some(explicit) => parse_board(explicit)?,
None => {
let info = mesh::detect_devices_info()
.await
.into_iter()
.find(|d| d.path == path);
info.as_ref()
.and_then(flash::resolve_flash_board)
.ok_or_else(|| {
anyhow::anyhow!(
"Could not auto-detect the board on {path} — specify board explicitly"
)
})?
}
};
flash::start_flash_job(
&self.flash_job,
&self.mesh_service_arc(),
self.config.data_dir.clone(),
path,
board,
family,
)
.await?;
Ok(serde_json::json!({ "started": true }))
}
/// mesh.flash-status — poll the current (or most recent) flash job.
pub(in crate::api::rpc) async fn handle_mesh_flash_status(&self) -> Result<serde_json::Value> {
let job = self.flash_job.read().await;
match job.as_ref() {
Some(j) => {
let status: FlashJobStatus = j.snapshot().await;
let mut value = serde_json::to_value(&status)?;
if let Some(obj) = value.as_object_mut() {
obj.insert("active".into(), (!status.done).into());
}
Ok(value)
}
None => Ok(serde_json::json!({ "active": false })),
}
}
/// mesh.flash-cancel — best-effort; only honored before erase/write has
/// started (see `FlashJob::cancel`'s doc comment).
pub(in crate::api::rpc) async fn handle_mesh_flash_cancel(&self) -> Result<serde_json::Value> {
let job = self.flash_job.read().await;
match job.as_ref() {
Some(j) => {
j.cancel().await?;
Ok(serde_json::json!({ "cancelled": true }))
}
None => anyhow::bail!("No flash job in progress"),
}
}
}
+27 -5
View File
@@ -1,6 +1,7 @@
use super::super::RpcHandler;
use crate::mesh;
use anyhow::Result;
use std::sync::Arc;
use tracing::info;
impl RpcHandler {
@@ -131,7 +132,14 @@ impl RpcHandler {
config.broadcast_identity = broadcast;
}
if let Some(name) = params.get("advert_name").and_then(|v| v.as_str()) {
config.advert_name = Some(name.to_string());
// Empty clears the custom mesh name (falls back to the server
// name) — without this, a name could be set but never unset.
let trimmed = name.trim();
config.advert_name = if trimmed.is_empty() {
None
} else {
Some(trimmed.to_string())
};
}
if let Some(announce) = params
.get("announce_block_headers")
@@ -202,10 +210,24 @@ impl RpcHandler {
mesh::save_config(&self.config.data_dir, &config).await?;
// If we have a running service, update its config
let mut service = self.mesh_service.write().await;
if let Some(svc) = service.as_mut() {
svc.configure(config.clone()).await?;
// Apply to the running service in the background: configure() may
// stop+start the listener (config changes now restart the session so
// they actually take effect), and that can take seconds when the old
// session is mid-probe. Holding the service write-lock for that long
// inside this handler stalled every concurrent mesh.status/mesh.peers
// poll behind it — the UI froze and nginx surfaced 502s. The config is
// already persisted above; the UI observes progress via mesh.status.
{
let service_arc = Arc::clone(&self.mesh_service);
let config_for_apply = config.clone();
tokio::spawn(async move {
let mut service = service_arc.write().await;
if let Some(svc) = service.as_mut() {
if let Err(e) = svc.configure(config_for_apply).await {
tracing::error!("Applying mesh config to running service failed: {e:#}");
}
}
});
}
info!("Mesh config updated");
+1
View File
@@ -1,5 +1,6 @@
mod assistant;
mod bitcoin_ops;
mod flash;
mod messaging;
mod safety;
mod status;
+52 -6
View File
@@ -101,15 +101,61 @@ impl RpcHandler {
detected.iter().any(|d| d == &path),
"{path} is not a detected mesh-radio candidate port"
);
let service = self.mesh_service.read().await;
let probe = match service.as_ref() {
Some(svc) => svc.probe_device(&path).await?,
// No mesh service yet (radio never enabled) — probe directly.
None => mesh::listener::probe_device(&path).await?,
};
// Refuse to probe while a firmware flash is in flight. Confirmed
// live 2026-07-23: esptool ("multiple access on port?") and
// rnodeconf (OSError Errno 71 Protocol error on an RTS ioctl) both
// failed with symptoms consistent with a second process holding the
// same serial fd — the flash subprocess runs for minutes outside
// our own async runtime, so nothing previously stopped a concurrent
// `mesh.probe-device` call (e.g. the hot-swap modal's own re-probe)
// from opening the identical port at the same time and corrupting
// both operations' handshakes.
if let Some(job) = self.flash_job.read().await.as_ref() {
anyhow::ensure!(
job.snapshot().await.done,
"A firmware flash is in progress — refusing to probe the serial port until it finishes"
);
}
// Only hold the mesh_service lock long enough for the quick
// active-path guard check — NEVER across the actual probe, which
// can take 15-60s across its internal collision retries. Confirmed
// live 2026-07-23: holding this read lock for the full probe starved
// a concurrent firmware-flash job's MeshService::stop() (which needs
// the write lock) well past its own bounded timeout, surfacing as
// "Mesh listener did not release the serial port" even though
// stop() itself was fast.
{
let service = self.mesh_service.read().await;
if let Some(svc) = service.as_ref() {
svc.ensure_probe_allowed(&path).await?;
}
}
let probe = mesh::listener::probe_device(&path).await?;
Ok(serde_json::to_value(probe)?)
}
/// mesh.refresh — Actively refresh discovery state: re-query the radio's
/// contact table and re-announce ourselves so quiet-but-alive neighbours
/// answer. This is what the UI's Refresh button calls — before it existed
/// the button only re-read server caches and never touched the radio.
pub(in crate::api::rpc) async fn handle_mesh_refresh(&self) -> Result<serde_json::Value> {
let service = self.mesh_service.read().await;
let Some(svc) = service.as_ref() else {
return Ok(serde_json::json!({ "refreshed": false, "device_connected": false }));
};
let status = svc.status().await;
if status.device_connected {
let state = svc.shared_state();
let _ = state
.send_cmd(crate::mesh::listener::MeshCommand::RefreshContacts)
.await;
}
Ok(serde_json::json!({
"refreshed": status.device_connected,
"device_connected": status.device_connected,
}))
}
/// mesh.peers — List discovered mesh peers.
pub(in crate::api::rpc) async fn handle_mesh_peers(&self) -> Result<serde_json::Value> {
let service = self.mesh_service.read().await;
@@ -575,14 +575,17 @@ impl RpcHandler {
let nodes = crate::federation::load_nodes(&self.config.data_dir)
.await
.unwrap_or_default();
let has_tor = peer_pubkey_hex
.as_ref()
.map(|pk| nodes.iter().any(|n| &n.pubkey == pk))
.unwrap_or(false)
|| peer_did
.as_ref()
.map(|d| nodes.iter().any(|n| &n.did == d))
.unwrap_or(false);
let fed_node = nodes.iter().find(|n| {
peer_pubkey_hex.as_deref() == Some(n.pubkey.as_str())
|| peer_did.as_deref() == Some(n.did.as_str())
});
let has_tor = fed_node.is_some();
// Distinct FIPS capability so the frontend can offer FIPS as its own
// pill (not just a generic "Tor") — the dial layer still picks
// FIPS-first with Tor fallback on the actual send; these are honest
// capability labels, with `last_transport` saying what worked last.
let has_fips = fed_node.is_some_and(|n| n.fips_npub.is_some());
let last_transport = fed_node.and_then(|n| n.last_transport.clone());
let est_seconds = (size.saturating_add(lora_bytes_per_sec - 1) / lora_bytes_per_sec).max(1);
@@ -618,6 +621,8 @@ impl RpcHandler {
"tier": tier,
"est_seconds": est_seconds,
"has_tor": has_tor,
"has_fips": has_fips,
"last_transport": last_transport,
"reason": reason,
"size": size,
"mesh_auto_max": MESH_AUTO_MAX,
@@ -820,6 +825,8 @@ impl RpcHandler {
crate::fips::dial::PeerRequest::new(fips_npub.as_deref(), &onion_bare, &path)
.service(crate::settings::transport::PeerService::MeshFileSharing)
.timeout(std::time::Duration::from_secs(120))
.fips_timeout(std::time::Duration::from_secs(8))
.record_transport(&self.config.data_dir)
.send_get()
.await
.map_err(|e| anyhow::anyhow!("Fetch failed: {}", e))?;
+4
View File
@@ -89,6 +89,9 @@ pub struct RpcHandler {
endpoint_rate_limiter: EndpointRateLimiter,
response_cache: ResponseCache,
mesh_service: Arc<tokio::sync::RwLock<Option<crate::mesh::MeshService>>>,
/// LoRa radio firmware-flash job state, sibling to `mesh_service` — one
/// job at a time, since flashing needs exclusive access to the port.
flash_job: crate::mesh::flash::FlashJobHandle,
transport_router: Arc<tokio::sync::RwLock<Option<Arc<crate::transport::TransportRouter>>>>,
/// Shared content-addressed blob store. Set by ApiHandler after construction
/// so mesh.send-content / mesh.fetch-content RPCs can reach it without a
@@ -160,6 +163,7 @@ impl RpcHandler {
endpoint_rate_limiter,
response_cache: ResponseCache::new(5),
mesh_service: Arc::new(tokio::sync::RwLock::new(None)),
flash_job: crate::mesh::flash::new_job_handle(),
transport_router: Arc::new(tokio::sync::RwLock::new(None)),
blob_store: Arc::new(tokio::sync::RwLock::new(None)),
self_pubkey_hex: Arc::new(tokio::sync::RwLock::new(None)),
+2
View File
@@ -137,6 +137,7 @@ impl RpcHandler {
None,
None,
None,
Some(&self.config.data_dir),
)
.await?;
@@ -225,6 +226,7 @@ impl RpcHandler {
signing_key.as_ref().map(|i| i.signing_key()),
Some(&req.from_pubkey),
data.server_info.name.as_deref(),
Some(&self.config.data_dir),
)
.await
{
+1
View File
@@ -133,6 +133,7 @@ impl RpcHandler {
Some(node_id.signing_key()),
recipient_pubkey.as_deref(),
node_name.as_deref(),
Some(&self.config.data_dir),
)
.await?;
Ok(serde_json::json!({ "ok": true, "sent_to": onion }))
@@ -61,6 +61,28 @@ impl RpcHandler {
info!("Server name updated to: {}", name);
// Propagate to the mesh: the listener advertises the server name (when
// no explicit mesh advert_name overrides it), but it was only read at
// process startup — a rename never reached the radio/RNS until the
// next full restart. Push it into the service and bounce the listener
// in the background (the restart re-probes the radio, which can take
// seconds — don't block the rename response on it).
{
let mesh_arc = self.mesh_service_arc();
let name_for_mesh = name.clone();
tokio::spawn(async move {
let mut guard = mesh_arc.write().await;
if let Some(svc) = guard.as_mut() {
svc.set_server_name(Some(name_for_mesh));
if svc.config().advert_name.is_none() {
if let Err(e) = svc.restart_listener_if_running().await {
warn!("Mesh listener restart after rename failed: {}", e);
}
}
}
});
}
// Push the new name to federation peers in background
let data_dir = self.config.data_dir.clone();
let state_manager = self.state_manager.clone();
+3 -1
View File
@@ -498,7 +498,9 @@ pub(super) async fn notify_federation_peers_address_change(
"/rpc/v1",
)
.service(crate::settings::transport::PeerService::Peers)
.timeout(std::time::Duration::from_secs(30));
.timeout(std::time::Duration::from_secs(30))
.fips_timeout(std::time::Duration::from_secs(6))
.record_transport(data_dir);
match req.send_json(&payload).await {
Ok((_, transport)) => {
info!(peer_did = %peer.did, transport = %transport, "Notified peer of address change")
+74 -8
View File
@@ -22,8 +22,10 @@
//! single declarative call.
use anyhow::{Context, Result};
use std::collections::HashMap;
use std::path::PathBuf;
use std::time::Duration;
use std::sync::{LazyLock, Mutex};
use std::time::{Duration, Instant};
use tokio::fs;
use tokio::process::Command;
use tracing::{info, warn};
@@ -35,6 +37,15 @@ const COMPANION_REGISTRY: &str = "146.59.87.168:3000/lfg2025";
const COMPANION_IMAGE_CHECK_TIMEOUT: Duration = Duration::from_secs(15);
const COMPANION_BUILD_TIMEOUT: Duration = Duration::from_secs(900);
const COMPANION_PULL_TIMEOUT: Duration = Duration::from_secs(300);
/// After a failed repair (image build/pull included), leave the companion
/// alone for this long. Without it, a node under IO pressure retried a 900s
/// image build every 30s reconcile tick — each build pegging the disk that
/// made the probes fail in the first place (live-diagnosed on zaza-optiplex
/// 2026-07-28: load 50, podman scans starved, apps page stuck).
const REPAIR_COOLDOWN: Duration = Duration::from_secs(600);
static REPAIR_FAILED_AT: LazyLock<Mutex<HashMap<&'static str, Instant>>> =
LazyLock::new(|| Mutex::new(HashMap::new()));
/// Static description of one companion. The full list per backend
/// app_id lives in `companions_for`.
@@ -464,12 +475,28 @@ pub async fn reconcile(installed_apps: &[String]) -> Vec<(String, anyhow::Error)
match needs_repair(spec).await {
Ok(false) => {}
Ok(true) => {
if let Some(failed_at) =
REPAIR_FAILED_AT.lock().unwrap().get(spec.name).copied()
{
if failed_at.elapsed() < REPAIR_COOLDOWN {
continue;
}
}
info!(
companion = spec.name,
"reconcile: companion not active, repairing"
);
if let Err(e) = install_one(spec).await {
failures.push((spec.name.to_string(), e));
match install_one(spec).await {
Ok(()) => {
REPAIR_FAILED_AT.lock().unwrap().remove(spec.name);
}
Err(e) => {
REPAIR_FAILED_AT
.lock()
.unwrap()
.insert(spec.name, Instant::now());
failures.push((spec.name.to_string(), e));
}
}
}
Err(e) => {
@@ -484,19 +511,58 @@ pub async fn reconcile(installed_apps: &[String]) -> Vec<(String, anyhow::Error)
/// Does this companion need install_one to be re-run? Returns true if
/// the unit file is missing, stale, or the service is not active.
///
/// This probe runs every reconcile tick for every companion, so it must be
/// PASSIVE: no image builds, no pulls. It used to call ensure_image_present
/// to render the expected unit — under IO pressure the image-existence check
/// inside timed out, read as "image missing", and a 900s `podman build` ran
/// inside the probe even though the companion was up (the .198 load spiral).
async fn needs_repair(spec: &CompanionSpec) -> Result<bool> {
let dir = quadlet::unit_dir().await?;
let unit_path = dir.join(format!("{}.container", spec.name));
if !fs::try_exists(&unit_path).await.unwrap_or(false) {
return Ok(true);
}
let expected_image = ensure_image_present(spec).await?;
let expected_unit = build_unit(spec, &expected_image);
if expected_unit.render() != fs::read_to_string(&unit_path).await.unwrap_or_default() {
let svc = format!("{}.service", spec.name);
// A hung `systemctl is-active` under IO pressure must not read as
// "companion dead" — that's a repair (and possibly an image build) fired
// off exactly when the node can least afford one.
match tokio::time::timeout(Duration::from_secs(10), quadlet::is_active(&svc)).await {
Ok(active) => {
if !active {
return Ok(true);
}
}
Err(_) => {
warn!(
companion = spec.name,
"is-active probe timed out; assuming active"
);
}
}
// Service is running. Flag it stale only on definitive, cheap signals:
// the on-disk unit matching none of the image refs install_one could
// have written, or a local build context newer than the built image.
let on_disk = fs::read_to_string(&unit_path).await.unwrap_or_default();
let local_image = format!("localhost/{}:latest", spec.image_base);
let local_image_compat = format!("localhost/{}:local", spec.image_base);
let registry_image = format!("{}/{}:latest", COMPANION_REGISTRY, spec.image_base);
let matches_known_shape = [&local_image, &local_image_compat, &registry_image]
.iter()
.any(|img| build_unit(spec, img).render() == on_disk);
if !matches_known_shape {
return Ok(true);
}
let svc = format!("{}.service", spec.name);
Ok(!quadlet::is_active(&svc).await)
if on_disk.contains(&local_image) && !on_disk.contains(&local_image_compat) {
for dir in spec.build_dir_candidates {
let dockerfile = PathBuf::from(dir).join("Dockerfile");
if fs::try_exists(&dockerfile).await.unwrap_or(false) {
// Conservative on any timeout/error inside: reuse the cache.
return Ok(context_is_newer_than_image(dir, &local_image).await);
}
}
}
Ok(false)
}
#[cfg(test)]
@@ -212,9 +212,21 @@ impl DockerPackageScanner {
website: lan_address.clone(),
tier: Some(metadata.tier.to_string()),
interfaces: if lan_address.is_some() || tor_address.is_some() {
// `ui` is no longer implied by a published port: a
// headless backend with an exposed port is a service,
// not a launchable app. ui_detection consults the
// manifest declaration first, then HTTP-probes the
// port. Addresses stay present either way so the
// Services tab can still show where a backend lives.
let has_ui = super::ui_detection::has_web_ui(
&app_id,
lan_address.as_deref(),
package_state == PackageState::Running,
)
.await;
Some(Interfaces {
main: Some(MainInterface {
ui: Some("true".to_string()),
ui: has_ui.then(|| "true".to_string()),
tor_config: tor_address.clone(),
lan_config: None,
}),
@@ -729,7 +741,7 @@ async fn reachable_lan_address(app_id: &str, candidate: Option<String>) -> Optio
/// `rsplit(':')` then yields `"8096/"`, which fails to parse and silently
/// drops a reachable launch URL. Reading digits after the final colon mirrors
/// `port_from_url` in the RPC layer and tolerates a trailing path.
fn launch_url_port(url: &str) -> Option<u16> {
pub(crate) fn launch_url_port(url: &str) -> Option<u16> {
let after_colon = url.rsplit_once(':')?.1;
after_colon
.chars()
+1
View File
@@ -15,6 +15,7 @@ pub mod quadlet;
pub mod registry;
pub mod secrets;
pub mod traits;
pub mod ui_detection;
pub mod version_config;
pub use boot_reconciler::{BootReconciler, DEFAULT_INTERVAL as RECONCILER_DEFAULT_INTERVAL};
@@ -0,0 +1,243 @@
//! Web-UI detection for discovered containers.
//!
//! The packages list used to mark every container that published a port (or
//! carried an onion address) as a UI app, which gave headless backends —
//! databases, media servers, self-deployed compose stacks — a Launch button.
//! UI-ness is decided here instead, for manifest apps and ad-hoc containers
//! alike:
//!
//! 1. A manifest that declares an `interfaces:` block is definitive: any
//! entry of `type: ui` means a browsable UI, a block without one means a
//! backend service. The signed catalog overlay is consulted before disk
//! manifests (catalog supremacy).
//! 2. Manifests without an `interfaces:` block (the overwhelming majority)
//! and manifest-less containers fall through to a short HTTP probe of the
//! launch port: an HTML page, a redirect, or a browser-auth wall means a
//! UI; JSON APIs, raw TCP protocols, and dead ports mean a service.
//!
//! Verdicts are cached — positives longer than negatives, since "no UI yet"
//! is often just an app that hasn't finished starting.
use std::collections::HashMap;
use std::sync::{Mutex, OnceLock};
use std::time::{Duration, Instant};
use tracing::debug;
const PROBE_TIMEOUT: Duration = Duration::from_secs(2);
/// A confirmed UI stays a UI — re-check rarely.
const POSITIVE_TTL: Duration = Duration::from_secs(15 * 60);
/// A "no UI" verdict may be a slow-starting app — re-check sooner.
const NEGATIVE_TTL: Duration = Duration::from_secs(2 * 60);
/// Decide whether `app_id` exposes a browsable web UI. `lan_address` is the
/// launch candidate already computed by the package scanner (host-published),
/// and `running` gates the probe: a stopped container can't answer, and a
/// dead-port verdict against it would poison the cache.
pub async fn has_web_ui(app_id: &str, lan_address: Option<&str>, running: bool) -> bool {
if let Some(declared) = manifest_declares_ui(app_id) {
return declared;
}
let Some(port) = lan_address.and_then(super::docker_packages::launch_url_port) else {
return false;
};
if !running {
// Serve a cached verdict if we have one, but never record one.
return cached_verdict(app_id, port).unwrap_or(false);
}
if let Some(v) = cached_verdict(app_id, port) {
return v;
}
let verdict = probe_port(port).await;
debug!(app_id, port, verdict, "web-UI probe");
cache_verdict(app_id, port, verdict);
verdict
}
// ─── Manifest declarations ───────────────────────────────────────────────
/// `Some(true)`: a manifest covers this app and declares a `type: ui`
/// interface. `Some(false)`: a manifest declares interfaces, none of them UI.
/// `None`: no manifest, or one without an `interfaces:` block — undeclared,
/// let the probe decide.
fn manifest_declares_ui(app_id: &str) -> Option<bool> {
// Catalog overlay first: disk manifests don't apply to catalog-covered
// apps, so the catalog must win where it speaks.
for (id, value) in super::app_catalog::catalog_manifest_values() {
if id == app_id {
if let Some(v) = declared_ui_in_value(&value) {
return Some(v);
}
break;
}
}
for path in disk_manifest_candidates(app_id) {
if !path.exists() {
continue;
}
match archipelago_container::AppManifest::from_file(&path) {
Ok(m) => {
if m.app.interfaces.is_empty() {
return None;
}
return Some(m.app.interfaces.values().any(|i| i.interface_type == "ui"));
}
// Malformed manifests are already reported by the orchestrator's
// loader; here they simply don't count as a declaration.
Err(_) => return None,
}
}
None
}
/// Same declaration logic against a catalog manifest carried as raw JSON.
fn declared_ui_in_value(manifest: &serde_json::Value) -> Option<bool> {
let interfaces = manifest.get("app")?.get("interfaces")?.as_object()?;
if interfaces.is_empty() {
return None;
}
Some(interfaces.values().any(|i| {
// An omitted `type` defaults to "ui", mirroring the YAML schema.
i.get("type")
.and_then(|t| t.as_str())
.map(|t| t == "ui")
.unwrap_or(true)
}))
}
fn disk_manifest_candidates(app_id: &str) -> Vec<std::path::PathBuf> {
let mut roots: Vec<std::path::PathBuf> = Vec::new();
if let Ok(v) = std::env::var("ARCHIPELAGO_APPS_DIR") {
let v = v.trim();
if !v.is_empty() {
roots.push(v.into());
}
}
roots.push("/opt/archipelago/apps".into());
roots
.into_iter()
.map(|root| root.join(app_id).join("manifest.yml"))
.collect()
}
// ─── HTTP probe ──────────────────────────────────────────────────────────
async fn probe_port(port: u16) -> bool {
static CLIENT: OnceLock<reqwest::Client> = OnceLock::new();
let client = CLIENT.get_or_init(|| {
reqwest::Client::builder()
.timeout(PROBE_TIMEOUT)
.redirect(reqwest::redirect::Policy::none())
.build()
.expect("static probe client")
});
match client.get(format!("http://127.0.0.1:{port}/")).send().await {
Ok(resp) => {
let content_type = resp
.headers()
.get(reqwest::header::CONTENT_TYPE)
.and_then(|v| v.to_str().ok())
.unwrap_or("");
let auth_challenge = resp
.headers()
.contains_key(reqwest::header::WWW_AUTHENTICATE);
ui_verdict(resp.status().as_u16(), content_type, auth_challenge)
}
// Connection refused, timeout, or a non-HTTP protocol on the port.
Err(_) => false,
}
}
/// The pure classification rule, split out for tests: a browsable UI is an
/// HTML response (any status — error pages included), a redirect (login
/// flows), or a browser auth prompt. JSON/plaintext APIs are services.
fn ui_verdict(status: u16, content_type: &str, auth_challenge: bool) -> bool {
if content_type.contains("text/html") {
return true;
}
if (300..400).contains(&status) {
return true;
}
if (status == 401 || status == 403) && auth_challenge {
return true;
}
false
}
// ─── Verdict cache ───────────────────────────────────────────────────────
fn cache() -> &'static Mutex<HashMap<String, (bool, Instant)>> {
static CACHE: OnceLock<Mutex<HashMap<String, (bool, Instant)>>> = OnceLock::new();
CACHE.get_or_init(Default::default)
}
fn cached_verdict(app_id: &str, port: u16) -> Option<bool> {
let cache = cache().lock().ok()?;
let (verdict, at) = cache.get(&format!("{app_id}:{port}"))?;
let ttl = if *verdict { POSITIVE_TTL } else { NEGATIVE_TTL };
(at.elapsed() < ttl).then_some(*verdict)
}
fn cache_verdict(app_id: &str, port: u16, verdict: bool) {
if let Ok(mut cache) = cache().lock() {
cache.insert(format!("{app_id}:{port}"), (verdict, Instant::now()));
}
}
#[cfg(test)]
mod tests {
use super::*;
use serde_json::json;
#[test]
fn html_is_ui_regardless_of_status() {
assert!(ui_verdict(200, "text/html; charset=utf-8", false));
assert!(ui_verdict(404, "text/html", false));
assert!(ui_verdict(401, "text/html", false));
}
#[test]
fn redirects_are_ui() {
assert!(ui_verdict(302, "", false));
assert!(ui_verdict(307, "text/plain", false));
}
#[test]
fn auth_walls_are_ui_only_with_challenge() {
assert!(ui_verdict(401, "text/plain", true));
assert!(!ui_verdict(401, "application/json", false));
}
#[test]
fn apis_and_plain_ports_are_services() {
assert!(!ui_verdict(200, "application/json", false));
assert!(!ui_verdict(200, "text/plain", false));
assert!(!ui_verdict(500, "", false));
}
#[test]
fn catalog_value_declaration() {
let ui = json!({"app": {"interfaces": {"main": {"type": "ui", "port": 80}}}});
assert_eq!(declared_ui_in_value(&ui), Some(true));
// Omitted type defaults to "ui", mirroring the YAML schema default.
let default_ty = json!({"app": {"interfaces": {"main": {"port": 80}}}});
assert_eq!(declared_ui_in_value(&default_ty), Some(true));
let api_only = json!({"app": {"interfaces": {"rpc": {"type": "api", "port": 80}}}});
assert_eq!(declared_ui_in_value(&api_only), Some(false));
// No interfaces block ⇒ undeclared, not "no UI".
let none = json!({"app": {"id": "x"}});
assert_eq!(declared_ui_in_value(&none), None);
let empty = json!({"app": {"interfaces": {}}});
assert_eq!(declared_ui_in_value(&empty), None);
}
#[test]
fn verdict_cache_roundtrip() {
cache_verdict("test-app", 1234, true);
assert_eq!(cached_verdict("test-app", 1234), Some(true));
assert_eq!(cached_verdict("test-app", 9999), None);
}
}
+67 -21
View File
@@ -232,26 +232,32 @@ pub async fn remove(data_dir: &Path, npub: &str) -> Result<Vec<SeedAnchor>> {
/// leaving `anchor_connected=false` and every peer dial falling back to
/// a slow Tor timeout.
pub async fn apply(anchors: &[SeedAnchor]) -> Vec<ApplyResult> {
let mut results = Vec::with_capacity(anchors.len());
for anchor in anchors {
let out = Command::new("sudo")
.args([
"-n",
"fipsctl",
"connect",
&anchor.npub,
&anchor.address,
&anchor.transport,
])
.output()
.await;
// Concurrent, each connect hard-capped: the old serial loop waited
// unbounded on every `sudo fipsctl connect`, so one hung subprocess
// stalled the whole apply — and the periodic anchor tick behind it,
// which is exactly when a wedged daemon most needs the re-apply.
let futs = anchors.iter().cloned().map(|anchor| async move {
let out = tokio::time::timeout(
std::time::Duration::from_secs(15),
Command::new("sudo")
.args([
"-n",
"fipsctl",
"connect",
&anchor.npub,
&anchor.address,
&anchor.transport,
])
.output(),
)
.await;
let result = match out {
Ok(o) if o.status.success() => ApplyResult {
Ok(Ok(o)) if o.status.success() => ApplyResult {
npub: anchor.npub.clone(),
ok: true,
message: String::from_utf8_lossy(&o.stdout).trim().to_string(),
},
Ok(o) => ApplyResult {
Ok(Ok(o)) => ApplyResult {
npub: anchor.npub.clone(),
ok: false,
message: format!(
@@ -260,11 +266,16 @@ pub async fn apply(anchors: &[SeedAnchor]) -> Vec<ApplyResult> {
String::from_utf8_lossy(&o.stderr).trim()
),
},
Err(e) => ApplyResult {
Ok(Err(e)) => ApplyResult {
npub: anchor.npub.clone(),
ok: false,
message: format!("sudo fipsctl launch failed: {}", e),
},
Err(_) => ApplyResult {
npub: anchor.npub.clone(),
ok: false,
message: "sudo fipsctl connect timed out after 15s".to_string(),
},
};
if result.ok {
tracing::debug!(npub = %result.npub, "Seed anchor applied");
@@ -275,9 +286,9 @@ pub async fn apply(anchors: &[SeedAnchor]) -> Vec<ApplyResult> {
"Seed anchor apply failed (non-fatal)"
);
}
results.push(result);
}
results
result
});
futures_util::future::join_all(futs).await
}
/// Outcome of a single `fipsctl connect` call.
@@ -290,12 +301,12 @@ pub struct ApplyResult {
/// FIPS UDP transport port (matches `transports.udp.bind_addr` in the generated
/// `fips.yaml`). Direct peer links dial this, NOT the HTTP/LAN messaging port.
const FIPS_UDP_PORT: u16 = 8668;
const FIPS_UDP_PORT: u16 = crate::fips::PUBLISHED_UDP_PORT;
/// Build transient seed-anchor entries that dial LAN-discovered federation peers
/// directly over their FIPS UDP transport. For each peer the registry knows both
/// a LAN socket address AND a FIPS npub for, point a `udp` anchor at
/// `<lan-ip>:8668`. This lets co-located federation nodes form a DIRECT FIPS link
/// `<lan-ip>:<FIPS_UDP_PORT>`. This lets co-located federation nodes form a DIRECT FIPS link
/// instead of depending on the global anchor's spanning tree to route between
/// them (the cause of every dial falling back to Tor when the anchor link flaps).
///
@@ -448,4 +459,39 @@ mod tests {
assert_eq!(a.transport, "udp");
assert_eq!(a.label, "");
}
#[test]
fn lan_fips_anchor_port_matches_daemon_bind() {
// Drift guard: direct LAN anchors must dial the UDP port the
// generated fips.yaml actually binds. These were out of sync for
// months (anchors dialed 8668, the daemon bound 2121), making the
// whole direct-peering feature dial a dead port.
let yaml = crate::fips::config::render_config_yaml();
assert!(
yaml.contains(&format!("0.0.0.0:{FIPS_UDP_PORT}")),
"lan_fips_anchors dials :{FIPS_UDP_PORT} but the daemon config binds elsewhere"
);
}
#[test]
fn lan_fips_anchors_builds_direct_entry() {
let peer = crate::transport::PeerRecord {
did: "did:key:zpeer".to_string(),
lan_address: Some("192.168.63.198:5678".to_string()),
fips_npub: Some("npub1peer".to_string()),
..Default::default()
};
let out = lan_fips_anchors(&[peer]);
assert_eq!(out.len(), 1);
assert_eq!(out[0].address, format!("192.168.63.198:{FIPS_UDP_PORT}"));
assert_eq!(out[0].transport, "udp");
// Peers missing either the LAN address or the npub produce nothing.
let no_npub = crate::transport::PeerRecord {
did: "did:key:zother".to_string(),
lan_address: Some("192.168.63.199:5678".to_string()),
..Default::default()
};
assert!(lan_fips_anchors(&[no_npub]).is_empty());
}
}
+3 -35
View File
@@ -6,39 +6,7 @@
//! no listener, so allowing them is inert.
pub const APP_LAUNCH_PORTS: &[u16] = &[
2283,
2342,
3000,
3001,
3002,
4080,
5180,
7778,
8080,
8081,
8082,
8083,
8084,
8085,
8087,
8088,
8089,
8090,
8096,
8123,
8175,
8176,
8240,
8334,
8888,
8999,
9000,
9100,
10380,
11434,
18081,
18083,
23000,
32838,
50002,
2283, 2342, 3000, 3001, 3002, 4080, 5180, 7778, 8080, 8081, 8082, 8083, 8084, 8085, 8087, 8088,
8089, 8090, 8096, 8123, 8175, 8176, 8240, 8334, 8888, 8999, 9000, 9100, 10380, 11434, 18081,
18083, 23000, 32838, 50002,
];
+19 -6
View File
@@ -240,11 +240,21 @@ pub async fn install(identity_dir: &Path) -> Result<()> {
// framework-pt). Ship the allowance as a fips.d drop-in on every
// install/upgrade so no node ever regresses to a UI-less mesh.
sudo_install_dir("/etc/fips/fips.d").await?;
let dropin = "# Written by archipelago on every daemon config install.\n\
# Allows the web UI + peer API through the fips0\n\
# default-deny inbound baseline (fips.nft).\n\
tcp dport 80 accept\n\
tcp dport 8443 accept\n";
// PEER_PORT (5679) carries ALL federation sync, cloud browse/download,
// mesh envelopes, DWN and invoices. It was missing from this allowlist
// while the comment claimed "web UI + peer API" — so every hardened
// node silently dropped peers' FIPS dials at the firewall and the whole
// fleet fell back to Tor (root-caused live 2026-07-27: 28k drops on
// .198's counter; :5679 answered in 0.35s once the rule was inserted).
let dropin = format!(
"# Written by archipelago on every daemon config install.\n\
# Allows the web UI + peer API through the fips0\n\
# default-deny inbound baseline (fips.nft).\n\
tcp dport 80 accept\n\
tcp dport 8443 accept\n\
tcp dport {peer_port} accept\n",
peer_port = crate::fips::dial::PEER_PORT
);
let nft_stage = std::env::temp_dir().join(format!("fips-webui-{}.nft", std::process::id()));
tokio::fs::write(&nft_stage, dropin)
.await
@@ -277,7 +287,10 @@ pub async fn install(identity_dir: &Path) -> Result<()> {
app_install?;
// Make the allowance live immediately; a no-op error when the
// hardening baseline isn't installed on this node yet.
if tokio::fs::try_exists("/etc/fips/fips.nft").await.unwrap_or(false) {
if tokio::fs::try_exists("/etc/fips/fips.nft")
.await
.unwrap_or(false)
{
match Command::new("sudo")
.args(["nft", "-f", "/etc/fips/fips.nft"])
.output()
+159 -18
View File
@@ -24,6 +24,7 @@
//! ```
#![allow(dead_code)]
use super::telemetry::{self, FallbackReason};
use anyhow::{Context, Result};
use std::net::{IpAddr, Ipv6Addr};
use std::time::Duration;
@@ -150,6 +151,12 @@ pub async fn warm_path(npub: &str) {
if !is_service_active().await {
return;
}
warm_path_unchecked(npub).await
}
/// [`warm_path`] without the service-active check — for callers (the warm
/// tick) that already verified the daemon once for the whole batch.
pub async fn warm_path_unchecked(npub: &str) {
let Ok(base) = peer_base_url(npub).await else {
return;
};
@@ -276,21 +283,39 @@ pub fn as_ip_addr(v6: Ipv6Addr) -> IpAddr {
// ── High-level peer request helpers ────────────────────────────────────
/// TTL for the [`is_service_active`] cache. Every FIPS dial attempt and
/// every warm-tick peer used to spawn up to two `systemctl` subprocesses;
/// service state changes on human timescales, so 10s staleness is free.
const SERVICE_ACTIVE_TTL_MS: u64 = 10_000;
static SERVICE_ACTIVE: std::sync::atomic::AtomicBool = std::sync::atomic::AtomicBool::new(false);
static SERVICE_PROBED_AT_MS: std::sync::atomic::AtomicU64 = std::sync::atomic::AtomicU64::new(0);
/// Quick poll: is the FIPS daemon (archipelago-supervised OR upstream)
/// currently `systemctl is-active`? Async wrapper intended for the
/// migration call sites; unlike `FipsTransport::is_available` this does
/// not maintain a cache, so callers that poll frequently should cache
/// themselves.
/// currently `systemctl is-active`? Cached for [`SERVICE_ACTIVE_TTL_MS`];
/// concurrent refreshes are harmless (idempotent probe, last write wins).
pub async fn is_service_active() -> bool {
use std::sync::atomic::Ordering;
let now_ms = std::time::SystemTime::now()
.duration_since(std::time::UNIX_EPOCH)
.map(|d| d.as_millis() as u64)
.unwrap_or(0);
let probed_at = SERVICE_PROBED_AT_MS.load(Ordering::Relaxed);
if probed_at != 0 && now_ms.saturating_sub(probed_at) < SERVICE_ACTIVE_TTL_MS {
return SERVICE_ACTIVE.load(Ordering::Relaxed);
}
let mut active = false;
for unit in [
crate::fips::SERVICE_UNIT,
crate::fips::UPSTREAM_SERVICE_UNIT,
] {
if crate::fips::service::unit_state(unit).await == "active" {
return true;
active = true;
break;
}
}
false
SERVICE_ACTIVE.store(active, Ordering::Relaxed);
SERVICE_PROBED_AT_MS.store(now_ms, Ordering::Relaxed);
active
}
/// Builder for a peer request that may be sent over FIPS (preferred) or
@@ -317,6 +342,11 @@ pub struct PeerRequest<'a> {
/// large content download needs so its long FIPS transfer isn't truncated.
pub fips_timeout: Option<std::time::Duration>,
pub service: Option<crate::settings::transport::PeerService>,
/// When set, the transport that actually served this request is written
/// to federation storage (`record_peer_transport`, matched by onion) so
/// the per-peer FIPS/Tor badge reflects reality. Opt-in because not
/// every caller has a data dir in scope.
pub record_data_dir: Option<std::path::PathBuf>,
}
impl<'a> PeerRequest<'a> {
@@ -329,6 +359,27 @@ impl<'a> PeerRequest<'a> {
timeout: std::time::Duration::from_secs(30),
fips_timeout: None,
service: None,
record_data_dir: None,
}
}
/// Record the transport that serves this request into federation storage
/// (matched by this request's onion host). Best-effort, off the hot path.
pub fn record_transport(mut self, data_dir: impl Into<std::path::PathBuf>) -> Self {
self.record_data_dir = Some(data_dir.into());
self
}
fn spawn_record(&self, kind: crate::transport::TransportKind) {
if let Some(dir) = &self.record_data_dir {
let dir = dir.clone();
let onion = self.onion_host.to_string();
let transport = kind.to_string();
tokio::spawn(async move {
let _ =
crate::federation::record_peer_transport(&dir, None, Some(&onion), &transport)
.await;
});
}
}
@@ -389,8 +440,22 @@ impl<'a> PeerRequest<'a> {
// fix (404 path-not-served / 5xx) and we're allowed to
// fall back. FIPS-only never falls back.
if pref == TransportPref::Fips || !fips_should_fall_back(resp.status()) {
telemetry::record_fips_ok();
self.spawn_record(crate::transport::TransportKind::Fips);
return Ok((resp, crate::transport::TransportKind::Fips));
}
let reason = if resp.status() == reqwest::StatusCode::NOT_FOUND {
FallbackReason::Http404
} else {
FallbackReason::Http5xx
};
telemetry::record_fallback(reason);
tracing::info!(
reason = reason.key(),
status = %resp.status(),
"FIPS POST {} answered but status triggers Tor fallback",
self.path
);
}
None => {
if pref == TransportPref::Fips {
@@ -402,6 +467,7 @@ impl<'a> PeerRequest<'a> {
}
}
let resp = self.send_tor_post_json(body).await?;
self.spawn_record(crate::transport::TransportKind::Tor);
Ok((resp, crate::transport::TransportKind::Tor))
}
@@ -413,8 +479,22 @@ impl<'a> PeerRequest<'a> {
match self.try_fips_get().await? {
Some(resp) => {
if pref == TransportPref::Fips || !fips_should_fall_back(resp.status()) {
telemetry::record_fips_ok();
self.spawn_record(crate::transport::TransportKind::Fips);
return Ok((resp, crate::transport::TransportKind::Fips));
}
let reason = if resp.status() == reqwest::StatusCode::NOT_FOUND {
FallbackReason::Http404
} else {
FallbackReason::Http5xx
};
telemetry::record_fallback(reason);
tracing::info!(
reason = reason.key(),
status = %resp.status(),
"FIPS GET {} answered but status triggers Tor fallback",
self.path
);
}
None => {
if pref == TransportPref::Fips {
@@ -426,6 +506,7 @@ impl<'a> PeerRequest<'a> {
}
}
let resp = self.send_tor_get().await?;
self.spawn_record(crate::transport::TransportKind::Tor);
Ok((resp, crate::transport::TransportKind::Tor))
}
@@ -434,67 +515,127 @@ impl<'a> PeerRequest<'a> {
body: &B,
) -> Result<Option<reqwest::Response>> {
let Some(npub) = self.fips_npub else {
telemetry::record_fallback(FallbackReason::NoNpub);
return Ok(None);
};
if !is_service_active().await {
telemetry::record_fallback(FallbackReason::ServiceInactive);
return Ok(None);
}
let base = match peer_base_url(npub).await {
Ok(b) => b,
Err(e) => {
tracing::debug!("FIPS resolve for {} failed: {}", npub, e);
telemetry::record_fallback(FallbackReason::DnsFail);
tracing::info!(
reason = FallbackReason::DnsFail.key(),
"FIPS resolve for {} failed: {}, falling back to Tor",
npub,
e
);
return Ok(None);
}
};
let url = format!("{}{}", base, self.path);
let c = client_with_timeout(self.fips_attempt_timeout());
let budget = self.fips_attempt_timeout();
// With an explicit fast-fail cap, halve the per-attempt client
// timeout so the one-retry path in send_with_retry fits inside the
// budget instead of silently doubling it ("fips_timeout(6s)" used
// to really mean ~12.6s). Without one (long streaming downloads),
// keep the full budget per attempt — the client timeout also
// governs body streaming and must not truncate a real transfer.
let per_attempt = if self.fips_timeout.is_some() {
budget / 2
} else {
budget
};
let c = client_with_timeout(per_attempt);
let mut rb = c.post(&url).json(body);
for (k, v) in &self.headers {
rb = rb.header(*k, v);
}
match send_with_retry(rb).await {
Ok(r) => Ok(Some(r)),
Err(e) => {
tracing::debug!(
match tokio::time::timeout(budget, send_with_retry(rb)).await {
Ok(Ok(r)) => Ok(Some(r)),
Ok(Err(e)) => {
telemetry::record_fallback(FallbackReason::ConnectFail);
tracing::info!(
reason = FallbackReason::ConnectFail.key(),
"FIPS POST {} failed after retry: {}, falling back to Tor",
url,
e
);
Ok(None)
}
Err(_) => {
telemetry::record_fallback(FallbackReason::ConnectFail);
tracing::info!(
reason = FallbackReason::ConnectFail.key(),
"FIPS POST {} exceeded attempt budget {:?}, falling back to Tor",
url,
budget
);
Ok(None)
}
}
}
async fn try_fips_get(&self) -> Result<Option<reqwest::Response>> {
let Some(npub) = self.fips_npub else {
telemetry::record_fallback(FallbackReason::NoNpub);
return Ok(None);
};
if !is_service_active().await {
telemetry::record_fallback(FallbackReason::ServiceInactive);
return Ok(None);
}
let base = match peer_base_url(npub).await {
Ok(b) => b,
Err(e) => {
tracing::debug!("FIPS resolve for {} failed: {}", npub, e);
telemetry::record_fallback(FallbackReason::DnsFail);
tracing::info!(
reason = FallbackReason::DnsFail.key(),
"FIPS resolve for {} failed: {}, falling back to Tor",
npub,
e
);
return Ok(None);
}
};
let url = format!("{}{}", base, self.path);
let c = client_with_timeout(self.fips_attempt_timeout());
let budget = self.fips_attempt_timeout();
// Same budget discipline as the POST path: halve per attempt only
// under an explicit fast-fail cap; hard-cap the retry sequence.
let per_attempt = if self.fips_timeout.is_some() {
budget / 2
} else {
budget
};
let c = client_with_timeout(per_attempt);
let mut rb = c.get(&url);
for (k, v) in &self.headers {
rb = rb.header(*k, v);
}
match send_with_retry(rb).await {
Ok(r) => Ok(Some(r)),
Err(e) => {
tracing::debug!(
match tokio::time::timeout(budget, send_with_retry(rb)).await {
Ok(Ok(r)) => Ok(Some(r)),
Ok(Err(e)) => {
telemetry::record_fallback(FallbackReason::ConnectFail);
tracing::info!(
reason = FallbackReason::ConnectFail.key(),
"FIPS GET {} failed after retry: {}, falling back to Tor",
url,
e
);
Ok(None)
}
Err(_) => {
telemetry::record_fallback(FallbackReason::ConnectFail);
tracing::info!(
reason = FallbackReason::ConnectFail.key(),
"FIPS GET {} exceeded attempt budget {:?}, falling back to Tor",
url,
budget
);
Ok(None)
}
}
}
+51 -4
View File
@@ -31,6 +31,7 @@ pub mod config;
pub mod dial;
pub mod iface;
pub mod service;
pub mod telemetry;
pub mod update;
use serde::{Deserialize, Serialize};
@@ -79,25 +80,71 @@ pub async fn ensure_activated(data_dir: &std::path::Path) {
pub fn spawn_fips_supervisor(data_dir: std::path::PathBuf) {
tokio::spawn(async move {
let mut tick = tokio::time::interval(std::time::Duration::from_secs(25));
// Connectivity watcher state: re-apply seed anchors the moment the
// anchor link drops (edge) or the data path degrades (dials keep
// failing with zero successes), instead of waiting for the 300s
// anchor tick. Bounded: at most one re-apply per RE_APPLY_BACKOFF.
const RE_APPLY_BACKOFF: std::time::Duration = std::time::Duration::from_secs(60);
let mut prev_connected: Option<bool> = None;
let mut prev_totals = telemetry::totals();
let mut last_apply: Option<std::time::Instant> = None;
loop {
tick.tick().await;
// Bring FIPS up on its own once onboarding has materialised the key.
ensure_activated(&data_dir).await;
if !dial::is_service_active().await {
prev_connected = None; // daemon restart = fresh edge detection
continue;
}
// ── Warm the union of federation peers + configured seed
// anchors. Warming only federation npubs left the direct
// anchors (vps2, LAN peers) to go cold between 300s ticks.
let nodes = crate::federation::load_nodes(&data_dir)
.await
.unwrap_or_default();
let seed = anchors::load(&data_dir).await.unwrap_or_default();
let mut warm_npubs: std::collections::BTreeSet<String> =
nodes.iter().filter_map(|n| n.fips_npub.clone()).collect();
warm_npubs.extend(seed.iter().map(|a| a.npub.clone()));
let mut handles = Vec::new();
for node in nodes {
if let Some(npub) = node.fips_npub.clone() {
handles.push(tokio::spawn(async move { dial::warm_path(&npub).await }));
}
for npub in warm_npubs {
// Service-active was checked once above for the whole batch.
handles.push(tokio::spawn(async move {
dial::warm_path_unchecked(&npub).await
}));
}
for h in handles {
let _ = h.await;
}
// ── Connectivity watcher: detect anchor-link loss AND silent
// data-path death (daemon reports "connected" but every dial
// connect-fails — observed live on .198, 2026-07-27, where the
// 300s tick never healed it).
let mut anchor_npubs = vec![service::PUBLIC_ANCHOR_NPUB.to_string()];
anchor_npubs.extend(seed.iter().map(|a| a.npub.clone()));
let (_, connected) = service::peer_connectivity_summary(&anchor_npubs).await;
let totals = telemetry::totals();
let link_dropped = prev_connected == Some(true) && !connected;
let never_connected = prev_connected.is_none() && !connected;
let data_path_dead =
totals.1.saturating_sub(prev_totals.1) >= 5 && totals.0 == prev_totals.0;
prev_connected = Some(connected);
prev_totals = totals;
let backoff_ok = last_apply.is_none_or(|t| t.elapsed() >= RE_APPLY_BACKOFF);
if (link_dropped || never_connected || data_path_dead) && backoff_ok && !seed.is_empty()
{
tracing::info!(
link_dropped,
never_connected,
data_path_dead,
"FIPS connectivity degraded — re-applying seed anchors now"
);
last_apply = Some(std::time::Instant::now());
let _ = anchors::apply(&seed).await;
}
}
});
}
+155
View File
@@ -0,0 +1,155 @@
//! In-process counters for FIPS dial outcomes.
//!
//! Every peer dial that could have used FIPS either succeeds over FIPS or
//! falls back to Tor for one of six reasons (F1F6). Before these counters
//! existed, fallbacks were `debug!`-only and invisible in production, which
//! made "FIPS uptime" unfalsifiable — several paths were 100% Tor for months
//! (dead ports, firewalled listeners, allowlist 404s) and nothing surfaced
//! it. The counters are process-lifetime (reset on restart) and exposed via
//! `fips.status` as `dial_stats`, so a fleet-wide fallback regression shows
//! up on the dashboard instead of as vague slowness.
use std::sync::atomic::{AtomicU64, Ordering};
/// Why a FIPS-capable dial fell back to Tor.
#[derive(Clone, Copy, Debug, PartialEq, Eq)]
pub enum FallbackReason {
/// F1 — no FIPS npub known for the peer (never meshed, or pre-npub
/// federation record). Expected for non-FIPS peers; high counts here
/// mean npub propagation is broken, not the transport.
NoNpub,
/// F2 — the local FIPS daemon service isn't active.
ServiceInactive,
/// F3 — the local FIPS DNS resolver couldn't resolve the peer's npub
/// (daemon up but peer not in the identity cache / mesh unreachable).
DnsFail,
/// F4 — TCP/HTTP dial to the peer's ULA failed or exceeded the FIPS
/// attempt budget (firewalled :5679, cold hole-punch, peer down).
ConnectFail,
/// F5 — peer answered over FIPS with 404: its listener doesn't serve
/// this path (older build / stricter allowlist).
Http404,
/// F6 — peer answered over FIPS with a 5xx server error.
Http5xx,
}
impl FallbackReason {
pub fn key(self) -> &'static str {
match self {
Self::NoNpub => "no_npub",
Self::ServiceInactive => "service_inactive",
Self::DnsFail => "dns_fail",
Self::ConnectFail => "connect_fail",
Self::Http404 => "http_404",
Self::Http5xx => "http_5xx",
}
}
}
static FIPS_OK: AtomicU64 = AtomicU64::new(0);
static NO_NPUB: AtomicU64 = AtomicU64::new(0);
static SERVICE_INACTIVE: AtomicU64 = AtomicU64::new(0);
static DNS_FAIL: AtomicU64 = AtomicU64::new(0);
static CONNECT_FAIL: AtomicU64 = AtomicU64::new(0);
static HTTP_404: AtomicU64 = AtomicU64::new(0);
static HTTP_5XX: AtomicU64 = AtomicU64::new(0);
fn counter(reason: FallbackReason) -> &'static AtomicU64 {
match reason {
FallbackReason::NoNpub => &NO_NPUB,
FallbackReason::ServiceInactive => &SERVICE_INACTIVE,
FallbackReason::DnsFail => &DNS_FAIL,
FallbackReason::ConnectFail => &CONNECT_FAIL,
FallbackReason::Http404 => &HTTP_404,
FallbackReason::Http5xx => &HTTP_5XX,
}
}
/// A dial completed over FIPS (any HTTP status that wasn't a fallback
/// trigger — the peer was reached on the mesh).
pub fn record_fips_ok() {
FIPS_OK.fetch_add(1, Ordering::Relaxed);
}
/// A FIPS-capable dial fell back to Tor.
pub fn record_fallback(reason: FallbackReason) {
counter(reason).fetch_add(1, Ordering::Relaxed);
}
/// `(fips_ok, connect_fail)` totals for the connectivity watcher: a window
/// where connect_fail grows while fips_ok doesn't is a degraded data path —
/// including the "daemon says connected but packets blackhole" failure the
/// link-state check alone can't see (observed live 2026-07-27 on .198).
pub fn totals() -> (u64, u64) {
(
FIPS_OK.load(Ordering::Relaxed),
CONNECT_FAIL.load(Ordering::Relaxed),
)
}
/// Snapshot for `fips.status` (`dial_stats`). Process-lifetime counts.
pub fn snapshot() -> serde_json::Value {
let f1 = NO_NPUB.load(Ordering::Relaxed);
let f2 = SERVICE_INACTIVE.load(Ordering::Relaxed);
let f3 = DNS_FAIL.load(Ordering::Relaxed);
let f4 = CONNECT_FAIL.load(Ordering::Relaxed);
let f5 = HTTP_404.load(Ordering::Relaxed);
let f6 = HTTP_5XX.load(Ordering::Relaxed);
serde_json::json!({
"fips_ok": FIPS_OK.load(Ordering::Relaxed),
"fallbacks": {
"no_npub": f1,
"service_inactive": f2,
"dns_fail": f3,
"connect_fail": f4,
"http_404": f5,
"http_5xx": f6,
"total": f1 + f2 + f3 + f4 + f5 + f6,
},
})
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn snapshot_counts_recorded_events() {
// Counters are global; assert deltas rather than absolutes so this
// test stays correct alongside any other test that dials.
let before = snapshot();
record_fips_ok();
record_fallback(FallbackReason::ConnectFail);
record_fallback(FallbackReason::Http404);
let after = snapshot();
let d = |v: &serde_json::Value, path: &[&str]| -> u64 {
let mut cur = v;
for p in path {
cur = &cur[p];
}
cur.as_u64().unwrap()
};
assert_eq!(d(&after, &["fips_ok"]) - d(&before, &["fips_ok"]), 1);
assert_eq!(
d(&after, &["fallbacks", "connect_fail"]) - d(&before, &["fallbacks", "connect_fail"]),
1
);
assert_eq!(
d(&after, &["fallbacks", "http_404"]) - d(&before, &["fallbacks", "http_404"]),
1
);
assert!(d(&after, &["fallbacks", "total"]) >= 2);
}
#[test]
fn reason_keys_are_stable() {
// These strings are the fips.status API surface — renaming one is a
// breaking change for the UI.
assert_eq!(FallbackReason::NoNpub.key(), "no_npub");
assert_eq!(FallbackReason::ServiceInactive.key(), "service_inactive");
assert_eq!(FallbackReason::DnsFail.key(), "dns_fail");
assert_eq!(FallbackReason::ConnectFail.key(), "connect_fail");
assert_eq!(FallbackReason::Http404.key(), "http_404");
assert_eq!(FallbackReason::Http5xx.key(), "http_5xx");
}
}
+972
View File
@@ -0,0 +1,972 @@
// WIP mesh/transport protocol — suppress dead code warnings
#![allow(dead_code)]
//! Firmware flashing for LoRa mesh radios — Heltec V3/V4 in v1, across all
//! three firmware families the mesh module already knows how to detect (see
//! `mesh::types::DeviceType`). Firmware is always fetched from upstream at
//! flash time (never bundled/pinned in the repo), and every flash defaults
//! to a full chip erase before write.
//!
//! MeshCore and Meshtastic are flashed the same way: download a released
//! image, `esptool erase_flash`, then `esptool write_flash 0x0 <image>`.
//! Reticulum/RNode is different: `archy-rnodeconf --autoinstall` owns the
//! whole fetch+erase+flash+EEPROM-bootstrap sequence itself (confirmed live
//! via `archy-rnodeconf --help` — there is no raw esptool path exposed for
//! this family, so we deliberately don't resolve a firmware URL ourselves
//! for Reticulum; rnodeconf already knows how).
use super::serial::DetectedDeviceInfo;
use super::types::DeviceType;
use super::MeshService;
use anyhow::{Context, Result};
use regex::Regex;
use serde::Serialize;
use std::path::{Path, PathBuf};
use std::process::Stdio;
use std::sync::{Arc, OnceLock};
use tokio::io::{AsyncBufReadExt, AsyncWriteExt, BufReader};
use tokio::process::Command;
use tokio::sync::RwLock;
use tracing::{info, warn};
/// Boards supported for v1. Both are ESP32-S3 (a single `--chip esp32s3`
/// esptool target covers both), but ship different USB identities and
/// different per-board firmware assets upstream.
#[derive(Debug, Clone, Copy, PartialEq, Eq, Serialize)]
#[serde(rename_all = "lowercase")]
pub enum FlashBoard {
HeltecV3,
HeltecV4,
}
impl FlashBoard {
/// Meshtastic's board id (matches the release manifest's `board` field
/// and its per-board asset naming, e.g. `firmware-heltec-v3-<ver>.factory.bin`).
fn meshtastic_id(self) -> &'static str {
match self {
Self::HeltecV3 => "heltec-v3",
Self::HeltecV4 => "heltec-v4",
}
}
}
/// Map a detected USB vid:pid to a known flashable board, using the same
/// table as `image-recipe/configs/99-mesh-radio.rules`. CP2102 (10c4:ea60)
/// is confirmed there as Heltec V3's USB-UART bridge chip, and is safe to
/// auto-match since that vid:pid is bridge-chip-specific.
///
/// Heltec V4 is NOT auto-matchable and deliberately has no entry here: it
/// was confirmed live (real hardware, 2026-07-23) to use the ESP32-S3's
/// built-in native-USB JTAG/serial peripheral, reporting vid:pid 303a:1001
/// with product string "USB JTAG/serial debug unit" — that descriptor is
/// baked into the chip's ROM and is IDENTICAL across every ESP32-S3 board
/// with native USB enabled, not just Heltec V4. Adding `303a:1001 =>
/// HeltecV4` here would silently misidentify any other native-USB ESP32-S3
/// board (a T3-S3, a bare devkit, etc.) as a V4 and risk writing the wrong
/// board's image. Callers (the RPC layer / frontend) must let the user pick
/// the board manually whenever this returns `None`.
pub fn resolve_flash_board(info: &DetectedDeviceInfo) -> Option<FlashBoard> {
match (info.vid.as_deref(), info.pid.as_deref()) {
(Some("10c4"), Some("ea60")) => Some(FlashBoard::HeltecV3),
_ => None,
}
}
#[derive(Debug, Clone, Copy, PartialEq, Eq, Serialize)]
#[serde(rename_all = "lowercase")]
pub enum FlashStage {
Downloading,
Erasing,
Writing,
Autoinstalling,
Done,
Failed,
}
#[derive(Debug, Clone, Serialize)]
pub struct FlashJobStatus {
pub board: FlashBoard,
pub family: DeviceType,
pub path: String,
pub stage: FlashStage,
pub percent: Option<u8>,
pub log_tail: Vec<String>,
pub done: bool,
pub error: Option<String>,
}
const LOG_TAIL_MAX: usize = 200;
/// How long to wait after a successful flash before resuming the mesh
/// listener, so the board finishes its own post-flash boot/reset before we
/// start opening the port (which itself toggles DTR/RTS) again.
const POST_FLASH_SETTLE_DELAY: std::time::Duration = std::time::Duration::from_secs(5);
/// Absolute ceiling on a whole flash job (download + erase + write, or
/// autoinstall), regardless of what it's doing internally. Last-resort
/// safety net so a hang anywhere can't wedge the single-flash-job guard
/// forever — generous enough to never trigger on a legitimately slow
/// multi-hundred-MB transfer.
const MAX_JOB_DURATION: std::time::Duration = std::time::Duration::from_secs(15 * 60);
/// How long to wait for MeshService::stop() to release the serial port
/// before giving up. Confirmed live 2026-07-23: the listener's own
/// reconnect/multi-candidate-probe loop doesn't check its shutdown signal
/// between candidates, so stop() can take a while (or, if the loop is
/// wedged, never return) — 20s comfortably covers a normal handshake-probe
/// cycle without leaving a flash request hanging indefinitely if the
/// listener genuinely won't let go.
const STOP_LISTENER_TIMEOUT: std::time::Duration = std::time::Duration::from_secs(20);
/// How long to keep retrying the port-free check before giving up.
const PORT_FREE_TIMEOUT: std::time::Duration = std::time::Duration::from_secs(10);
/// Confirm nothing else has `path` open by actually opening (and immediately
/// closing) it ourselves. Retries across the timeout since a just-stopped
/// listener's fd can take a moment to actually release even after `stop()`
/// returns (task abort is a request, not an instant guarantee the OS-level
/// resource is gone yet).
async fn wait_for_port_free(path: &str) -> Result<()> {
let deadline = tokio::time::Instant::now() + PORT_FREE_TIMEOUT;
let mut last_err = None;
loop {
match serial2_tokio::SerialPort::open(path, 115200) {
Ok(_) => return Ok(()),
Err(e) => last_err = Some(e),
}
if tokio::time::Instant::now() >= deadline {
break;
}
tokio::time::sleep(std::time::Duration::from_millis(500)).await;
}
Err(anyhow::anyhow!(
"{path} is still held open by something else after {}s (last error: {}) — refusing to start the flasher against a contended port",
PORT_FREE_TIMEOUT.as_secs(),
last_err.map(|e| e.to_string()).unwrap_or_default()
))
}
/// Live state for the one flash job that can run at a time. A single global
/// slot is sufficient because flashing needs exclusive serial access to the
/// one port being flashed — there is no meaningful concept of two concurrent
/// flash jobs on this node.
pub struct FlashJob {
status: RwLock<FlashJobStatus>,
/// Set once the background task is spawned. Only used while `stage` is
/// still `Downloading` — an interrupted erase/write can leave the chip
/// in a worse state than either finished or unstarted, so cancellation
/// is refused once erase begins (see `cancel()`).
abort_handle: RwLock<Option<tokio::task::AbortHandle>>,
}
impl FlashJob {
fn new(board: FlashBoard, family: DeviceType, path: String) -> Arc<Self> {
Arc::new(Self {
abort_handle: RwLock::new(None),
status: RwLock::new(FlashJobStatus {
board,
family,
path,
stage: FlashStage::Downloading,
percent: None,
log_tail: Vec::new(),
done: false,
error: None,
}),
})
}
pub async fn snapshot(&self) -> FlashJobStatus {
self.status.read().await.clone()
}
async fn set_stage(&self, stage: FlashStage) {
let mut s = self.status.write().await;
s.stage = stage;
s.percent = None;
}
async fn set_percent(&self, percent: u8) {
self.status.write().await.percent = Some(percent.min(100));
}
async fn push_log(&self, line: impl Into<String>) {
let mut s = self.status.write().await;
s.log_tail.push(line.into());
let overflow = s.log_tail.len().saturating_sub(LOG_TAIL_MAX);
if overflow > 0 {
s.log_tail.drain(0..overflow);
}
}
async fn fail(&self, err: &anyhow::Error) {
let mut s = self.status.write().await;
s.stage = FlashStage::Failed;
s.error = Some(format!("{err:#}"));
s.done = true;
}
async fn finish(&self) {
let mut s = self.status.write().await;
s.stage = FlashStage::Done;
s.done = true;
}
/// Best-effort cancel: only honored before erase/write/autoinstall has
/// started (i.e. still in `Downloading`). Once a stage that touches the
/// chip begins, this refuses — interrupting an erase or write can leave
/// the flash in a state worse than either finished or unstarted.
pub async fn cancel(&self) -> Result<()> {
let mut s = self.status.write().await;
if s.done {
anyhow::bail!("Flash job already finished");
}
if s.stage != FlashStage::Downloading {
anyhow::bail!(
"Cannot cancel once {:?} has started — let it finish or fail on its own",
s.stage
);
}
if let Some(handle) = self.abort_handle.write().await.take() {
handle.abort();
}
s.stage = FlashStage::Failed;
s.error = Some("Cancelled by user".to_string());
s.done = true;
Ok(())
}
}
/// Shared handle held by `RpcHandler`, sibling to `mesh_service`.
pub type FlashJobHandle = Arc<RwLock<Option<Arc<FlashJob>>>>;
pub fn new_job_handle() -> FlashJobHandle {
Arc::new(RwLock::new(None))
}
fn firmware_cache_dir(data_dir: &Path) -> PathBuf {
data_dir.join("mesh").join("firmware-cache")
}
/// No blanket `.timeout()` here on purpose: reqwest's request timeout covers
/// the *entire* request including streaming the response body, which would
/// kill a legitimate large download partway through (Meshtastic's esp32s3
/// zip is ~170MB) — not just a hung connection. `download_to_file` instead
/// applies a per-chunk stall timeout, and metadata calls (small JSON
/// responses) get their own short timeout at the call site.
fn github_client() -> Result<reqwest::Client> {
reqwest::Client::builder()
.user_agent("archipelago-mesh-flash")
.connect_timeout(std::time::Duration::from_secs(10))
.build()
.context("Failed to build HTTP client")
}
/// Applied per-chunk while streaming a firmware download — if the transfer
/// stalls (no bytes for this long) it's treated as a failure, but a slow
/// download that's still making progress is never killed just for taking a
/// while.
const DOWNLOAD_STALL_TIMEOUT: std::time::Duration = std::time::Duration::from_secs(30);
/// Applied to metadata calls (GitHub release JSON) — these are small
/// responses with no reason to ever take this long.
const METADATA_TIMEOUT: std::time::Duration = std::time::Duration::from_secs(20);
/// Resolve what firmware is available for a board+family. v1 only ever
/// offers "latest" — MeshCore/Meshtastic latest GitHub release, or, for
/// Reticulum, "latest" meaning "whatever archy-rnodeconf --autoinstall
/// resolves on its own" (it does its own version checking upstream).
pub async fn list_firmware(family: DeviceType) -> Result<Vec<String>> {
match family {
DeviceType::Reticulum => Ok(vec!["latest".to_string()]),
DeviceType::Meshtastic => {
let client = github_client()?;
let release: GithubRelease = client
.get("https://api.github.com/repos/meshtastic/firmware/releases/latest")
.send()
.await
.context("Fetching Meshtastic release list")?
.error_for_status()
.context("Meshtastic releases API error")?
.json()
.await
.context("Parsing Meshtastic release JSON")?;
Ok(vec![release.tag_name])
}
DeviceType::Meshcore => {
let client = github_client()?;
let release: GithubRelease = client
.get("https://api.github.com/repos/meshcore-dev/MeshCore/releases/latest")
.send()
.await
.context("Fetching MeshCore release list")?
.error_for_status()
.context("MeshCore releases API error")?
.json()
.await
.context("Parsing MeshCore release JSON")?;
Ok(vec![release.tag_name])
}
DeviceType::Unknown => anyhow::bail!("Pick a firmware family before listing versions"),
}
}
#[derive(serde::Deserialize)]
struct GithubAsset {
name: String,
browser_download_url: String,
}
#[derive(serde::Deserialize)]
struct GithubRelease {
tag_name: String,
assets: Vec<GithubAsset>,
}
/// Start a flash job in the background. Returns as soon as the job has been
/// registered and the listener released — callers poll `FlashJobHandle` via
/// `mesh.flash-status` for progress. Only one job may be in flight at a time.
pub async fn start_flash_job(
handle: &FlashJobHandle,
mesh_service: &Arc<RwLock<Option<MeshService>>>,
data_dir: PathBuf,
path: String,
board: FlashBoard,
family: DeviceType,
) -> Result<()> {
{
let existing = handle.read().await;
if let Some(job) = existing.as_ref() {
if !job.snapshot().await.done {
anyhow::bail!("A firmware flash is already in progress on this node");
}
}
}
let job = FlashJob::new(board, family, path.clone());
*handle.write().await = Some(Arc::clone(&job));
let bg_job = Arc::clone(&job);
let bg_service = Arc::clone(mesh_service);
let task = tokio::spawn(async move {
// esptool/archy-rnodeconf need exclusive serial access — release
// the listener's hold on the port before touching it. This USED
// TO run synchronously in start_flash_job before the job was even
// spawned, blocking the RPC call itself on s.stop().await — a real
// 2026-07-23 incident: the mesh listener was mid a multi-candidate
// reconnect/probe sequence that doesn't check its shutdown signal
// between candidates, so stop() never returned. The HTTP request
// timed out client-side ("Operation failed"), while the job
// (already inserted into `handle`) was permanently wedged — nothing
// had been spawned yet to ever mark it done, so every later flash
// attempt failed with "already in progress" until a full restart.
// Now this runs inside the spawned task with its own bounded
// timeout, so the RPC call always returns immediately regardless,
// and a slow-to-stop listener fails the job cleanly instead of
// hanging everything downstream of it forever.
let stop_result = tokio::time::timeout(STOP_LISTENER_TIMEOUT, async {
let mut svc = bg_service.write().await;
if let Some(s) = svc.as_mut() {
s.stop().await;
}
})
.await;
if stop_result.is_err() {
let err = anyhow::anyhow!(
"Mesh listener did not release the serial port within {}s — it may still be mid a reconnect attempt. Try again once mesh.status shows the device idle, or restart the archipelago service if this persists.",
STOP_LISTENER_TIMEOUT.as_secs()
);
bg_job.push_log(format!("ERROR: {err:#}")).await;
bg_job.fail(&err).await;
return;
}
// Belt-and-suspenders port-free check. `stop()` above should have
// fully released the port, but esptool/rnodeconf run as external
// subprocesses for minutes outside our own async runtime — if
// ANYTHING else still has it open (a racing probe, a not-yet-dropped
// fd from an aborted task, anything we haven't anticipated), handing
// the port to the flasher anyway risks exactly the corruption
// confirmed live 2026-07-23: esptool's "device disconnected or
// multiple access on port?" and rnodeconf's raw `OSError: [Errno 71]
// Protocol error` on an RTS ioctl are both textbook two-openers-on-
// one-fd symptoms. Verify by actually opening it ourselves — cheap,
// and definitive — before ever starting the flasher.
if let Err(e) = wait_for_port_free(&path).await {
bg_job.push_log(format!("ERROR: {e:#}")).await;
bg_job.fail(&e).await;
return;
}
// Outer ceiling on top of run_flash's own internal timeouts —
// belt-and-suspenders so that no future hang (network, subprocess,
// anything) can ever wedge the single-flash-job guard permanently
// again the way a stuck download did on 2026-07-23 (every
// subsequent mesh.flash-device call failed with "already in
// progress" until the service was restarted). Generous enough that
// a legitimately slow multi-hundred-MB transfer still completes.
let result = match tokio::time::timeout(
MAX_JOB_DURATION,
run_flash(board, family, &data_dir, &path, &bg_job),
)
.await
{
Ok(inner) => inner,
Err(_) => Err(anyhow::anyhow!(
"Flash job exceeded the {}-minute ceiling — aborted",
MAX_JOB_DURATION.as_secs() / 60
)),
};
let succeeded = result.is_ok();
match &result {
Ok(()) => {
bg_job
.push_log("Flash completed successfully".to_string())
.await;
bg_job.finish().await;
info!(path = %path, board = ?board, family = %family, "LoRa firmware flash succeeded");
}
Err(e) => {
// {:#} (alternate Display) walks the full anyhow context
// chain — plain {} / %e only prints the outermost .context()
// message, which made a real 2026-07-23 esptool failure
// undiagnosable from journalctl alone (just "esptool
// erase_flash failed", no actual esptool stderr).
warn!(path = %path, error = %format!("{e:#}"), "LoRa firmware flash failed");
bg_job.push_log(format!("ERROR: {e:#}")).await;
bg_job.fail(e).await;
}
}
// The board's firmware may now differ from whatever was pinned
// before — clear the pin either way so a later reconnect's strict
// auto-detect order picks up reality instead of getting wedged
// trying the old protocol first.
if let Ok(mut config) = super::load_config(&data_dir).await {
config.device_kind = None;
if let Err(e) = super::save_config(&data_dir, &config).await {
warn!(error = %e, "Failed to clear device_kind pin after flash");
}
}
if !succeeded {
// Deliberately do NOT auto-restart the listener here. A failed
// flash means we can't vouch for the board's state — reopening
// the port immediately (esptool/rnodeconf's own reset sequence
// plus our open() toggling DTR/RTS again right after) risks
// hammering a marginal device with reconnect attempts. Confirmed
// live 2026-07-23: exactly this sequence left a real Heltec V3
// boot-looping for 5+ minutes after a failed flash. Leave mesh
// stopped; the user reconnects explicitly via the hot-swap
// modal/Mesh page once they've confirmed the board is alive.
warn!(
path = %path,
"Leaving mesh listener stopped after failed flash — reconnect manually once the board is confirmed responsive"
);
return;
}
// On success, give the board a moment to finish booting after the
// flash tool's own reset sequence before we start hammering it with
// connection attempts — same reasoning as above, just the
// lower-risk (successful-flash) side of it.
tokio::time::sleep(POST_FLASH_SETTLE_DELAY).await;
let mut svc = bg_service.write().await;
if let Some(s) = svc.as_mut() {
match super::load_config(&data_dir).await {
Ok(config) => {
// Only resume if mesh is actually still enabled per the
// CURRENT persisted config — confirmed live 2026-07-23:
// unconditionally forcing a restart here, regardless of
// `enabled`, overrode a user's own concurrent "disable
// mesh" toggle and left the listener running while
// config said disabled. That inconsistent state is what
// made a later legitimate "Keep As Is" click (which
// correctly tries to start on a false→true transition)
// fail with "already running" — the listener had already
// been force-started behind the config's back.
let should_run = config.enabled;
if let Err(e) = s.configure(config).await {
warn!(error = %e, "Failed to resume mesh listener after flash");
}
if should_run {
if let Err(e) = s.start() {
warn!(error = %e, "Failed to restart mesh listener after flash");
}
}
}
Err(e) => warn!(error = %e, "Failed to load mesh config after flash"),
}
}
});
*job.abort_handle.write().await = Some(task.abort_handle());
Ok(())
}
async fn run_flash(
board: FlashBoard,
family: DeviceType,
data_dir: &Path,
path: &str,
job: &Arc<FlashJob>,
) -> Result<()> {
match family {
DeviceType::Meshtastic | DeviceType::Meshcore => {
let image = fetch_esptool_image(board, family, data_dir, job).await?;
esptool_erase_and_write(path, &image, job).await
}
DeviceType::Reticulum => {
let lora_region = super::load_config(data_dir)
.await
.ok()
.and_then(|c| c.lora_region);
rnodeconf_autoinstall(path, board, lora_region.as_deref(), job).await
}
DeviceType::Unknown => anyhow::bail!("Pick a firmware family before flashing"),
}
}
// ─── MeshCore / Meshtastic: esptool ─────────────────────────────────────
async fn fetch_esptool_image(
board: FlashBoard,
family: DeviceType,
data_dir: &Path,
job: &Arc<FlashJob>,
) -> Result<PathBuf> {
let cache = firmware_cache_dir(data_dir);
tokio::fs::create_dir_all(&cache)
.await
.context("Creating firmware cache dir")?;
let client = github_client()?;
match family {
DeviceType::Meshtastic => fetch_meshtastic_image(&client, board, &cache, job).await,
DeviceType::Meshcore => fetch_meshcore_image(&client, board, &cache, job).await,
_ => anyhow::bail!("{family} is not flashed via esptool"),
}
}
async fn fetch_meshtastic_image(
client: &reqwest::Client,
board: FlashBoard,
cache: &Path,
job: &Arc<FlashJob>,
) -> Result<PathBuf> {
let release: GithubRelease = client
.get("https://api.github.com/repos/meshtastic/firmware/releases/latest")
.timeout(METADATA_TIMEOUT)
.send()
.await
.context("Fetching Meshtastic release list")?
.error_for_status()
.context("Meshtastic releases API error")?
.json()
.await
.context("Parsing Meshtastic release JSON")?;
// Meshtastic bundles all esp32s3 boards' images inside one per-platform
// zip rather than shipping per-board top-level assets — both Heltec V3
// and V4 are esp32s3, so this is the right zip for both (confirmed live
// against v2.7.26.54e0d8d).
let zip_asset = release
.assets
.iter()
.find(|a| a.name.starts_with("firmware-esp32s3-") && a.name.ends_with(".zip"))
.ok_or_else(|| anyhow::anyhow!("No esp32s3 firmware zip in latest Meshtastic release"))?;
let version = zip_asset
.name
.strip_prefix("firmware-esp32s3-")
.and_then(|s| s.strip_suffix(".zip"))
.ok_or_else(|| anyhow::anyhow!("Unexpected Meshtastic asset name: {}", zip_asset.name))?
.to_string();
let zip_path = cache.join(&zip_asset.name);
if tokio::fs::metadata(&zip_path).await.is_err() {
download_to_file(client, &zip_asset.browser_download_url, &zip_path, job).await?;
} else {
job.push_log(format!("Using cached {}", zip_asset.name))
.await;
}
// "*.factory.bin" is Meshtastic's full merged image (bootloader +
// partition table + app) meant to be written at offset 0x0 on a freshly
// erased chip — confirmed by inspecting the real zip's contents, as
// opposed to the plain "*.bin" OTA-update image which assumes an
// existing bootloader/partition table already on the chip.
let entry_name = format!("firmware-{}-{}.factory.bin", board.meshtastic_id(), version);
let out_path = cache.join(&entry_name);
if tokio::fs::metadata(&out_path).await.is_ok() {
return Ok(out_path);
}
job.push_log(format!("Extracting {entry_name} from {}", zip_asset.name))
.await;
let zip_path_owned = zip_path.clone();
let entry_name_owned = entry_name.clone();
let out_path_owned = out_path.clone();
tokio::task::spawn_blocking(move || -> Result<()> {
let file =
std::fs::File::open(&zip_path_owned).context("Opening downloaded firmware zip")?;
let mut archive = zip::ZipArchive::new(file).context("Reading firmware zip")?;
let mut entry = archive
.by_name(&entry_name_owned)
.with_context(|| format!("{entry_name_owned} not found in firmware zip"))?;
let mut out =
std::fs::File::create(&out_path_owned).context("Creating extracted firmware file")?;
std::io::copy(&mut entry, &mut out).context("Extracting firmware image")?;
Ok(())
})
.await
.context("Firmware extraction task panicked")??;
Ok(out_path)
}
async fn fetch_meshcore_image(
client: &reqwest::Client,
board: FlashBoard,
cache: &Path,
job: &Arc<FlashJob>,
) -> Result<PathBuf> {
let release: GithubRelease = client
.get("https://api.github.com/repos/meshcore-dev/MeshCore/releases/latest")
.timeout(METADATA_TIMEOUT)
.send()
.await
.context("Fetching MeshCore release list")?
.error_for_status()
.context("MeshCore releases API error")?
.json()
.await
.context("Parsing MeshCore release JSON")?;
// Upstream's casing differs between boards (Heltec_v3_... vs
// heltec_v4_...) — match case-insensitively on the exact per-board
// substring so V4 isn't accidentally matched by "heltec_v4_tft_..."
// variants (there's a "_tft_" in between, so a straight substring match
// on "heltec_v4_companion_radio_usb" is already safe).
let needle = match board {
FlashBoard::HeltecV3 => "heltec_v3_companion_radio_usb",
FlashBoard::HeltecV4 => "heltec_v4_companion_radio_usb",
};
let asset = release
.assets
.iter()
.find(|a| {
let lower = a.name.to_lowercase();
lower.contains(needle) && lower.ends_with("-merged.bin")
})
.ok_or_else(|| {
anyhow::anyhow!("No matching MeshCore image in release {}", release.tag_name)
})?;
let out_path = cache.join(&asset.name);
if tokio::fs::metadata(&out_path).await.is_ok() {
job.push_log(format!("Using cached {}", asset.name)).await;
return Ok(out_path);
}
download_to_file(client, &asset.browser_download_url, &out_path, job).await?;
Ok(out_path)
}
async fn download_to_file(
client: &reqwest::Client,
url: &str,
dest: &Path,
job: &Arc<FlashJob>,
) -> Result<()> {
job.set_stage(FlashStage::Downloading).await;
// Bound only the wait for the response to *start* (headers) — NOT a
// request-level `.timeout()`, which would cap the whole body transfer
// again (the bug this replaced: a blanket 30s client timeout killed
// large downloads mid-stream). If the server never responds at all,
// this is what stops the job from hanging forever; the per-chunk stall
// timeout below is what guards the body once streaming starts. Without
// this, a server that accepts the TCP connection but never sends
// headers back hangs this call indefinitely — confirmed live
// 2026-07-23: a stuck `.send()` here wedged the single-flash-job guard
// for good, permanently blocking every subsequent flash attempt with
// "already in progress" until the service was restarted.
let resp = tokio::time::timeout(METADATA_TIMEOUT, client.get(url).send())
.await
.context("Firmware download server did not respond")?
.context("Starting firmware download")?
.error_for_status()
.context("Firmware download returned an error status")?;
let total = resp.content_length();
let tmp = dest.with_extension("part");
let mut file = tokio::fs::File::create(&tmp)
.await
.context("Creating firmware download file")?;
let mut stream = resp.bytes_stream();
let mut downloaded: u64 = 0;
use futures_util::StreamExt;
loop {
let next = tokio::time::timeout(DOWNLOAD_STALL_TIMEOUT, stream.next())
.await
.context("Firmware download stalled")?;
let Some(chunk) = next else { break };
let chunk = chunk.context("Reading firmware download stream")?;
file.write_all(&chunk)
.await
.context("Writing firmware download")?;
downloaded += chunk.len() as u64;
if let Some(total) = total {
if total > 0 {
job.set_percent(((downloaded.saturating_mul(100)) / total) as u8)
.await;
}
}
}
file.flush().await.ok();
tokio::fs::rename(&tmp, dest)
.await
.context("Finalizing firmware download")?;
job.push_log(format!(
"Downloaded {} ({downloaded} bytes)",
dest.display()
))
.await;
Ok(())
}
/// Both Heltec V3 and V4 are ESP32-S3 boards.
const ESPTOOL_CHIP: &str = "esp32s3";
/// esptool's auto-reset-into-bootloader handshake (toggling DTR/RTS in a
/// specific timed pattern) is well-known to be flaky on some CP2102/CH340
/// board+adapter combinations — esptool's own docs recommend retrying at a
/// lower baud rate when this happens. Rather than fail the whole job on the
/// first hiccup, retry once at a conservative baud before giving up.
const ESPTOOL_FALLBACK_BAUD: &str = "115200";
/// `write_flash --erase-all` erases the whole chip before writing, in one
/// esptool invocation. This needs the esp32s3 stub flasher loaded (see
/// esptool_global_args' doc comment) — without it, --erase-all hits the
/// exact same ROM limitation a standalone `erase_flash` does ("ESP32-S3 ROM
/// does not support function erase_flash", confirmed live 2026-07-23), since
/// esptool's --erase-all is implemented as the same full-chip-erase command,
/// not a per-sector loop.
async fn esptool_erase_and_write(path: &str, image: &Path, job: &Arc<FlashJob>) -> Result<()> {
job.set_stage(FlashStage::Writing).await;
let image_str = image.to_string_lossy().to_string();
esptool_with_retry(
path,
&["write_flash", "--erase-all", "0x0", &image_str],
job,
)
.await
.context("esptool write_flash failed")?;
Ok(())
}
/// esptool's global flags (--chip/--port/--baud) MUST precede the subcommand
/// token (erase_flash/write_flash/...) — confirmed live 2026-07-23:
/// appending `--baud 115200` after the subcommand on the retry path
/// produced "esptool: error: unrecognized arguments: --baud 115200" every
/// time, so the fallback-baud retry never actually got a chance to run.
/// Building global args separately from subcommand args keeps this correct
/// by construction instead of relying on call-site ordering.
///
/// Normal stub-loader mode (no --no-stub) needs the esp32s3 stub flasher
/// blob at /usr/lib/python3/dist-packages/esptool/targets/stub_flasher/
/// stub_flasher_32s3.json — Debian's `esptool` package (4.7.0+dfsg-0.1)
/// ships without it (stripped for DFSG compliance: the prebuilt blob has no
/// buildable-from-source path Debian could verify), so scripts/self-update.sh
/// fetches the exact same file from the matching upstream esptool release
/// tag and installs it alongside the apt package (see the esptool install
/// step there). --no-stub (talk directly to the ROM bootloader, skip the
/// stub) was tried first and works for connecting, but the ROM bootloader
/// doesn't implement a full-chip-erase opcode at all — only the stub does —
/// so --no-stub broke our "always erase before write" default outright
/// rather than just being slower. Restoring the real stub file is the
/// correct fix, not routing around its absence.
fn esptool_global_args<'a>(path: &'a str, baud: Option<&'a str>) -> Vec<&'a str> {
let mut args = vec!["--chip", ESPTOOL_CHIP, "--port", path];
if let Some(b) = baud {
args.push("--baud");
args.push(b);
}
args
}
async fn esptool_with_retry(path: &str, subcommand: &[&str], job: &Arc<FlashJob>) -> Result<()> {
let mut cmd = Command::new("esptool");
cmd.args(esptool_global_args(path, None));
cmd.args(subcommand);
match run_streamed(cmd, None, job).await {
Ok(()) => Ok(()),
Err(first_err) => {
job.push_log(format!(
"First attempt failed ({first_err:#}); retrying once at {ESPTOOL_FALLBACK_BAUD} baud"
))
.await;
let mut retry = Command::new("esptool");
retry.args(esptool_global_args(path, Some(ESPTOOL_FALLBACK_BAUD)));
retry.args(subcommand);
run_streamed(retry, None, job)
.await
.context(format!("retry also failed (first attempt: {first_err:#})"))
}
}
}
// ─── Reticulum/RNode: archy-rnodeconf ───────────────────────────────────
fn rnodeconf_bin() -> String {
std::env::var("ARCHY_RNODECONF_BIN")
.unwrap_or_else(|_| "/usr/local/bin/archy-rnodeconf".to_string())
}
/// `--autoinstall`'s "which board is this" step is interactive by design —
/// confirmed live against a real Heltec V4 (2026-07-23): even with a board
/// given on the command line, rnodeconf can't always tell V3 from V4 apart
/// (their bootstrap-time USB identity is often generic, same root cause as
/// `resolve_flash_board`'s doc comment), so it always asks. The full prompt
/// sequence observed for a Heltec board that already has *some* RNode
/// firmware installed (the common case — a truly blank chip likely skips
/// straight to the same "Device Selection" menu):
/// 1. numbered device-type menu → answer with the menu number
/// 2. "Hit enter to continue" → answer with a blank line
/// 3. numbered band menu → answer with the menu number
/// 4. "Is the above correct? [y/N]" → answer "y"
/// Feeding all four answers up front (rather than watching stdout for each
/// prompt text) works because the menu is always asked in this fixed order
/// for every board that needs (re)provisioning — verified by driving it
/// through an unprovisioned real V4 end-to-end (erase → flash → EEPROM
/// bootstrap → "Device signature validated" on the next probe).
fn rnodeconf_device_menu_number(board: FlashBoard) -> &'static str {
match board {
FlashBoard::HeltecV3 => "8",
FlashBoard::HeltecV4 => "9",
}
}
/// rnodeconf's band choice is a coarse RF-frontend bootstrap parameter
/// (868/915/923 MHz), not the final operating frequency — that's still
/// configured later via the daemon's interface config, same as today. This
/// is a best-effort mapping from the node's persisted Meshtastic-style
/// region code (see `mesh::meshtastic::region_name_to_code`) down to
/// rnodeconf's 3-way menu; regions with no exact 868/923 match fall back to
/// 915 MHz as the broadest-compatibility default.
fn rnodeconf_band_menu_number(lora_region: Option<&str>) -> &'static str {
match lora_region.map(|s| s.trim().to_uppercase()) {
Some(r) if r.contains("868") => "1",
Some(r) if r.contains("923") => "3",
_ => "2",
}
}
/// `--autoinstall` fetches, erases, flashes, and bootstraps the EEPROM for
/// a detected board as one atomic step (confirmed via `archy-rnodeconf
/// --help` AND a real end-to-end flash on real hardware) — this is the
/// RNode-side equivalent of our "always erase before write" default, since
/// autoinstall doesn't try to preserve any existing on-device state.
async fn rnodeconf_autoinstall(
path: &str,
board: FlashBoard,
lora_region: Option<&str>,
job: &Arc<FlashJob>,
) -> Result<()> {
job.set_stage(FlashStage::Autoinstalling).await;
let bin = rnodeconf_bin();
let mut cmd = if Path::new(&bin).exists() {
Command::new(bin)
} else {
// Dev fallback if only a plain venv/system rnodeconf is on PATH.
Command::new("rnodeconf")
};
cmd.args(["--autoinstall", path]);
let stdin = format!(
"{}\n\n{}\ny\n",
rnodeconf_device_menu_number(board),
rnodeconf_band_menu_number(lora_region)
);
run_streamed(cmd, Some(stdin.into_bytes()), job)
.await
.context("archy-rnodeconf --autoinstall failed")
}
// ─── Subprocess streaming ────────────────────────────────────────────────
fn percent_regex() -> &'static Regex {
static RE: OnceLock<Regex> = OnceLock::new();
RE.get_or_init(|| Regex::new(r"\((\d{1,3})\s*%\)").expect("valid regex"))
}
async fn run_streamed(mut cmd: Command, stdin: Option<Vec<u8>>, job: &Arc<FlashJob>) -> Result<()> {
cmd.stdout(Stdio::piped());
cmd.stderr(Stdio::piped());
if stdin.is_some() {
cmd.stdin(Stdio::piped());
}
// Deliberately NOT kill_on_drop: an interrupted erase/write can leave
// the chip in a worse state than either finished or unstarted (see the
// cancellation-safety note in mesh flashing docs). The job is expected
// to run to completion or fail on its own.
let mut child = cmd.spawn().context("Failed to start subprocess")?;
if let Some(bytes) = stdin {
if let Some(mut child_stdin) = child.stdin.take() {
child_stdin
.write_all(&bytes)
.await
.context("Writing to subprocess stdin")?;
}
}
let mut tasks = Vec::new();
if let Some(stdout) = child.stdout.take() {
let job = Arc::clone(job);
tasks.push(tokio::spawn(async move {
let mut lines = BufReader::new(stdout).lines();
while let Ok(Some(line)) = lines.next_line().await {
if let Some(cap) = percent_regex().captures(&line) {
if let Ok(pct) = cap[1].parse::<u8>() {
job.set_percent(pct).await;
}
}
job.push_log(line).await;
}
}));
}
if let Some(stderr) = child.stderr.take() {
let job = Arc::clone(job);
tasks.push(tokio::spawn(async move {
let mut lines = BufReader::new(stderr).lines();
while let Ok(Some(line)) = lines.next_line().await {
job.push_log(line).await;
}
}));
}
let status = child.wait().await.context("Waiting for subprocess")?;
for t in tasks {
let _ = t.await;
}
if !status.success() {
// Exit status alone isn't diagnosable — the actual esptool/rnodeconf
// stderr (already captured into job.log_tail by the reader tasks
// above) is what actually explains a failure. Confirmed live
// 2026-07-23: a bare "Command exited with exit status: 1" told us
// nothing when esptool's real error was sitting in the log tail the
// whole time, only visible via the UI's live poll, not journald.
let tail: Vec<String> = job
.snapshot()
.await
.log_tail
.iter()
.rev()
.take(10)
.rev()
.cloned()
.collect();
anyhow::bail!("Command exited with {status}\n{}", tail.join("\n"));
}
Ok(())
}
+19 -1
View File
@@ -578,7 +578,7 @@ pub(super) async fn handle_identity_received(
.insert(contact_id, shared_secret);
// Update peer record
let peer = MeshPeer {
let mut peer = MeshPeer {
contact_id,
// .get(): a malformed DID shorter than the "did:key:" prefix must
// not panic the listener on a radio-supplied string.
@@ -607,6 +607,24 @@ pub(super) async fn handle_identity_received(
let is_new = {
let mut peers = state.peers.write().await;
let is_new = !peers.contains_key(&contact_id);
if let Some(existing) = peers.get(&contact_id) {
// This id is shared with the federation-seeded row for the same
// node (that's the point — identity adverts MERGE, not duplicate).
// The wholesale insert below must not stomp the federation row's
// real node name with our synthetic "Archy-…" placeholder — with
// Reticulum re-emitting identity adverts every announce tick,
// that renamed every federated contact once a minute. Same for a
// known position: keep it rather than nulling it out.
if !existing.advert_name.trim().is_empty()
&& !existing.advert_name.starts_with("Archy-")
{
peer.advert_name = existing.advert_name.clone();
}
if peer.lat.is_none() {
peer.lat = existing.lat;
peer.lon = existing.lon;
}
}
peers.insert(contact_id, peer.clone());
is_new
};
+43
View File
@@ -557,6 +557,10 @@ pub fn spawn_mesh_listener(
let mut shutdown = shutdown;
let mut cmd_rx = cmd_rx;
let mut reconnect_delay = RECONNECT_DELAY_INIT;
// Mutable so a successful auto-detect can pin the firmware kind for
// the rest of this listener's lifetime — see the pin-on-first-success
// block below for why.
let mut device_kind = device_kind;
// Backlog #12 hot-swap re-binding: each run_mesh_session call already
// builds a fresh device struct (contacts/current_region/etc. all
// start empty), so per-device session state is naturally isolated
@@ -628,6 +632,45 @@ pub fn spawn_mesh_listener(
}
}
// Pin the firmware kind after the first successful auto-detect.
// Confirmed live 2026-07-23: with device_kind left unpinned (e.g.
// after clearing a stale pin), EVERY reconnect re-runs the full
// Reticulum→Meshcore→Meshtastic auto-detect cascade — each
// candidate past the first does its own open() with the DTR/RTS
// reset both boards need, so a device correctly identified as
// Meshtastic still gets reset once for the failed Meshcore
// attempt before Meshtastic's own open() resets it again. That
// doubled the reset count on every single reconnect indefinitely,
// not just during initial detection. Once auto-detect has
// identified the device this listener is actually talking to,
// there's no reason to keep guessing on subsequent reconnects —
// pin it, both in this task's own loop (takes effect
// immediately) and on disk (survives a service restart). A
// genuine hot-swap to different firmware is still handled: the
// setup modal's `mesh.probe-device` always re-probes unpinned,
// and the flash flow already clears this pin on its own.
if device_kind.is_none() {
let detected = state.status.read().await.device_type;
if detected != super::types::DeviceType::Unknown {
device_kind = Some(detected);
match super::load_config(&data_dir).await {
Ok(mut cfg) if cfg.device_kind.is_none() => {
cfg.device_kind = Some(detected);
if let Err(e) = super::save_config(&data_dir, &cfg).await {
warn!("Failed to persist auto-detected device_kind: {}", e);
} else {
info!(
kind = %detected,
"Pinned auto-detected firmware kind to avoid repeated multi-protocol resets on reconnect"
);
}
}
Ok(_) => {}
Err(e) => warn!("Failed to load mesh config to persist device_kind: {}", e),
}
}
}
// Update status to disconnected. device_type/firmware_version are
// reset too — they were previously left holding the LAST radio's
// identity, so after a hot-swap the UI showed the old firmware
+133 -79
View File
@@ -270,6 +270,7 @@ async fn auto_detect_and_open(
our_x25519_pubkey_hex: &str,
device_kind: Option<DeviceType>,
skip_path: Option<&str>,
advert_name: Option<&str>,
) -> Result<(String, MeshRadioDevice, DeviceInfo)> {
let mut paths = super::super::serial::detect_serial_devices().await;
// When falling back from a just-failed preferred path, don't probe that
@@ -287,6 +288,7 @@ async fn auto_detect_and_open(
None => "No serial devices found in /dev".to_string(),
});
}
info!(candidates = ?paths, "Auto-detect candidate ports for this attempt");
for path in &paths {
debug!(path = %path, "Probing for mesh radio device");
// Tried FIRST: `ReticulumLink::open()` gates its expensive daemon
@@ -304,6 +306,7 @@ async fn auto_detect_and_open(
data_dir,
Some(our_ed_pubkey_hex),
Some(our_x25519_pubkey_hex),
advert_name,
)
.await
{
@@ -465,6 +468,7 @@ async fn open_preferred_path(
our_ed_pubkey_hex: &str,
our_x25519_pubkey_hex: &str,
device_kind: Option<DeviceType>,
advert_name: Option<&str>,
) -> Result<(MeshRadioDevice, DeviceInfo)> {
// Pinned: try only the configured firmware and surface its own error —
// never fall through to (and inject probe bytes into) another firmware's
@@ -497,6 +501,7 @@ async fn open_preferred_path(
data_dir,
Some(our_ed_pubkey_hex),
Some(our_x25519_pubkey_hex),
advert_name,
)
.await
.context("Could not open preferred path as Reticulum")?;
@@ -510,40 +515,21 @@ async fn open_preferred_path(
};
}
// Reticulum first — see the matching comment on auto_detect_and_open:
// its cheap probe_rnode gate fails in ~1s for non-RNode firmware, while
// trying Meshcore/Meshtastic first was observed leaving a real RNode
// board unresponsive by the time Reticulum's turn came.
match ReticulumLink::open(
path,
data_dir,
Some(our_ed_pubkey_hex),
Some(our_x25519_pubkey_hex),
)
.await
{
Ok(mut dev) => match dev.initialize().await {
Ok(info) => return Ok((MeshRadioDevice::Reticulum(dev), info)),
Err(e) => {
debug!(path = %path, error = %e, "Preferred path is not a working Reticulum RNode")
}
},
Err(e) => debug!(path = %path, error = %e, "Could not open preferred path as Reticulum"),
}
match MeshcoreDevice::open(path).await {
Ok(mut dev) => match dev.initialize().await {
Ok(info) => return Ok((MeshRadioDevice::Meshcore(dev), info)),
Err(e) => debug!(path = %path, error = %e, "Preferred path is not Meshcore"),
},
Err(e) => debug!(path = %path, error = %e, "Could not open preferred path as Meshcore"),
}
match MeshtasticDevice::open(path).await {
Ok(mut dev) => match dev.initialize().await {
Ok(info) => Ok((MeshRadioDevice::Meshtastic(dev), info)),
Err(e) => Err(e).context("Preferred path is not a working Meshtastic device"),
},
Err(e) => Err(e).context("Could not open preferred path as Meshtastic"),
}
// Unpinned: don't probe this path ourselves at all. Confirmed live
// 2026-07-23 — this function used to run its own Reticulum→Meshcore→
// Meshtastic sequence here, and the caller (run_mesh_session) falls
// back to `auto_detect_and_open` on any error, which scans every
// candidate path (this one included) with the exact same three-protocol
// sequence. With a single physical radio — the overwhelmingly common
// case — `path` here IS the one candidate `auto_detect_and_open` is
// about to try, so every unpinned reconnect was resetting the board via
// Reticulum/Meshcore/Meshtastic's DTR/RTS toggle TWICE: once here, once
// again moments later in auto-detect. Bailing immediately (no port
// access at all) means auto-detect's single pass is the only one that
// ever touches the port when nothing is pinned yet. (auto_detect_and_open
// carries the advert_name threading from main, so nothing is lost.)
let _ = advert_name;
anyhow::bail!("No device_kind pin — deferring to auto-detect for {path}")
}
/// Bring up a Reticulum daemon over plain TCP — no physical RNode, no
@@ -556,6 +542,7 @@ async fn open_reticulum_tcp(
data_dir: &Path,
our_ed_pubkey_hex: &str,
our_x25519_pubkey_hex: &str,
advert_name: Option<&str>,
) -> Result<(String, MeshRadioDevice, DeviceInfo)> {
let mut dev = match cfg {
ReticulumTcpConfig::Server { bind } => ReticulumLink::open_tcp_server(
@@ -563,6 +550,7 @@ async fn open_reticulum_tcp(
data_dir,
Some(our_ed_pubkey_hex),
Some(our_x25519_pubkey_hex),
advert_name,
)
.await
.context("Could not open Reticulum TCP server interface")?,
@@ -571,6 +559,7 @@ async fn open_reticulum_tcp(
data_dir,
Some(our_ed_pubkey_hex),
Some(our_x25519_pubkey_hex),
advert_name,
)
.await
.context("Could not open Reticulum TCP client interface")?,
@@ -987,49 +976,110 @@ pub(super) async fn run_mesh_session(
// auto-detect. TCP mode is additive/dev-only; it never changes behavior
// for existing serial/RNode deployments where `reticulum_tcp` is None.
//
// The name we present on the mesh: the operator's configured mesh name /
// server name, falling back to a DID fragment. Computed BEFORE the open
// sequence because Reticulum needs it at daemon-spawn time — the RNS
// announce carries it from the very first announce. (Meshcore/Meshtastic
// still receive it via set_advert_name after connect, below.)
let desired_advert_name: String = match server_name {
// Meshcore firmware limits advert names — truncate to 20 chars.
Some(name) => name.chars().take(20).collect(),
None => format!(
"Archy-{}",
our_did.chars().skip(8).take(8).collect::<String>()
),
};
// The whole open sequence runs under PORT_OPEN_LOCK so an RPC probe
// can't interleave its own handshakes on the same tty (see the lock's
// doc comment). Held only until the device is opened, then released.
let port_guard = PORT_OPEN_LOCK.lock().await;
let (device_path, mut device, device_info) = if let Some(tcp_cfg) = &reticulum_tcp {
open_reticulum_tcp(tcp_cfg, data_dir, our_ed_pubkey_hex, our_x25519_pubkey_hex).await?
} else if let Some(path) = preferred_path {
match open_preferred_path(
path,
data_dir,
our_ed_pubkey_hex,
our_x25519_pubkey_hex,
device_kind,
)
.await
{
Ok((dev, info)) => (path.to_string(), dev, info),
Err(e) => {
warn!(
"Preferred path {} probe failed: {} — trying auto-detect",
path, e
);
//
// The sequence is raced against the shutdown signal: probes/handshakes
// can take 10s+, and without this a stop() issued mid-probe (config
// change, disable, rename) always burned the full listener-shutdown
// timeout and ended in a hard abort — observed live on archi-dev-box
// 2026-07-28. Dropping the open future mid-probe is safe: it holds no
// session state yet and the port guard/serial handle close with it.
let open_fut = async {
let port_guard = PORT_OPEN_LOCK.lock().await;
let result = if let Some(tcp_cfg) = &reticulum_tcp {
open_reticulum_tcp(
tcp_cfg,
data_dir,
our_ed_pubkey_hex,
our_x25519_pubkey_hex,
Some(&desired_advert_name),
)
.await
} else if let Some(path) = preferred_path {
if device_kind.is_none() {
// Unpinned: open_preferred_path bails without ever touching
// the port, so the preferred path has NOT been probed this
// cycle — auto-detect must keep it as a candidate
// (skip_path=None). Passing Some(path) here excluded the only
// radio on single-device nodes and the mesh never came up.
auto_detect_and_open(
data_dir,
our_ed_pubkey_hex,
our_x25519_pubkey_hex,
device_kind,
Some(path),
None,
Some(&desired_advert_name),
)
.await?
.await
} else {
match open_preferred_path(
path,
data_dir,
our_ed_pubkey_hex,
our_x25519_pubkey_hex,
device_kind,
Some(&desired_advert_name),
)
.await
{
Ok((dev, info)) => Ok((path.to_string(), dev, info)),
Err(e) => {
warn!(
"Preferred path {} probe failed: {} — trying auto-detect",
path, e
);
auto_detect_and_open(
data_dir,
our_ed_pubkey_hex,
our_x25519_pubkey_hex,
device_kind,
Some(path),
Some(&desired_advert_name),
)
.await
}
}
}
} else {
auto_detect_and_open(
data_dir,
our_ed_pubkey_hex,
our_x25519_pubkey_hex,
device_kind,
None,
Some(&desired_advert_name),
)
.await
};
drop(port_guard);
result
};
let (device_path, mut device, device_info) = tokio::select! {
res = open_fut => res?,
_ = shutdown.changed() => {
if *shutdown.borrow() {
info!("Shutdown requested during device open — ending session");
return Ok(());
}
anyhow::bail!("shutdown signal changed during device open");
}
} else {
auto_detect_and_open(
data_dir,
our_ed_pubkey_hex,
our_x25519_pubkey_hex,
device_kind,
None,
)
.await?
};
drop(port_guard);
// Update status
{
@@ -1176,19 +1226,14 @@ pub(super) async fn run_mesh_session(
}
}
// Set advert name to the server's human-readable name (e.g. "ThinkPad"),
// falling back to the DID fragment if no name is configured. Skipped in
// keep-as-is mode — the radio keeps the name it came with (already
// reflected in status from the connect handshake).
if manage_radio {
let advert_name = if let Some(name) = server_name {
// Meshcore firmware limits advert names — truncate to 20 chars
name.chars().take(20).collect::<String>()
} else {
let short_did = our_did.chars().skip(8).take(8).collect::<String>();
format!("Archy-{}", short_did)
};
if let Err(e) = device.set_advert_name(&advert_name).await {
// Set advert name to the configured mesh/server name (computed above).
// Skipped in keep-as-is mode for radio-held names — the radio keeps the
// name it came with (already reflected in status from the connect
// handshake). Reticulum is exempt from keep-as-is: its display name
// lives in OUR daemon (the RNode holds no name), so "keep as is" has
// nothing to preserve and an unnamed node would be anonymous on RNS.
if manage_radio || matches!(device, MeshRadioDevice::Reticulum(_)) {
if let Err(e) = device.set_advert_name(&desired_advert_name).await {
warn!("Failed to set advert name: {}", e);
} else {
// Reflect the post-set name in MeshStatus too so the UI can filter
@@ -1196,7 +1241,7 @@ pub(super) async fn run_mesh_session(
// still carries whatever pre-set name the firmware reported and the
// self-filter never matches.
let mut status = state.status.write().await;
status.self_advert_name = Some(advert_name.clone());
status.self_advert_name = Some(desired_advert_name.clone());
}
}
@@ -1489,6 +1534,15 @@ async fn handle_send_command(
} else {
*consecutive_write_failures = 0;
}
// The self-advert alone is a no-op for discovery on Meshtastic
// (heartbeat + time carry no identity) — the NodeInfo broadcast
// is what makes peers learn/refresh us. want_response=true so
// neighbours answer with their own NodeInfo: the user pressed
// Broadcast to be seen AND to see who's out there. No-op on
// Meshcore/Reticulum, whose self-advert already carries identity.
if let Err(e) = device.send_nodeinfo_advert(true).await {
warn!("Failed to send NodeInfo advert: {}", e);
}
}
MeshCommand::RebootRadio { seconds } => {
if let Err(e) = device.reboot(seconds).await {
+170 -12
View File
@@ -8,6 +8,7 @@
pub mod alerts;
pub mod bitcoin_relay;
pub mod crypto;
pub mod flash;
pub mod listener;
pub mod meshtastic;
pub mod message_types;
@@ -477,6 +478,31 @@ impl Default for MeshConfig {
}
}
/// Whether a mesh config file has ever been written for this node — lets the
/// boot path distinguish "operator explicitly disabled mesh" (file exists,
/// enabled=false) from "never configured" (no file), which is the only case
/// radio auto-enable should touch.
pub fn config_file_exists(data_dir: &Path) -> bool {
data_dir.join(MESH_CONFIG_FILE).exists()
}
/// True when `new` differs from `old` in any field a running mesh session
/// captured by value at spawn (device path/kind, advert name, region, PHY
/// params, channel, manage_radio, TCP interface) — i.e. when applying `new`
/// to a live service requires a listener restart. Fields the session reads
/// live from shared state (broadcast flags, assistant settings, steganography
/// mode, …) deliberately don't trigger a restart.
fn session_config_changed(old: &MeshConfig, new: &MeshConfig) -> bool {
old.device_path != new.device_path
|| old.device_kind != new.device_kind
|| old.advert_name != new.advert_name
|| old.lora_region != new.lora_region
|| old.lora_radio_params != new.lora_radio_params
|| old.channel_name != new.channel_name
|| old.manage_radio != new.manage_radio
|| old.reticulum_tcp != new.reticulum_tcp
}
pub async fn load_config(data_dir: &Path) -> Result<MeshConfig> {
let path = data_dir.join(MESH_CONFIG_FILE);
if !path.exists() {
@@ -742,10 +768,18 @@ impl MeshService {
self.server_name = name;
}
/// Start the background mesh listener.
/// Start the background mesh listener. Idempotent: if the listener is
/// already running, this is a harmless no-op rather than an error —
/// confirmed live 2026-07-23, a real race between the flash job's own
/// post-flash restart and a concurrent user "Keep As Is" click (both
/// legitimately trying to ensure the listener is running) surfaced this
/// as a user-facing "Mesh listener already running" RPC error. Ensuring
/// the listener is running is the intent every caller actually has;
/// whichever caller's start() happens to win the race, the other
/// finding it already satisfied is success, not failure.
pub fn start(&mut self) -> Result<()> {
if self.listener_handle.is_some() {
anyhow::bail!("Mesh listener already running");
return Ok(());
}
let (shutdown_tx, shutdown_rx) = watch::channel(false);
@@ -764,7 +798,14 @@ impl MeshService {
self.our_ed_pubkey_hex.clone(),
self.our_x25519_secret,
self.our_x25519_pubkey_hex.clone(),
self.server_name.clone(),
// The mesh-page "Name on the mesh" (config.advert_name) wins over
// the server name — it existed as write-only config with no reader
// until this line, which is why renaming on the Mesh page never
// changed anything on the air.
self.config
.advert_name
.clone()
.or_else(|| self.server_name.clone()),
self.config.lora_region.clone(),
self.config.lora_radio_params,
self.config.channel_name.clone(),
@@ -1055,13 +1096,12 @@ impl MeshService {
self.state.peers.read().await.values().cloned().collect()
}
/// Probe a serial port for a mesh radio without provisioning or keeping
/// it — powers the hot-swap "device detected" modal's current-details
/// view. Refuses to probe the port the live session currently occupies
/// (the probe would steal the serial port from under the session); a
/// Refuse to probe the port the live session currently occupies (the
/// probe would steal the serial port from under the session); a
/// detected-but-not-connected port is fair game, accepting a benign race
/// with the reconnect loop (whichever loses just retries).
pub async fn probe_device(&self, path: &str) -> Result<listener::DeviceProbe> {
/// with the reconnect loop (whichever loses just retries). Split out from
/// the actual probe on purpose — see `probe_device`'s doc comment.
pub async fn ensure_probe_allowed(&self, path: &str) -> Result<()> {
let status = self.state.status.read().await;
if status.device_connected {
if let Some(active) = status.device_path.as_deref() {
@@ -1076,8 +1116,7 @@ impl MeshService {
}
}
}
drop(status);
listener::probe_device(path).await
Ok(())
}
/// Get message history.
@@ -1124,7 +1163,32 @@ impl MeshService {
let peer = peers
.get(&contact_id)
.ok_or_else(|| anyhow::anyhow!("Peer not found"))?;
let pubkey_hex = peer
// Cross-transport twin resolution: callers frequently hold the
// FEDERATION twin's contact_id (the UI's merged conversation row),
// whose pubkey_hex is the Archipelago ed25519 key — NOT a radio
// routing key. Sending a Reticulum resource with that prefix fails
// with "Unknown Reticulum prefix" (observed live 2026-07-28,
// image-over-LoRa to a merged contact). Route via the radio twin —
// same arch identity, radio-range id — whose pubkey_hex is the
// actual over-the-air routing key (RNS dest hash / firmware key).
let radio_peer = if peer.contact_id >= FEDERATION_CONTACT_ID_BASE {
peer.arch_pubkey_hex
.as_deref()
.and_then(|arch| {
peers.values().find(|p| {
p.contact_id < FEDERATION_CONTACT_ID_BASE
&& p.arch_pubkey_hex.as_deref() == Some(arch)
})
})
.ok_or_else(|| {
anyhow::anyhow!(
"Peer is federation-only (no radio twin) — not reachable over the radio"
)
})?
} else {
peer
};
let pubkey_hex = radio_peer
.pubkey_hex
.as_ref()
.ok_or_else(|| anyhow::anyhow!("Peer has no public key"))?;
@@ -1262,12 +1326,45 @@ impl MeshService {
.map(|p| !p.reachable && p.arch_pubkey_hex.is_some())
.unwrap_or(false)
};
// Transport policy: LoRa first when it can actually carry the message,
// then FIPS, then Tor. A federation-synthetic id (what the UI's merged
// conversation holds) used to ALWAYS take the federation path, even
// when the very same node was sitting one LoRa hop away — so chats
// between two radio-equipped nodes silently rode FIPS/Tor. If the
// federation contact has a REACHABLE radio twin (same archipelago
// identity, radio-range id) and the payload fits the radio, skip the
// federation branch: the fall-through LoRa path twin-resolves the
// routing key via peer_dest_prefix.
let device_connected = self.state.status.read().await.device_connected;
let radio_twin_reachable =
is_federation_synthetic && !exceeds_lora && device_connected && {
let peers = self.state.peers.read().await;
peers
.get(&contact_id)
.and_then(|p| p.arch_pubkey_hex.clone())
.map(|arch| {
peers.values().any(|p| {
p.contact_id < FEDERATION_CONTACT_ID_BASE
&& p.reachable
&& p.arch_pubkey_hex.as_deref() == Some(arch.as_str())
})
})
.unwrap_or(false)
};
let mesh_only_mode = load_config(&self.data_dir)
.await
.ok()
.and_then(|cfg| cfg.mesh_only_mode)
.unwrap_or(false);
if radio_twin_reachable && !mesh_only_mode {
tracing::info!(
contact_id,
bytes = wire.len(),
"Radio-first routing: federation contact has a reachable radio twin — sending over LoRa"
);
}
if !mesh_only_mode
&& !radio_twin_reachable
&& (is_federation_synthetic || exceeds_lora || radio_federated_unreachable)
{
// Resolve the peer's pubkey/did. Prefer the live mesh peer table,
@@ -2091,6 +2188,7 @@ impl MeshService {
save_config(&self.data_dir, &config).await?;
let was_enabled = self.config.enabled;
let needs_session_restart = session_config_changed(&self.config, &config);
self.config = config.clone();
// Update the status to reflect new config
@@ -2115,11 +2213,31 @@ impl MeshService {
status.firmware_version = None;
status.self_node_id = None;
status.peer_count = 0;
} else if config.enabled && was_enabled && needs_session_restart {
info!("Mesh session config changed — restarting listener to apply");
self.stop().await;
self.start()?;
}
Ok(())
}
/// The service's current (last-applied) config.
pub fn config(&self) -> &MeshConfig {
&self.config
}
/// Restart the listener (if running) so it picks up out-of-band state a
/// spawn captured by value — currently the server name pushed by
/// `server.set-name`.
pub async fn restart_listener_if_running(&mut self) -> Result<()> {
if self.listener_handle.is_some() {
self.stop().await;
self.start()?;
}
Ok(())
}
/// Get a reference to shared state (for RPC handlers).
pub fn shared_state(&self) -> Arc<MeshState> {
Arc::clone(&self.state)
@@ -2241,6 +2359,46 @@ async fn bitcoin_rpc_getblockheader_by_height(
mod tests {
use super::*;
#[test]
fn session_config_change_detection() {
let base = MeshConfig::default();
// Same config → no restart.
assert!(!session_config_changed(&base, &base.clone()));
// Every session-captured field individually triggers a restart.
let mut c = base.clone();
c.device_kind = Some(types::DeviceType::Reticulum);
assert!(session_config_changed(&base, &c));
let mut c = base.clone();
c.device_path = Some("/dev/ttyUSB0".into());
assert!(session_config_changed(&base, &c));
let mut c = base.clone();
c.advert_name = Some("RNode Shaza".into());
assert!(session_config_changed(&base, &c));
let mut c = base.clone();
c.manage_radio = !base.manage_radio;
assert!(session_config_changed(&base, &c));
let mut c = base.clone();
c.lora_region = Some("EU_868".into());
assert!(session_config_changed(&base, &c));
let mut c = base.clone();
c.channel_name = Some("private-net".into());
assert!(session_config_changed(&base, &c));
// Live-read fields must NOT force a session restart.
let mut c = base.clone();
c.broadcast_identity = !base.broadcast_identity;
c.announce_block_headers = !base.announce_block_headers;
c.assistant_enabled = !base.assistant_enabled;
assert!(!session_config_changed(&base, &c));
}
fn mk_peer(contact_id: u32, name: &str, arch: Option<&str>, reachable: bool) -> MeshPeer {
MeshPeer {
contact_id,
+309 -54
View File
@@ -121,6 +121,7 @@ fn daemon_command(
identity_key: &Path,
archy_ed_pubkey_hex: Option<&str>,
archy_x25519_pubkey_hex: Option<&str>,
display_name: Option<&str>,
) -> Command {
let bin = std::env::var("ARCHY_RETICULUM_DAEMON_BIN")
.unwrap_or_else(|_| "/usr/local/bin/archy-reticulum-daemon".to_string());
@@ -153,12 +154,27 @@ fn daemon_command(
}
}
}
// Archy nodes are RNS transport nodes: they relay traffic and rebroadcast
// announces, so archy nodes (and Sideband/NomadNet peers) beyond direct RF
// range discover and reach each other through any archy node in between.
// Edge-only operation (`enable_transport = no`) left every node an island
// limited to its own radio horizon.
cmd.arg("--enable-transport");
if let (Some(ed), Some(x)) = (archy_ed_pubkey_hex, archy_x25519_pubkey_hex) {
cmd.arg("--archy-ed-pubkey-hex")
.arg(ed)
.arg("--archy-x25519-pubkey-hex")
.arg(x);
}
// The RNS-visible display name (what Sideband/NomadNet/other archy nodes
// show for us). Without this the daemon falls back to its argparse
// default and every archy node announces the same anonymous name.
if let Some(name) = display_name {
let name = name.trim();
if !name.is_empty() {
cmd.arg("--display-name").arg(name);
}
}
// Run the daemon as its own process-group leader. The packaged binary is
// a PyInstaller one-file bootloader that forks the real Python process;
// making it a group leader lets shutdown signal the WHOLE group so the
@@ -207,6 +223,10 @@ struct ReticulumPeer {
/// `bind_federation_twins`, which those two transports rely on instead).
arch_pubkey_hex: Option<String>,
reachable: bool,
/// Unix time of the last announce heard from this peer over the air.
/// In-memory only (a persisted value would be stale by definition) —
/// `0` after a restart until the peer re-announces.
last_advert_at: u64,
}
/// On-disk shape of `ReticulumPeer` — `[u8; 16]` can't be a JSON object key,
@@ -245,6 +265,11 @@ pub struct ReticulumLink {
/// matching `resource_progress`/`resource_sent`/`resource_failed` events
/// back to a log line; sends are fire-and-forget (see `send_resource`).
resource_id_counter: u64,
/// Set when the daemon's RPC socket closes or its process exits. Once
/// true, `try_recv_frame` returns an error so the session loop tears
/// down and the outer reconnect loop respawns the daemon — without this
/// a dead daemon was invisible until the 30-minute RX-stall watchdog.
daemon_gone: bool,
}
impl ReticulumLink {
@@ -269,6 +294,7 @@ impl ReticulumLink {
data_dir: &Path,
our_ed_pubkey_hex: Option<&str>,
our_x25519_pubkey_hex: Option<&str>,
display_name: Option<&str>,
) -> Result<Self> {
probe_rnode(path)
.await
@@ -278,6 +304,7 @@ impl ReticulumLink {
data_dir,
our_ed_pubkey_hex,
our_x25519_pubkey_hex,
display_name,
)
.await
}
@@ -290,6 +317,7 @@ impl ReticulumLink {
data_dir: &Path,
our_ed_pubkey_hex: Option<&str>,
our_x25519_pubkey_hex: Option<&str>,
display_name: Option<&str>,
) -> Result<Self> {
let host = bind.rsplit_once(':').map(|(h, _)| h).unwrap_or(bind);
anyhow::ensure!(
@@ -302,6 +330,7 @@ impl ReticulumLink {
data_dir,
our_ed_pubkey_hex,
our_x25519_pubkey_hex,
display_name,
)
.await
}
@@ -313,6 +342,7 @@ impl ReticulumLink {
data_dir: &Path,
our_ed_pubkey_hex: Option<&str>,
our_x25519_pubkey_hex: Option<&str>,
display_name: Option<&str>,
) -> Result<Self> {
anyhow::ensure!(
!targets.is_empty(),
@@ -323,6 +353,7 @@ impl ReticulumLink {
data_dir,
our_ed_pubkey_hex,
our_x25519_pubkey_hex,
display_name,
)
.await
}
@@ -332,6 +363,7 @@ impl ReticulumLink {
data_dir: &Path,
our_ed_pubkey_hex: Option<&str>,
our_x25519_pubkey_hex: Option<&str>,
display_name: Option<&str>,
) -> Result<Self> {
// Keep the RPC socket under the archipelago-owned data dir (not the
// shared system temp dir) so its access is bounded by the same
@@ -379,6 +411,7 @@ impl ReticulumLink {
&identity_key,
our_ed_pubkey_hex,
our_x25519_pubkey_hex,
display_name,
);
cmd.env("TMPDIR", &tmp_dir);
let child = cmd
@@ -450,6 +483,7 @@ impl ReticulumLink {
peers_file: runtime_dir.join("peers.json"),
inbound: std::collections::VecDeque::new(),
resource_id_counter: 0,
daemon_gone: false,
};
link.load_persisted_peers();
Ok(link)
@@ -472,21 +506,53 @@ impl ReticulumLink {
};
let prefix: [u8; 6] = hash[..6].try_into().unwrap();
self.prefix_to_hash.insert(prefix, hash);
// Heal names persisted by pre-2026-07-28 builds, which could
// store a raw `ARCHY:…` identity blob as the display name (seen
// live on archi-dev-box). Blob-only announces assert no name, so
// nothing would ever overwrite it — swap in the placeholder.
let display_name = if p.display_name.starts_with("ARCHY:") {
format!("Reticulum {}", hex::encode(&hash[..4]))
} else {
p.display_name
};
self.peers.insert(
hash,
ReticulumPeer {
dest_hash: hash,
display_name: p.display_name,
display_name,
arch_pubkey_hex: p.arch_pubkey_hex,
// Reachability is a live property, not a persisted fact —
// start conservative and let the first real event refresh it.
reachable: false,
last_advert_at: 0,
},
);
}
info!(count = self.peers.len(), "Loaded persisted Reticulum peers");
}
/// Resolve a caller-supplied 6-byte routing prefix to a full 16-byte RNS
/// destination hash. Two shapes arrive here depending on how the contact
/// record was born (observed live 2026-07-28, image-to-merged-contact):
/// 1. the peer's RNS dest-hash prefix (contacts created from an RNS
/// announce) — direct `prefix_to_hash` hit;
/// 2. the peer's Archipelago ed25519 pubkey prefix (radio twins bound
/// via the ARCHY announce blob store the arch key as `pubkey_hex`) —
/// no dest-hash match possible, so fall back to scanning peers whose
/// announce-bound `arch_pubkey_hex` starts with the prefix.
fn resolve_dest_hash(&self, prefix: &[u8; 6]) -> Option<[u8; 16]> {
if let Some(hash) = self.prefix_to_hash.get(prefix) {
return Some(*hash);
}
let hex_prefix = hex::encode(prefix);
self.peers.values().find_map(|p| {
p.arch_pubkey_hex
.as_deref()
.filter(|arch| arch.starts_with(&hex_prefix))
.map(|_| p.dest_hash)
})
}
/// Best-effort sync write of the current peer table — called after any
/// insert that adds/renames a peer. Infrequent (announces/first-contact,
/// not per-message) so a blocking write here is a fine trade for keeping
@@ -533,10 +599,12 @@ impl ReticulumLink {
}
pub async fn set_advert_name(&mut self, name: &str) -> Result<()> {
// The daemon's display_name is fixed at spawn time (CLI arg); changing
// it live would require an RPC verb we haven't added. Track locally so
// `advert_name()` reflects the caller's intent even though the
// RNS-visible name doesn't change until the daemon restarts.
// Live rename: the daemon's `set_name` verb updates the LXMF delivery
// destination's display_name and re-announces, so peers pick the new
// name up on their next announce receipt. Also tracked locally so
// `advert_name()` reflects it immediately.
self.send_rpc(serde_json::json!({"cmd": "set_name", "name": name}))
.await?;
self.display_name = Some(name.to_string());
Ok(())
}
@@ -562,9 +630,7 @@ impl ReticulumLink {
payload: &[u8],
) -> Result<()> {
let dest_hash = self
.prefix_to_hash
.get(dest_pubkey_prefix)
.copied()
.resolve_dest_hash(dest_pubkey_prefix)
.with_context(|| {
format!(
"Unknown Reticulum prefix {} — peer hasn't announced yet",
@@ -606,9 +672,7 @@ impl ReticulumLink {
) -> Result<()> {
use base64::{engine::general_purpose::STANDARD as B64, Engine as _};
let dest_hash = self
.prefix_to_hash
.get(dest_pubkey_prefix)
.copied()
.resolve_dest_hash(dest_pubkey_prefix)
.with_context(|| {
format!(
"Unknown Reticulum prefix {} — peer hasn't announced yet",
@@ -638,9 +702,7 @@ impl ReticulumLink {
pub async fn send_resource(&mut self, dest_pubkey_prefix: &[u8; 6], data: &[u8]) -> Result<()> {
use base64::{engine::general_purpose::STANDARD as B64, Engine as _};
let dest_hash = self
.prefix_to_hash
.get(dest_pubkey_prefix)
.copied()
.resolve_dest_hash(dest_pubkey_prefix)
.with_context(|| {
format!(
"Unknown Reticulum prefix {} — peer hasn't announced yet",
@@ -685,7 +747,7 @@ impl ReticulumLink {
.map(|p| ParsedContact {
public_key_hex: hex::encode(p.dest_hash),
advert_name: p.display_name.clone(),
last_advert: 0,
last_advert: p.last_advert_at as u32,
// Deliberately not 1 ("friend"/meshcore type), so the
// meshcore-only auto-heal `reset_contact_path` loop in
// `refresh_contacts` (session.rs) skips these — RNS does its
@@ -718,6 +780,12 @@ impl ReticulumLink {
pub async fn try_recv_frame(&mut self) -> Result<Option<InboundFrame>> {
self.drain_events().await;
if self.daemon_gone {
// Surface the dead daemon as a hard error so run_mesh_session
// bails and the outer reconnect loop respawns it, instead of
// idling on an empty queue until the RX-stall watchdog fires.
anyhow::bail!("reticulum-daemon is gone (process exited or RPC socket closed)");
}
Ok(self.inbound.pop_front())
}
@@ -743,6 +811,15 @@ impl ReticulumLink {
/// Drain any buffered daemon events (non-blocking) and translate them into
/// peer-table updates / synthetic InboundFrames.
async fn drain_events(&mut self) {
// A daemon that died without closing the socket cleanly (SIGKILL,
// OOM) leaves the socket readable-with-EOF or just silent — poll the
// child's exit status too so death is never mistaken for quiet.
if !self.daemon_gone {
if let Ok(Some(status)) = self.child.try_wait() {
warn!(%status, "reticulum-daemon process exited");
self.daemon_gone = true;
}
}
loop {
let mut line = String::new();
let read =
@@ -750,10 +827,16 @@ impl ReticulumLink {
.await;
let n = match read {
Ok(Ok(n)) => n,
_ => break, // timeout (no data) or read error — stop draining
Ok(Err(e)) => {
warn!("Reticulum daemon RPC read failed: {}", e);
self.daemon_gone = true;
break;
}
Err(_) => break, // timeout — no data buffered
};
if n == 0 {
warn!("Reticulum daemon RPC connection closed");
self.daemon_gone = true;
break;
}
let Ok(ev) = serde_json::from_str::<Value>(line.trim()) else {
@@ -775,6 +858,23 @@ impl ReticulumLink {
};
let prefix: [u8; 6] = hash[..6].try_into().unwrap();
self.prefix_to_hash.insert(prefix, hash);
// Current daemons decode the LXMF announce app_data themselves
// and hand us clean fields: `display_name` (LXMF-standard
// msgpack name, Sideband-interoperable) and `archy_blob` (the
// `ARCHY:n:` identity string, carried as an extra msgpack list
// element stock clients ignore). The raw `app_data` text path
// below remains for announces from pre-upgrade archy nodes,
// whose app_data was EITHER the blob OR a bare-utf8 name.
let explicit_name = ev
.get("display_name")
.and_then(Value::as_str)
.map(|s| s.trim().to_string())
.filter(|s| !s.is_empty());
let explicit_blob = ev
.get("archy_blob")
.and_then(Value::as_str)
.map(str::to_string)
.filter(|s| !s.is_empty());
let app_data_text = ev
.get("app_data")
.and_then(Value::as_str)
@@ -794,12 +894,19 @@ impl ReticulumLink {
// now carry the same `arch_pubkey_hex`, instead of relying on
// `bind_federation_twins`'s advert_name matching, which never
// matches here — see `display_name` below.
let parsed_identity = app_data_text
let legacy_identity = app_data_text
.as_deref()
.and_then(protocol::parse_identity_broadcast);
let is_identity_blob = parsed_identity.is_some();
if is_identity_blob {
let text = app_data_text.clone().unwrap();
let is_legacy_blob = legacy_identity.is_some();
let identity_blob_text =
explicit_blob.or_else(|| app_data_text.clone().filter(|_| is_legacy_blob));
let parsed_identity = identity_blob_text
.as_deref()
.and_then(protocol::parse_identity_broadcast);
if let Some(text) = identity_blob_text
.as_deref()
.filter(|_| parsed_identity.is_some())
{
let mut data = Vec::with_capacity(7 + text.len());
data.push(0); // channel index — unused by the identity path
data.extend_from_slice(&prefix);
@@ -812,23 +919,31 @@ impl ReticulumLink {
}
let arch_pubkey_hex = parsed_identity.map(|(_did, ed_pubkey, _x25519)| ed_pubkey);
let display_name = app_data_text
.filter(|_| !is_identity_blob)
.unwrap_or_else(|| format!("Reticulum {}", hex::encode(&hash[..4])));
let announced_name =
pick_announced_name(explicit_name, app_data_text, is_legacy_blob);
let now = std::time::SystemTime::now()
.duration_since(std::time::UNIX_EPOCH)
.unwrap_or_default()
.as_secs();
self.peers
.entry(hash)
.and_modify(|p| {
p.display_name = display_name.clone();
if let Some(name) = announced_name.clone() {
p.display_name = name;
}
p.reachable = true;
p.last_advert_at = now;
if arch_pubkey_hex.is_some() {
p.arch_pubkey_hex = arch_pubkey_hex.clone();
}
})
.or_insert(ReticulumPeer {
.or_insert_with(|| ReticulumPeer {
dest_hash: hash,
display_name,
display_name: announced_name
.unwrap_or_else(|| format!("Reticulum {}", hex::encode(&hash[..4]))),
arch_pubkey_hex,
reachable: true,
last_advert_at: now,
});
self.persist_peers();
}
@@ -844,16 +959,24 @@ impl ReticulumLink {
// A peer that messages us without ever announcing still needs
// to survive a restart — give it a placeholder name (the real
// one, if any, arrives via a later "announce" and overwrites
// this) so its routing entry alone doesn't get lost.
if let std::collections::hash_map::Entry::Vacant(e) = self.peers.entry(source_hash)
{
e.insert(ReticulumPeer {
dest_hash: source_hash,
display_name: format!("Reticulum {}", hex::encode(&source_hash[..4])),
arch_pubkey_hex: None,
reachable: true,
});
self.persist_peers();
// this) so its routing entry alone doesn't get lost. An
// existing entry is proof of life too: mark it reachable so a
// restart-restored (reachable=false) peer that DMs us doesn't
// stay red-dotted until its next announce.
match self.peers.entry(source_hash) {
std::collections::hash_map::Entry::Vacant(e) => {
e.insert(ReticulumPeer {
dest_hash: source_hash,
display_name: format!("Reticulum {}", hex::encode(&source_hash[..4])),
arch_pubkey_hex: None,
reachable: true,
last_advert_at: 0,
});
self.persist_peers();
}
std::collections::hash_map::Entry::Occupied(mut e) => {
e.get_mut().reachable = true;
}
}
// A stock LXMF client (Sideband/NomadNet — not an archy peer)
@@ -924,23 +1047,37 @@ impl ReticulumLink {
.push_back(build_synthetic_frame(&prefix, &content));
}
Some("resource_recv") => {
let Some(source_hex) = ev.get("source_hash").and_then(Value::as_str) else {
return;
};
let source_hex = ev
.get("source_hash")
.and_then(Value::as_str)
.unwrap_or_default();
let Ok(source_hash) = parse_hash16(source_hex) else {
// An empty source_hash means the sender's link wasn't
// identified (pre-identify daemon build on the far end) —
// the blob is undeliverable without attribution, but say
// so instead of vanishing it.
warn!(
source = source_hex,
"Dropping inbound Reticulum resource without valid source identity"
);
return;
};
let prefix: [u8; 6] = source_hash[..6].try_into().unwrap();
self.prefix_to_hash.insert(prefix, source_hash);
if let std::collections::hash_map::Entry::Vacant(e) = self.peers.entry(source_hash)
{
e.insert(ReticulumPeer {
dest_hash: source_hash,
display_name: format!("Reticulum {}", hex::encode(&source_hash[..4])),
arch_pubkey_hex: None,
reachable: true,
});
self.persist_peers();
match self.peers.entry(source_hash) {
std::collections::hash_map::Entry::Vacant(e) => {
e.insert(ReticulumPeer {
dest_hash: source_hash,
display_name: format!("Reticulum {}", hex::encode(&source_hash[..4])),
arch_pubkey_hex: None,
reachable: true,
last_advert_at: 0,
});
self.persist_peers();
}
std::collections::hash_map::Entry::Occupied(mut e) => {
e.get_mut().reachable = true;
}
}
use base64::{engine::general_purpose::STANDARD as B64, Engine as _};
let Some(data) = ev
@@ -1089,8 +1226,10 @@ pub(crate) async fn probe_rnode(path: &str) -> Result<()> {
// ESP32-S3 native-USB boards (Heltec V3/V4 etc. — no separate USB-UART
// bridge chip) treat a DTR/RTS transition on open as a reset signal, the
// same mechanism esptool uses to force bootloader entry. Deassert both
// and let the board settle before writing the probe, or the reboot eats
// the DETECT_RESP window below.
// before writing the probe. Boards behind a USB-UART bridge (CP2102 on
// the Heltec V3) get the reset pulse from the open() itself, before we
// can deassert anything — that case is handled by the boot-settle retry
// below.
let _ = port.set_dtr(false);
let _ = port.set_rts(false);
tokio::time::sleep(Duration::from_millis(300)).await;
@@ -1109,26 +1248,81 @@ pub(crate) async fn probe_rnode(path: &str) -> Result<()> {
0x00,
KISS_FEND,
];
// Attempt 1: probe immediately. A board that did NOT reset on open (it
// was already up — e.g. a re-probe of a running RNode) answers in well
// under a second, so the fast path stays fast.
tokio::time::timeout(Duration::from_millis(500), port.write_all(&probe))
.await
.context("RNode probe write timed out")?
.context("RNode probe write failed")?;
let mut buf = [0u8; 256];
let mut seen = Vec::new();
let deadline = tokio::time::Instant::now() + PROBE_READ_TIMEOUT;
while tokio::time::Instant::now() < deadline {
if await_detect_resp(&port, &mut buf, &mut seen, PROBE_READ_TIMEOUT).await {
return Ok(());
}
// No DETECT_RESP. If the open() power-cycled the board (verified live on
// a Heltec V3 RNode behind a CP2102: the ESP32 spends ~2.5-3s in boot
// ROM + app init and silently eats anything written meanwhile, so the
// first probe lands in the void), wait for its boot chatter to go quiet
// and probe once more with a fresh response window.
const BOOT_QUIET_WINDOW: Duration = Duration::from_millis(800);
const BOOT_SETTLE_MAX: Duration = Duration::from_secs(6);
let settle_deadline = tokio::time::Instant::now() + BOOT_SETTLE_MAX;
let mut last_data = tokio::time::Instant::now();
while tokio::time::Instant::now() < settle_deadline {
match tokio::time::timeout(Duration::from_millis(150), port.read(&mut buf)).await {
Ok(Ok(n)) if n > 0 => {
seen.extend_from_slice(&buf[..n]);
// A late DETECT_RESP to the first write still counts.
if contains_detect_resp(&seen) {
return Ok(());
}
last_data = tokio::time::Instant::now();
}
_ => {
if last_data.elapsed() >= BOOT_QUIET_WINDOW {
break;
}
}
}
}
tokio::time::timeout(Duration::from_millis(500), port.write_all(&probe))
.await
.context("RNode probe rewrite timed out")?
.context("RNode probe rewrite failed")?;
seen.clear();
if await_detect_resp(&port, &mut buf, &mut seen, PROBE_READ_TIMEOUT).await {
return Ok(());
}
anyhow::bail!(
"No RNode DETECT_RESP within {:?} (incl. post-boot-settle retry)",
PROBE_READ_TIMEOUT
)
}
/// Read from `port` for up to `window`, accumulating into `seen`; true once
/// the KISS DETECT_RESP sequence shows up anywhere in the stream.
async fn await_detect_resp(
port: &serial2_tokio::SerialPort,
buf: &mut [u8],
seen: &mut Vec<u8>,
window: Duration,
) -> bool {
let deadline = tokio::time::Instant::now() + window;
while tokio::time::Instant::now() < deadline {
match tokio::time::timeout(Duration::from_millis(150), port.read(buf)).await {
Ok(Ok(n)) if n > 0 => {
seen.extend_from_slice(&buf[..n]);
if contains_detect_resp(seen) {
return true;
}
}
_ => continue,
}
}
anyhow::bail!("No RNode DETECT_RESP within {:?}", PROBE_READ_TIMEOUT)
false
}
/// Look for the `[FEND, CMD_DETECT, DETECT_RESP]` sequence anywhere in the
@@ -1138,6 +1332,33 @@ fn contains_detect_resp(buf: &[u8]) -> bool {
.any(|w| w == [KISS_FEND, KISS_CMD_DETECT, KISS_DETECT_RESP])
}
/// The display name an announce actually asserted, if any.
///
/// Precedence: the daemon-decoded LXMF display name (`display_name` event
/// field), then — legacy peers only — bare-utf8 app_data that wasn't an
/// identity blob. The bare-utf8 fallback must actually look like text:
/// lossy-decoded msgpack (a new-format announce whose name the daemon failed
/// to decode) is full of U+FFFD/control chars and would otherwise become a
/// mojibake display name. `None` (e.g. a blob-only legacy announce) means
/// "no name asserted" and must NOT stomp a previously-learned name.
fn pick_announced_name(
explicit_name: Option<String>,
app_data_text: Option<String>,
is_legacy_blob: bool,
) -> Option<String> {
explicit_name
// A legacy blob-only announce utf8-decodes cleanly, so LXMF's
// display_name_from_app_data hands the daemon the ENTIRE `ARCHY:…`
// string as a "name" — seen live from a pre-upgrade Framework PT.
// An identity blob is never a display name.
.filter(|s| !s.starts_with("ARCHY:"))
.or_else(|| {
app_data_text
.filter(|_| !is_legacy_blob)
.filter(|s| !s.chars().any(|c| c.is_control() || c == '\u{FFFD}'))
})
}
impl Drop for ReticulumLink {
fn drop(&mut self) {
// Group-wide SIGTERM with a delayed SIGKILL backstop (`terminate_group`).
@@ -1154,6 +1375,40 @@ impl Drop for ReticulumLink {
mod tests {
use super::*;
#[test]
fn announced_name_precedence() {
// Daemon-decoded LXMF name always wins.
assert_eq!(
pick_announced_name(
Some("RNode Shaza".into()),
Some("ARCHY:2:aa:bb".into()),
true
),
Some("RNode Shaza".to_string())
);
// Legacy bare-utf8 name (old daemon, no explicit field).
assert_eq!(
pick_announced_name(None, Some("zaza".into()), false),
Some("zaza".to_string())
);
// Legacy blob-only announce asserts NO name (must not stomp).
assert_eq!(
pick_announced_name(None, Some("ARCHY:2:aa:bb".into()), true),
None
);
// Lossy-decoded msgpack must not become a mojibake name.
assert_eq!(
pick_announced_name(None, Some("\u{FFFD}\u{FFFD}Shaza\u{FFFD}".into()), false),
None
);
assert_eq!(
pick_announced_name(None, Some("has\u{1}ctl".into()), false),
None
);
// Nothing at all.
assert_eq!(pick_announced_name(None, None, false), None);
}
#[test]
fn detect_resp_found_in_kiss_stream() {
let stream = [
+38 -17
View File
@@ -557,29 +557,39 @@ fn likely_non_mesh_serial_device(path: &str) -> bool {
/// Scan for serial devices that could be Meshcore radios.
/// Returns paths to existing serial device files.
///
/// Candidates are deduplicated by canonical path: /dev/mesh-radio is a udev
/// symlink to a ttyUSB*/ttyACM* node that is ALSO in the candidate list, so
/// without this one physical board shows up (and gets probed, and gets its
/// DTR/RTS reset toggled) twice per cycle. The first candidate wins, which
/// keeps the stable /dev/mesh-radio name when the symlink exists.
/// Dedupes by canonical (symlink-resolved) target: `/dev/mesh-radio` is a
/// stable udev symlink to whatever `/dev/ttyUSB*`/`/dev/ttyACM*` node the
/// primary radio currently enumerates as, so both names always pointed at
/// the same candidate list entry and both passed this scan — confirmed live
/// 2026-07-23, this made an already-connected, working radio (connected via
/// its `/dev/mesh-radio` alias) simultaneously appear as a second, separate
/// "detected but unclaimed" device under its raw `/dev/ttyUSBn` name. The
/// hot-swap UI's active-session guard compares path strings, so it didn't
/// recognize the two aliases as the same port, showed the "device detected"
/// modal for a radio that was already set up, and probing it there opened
/// (and DTR/RTS-reset) the exact port the live session was mid-conversation
/// with — a continuous, UI-driven reset loop that only ran while that view
/// was open (matches the reported "stops when I leave, resumes when I come
/// back"). SERIAL_CANDIDATES lists `/dev/mesh-radio` first, so it wins the
/// dedup and is what's reported when both alias and target are present.
/// (Independently re-discovered and fixed on main 2026-07-26 — both sides
/// of the 2026-07-28 merge carried an equivalent implementation.)
pub async fn detect_serial_devices() -> Vec<String> {
let mut devices = Vec::new();
let mut seen_canonical: Vec<std::path::PathBuf> = Vec::new();
let mut seen_real_paths = std::collections::HashSet::new();
for path in SERIAL_CANDIDATES {
if tokio::fs::metadata(path).await.is_ok() {
if likely_non_mesh_serial_device(path) {
debug!(path = %path, "Skipping known non-mesh serial device");
continue;
}
let canonical = tokio::fs::canonicalize(path)
let real_path = tokio::fs::canonicalize(path)
.await
.unwrap_or_else(|_| std::path::PathBuf::from(path));
if seen_canonical.contains(&canonical) {
debug!(path = %path, canonical = %canonical.display(),
"Skipping alias of an already-detected serial device");
if !seen_real_paths.insert(real_path.clone()) {
debug!(path = %path, real_path = %real_path.display(), "Skipping duplicate alias for an already-listed device");
continue;
}
seen_canonical.push(canonical);
devices.push(path.to_string());
}
}
@@ -610,12 +620,23 @@ pub async fn detect_serial_devices_info() -> Vec<DetectedDeviceInfo> {
let mut out = Vec::new();
for path in detect_serial_devices().await {
let usb = usb_info_for_tty(&path).await;
let plugged_at = tokio::fs::metadata(&path)
.await
.ok()
.and_then(|m| m.modified().ok())
.and_then(|t| t.duration_since(std::time::UNIX_EPOCH).ok())
.map(|d| d.as_secs());
// Birth time (btime), falling back to inode-change time (ctime) —
// NOT mtime: a tty node's mtime bumps on every open()/write, so with
// mtime here each probe/session open minted a "new" plugged_at, the
// UI's (path, plugged_at) dismissal key never matched again, and the
// setup modal re-fired forever on a device that never left the port
// (observed live on archi-dev-box 2026-07-28). btime/ctime only
// change when udev (re)creates/chowns the node — i.e. on real plugs.
let plugged_at = tokio::fs::metadata(&path).await.ok().and_then(|m| {
m.created()
.ok()
.and_then(|t| t.duration_since(std::time::UNIX_EPOCH).ok())
.map(|d| d.as_secs())
.or_else(|| {
use std::os::unix::fs::MetadataExt;
u64::try_from(m.ctime()).ok()
})
});
out.push(DetectedDeviceInfo {
path,
vid: usb.0,
+8
View File
@@ -134,6 +134,7 @@ pub async fn sync_with_peers(data_dir: &Path, peer_onions: &[String]) -> Result<
for onion in &unique_onions {
let fips_npub = crate::federation::fips_npub_for_onion(data_dir, onion).await;
match sync_single_peer(
data_dir,
fips_npub.as_deref(),
&store,
onion,
@@ -173,6 +174,7 @@ pub async fn sync_with_peers(data_dir: &Path, peer_onions: &[String]) -> Result<
/// Sync with a single peer: pull their messages and push ours.
/// Each HTTP call picks FIPS when a npub is known, otherwise Tor.
async fn sync_single_peer(
data_dir: &Path,
fips_npub: Option<&str>,
store: &crate::network::dwn_store::DwnStore,
onion: &str,
@@ -186,6 +188,8 @@ async fn sync_single_peer(
let (health_resp, _) = PeerRequest::new(fips_npub, onion, "/dwn/health")
.service(crate::settings::transport::PeerService::Federation)
.timeout(std::time::Duration::from_secs(30))
.fips_timeout(std::time::Duration::from_secs(6))
.record_transport(data_dir)
.send_get()
.await
.context("Peer DWN unreachable")?;
@@ -211,6 +215,8 @@ async fn sync_single_peer(
let (pull_res, _) = PeerRequest::new(fips_npub, onion, "/dwn")
.service(crate::settings::transport::PeerService::Federation)
.timeout(std::time::Duration::from_secs(30))
.fips_timeout(std::time::Duration::from_secs(6))
.record_transport(data_dir)
.send_json(&pull_body)
.await
.context("Failed to query peer DWN")?;
@@ -269,6 +275,8 @@ async fn sync_single_peer(
match PeerRequest::new(fips_npub, onion, "/dwn")
.service(crate::settings::transport::PeerService::Federation)
.timeout(std::time::Duration::from_secs(30))
.fips_timeout(std::time::Duration::from_secs(6))
.record_transport(data_dir)
.send_json(&push_body)
.await
{
+19 -15
View File
@@ -342,6 +342,9 @@ pub async fn send_to_peer(
signing_key: Option<&ed25519_dalek::SigningKey>,
recipient_pubkey: Option<&str>,
from_name: Option<&str>,
// Federation data dir for last-transport recording; None skips recording
// (callers without a data dir in scope).
record_data_dir: Option<&std::path::Path>,
) -> Result<()> {
validate_onion(onion)?;
@@ -370,24 +373,24 @@ pub async fn send_to_peer(
body["from_name"] = serde_json::Value::String(name.to_string());
}
let (resp, transport) =
let mut req =
crate::fips::dial::PeerRequest::new(fips_npub, onion, "/archipelago/node-message")
.service(crate::settings::transport::PeerService::Messaging)
.timeout(std::time::Duration::from_secs(60))
.send_json(&body)
.await
.map_err(|e| {
let msg = e.to_string();
if msg.contains("connection refused") || msg.contains("Connection refused") {
anyhow::anyhow!(
"Peer unreachable. Check Tor (127.0.0.1:9050) and FIPS daemon status."
)
} else if msg.contains("timeout") || msg.contains("timed out") {
anyhow::anyhow!("Connection timed out. The peer may be offline.")
} else {
anyhow::anyhow!("Failed to send: {}", msg)
}
})?;
.fips_timeout(std::time::Duration::from_secs(8));
if let Some(dir) = record_data_dir {
req = req.record_transport(dir);
}
let (resp, transport) = req.send_json(&body).await.map_err(|e| {
let msg = e.to_string();
if msg.contains("connection refused") || msg.contains("Connection refused") {
anyhow::anyhow!("Peer unreachable. Check Tor (127.0.0.1:9050) and FIPS daemon status.")
} else if msg.contains("timeout") || msg.contains("timed out") {
anyhow::anyhow!("Connection timed out. The peer may be offline.")
} else {
anyhow::anyhow!("Failed to send: {}", msg)
}
})?;
if !resp.status().is_success() {
anyhow::bail!(
@@ -410,6 +413,7 @@ pub async fn check_peer_reachable(onion: &str, fips_npub: Option<&str>) -> Resul
// circuit that hasn't answered /health in 12s is "offline" for UI
// purposes; the old 30s made the Connected Nodes probes crawl.
.timeout(std::time::Duration::from_secs(12))
.fips_timeout(std::time::Duration::from_secs(4))
.send_get()
.await
{
+166 -24
View File
@@ -294,8 +294,13 @@ impl Server {
.await
.unwrap_or_default();
// Auto-enable mesh if a radio is detected and no config exists yet
if !mesh_config.enabled {
// Auto-enable mesh if a radio is detected and no config exists
// yet. Only on a genuinely missing config: an existing file
// with enabled=false is an explicit operator decision (e.g.
// via mesh.configure) and force-re-enabling it on every boot
// made "disable mesh" impossible on any node with a radio
// plugged in.
if !mesh_config.enabled && !crate::mesh::config_file_exists(&data_dir) {
let devices = crate::mesh::detect_devices().await;
if !devices.is_empty() {
info!("📡 Auto-detected mesh radio: {:?} — enabling mesh", devices);
@@ -433,8 +438,18 @@ impl Server {
),
));
// LAN transport (mDNS discovery)
let mut lan = crate::transport::lan::LanTransport::new(&did, &pubkey_hex, 5678);
// LAN transport (mDNS discovery). Advertise our FIPS npub in
// the TXT record so co-located peers can form a direct FIPS
// link (see `lan_fips_anchors`).
let local_fips_npub = crate::identity::fips_npub(&data_dir.join("identity"))
.await
.unwrap_or(None);
let mut lan = crate::transport::lan::LanTransport::new(
&did,
&pubkey_hex,
5678,
local_fips_npub,
);
match lan.start(registry.clone()) {
Ok(()) => info!("📡 LAN transport (mDNS) started"),
Err(e) => debug!("LAN transport init (non-fatal): {}", e),
@@ -753,12 +768,25 @@ impl Server {
// (often flaky) global anchor's spanning tree to route to each
// other. For every peer the registry knows both a LAN address
// AND a FIPS npub for, dial it on its FIPS UDP transport port
// (8668) at its LAN IP. This is FIPS's own transport over the
// at its LAN IP. This is FIPS's own transport over the
// LAN — NOT Tailscale, NOT the HTTP/LAN messaging port. Pure
// FIPS. `fipsctl connect` is idempotent, so re-applying every
// tick just keeps the direct link warm; unknown/remote peers
// (no LAN address) are left to the anchor as before.
if let Some(reg) = fips_peer_registry.as_ref() {
// Hydrate FIPS npubs into the registry from federation
// storage (did-keyed). Peers discovered before the mDNS
// TXT `fips` key existed — or running builds that don't
// advertise it yet — would otherwise never satisfy the
// `fips_npub` requirement in lan_fips_anchors(), leaving
// direct LAN peering a no-op.
if let Ok(nodes) = crate::federation::load_nodes(&data_dir).await {
for n in &nodes {
if let Some(npub) = n.fips_npub.as_deref() {
reg.set_fips_npub(&n.did, npub).await;
}
}
}
let direct = crate::fips::anchors::lan_fips_anchors(&reg.all_peers().await);
if !direct.is_empty() {
let _ = crate::fips::anchors::apply(&direct).await;
@@ -1194,18 +1222,36 @@ async fn peer_late_bind_loop(
}
};
info!("FIPS peer listener bound {}", addr);
// Once bound, serve until shutdown fires. accept_loop
// returns on shutdown, which also ends this outer loop.
accept_loop(
handler,
listener,
active_connections,
true, // peer listener: apply path filter
shutdown_rx,
addr,
)
.await;
return;
// Serve until shutdown, a persistent accept failure, or a
// fips0 ULA change. The listener must be REBINDABLE: a
// daemon re-key tears fips0 down and brings it back with a
// (possibly different) ULA, and the old one-shot bind left
// the node inbound-dead over FIPS until process restart.
tokio::select! {
_ = accept_loop(
handler.clone(),
listener,
active_connections.clone(),
true, // peer listener: apply path filter
shutdown_rx.clone(),
addr,
) => {
if *shutdown_rx.borrow() { return; }
warn!("FIPS peer accept loop ended — rebinding");
}
_ = async {
loop {
tokio::time::sleep(std::time::Duration::from_secs(30)).await;
if crate::fips::iface::fips0_ula() != Some(ip) {
break;
}
}
} => {
info!("fips0 ULA changed — rebinding FIPS peer listener");
// Dropping the select arm cancels accept_loop and
// frees the socket; the outer loop rebinds fresh.
}
}
}
_ = shutdown_rx.changed() => {
if *shutdown_rx.borrow() { return; }
@@ -1241,6 +1287,12 @@ pub fn is_peer_allowed_path(path: &str) -> bool {
)
// Prefix-matched content endpoints (peer file browse + fetch)
|| path.starts_with("/content/")
// Mesh file sharing — blob fetch by CID, signature-gated in the
// handler. Absent from this list it 404'd over FIPS and the feature
// was 100% Tor by construction.
|| path.starts_with("/blob/")
// DWN sync — /dwn/health is step 1 of every sync; same story.
|| path.starts_with("/dwn/")
}
async fn accept_loop(
@@ -1251,22 +1303,70 @@ async fn accept_loop(
mut shutdown_rx: tokio::sync::watch::Receiver<bool>,
local_addr: SocketAddr,
) {
// Consecutive accept-error tracking: a fips0 teardown/re-key leaves the
// peer listener's socket permanently broken — `continue`-ing forever
// made the node inbound-dead over FIPS until process restart. After a
// burst of consecutive errors the peer accept loop returns so its
// caller (peer_late_bind_loop) can rebind on the current ULA.
let mut consecutive_errors: u32 = 0;
loop {
tokio::select! {
result = listener.accept() => {
let (stream, peer_addr) = match result {
Ok(c) => c,
Ok(c) => { consecutive_errors = 0; c }
Err(e) => {
error!("{} accept error: {}", local_addr, e);
consecutive_errors += 1;
if peer_only && consecutive_errors >= 10 {
warn!("{} accept failing persistently — returning for rebind", local_addr);
return;
}
// Don't hot-loop on a dead socket.
tokio::time::sleep(std::time::Duration::from_millis(200)).await;
continue;
}
};
let handler = handler.clone();
let permit = active_connections.clone().acquire_owned().await;
// NEVER park the accept loop on the connection budget.
// `acquire_owned().await` here froze accept() entirely when
// permits drained — and permits drained because half-open
// clients and hung upstreams held them forever (the .228
// session-flapping / CLOSE-WAIT `inode: 0` signature). Shed
// load instead: accept, answer 503, close.
let permit = match active_connections.clone().try_acquire_owned() {
Ok(p) => p,
Err(_) => {
warn!(
"{} connection budget exhausted — shedding {}",
local_addr, peer_addr
);
tokio::spawn(async move {
use tokio::io::AsyncWriteExt;
let mut stream = stream;
let _ = tokio::time::timeout(
std::time::Duration::from_secs(5),
stream.write_all(
b"HTTP/1.1 503 Service Unavailable\r\nConnection: close\r\nContent-Length: 0\r\n\r\n",
),
)
.await;
let _ = stream.shutdown().await;
});
continue;
}
};
tokio::spawn(async move {
let _permit = permit;
// Set when a request carries an Upgrade header (websocket):
// upgraded connections are legitimately long-lived and are
// exempt from the non-upgraded connection deadline below.
let upgraded = Arc::new(std::sync::atomic::AtomicBool::new(false));
let upgraded_flag = upgraded.clone();
let service = service_fn(move |mut req: hyper::Request<hyper::Body>| {
let handler = handler.clone();
if req.headers().contains_key(hyper::header::UPGRADE) {
upgraded_flag.store(true, std::sync::atomic::Ordering::Relaxed);
}
async move {
// Record the TCP peer so rate limiting only trusts
// forwarded headers on loopback (nginx) connections.
@@ -1285,13 +1385,48 @@ async fn accept_loop(
.map_err(|e| std::io::Error::other(format!("{}", e)))
}
});
if let Err(e) = Http::new()
// header_read_timeout: a client that connects and never
// sends a request (slowloris / half-open) is dropped
// instead of holding a permit until the heat death of the
// node. Long RPCs are safe — the clock only covers header
// read.
let conn = Http::new()
.http1_keep_alive(false)
.http1_header_read_timeout(std::time::Duration::from_secs(30))
.serve_connection(stream, service)
.with_upgrades()
.await
{
error!("Error serving connection from {}: {}", peer_addr, e);
.with_upgrades();
tokio::pin!(conn);
// Deadline watchdog for NON-upgraded connections. With
// keep-alive off a plain connection serves one exchange;
// 15 min bounds even the slowest legitimate RPC/stream
// while guaranteeing a hung upstream can't hold a permit
// forever. Upgraded (websocket) connections are exempt.
const NON_UPGRADED_DEADLINE: std::time::Duration =
std::time::Duration::from_secs(900);
let started = std::time::Instant::now();
let watchdog = async {
loop {
tokio::time::sleep(std::time::Duration::from_secs(30)).await;
if !upgraded.load(std::sync::atomic::Ordering::Relaxed)
&& started.elapsed() >= NON_UPGRADED_DEADLINE
{
return;
}
}
};
tokio::select! {
r = &mut conn => {
if let Err(e) = r {
error!("Error serving connection from {}: {}", peer_addr, e);
}
}
_ = watchdog => {
warn!(
"connection from {} exceeded {}s without completing or upgrading — dropping",
peer_addr,
NON_UPGRADED_DEADLINE.as_secs()
);
}
}
});
}
@@ -1944,10 +2079,17 @@ mod merge_tests {
);
assert!(is_peer_allowed_path("/rpc/v1"));
assert!(is_peer_allowed_path("/health"));
// Mesh blob fetch + DWN sync — both were missing from the allowlist,
// which made them deterministically 404 over FIPS and therefore
// 100% Tor by construction.
assert!(is_peer_allowed_path("/blob/abc123"), "blob fetch by CID");
assert!(is_peer_allowed_path("/dwn/health"), "DWN sync step 1");
// Not on the allow-list → rejected (no broad surface over the mesh).
assert!(!is_peer_allowed_path("/contention"), "must not prefix-leak");
assert!(!is_peer_allowed_path("/"));
assert!(!is_peer_allowed_path("/rpc/v2"));
assert!(!is_peer_allowed_path("/blobber"), "must not prefix-leak");
assert!(!is_peer_allowed_path("/dwnx"), "must not prefix-leak");
}
#[test]
+23 -2
View File
@@ -24,17 +24,27 @@ pub struct LanTransport {
our_did: String,
our_pubkey_hex: String,
our_port: u16,
/// This node's FIPS npub, advertised in the mDNS TXT record so
/// co-located peers can form a direct FIPS link (`lan_fips_anchors`)
/// without waiting for federation storage to sync.
our_fips_npub: Option<String>,
daemon: Option<ServiceDaemon>,
available: AtomicBool,
}
impl LanTransport {
/// Create a new LAN transport. Does not start discovery yet.
pub fn new(our_did: &str, our_pubkey_hex: &str, port: u16) -> Self {
pub fn new(
our_did: &str,
our_pubkey_hex: &str,
port: u16,
our_fips_npub: Option<String>,
) -> Self {
Self {
our_did: our_did.to_string(),
our_pubkey_hex: our_pubkey_hex.to_string(),
our_port: port,
our_fips_npub,
daemon: None,
available: AtomicBool::new(false),
}
@@ -47,11 +57,14 @@ impl LanTransport {
// Advertise our service
let hostname = format!("archy-{}.local.", &self.our_pubkey_hex[..8]);
let properties = vec![
let mut properties = vec![
("did".to_string(), self.our_did.clone()),
("pubkey".to_string(), self.our_pubkey_hex.clone()),
("version".to_string(), "0.1.0".to_string()),
];
if let Some(npub) = &self.our_fips_npub {
properties.push(("fips".to_string(), npub.clone()));
}
let service_info = ServiceInfo::new(
SERVICE_TYPE,
@@ -93,6 +106,11 @@ impl LanTransport {
.map(|v| v.val_str().to_string());
let addresses = info.get_addresses();
let fips_npub = info
.get_properties()
.get("fips")
.map(|v| v.val_str().to_string());
if let (Some(did), Some(pubkey)) = (did, pubkey) {
if let Some(scoped_ip) = addresses.iter().next() {
let ip: std::net::IpAddr = match scoped_ip.to_string().parse() {
@@ -106,6 +124,9 @@ impl LanTransport {
.await;
registry_clone.set_lan_address(&did, socket_addr).await;
registry_clone.set_name(&did, info.get_fullname()).await;
if let Some(npub) = fips_npub.as_deref() {
registry_clone.set_fips_npub(&did, npub).await;
}
}
}
}
+1 -1
View File
@@ -106,7 +106,7 @@ pub enum PeerSource {
}
/// Unified peer record with per-transport capabilities.
#[derive(Debug, Clone, Serialize, Deserialize)]
#[derive(Debug, Clone, Default, Serialize, Deserialize)]
pub struct PeerRecord {
pub did: String,
pub pubkey_hex: String,
+300
View File
@@ -0,0 +1,300 @@
# FIPS near-100% uptime + optimistic UI state — implementation plan
**Date:** 2026-07-27. **Status:** researched + root-caused live on the fleet; ready to
implement for the next release. Two workstreams: (A) make node↔node FIPS transport
succeed whenever a FIPS path physically exists, (B) stop the UI reloading everything
on every navigation (optimistic/cached cards, stale-while-revalidate) while keeping
data fresh.
**Honesty note on "100%":** if a node's network blackholes every anchor (the .116
WiFi case, `docs/HANDOFF-2026-07-20-fips-peer-files.md:117-133`), Tor fallback is
*correct*. The achievable target is: **FIPS wins whenever a FIPS path exists, and
fallback frequency is measured in-product so regressions are visible.** Today several
paths are 0% FIPS *by construction* regardless of network health — that's the bug.
---
## Part A — why Cloud/FIPS "commonly falls back to Tor": ranked root causes
All verified live on 2026-07-27 (.116 local, .198, .228, Framework PT, x250s) plus a
full code audit of `core/archipelago/src/{fips,transport,federation,server.rs}`.
### RC0 — 🔥 The hardening firewall drops the peer-API port on every hardened node (PROVEN)
The fips0 default-deny baseline (`/etc/fips/fips.nft`) is opened by archipelago's
drop-in `80-web-ui.nft` (`fips/config.rs:236-255`) for **80 + 8443 + app ports only**.
The peer-API listener — which carries *all* federation sync, cloud browse/download,
mesh envelopes, DWN, invoices — is **`PEER_PORT = 5679`** (`fips/dial.rs:35`).
**5679 is not in the allowlist.** The drop-in's own comment claims "web UI + peer
API" but the peer API port was never added.
Live proof (2026-07-27):
- .116 nft chain: 5,965 dropped packets; .198: **28,670 dropped packets** — that's
peers' FIPS dials dying at the firewall.
- .198 → .116 `GET :5679/health`: **timeout (6s)** before; **HTTP 200 in 0.35s**
after `nft insert rule inet fips inbound iifname fips0 tcp dport 5679 accept`.
Same result in reverse direction (200 in 0.64s).
- Explains the exact fleet split in `federation/nodes.json`: hardened-baseline nodes
(Framework PT, .198, .228, x250-dev, x250-mad2) = `last_transport: tor`;
non-hardened nodes (Austin Sapien, X250-Beta, X250-PA) answer :5679 (404 from the
path allowlist = listener reachable) = `last_transport: fips`.
- Every dial to a hardened peer pays the 8s FIPS connect timeout
(`dial.rs:114`) ×2 (retry, `dial.rs:128-140`) → then Tor. That's the "Cloud takes
forever / shows Tor" experience.
**Fix (one line + reload):** add `tcp dport 5679 accept` to the drop-in in
`fips/config.rs` (use a constant shared with `dial.rs::PEER_PORT`, not a literal).
The drop-in reinstalls on every daemon config install, so it heals fleet-wide on OTA.
⚠️ Transient manual rules were inserted on .116 and .198 during diagnosis (2026-07-27)
— they vanish on the next `nft -f /etc/fips/fips.nft` reload or reboot; the code fix
makes them permanent.
### RC1 — .228 (Shorty's) runs fips 0.3.0-dev; the 0.4.1 fleet can't reach it
.228's daemon: `0.3.0-dev (rev 34e00b9f6e)`, both anchor links "connected", but its
ULA is 100% unreachable from 0.4.1 nodes (ping loss 100%). FIPS wire format is not
stable across revs (`docs/HANDOFF-2026-07-23-companion-apk-deploy.md:78`). Everything
to/from .228 rides Tor no matter what else we fix.
**Fix:** fleet fips-version audit + upgrade to v0.4.1 everywhere (in-product updater
exists: `fips/update.rs`; .deb path per `reference_vps2_fips_anchor`). Add a version
check to `fips.status` and surface a "peer daemon outdated" warning.
### RC2 — Direct LAN/endpoint peering is dead code + wrong port + stale seed anchors
Without direct links, all peer traffic hairpins through the vps2 anchor spanning
tree (observed: .116→.198 cold RTT 1.53.5s on the same LAN; also the wedged-anchor
latency-rot incident, `HANDOFF-2026-07-23:141-160`).
- **G1 — `lan_fips_anchors()` has never run.** It needs `PeerRecord.fips_npub`, but
`PeerRegistry::set_fips_npub` (`transport/mod.rs:302`) has **zero callers** — mDNS
TXT records only carry `did`/`pubkey`/`version` (`transport/lan.rs:50-54`). So the
"co-located peers form a direct link" feature (`anchors.rs:294-305`,
`server.rs:761-766`) is a fleet-wide no-op.
- **G2 — wrong UDP port.** `anchors.rs:293` dials `8668`, but the generated
fips.yaml binds UDP **2121** (`fips/config.rs:187`, `fips/mod.rs:130`). Even if G1
ran, it would dial a dead port. `.116`'s live `seed-anchors.json` still carries
`.198@192.168.1.198:8668` — **stale IP (LAN renumbered to 192.168.63.x) AND dead
port**; both manual entries are useless today.
- No Tailscale/alternate endpoint fallback when LAN is unreachable (the .116↔.198
fix of 2026-07-20 was hand-applied per-node config, never productized).
**Fix:** (a) `FIPS_UDP_PORT``crate::fips::PUBLISHED_UDP_PORT` + drift-guard test;
(b) hydrate `fips_npub` into the registry from federation storage (did-keyed join) so
`lan_fips_anchors` goes live with no wire change; (c) advertise the npub in the mDNS
TXT + `set_fips_npub` on resolve as the proper fix; (d) teach the LAN-anchor tick to
also try a peer's Tailscale/last-known-good endpoint when LAN fails (reviewed change
— this area got handoffs wrong twice, per memory).
### RC3 — No fast-fail on the hottest call sites; retry silently doubles every budget
- `content.browse-peer`**the Cloud page** — has NO `fips_timeout`
(`api/rpc/content.rs:363-366`): a cold FIPS path burns up to ~16.6s (8s connect +
600ms + 8s retry) before Tor even starts, against a UI deadline of 30s
(`Cloud.vue:720`) — and the frontend then retries ×3. Users see errors, not
fallback. 12 call sites total lack `fips_timeout` (browse/download/preview-peer,
`/blob`, DWN, node_message, rotation notifies).
- `dial.rs:128-140` runs 2 full-budget attempts, so `fips_timeout(6s)` really means
~12.6s everywhere.
**Fix:** wrap `send_with_retry` in a single `tokio::time::timeout(fips_attempt_timeout())`
(call sites `dial.rs:455`, `dial.rs:488`; halve per-attempt client timeout), then add
`.fips_timeout(...)`: `content.rs:366` (6s), `content.rs:281` (8s), `content.rs:1139`
(6s), `typed_messages.rs:822` (8s), `dwn_sync.rs:188/213/272` (6s),
`node_message.rs:376` (8s), `node_message.rs:412` (4s), `tor/mod.rs:501` (6s),
`federation/handlers.rs:869` (6s). **Skip the three 900s streaming downloads**
(`content.rs:552/870/1061`, `proxy.rs:236`) — `dial.rs:311-319` documents why; the
retry-budget wrap covers their connect phase.
### RC4 — Two features are 100% Tor by construction (allowlist 404)
The peer listener path allowlist (`server.rs:1219-1239`) omits `/blob/<cid>` (mesh
file sharing, `typed_messages.rs:813-822`) and `/dwn/health` (step 1 of DWN sync,
`dwn_sync.rs:186`) → deterministic 404 over FIPS (`dial.rs:44-46` treats 404 as
fall-back) → deterministic Tor, after paying the full FIPS cost. Both endpoints are
already cryptographically gated, so they meet the allowlist's stated criterion.
**Fix:** add `|| path.starts_with("/blob/") || path.starts_with("/dwn/")`; extend the
existing test block at `server.rs:1935-1945` (assert `/blob/abc` + `/dwn/health`
allowed, `/blobber` + `/dwnx` denied).
### RC5 — Inbound listener can't heal; anchor flap = 5-minute Tor window; probe overhead
- `peer_late_bind_loop` returns after first successful bind (`server.rs:1203`) and
`accept_loop` `continue`s on errors forever (`server.rs:1249-1258`): a fips0
teardown/re-key leaves the node inbound-dead until process restart → **every peer**
falls back to Tor against it.
- Nothing reacts to anchor-link drops: anchors re-apply only on the 300s tick
(`server.rs:731`); worst-case 5min Tor-only after a flap (the historic "link dead
timeout 30s" flapping made this chronic).
- `is_service_active()` spawns up to 2 `systemctl` per FIPS attempt *and* per peer
per 25s warm tick (`dial.rs:284-294`); `warm_path` skips peers without
`fips_npub` in federation storage (`fips/mod.rs:88-95`); `anchors::apply` is
serial with unbounded subprocess waits (`anchors.rs:234-283`).
**Fix:** rebindable listener; a ~25s connectivity watcher (reuse
`service::peer_connectivity_summary`, `fips/service.rs:178-207`) that re-applies
anchors immediately on a connected→disconnected edge with bounded backoff; 10s TTL
cache for `is_service_active` (mirror `transport/fips.rs:24-107`); warm the union of
federation+registry peers; make `apply()` concurrent with per-connect timeouts.
### RC6 — Zero observability: fallbacks are invisible, so "uptime" is unfalsifiable
Fallbacks log at `debug!` only (`dial.rs:458,491`); no counters; `last_transport` is
written by only 7 of ~20 call sites and **never read** to influence anything
(`storage.rs:120-147`). The parallel `TransportRouter` system can't even see FIPS
(`FipsTransport` is never constructed — `server.rs:422-442` registers Tor/Mesh/LAN
only).
**Fix:** per-reason fallback counters (F1 no-npub / F2 service-inactive / F3
DNS-fail / F4 connect-fail / F5 404 / F6 5xx) surfaced in `fips.status` + `info!`
logs with a `reason` field; call `record_peer_transport` from all peer-dial sites;
UI: per-peer transport badge on Cloud (the response already carries `transport`
`content.rs:392-400` — Cloud.vue currently throws it away at `:716-721`).
---
## Part A — execution phases
### Phase A0 — fleet triage (no release needed; do first, validates everything)
1. Fleet audit: `fipsctl --version` + `nft list table inet fips` + `ss -tlnp | grep 5679`
on every node (roster: `reference_test_deploy_roster`).
2. Transient `nft insert rule inet fips inbound iifname fips0 tcp dport 5679 accept`
on hardened nodes (already done on .116 + .198, 2026-07-27) — instant fleet-wide
FIPS recovery while the code fix rides the OTA.
3. Upgrade .228 (and any other 0.3.x) fips daemon to v0.4.1.
4. Regenerate/clean stale `seed-anchors.json` on .116 (dead 192.168.1.x + :8668 entries).
5. Baseline measurement: for each node pair, `content.browse-peer` time + transport.
### Phase A1 — P0 code (one commit, mechanical, offline-testable)
1. **nft drop-in: open 5679**`fips/config.rs` (share the constant with
`dial.rs::PEER_PORT`). ← RC0
2. **Allowlist `/blob/`, `/dwn/`**`server.rs:1219-1239` + tests. ← RC4
3. **`FIPS_UDP_PORT` = `PUBLISHED_UDP_PORT` (2121)** — `anchors.rs:293` + drift-guard
test against `render_config_yaml()`. ← RC2-G2
4. **Un-deaden `lan_fips_anchors`** — hydrate `fips_npub` from federation storage in
`server.rs:761-766`; then mDNS TXT `fips` key + `set_fips_npub`
(`transport/lan.rs:50-54`, `lan.rs:96-108`, `LanTransport::new` 4th arg via
`crate::identity::fips_npub(&data_dir.join("identity"))`). ← RC2-G1
5. **Retry-budget wrap + `fips_timeout` on 12 call sites** (list in RC3). ← RC3
Verify: `cd core && cargo test -p archipelago` — watch `test_rendered_yaml_exact_snapshot`
(`config.rs:419`) + `test_render_is_deterministic` (`config.rs:476`); item 3 must
not change rendered output.
### Phase A2 — telemetry BEFORE tuning (second commit)
6. Fallback counters by reason + `fips.status` exposure + `info!` reason logs;
`record_peer_transport` from all sites. ← RC6 (gives the baseline that makes A3
measurable and "100%" falsifiable)
### Phase A3 — resilience (third commit, measured against A2 baseline)
7. `is_service_active` 10s TTL cache; warm-path union + `warm_path_unchecked`.
8. Link-state watcher → immediate anchor re-apply on drop (replaces waiting for the
300s tick); concurrent `apply()` with subprocess timeouts.
9. Rebindable peer listener (`server.rs:1203`, `1249-1258`).
10. (Reviewed, separate PR) endpoint-fallback for direct peering: LAN → Tailscale →
last-known-good, npub-keyed. Mesh-routing area — needs careful review per memory.
### Phase A4 — verification gate (on nodes, before tag)
- On .116/.198/framework-pt/.228: `content.browse-peer` to every peer must return
`transport: "fips"` with sub-second latency (LAN pairs) / <3s (WAN), 20/20 calls.
- Kill the fips daemon on one node → calls fall back to Tor gracefully within the
fast-fail budget (<8s), UI shows partial results, no errors.
- Restart daemon → FIPS recovers within one watcher tick (~25s), verified in
`fips.status` counters.
- Flap the anchor link (drop vps2 route) → direct LAN pairs keep FIPS via their
direct link (G1 fix proof).
- Add these as `tests/multinode/` cases per `docs/multinode-testing-plan.md`; also
fix the known `node_rpc()` missing `--max-time` (tracker item).
---
## Part B — optimistic loading + state management (frontend)
Full audit: Pinia exists but pages fetch-on-mount with `loading=true` spinners;
`Dashboard.vue:89` keys the router-view by `route.path`, so **every navigation
unmounts and refetches everything**; no KeepAlive/onActivated anywhere; no dedup,
no abort, no SWR layer. Four hand-rolled cache implementations already exist and
prove the pattern (`useFleetData.ts:198-231` sessionStorage hydrate;
`homeStatus.ts` sticky-ready loadState; `Home.vue:591-621` wallet localStorage
snapshot; `curatedApps.ts:21-77` TTL cache). `SkeletonCard.vue` exists, imported by
zero files.
### B1 — one shared primitive: `useCachedResource` composable + `resources` Pinia store
Semantics (generalize `homeStatus.ts` + `useFleetData.ts`):
- Keyed resource: `{ data, loadState: idle|loading|ready|error|refreshing, fetchedAt, error }`.
- **Hydrate synchronously** from memory (Pinia, survives navigation) → sessionStorage
snapshot (survives reload) → then revalidate in background.
- Sticky-ready: once `ready`, never regress to `loading`
(`loadState = loadState==='ready' ? 'ready' : 'loading'` — the `homeStatus.ts:80` idiom);
keep-last-known-value on error with a stale badge (age from `fetchedAt`).
- TTL per resource; `revalidateOnFocus` + on WS push (debounced, the
`Home.vue:539-542` pattern); explicit `invalidate(key)` for mutations.
- Optimistic mutation helper: apply → RPC → rollback on error (generalize
`TransportPrefsCard.vue:112-127`).
### B2 — rpc-client upgrades (`src/api/rpc-client.ts`)
- `AbortSignal` in `RPCOptions` (today the AbortController at `:87` is timeout-only)
→ abort-on-unmount for fan-outs.
- In-flight dedup keyed `method+JSON(params)` — collapses duplicate concurrent calls.
- Per-call `maxRetries` override; set `maxRetries: 1` for `content.browse-peer` /
`preview-peer` (retry×3 on a 30s timeout is why one slow peer = 90s spinner).
### B3 — Cloud page conversion (worst offender, the marquee win)
- Move `sectionCounts`, `peerNodes`, `myFiles`, `peerFiles`, `paidItems` out of
`Cloud.vue` component state (`:403,:476,:582,:689,:427`) into the cached store —
instant render on revisit, background refresh.
- **Incremental per-peer fan-in**: render each peer's card as its
`content.browse-peer` resolves (today `Promise.allSettled` at `:708-747` blocks on
the slowest peer). Per-peer states: cached/fresh/loading/unreachable.
- **Surface `transport` per peer** (already in the response, discarded at `:716-721`):
FIPS/Tor badge + latency — this is also the fleet-wide FIPS-uptime dashboard the
user asked for, for free.
- Skeleton cards (revive `SkeletonCard.vue`, copy `FileGrid.vue:3-19` shimmer) instead
of spinners for counts/folders/peer grids.
- Stop `CloudFolder.vue:307-319` calling `cloudStore.reset()` on every folder entry —
cache per-path listings, navigate renders cache + revalidates.
- `PeerFiles.vue`: persist catalog + preview cache in the store; cap the
`preview-peer` fan-out (`:832-841`, currently unbounded) with a small concurrency
queue + abort-on-unmount.
### B4 — roll out to remaining offenders (in audit order)
PeerFiles → Web5 wallet/ecash/LND slices → Monitoring → Lightning channels
(`LightningChannelsPanel.vue:650`) → Federation (already has `{showLoader:false}`
just adopt the store) → Server → Credentials/OpenWrtGateway/ContainerApps.
`Apps.vue`/`Marketplace.vue`/`Fleet.vue` are already good; don't touch.
### B5 — freshness via the existing push channel
`/ws/db` firehose + `sync.ts` JSON-patch already exist. Wire `useCachedResource`
revalidation to relevant WS pushes (debounced 800ms), keep the 30s staleness
reconciliation as backstop. No new backend needed for v1; a per-topic subscribe can
come later.
### Part B verification (on nodes)
- Navigate Cloud → Apps → Cloud: peer files render instantly from cache (0 spinner),
refresh indicator while revalidating, updated data lands without layout jump.
- One unreachable peer: its card shows stale/unreachable state; other peers render
immediately (no 30s all-or-nothing).
- Kill backend mid-view: stale data stays visible with age badge; recovery
revalidates automatically.
- Hard reload: sessionStorage hydrate paints before first RPC completes.
---
## Sequencing for the next release
1. **A0 now** (fleet triage + transient nft rules + .228 daemon upgrade + baseline).
2. **A1 + A2** land together (P0 fixes + telemetry) → deploy to .116/.198 →
Phase A4 checks on the pair → framework-pt → full fleet.
3. **B1 + B2 + B3** (composable + rpc-client + Cloud) in parallel with A-testing —
frontend-only, verifiable against .116 dev (`reference_neode_ui_dev_testing`).
4. **A3** after telemetry baseline exists; **B4/B5** ride the same or next OTA.
5. Gate: Phase A4 checklist green + Part B verification on-device + existing
single-node gate stays green → tag/OTA per ship ritual.
## Success criteria
- `content.browse-peer` transport = fips for ≥99% of calls between healthy 0.4.1
nodes over 24h (measured by the new counters), Tor reserved for genuinely
FIPS-unreachable peers (.116-WiFi-class networks).
- Cloud revisit paints in <100ms from cache; fresh data within one revalidate.
- Fallback counters visible in `fips.status` so regressions are caught on the
dashboard, not by users.
+27
View File
@@ -12,6 +12,33 @@ Full plan: `.claude/plans/enchanted-strolling-rocket.md`. Memory pointer:
avoiding `mesh/listener/session.rs` transport plumbing + `mesh/mod.rs` routing, which this work
owns. Stay out of `meshtastic.rs`/`protocol.rs` to avoid collisions.
## Checkpoint 2026-07-28 — RNode connect + names FIXED, live-verified E2E (read this first)
The fleet reflash back to RNode firmware exposed a stack of bugs that made Reticulum
unusable on CP2102-bridged boards (Heltec V3 etc.) and left every archy node nameless on
RNS. All fixed in `a8c4694c` (backend) + `3f76b496` (UI), live-verified on archi-dev-box
and archy-x250-dev with a real RNode-to-RNode LXMF message (`transport: "reticulum"` in
mesh-messages) plus a cross-transport reply:
1. **probe_rnode boot race** — serial open pulses DTR/RTS via the USB-UART bridge → ESP32
power-cycles → KISS DETECT written 300ms later is eaten during ~2.5-3s of boot. Fix:
immediate probe (fast path) + drain-until-quiet boot settle + second DETECT window.
2. **configure() was a no-op on a running listener** (only enable/disable restarted it) —
the setup modal's apply/keep-as-is and every rename did nothing until process restart.
3. **Name propagation**`config.advert_name` had no reader; `server.set-name` never
reached mesh; daemon display name fixed at spawn to the "Archy" default; the ARCHY:2
announce blob REPLACED the LXMF name. Now: announces carry msgpack
`[name, stamp_cost, sf, ARCHY-blob]` (Sideband-compatible, blob invisible to stock
clients), daemon has a `set_name` verb, renames bounce the session live.
4. **Daemon-death detection** (was invisible up to the 30-min RX-stall watchdog),
**modal re-trigger loop** (plugged_at used tty mtime → bumps on every open; now
btime/ctime), **ARCHY:2 federation-name clobber**, **mesh.refresh RPC** (Refresh button
now actually re-queries the radio), **Meshtastic mesh.broadcast now sends NodeInfo**.
Still open here: legacy-format peers (old fleet builds) show as `Reticulum <hex4>` until
they OTA; RNode RF params still daemon-hardcoded (EU-868 869.525/125k/SF8/CR5); Phase 4
multi-radio; duty-cycle guard.
## Status at a glance
| Phase | What | Status |
+55
View File
@@ -110,6 +110,61 @@ lands].
2. ❑ Mobile Home: wallet card directly under My Apps (G5 from the voice epic).
3. ❑ Mesh RF settings panel (Mesh → Device) still loads and saves.
## H. LoRa radio firmware flashing (Heltec V3/V4, new — extends Section E)
Full v1 scope is 3 firmware families × 2 boards (6 cells); mark each cell
tested on real hardware vs. code-reviewed only as this is run.
1. ❑ From the hot-swap modal's step 1 (device already probed), press
**Flash Firmware…** → new step shows firmware-family + board pickers and
the erase-confirmation checkbox; "Erase & Flash Now" stays disabled until
family, board, AND the checkbox are all set.
2. ❑ Confirm what's currently on the test stick via the existing probe
BEFORE flashing it — don't flash the only known-good device without a
fallback board on hand.
3. ❑ Prefer a spare Heltec V3/V4 for the first destructive erase+flash run;
only exercise a primary/in-use stick once the flow is proven safe.
4. ❑ MeshCore → Heltec V3: erase + write completes, progress bar and log
tail update live, ends at "Flash complete".
5. ❑ Meshtastic → Heltec V3: same, using the extracted `*.factory.bin` from
the esp32s3 release zip.
6. ❑ Reticulum/RNode → Heltec V3: `archy-rnodeconf --autoinstall` path
completes (no raw esptool erase/write step for this family — see
`mesh/flash.rs` doc comment).
7. ❑ Repeat 4-6 against a Heltec V4. Confirmed 2026-07-23 on real hardware:
V4 uses the ESP32-S3's native-USB JTAG/serial peripheral (vid:pid
303a:1001, generic to every native-USB ESP32-S3 board, not V4-specific)
— so unlike V3's CP2102 bridge chip, V4 is permanently NOT auto-matchable
by vid:pid. Board auto-detect should fail closed for it every time
(manual board selection required, "couldn't confirm automatically"
warning shown) — this is expected steady-state behavior, not a gap to
close later.
8. ❑ After a successful flash, the modal automatically re-probes and shows
the NEW firmware's badge/details — same as unplugging and replugging
(Section E item 3), but without physically touching the cable.
9. ❑ Deliberately test a failure path once (disconnect the board mid-write,
or point at a bad cached asset) — confirm the error surfaces in the
progress log AND that `docs/troubleshooting.md`'s "LoRa radio firmware
flash failed" recovery steps (BOOT+RST bootloader entry, manual esptool/
rnodeconf command) actually get the board back to a flashable state.
10. ❑ Cancel button only appears (and only works) while still in the
"Downloading firmware…" stage — once erasing/writing starts, no cancel
affordance is offered.
11. ❑ **Boot-loop regression (2026-07-23 incident)**: after a *failed* flash
(e.g. kill network access mid-download to force a failure), confirm the
mesh listener does NOT auto-resume — `journalctl -u archipelago` should
show a single `Leaving mesh listener stopped after failed flash` line
and then go quiet for that device, not a repeating `mesh::serial:
Opened serial port... Starting Meshcore handshake` cycle every few
seconds. Reconnect manually via the hot-swap modal afterward and confirm
it connects normally (the board itself should be untouched — the
download fails before esptool/rnodeconf ever runs).
12. ❑ Separately, force a device to flap connected/disconnected a few times
in under 20s each (e.g. a marginal USB connection) and confirm
`reconnect_delay` in the logs actually escalates (5s → 10s → 20s → ...)
rather than resetting to 5s on every attempt — see
`STABLE_SESSION_THRESHOLD` in `mesh/listener/mod.rs`.
---
After this passes: fold the batch + other agent's work into the next release
+80
View File
@@ -443,6 +443,86 @@ free -h
- Check Nginx WebSocket proxy config: `/etc/nginx/sites-available/archipelago` must include `proxy_set_header Upgrade $http_upgrade`
- If on WiFi, try wired Ethernet for more stable connectivity
### 21. LoRa radio firmware flash failed / board unresponsive
**Symptoms**: The "Erase & Flash Now" flow in the mesh hot-swap modal reports
an error, or the radio no longer enumerates as a serial device after a flash
attempt.
**Diagnosis**:
```bash
# Poll the flash job's last-known stage/error directly
curl -s http://localhost:5678/rpc/v1 \
-H 'Content-Type: application/json' \
-d '{"method":"mesh.flash-status","params":{}}'
# Confirm the board is still enumerating at all
ls -la /dev/ttyUSB* /dev/ttyACM* /dev/mesh-radio 2>&1
# esptool/rnodeconf binaries present?
which esptool; ls -la /usr/local/bin/archy-rnodeconf
```
**Solutions**:
- A failure during `erasing`/`writing` (MeshCore/Meshtastic) or
`autoinstalling` (Reticulum) can leave the chip erased or half-written —
this is expected risk of the "always erase first" default, not a bug.
- Heltec V3/V4 boards can be forced back into bootloader mode manually: hold
**BOOT**, tap **RST**, then release **BOOT** — this puts the chip in a
state esptool can always talk to, regardless of what firmware (if any) is
currently on it.
- With the board in bootloader mode, a manual recovery flash can be run
directly over SSH without the UI:
```bash
esptool --chip esp32s3 --port /dev/ttyACM0 erase_flash
esptool --chip esp32s3 --port /dev/ttyACM0 write_flash 0x0 <known-good-image.bin>
```
- For Reticulum/RNode boards, the equivalent manual recovery is
`archy-rnodeconf /dev/ttyACM0 --autoinstall` (or `/usr/local/bin/archy-rnodeconf`
if it's not on `PATH`) — it re-runs the same fetch+erase+flash+bootstrap
sequence the UI triggers.
- If `esptool`/`archy-rnodeconf` are missing entirely, they should have been
installed by the last `self-update.sh` run — check
`sudo journalctl -u archipelago-update` for install failures, or install
`esptool` via `sudo apt-get install esptool` directly.
- Once a fresh image is confirmed written, unplug/replug the radio (or wait
for the next detection poll) — the hot-swap modal re-probes automatically
and shows whatever firmware is actually on the board now.
**Known incident (2026-07-23) — reconnect storm / device boot-loop after a
failed flash**: a real Heltec V3 got stuck cycling "connect → partial
handshake → drop" every 5-15s for 5+ minutes after a `mesh.flash-device`
attempt failed with `Reading firmware download stream`. Root cause was two
compounding issues, both now fixed:
1. `spawn_mesh_listener`'s reconnect backoff (`core/archipelago/src/mesh/listener/mod.rs`)
reset to its 5s minimum any time the prior session had been `device_connected`
at all, even for under a second — so a device that connects-then-drops
repeatedly never actually backed off. Every retry's `open()` toggles
DTR/RTS, which resets many ESP32 boards' MCU (native-USB *and*
CP2102/CH340 auto-reset-circuit boards), so the aggressive retries were
themselves *causing* the boot loop, not just observing one. Fixed by only
resetting backoff when a session ran for at least `STABLE_SESSION_THRESHOLD`
(20s) — see that constant's doc comment.
2. `mesh::flash::start_flash_job`'s post-completion handler auto-resumed the
listener unconditionally, even after a *failed* flash, immediately
re-entering the reconnect loop above with no cooldown. Fixed: on failure
the listener is now deliberately left stopped (reconnect manually via the
UI once the board is confirmed alive); on success there's a 5s settle
delay before resuming, so the board finishes booting from the flash
tool's own reset before Archipelago starts probing it again.
3. Separately, the download itself was failing because `mesh::flash`'s HTTP
client had a blanket 30s request timeout that covered the *entire*
download (including streaming a 170MB Meshtastic zip), not just
connection setup — fixed with a per-chunk stall timeout instead of a
fixed total-transfer cap.
If this symptom recurs (rapid repeating `mesh::serial: Opened serial
port... Starting Meshcore handshake` lines in `journalctl -u archipelago`
without a `LoRa firmware flash` job in progress), it's a NEW instance of the
same class of bug, not the one above — check whether backoff is actually
escalating (`Mesh session error: ... (retry in Xs)` — X should grow past 5s
within a few cycles) before assuming it's flashing-related.
---
## General Maintenance
@@ -365,6 +365,11 @@ RUN apt-get update && apt-get -y full-upgrade && apt-get install -y --no-install
ca-certificates \
openssl \
chrony \
iputils-ping \
esptool \
python3-venv \
binutils \
libpython3.13 \
locales \
console-setup \
keyboard-configuration \
+2 -2
View File
@@ -1,12 +1,12 @@
{
"name": "neode-ui",
"version": "1.7.115-alpha",
"version": "1.7.117-alpha",
"lockfileVersion": 3,
"requires": true,
"packages": {
"": {
"name": "neode-ui",
"version": "1.7.115-alpha",
"version": "1.7.117-alpha",
"dependencies": {
"@scure/bip39": "^2.2.0",
"@types/dompurify": "^3.0.5",
+1 -1
View File
@@ -1,7 +1,7 @@
{
"name": "neode-ui",
"private": true,
"version": "1.7.116-alpha",
"version": "1.7.117-alpha",
"type": "module",
"scripts": {
"start": "./start-dev.sh",
+33 -2
View File
@@ -4,6 +4,16 @@ export interface RPCOptions {
method: string
params?: Record<string, unknown>
timeout?: number
/** Abort the call (and any pending retries) from the outside pass a
* component-scoped controller's signal so fan-outs stop on unmount. */
signal?: AbortSignal
/** Per-call retry budget (default 3). Use 1 for calls whose caller has its
* own timeout/fallback UX retry×3 on a slow peer is how one unreachable
* node turns a 30s timeout into a 90s spinner. */
maxRetries?: number
/** Collapse concurrent identical calls (same method + params) into one
* request. Opt-in: only safe for reads. */
dedup?: boolean
}
export interface RPCResponse<T> {
@@ -74,18 +84,35 @@ function getCsrfToken(): string | null {
class RPCClient {
private static _sessionExpiredRedirecting = false
private baseUrl: string
/** In-flight dedup map for `dedup: true` calls, keyed method+params. */
private inflight = new Map<string, Promise<unknown>>()
constructor(baseUrl: string = '/rpc/v1') {
this.baseUrl = baseUrl
}
async call<T>(options: RPCOptions): Promise<T> {
const { method, params = {}, timeout = 15000 } = options
const maxRetries = 3
if (options.dedup) {
const key = `${options.method}:${JSON.stringify(options.params ?? {})}`
const existing = this.inflight.get(key)
if (existing) return existing as Promise<T>
const p = this.callInner<T>(options).finally(() => this.inflight.delete(key))
this.inflight.set(key, p)
return p
}
return this.callInner<T>(options)
}
private async callInner<T>(options: RPCOptions): Promise<T> {
const { method, params = {}, timeout = 15000, signal: external } = options
const maxRetries = Math.max(1, options.maxRetries ?? 3)
for (let attempt = 0; attempt < maxRetries; attempt++) {
if (external?.aborted) throw new Error('Aborted')
const controller = new AbortController()
const timeoutId = setTimeout(() => controller.abort(), timeout)
const onExternalAbort = () => controller.abort()
external?.addEventListener('abort', onExternalAbort, { once: true })
try {
const headers: Record<string, string> = {
@@ -105,6 +132,7 @@ class RPCClient {
})
clearTimeout(timeoutId)
external?.removeEventListener('abort', onExternalAbort)
if (!response.ok) {
// Session expired — debounced redirect to login
@@ -167,8 +195,11 @@ class RPCClient {
return data.result as T
} catch (error) {
clearTimeout(timeoutId)
external?.removeEventListener('abort', onExternalAbort)
if (error instanceof Error) {
if (error.name === 'AbortError') {
// Caller-initiated abort is final — never retried.
if (external?.aborted) throw new Error('Aborted')
const timeoutErr = new Error('Request timeout')
if (attempt < maxRetries - 1) {
const delay = 600 * (attempt + 1)
@@ -377,8 +377,9 @@
</template>
<script setup lang="ts">
import { ref, computed, onMounted } from 'vue'
import { ref, computed } from 'vue'
import { rpcClient } from '@/api/rpc-client'
import { useCachedResource } from '@/composables/useCachedResource'
import { useTxExplorer } from '@/composables/useTxExplorer'
defineProps<{ compact?: boolean }>()
@@ -462,11 +463,41 @@ const feePresets: { key: FeePreset; label: string; hint?: string; confTarget?: n
{ key: 'custom', label: 'Custom' },
]
const loading = ref(true)
const error = ref<string | null>(null)
const channels = ref<Channel[]>([])
const closedChannels = ref<ClosedChannel[]>([])
const summary = ref({ total_inbound: 0, total_outbound: 0 })
// Cached: revisits paint the channel lists instantly and revalidate behind
// them. Open and closed history are separate entries so a closed-history
// failure keeps its last list without touching the main channel view.
interface ChannelsData { channels: Channel[]; total_inbound: number; total_outbound: number }
const channelsRes = useCachedResource<ChannelsData>({
key: 'lnd.channels',
fetcher: async (signal) => {
const result = await rpcClient.call<ChannelsData>({
method: 'lnd.listchannels', timeout: 15000, signal, dedup: true, maxRetries: 1,
})
return {
channels: result?.channels || [],
total_inbound: result?.total_inbound || 0,
total_outbound: result?.total_outbound || 0,
}
},
})
const closedRes = useCachedResource<ClosedChannel[]>({
key: 'lnd.closed-channels',
fetcher: async (signal) => {
const closed = await rpcClient.call<{ channels: ClosedChannel[] }>({
method: 'lnd.closedchannels', timeout: 15000, signal, dedup: true, maxRetries: 1,
})
return closed?.channels || []
},
})
const loading = computed(() =>
channelsRes.loadState.value === 'loading' || channelsRes.loadState.value === 'refreshing')
const error = computed(() => channelsRes.error.value)
const channels = computed(() => channelsRes.data.value?.channels ?? [])
const closedChannels = computed(() => closedRes.data.value ?? [])
const summary = computed(() => ({
total_inbound: channelsRes.data.value?.total_inbound ?? 0,
total_outbound: channelsRes.data.value?.total_outbound ?? 0,
}))
// Olympus by ZEUS the LSP node behind the Zeus mobile wallet.
// Channel limits: min 150,000 / max 1,500,000 sats.
@@ -538,37 +569,10 @@ function capacityPercent(amount: number, capacity: number): number {
return Math.round((amount / capacity) * 100)
}
async function loadChannels() {
const hadChannels = channels.value.length > 0
loading.value = true
error.value = null
try {
const result = await rpcClient.call<{ channels: Channel[]; total_inbound: number; total_outbound: number }>({
method: 'lnd.listchannels',
timeout: 15000,
})
channels.value = result.channels || []
summary.value = {
total_inbound: result.total_inbound || 0,
total_outbound: result.total_outbound || 0,
}
// Closed history is a separate RPC a failure here keeps the previous
// list rather than blanking the main channel view.
try {
const closed = await rpcClient.call<{ channels: ClosedChannel[] }>({
method: 'lnd.closedchannels',
timeout: 15000,
})
closedChannels.value = closed.channels || []
} catch {
/* keep previous closed list */
}
} catch (err: unknown) {
error.value = err instanceof Error ? err.message : 'Failed to load channels'
if (!hadChannels) channels.value = []
} finally {
loading.value = false
}
function loadChannels(): Promise<void> {
const main = channelsRes.refresh()
void closedRes.refresh()
return main
}
function feeParams(): { target_conf?: number; sat_per_vbyte?: number } | null {
@@ -647,7 +651,5 @@ async function closeChannel() {
}
}
onMounted(loadChannels)
defineExpose({ channels, loadChannels })
</script>
+10 -3
View File
@@ -3,8 +3,10 @@
syncViewportHeightVar in main.ts) so the tx list doesn't fill the screen. -->
<BaseModal :show="show" :title="t('transactions.title')" max-width="max-w-2xl" content-class="max-h-[calc(var(--visual-viewport-height,100dvh)*0.6)] md:max-h-[90vh] flex flex-col" @close="close">
<!-- Rail filter: instant ecash micro-payments pile up fast and bury
on-chain/Lightning rows; chips keep the standard txs reachable. -->
<div v-if="transactions.length > 0" class="flex gap-1.5 mb-3 shrink-0 flex-wrap">
on-chain/Lightning rows; chips keep the standard txs reachable.
Sticky inside the modal's scroll region so the tabs stay pinned
while rows blur past underneath. -->
<div v-if="transactions.length > 0" class="sticky top-0 z-10 -mx-2 px-2 pb-2 mb-1 flex gap-1.5 flex-wrap bg-black/70 backdrop-blur-md">
<button
v-for="f in filters"
:key="f.key"
@@ -26,7 +28,12 @@
<p class="text-white/40 text-sm">No {{ activeFilter }} transactions</p>
</div>
<div v-else class="flex-1 overflow-y-auto -mx-2 px-2 divide-y divide-white/5">
<!-- Must NOT be its own scroll container: BaseModal's slot wrapper is the
scroller, and modal-scroll-locked gives every .overflow-y-auto inside
the overlay overscroll-behavior:contain a nested scroller with no
overflow then swallows touch scrolling entirely (phones only; wheel
latches onto the scrollable ancestor and never sees the bug). -->
<div v-else class="-mx-2 px-2 divide-y divide-white/5">
<div
v-for="tx in filteredTransactions"
:key="(tx.kind || 'onchain') + tx.tx_hash + tx.time_stamp"
@@ -1,7 +1,7 @@
<template>
<BaseModal
:show="show"
:title="step === 1 ? 'Mesh Radio Detected' : 'Apply Archipelago Settings'"
:title="step === 1 ? 'Mesh Radio Detected' : step === 2 ? 'Set Recommended' : 'Flash Firmware'"
max-width="max-w-lg"
content-class="max-h-[90vh] overflow-y-auto"
@close="dismiss"
@@ -35,9 +35,17 @@
<!-- What's currently flashed / configured on it -->
<div class="mt-4 text-left rounded-xl bg-white/[0.05] border border-white/10 p-3">
<div v-if="probing" class="flex items-center gap-2 text-white/60 text-sm py-1">
<span class="inline-block w-3.5 h-3.5 rounded-full border-2 border-orange-300/70 border-t-transparent animate-spin"></span>
Reading what's on the radio
<div v-if="probing" class="py-1">
<div class="flex items-center justify-between text-white/60 text-sm mb-1.5">
<span>{{ probeStage }}</span>
<span class="text-white/40 text-xs tabular-nums">{{ Math.round(probeProgress) }}%</span>
</div>
<div class="h-1.5 rounded-full bg-white/10 overflow-hidden">
<div
class="h-full rounded-full bg-orange-400/80 transition-[width] duration-500 ease-linear"
:style="{ width: probeProgress + '%' }"
></div>
</div>
</div>
<template v-else-if="probe">
<div class="flex items-center gap-2">
@@ -94,21 +102,123 @@
:disabled="!!connecting"
@click="step = 2"
>
Set Up with Archipelago Settings
Set Recommended
</button>
</div>
<p class="text-white/40 text-[11px] mt-3">
"Keep As Is" uses the radio exactly as it is nothing on it is changed,
and you can hot-swap radios any time.
</p>
<button
class="w-full text-center text-white/40 hover:text-white/70 text-[11px] mt-3 underline underline-offset-2"
:disabled="!!connecting"
@click="openFlashStep"
>
Flash Firmware
</button>
<p v-if="error" class="text-xs text-red-400 mt-2">{{ error }}</p>
</div>
<!-- Step 3: erase + reflash destructive, opt-in only -->
<div v-else-if="step === 'flash'">
<!-- Once a job exists (started via startFlash), ALWAYS show the
progress/result view below including on failure. The old
condition (`!active && stage !== 'done'`) was also true for a
FAILED job (active:false, stage:'failed'), which silently sent
the user back to this picker instead of showing the error. -->
<template v-if="!flashJob">
<p class="text-white/60 text-xs mb-3">
Downloads the latest firmware from upstream and writes it to
<span class="font-mono text-orange-300">{{ devicePath }}</span>.
</p>
<div class="space-y-4">
<div>
<label class="block text-sm text-white/80 mb-1">Firmware family</label>
<select v-model="flashFamily" class="w-full rounded-lg bg-white/[0.06] border border-white/10 text-white px-3 py-2 text-sm focus:outline-none focus:border-orange-400/60">
<option value="">Choose</option>
<option value="meshcore">MeshCore</option>
<option value="meshtastic">Meshtastic</option>
<option value="reticulum">Reticulum RNode</option>
</select>
</div>
<div>
<label class="block text-sm text-white/80 mb-1">Board</label>
<select v-model="flashBoard" class="w-full rounded-lg bg-white/[0.06] border border-white/10 text-white px-3 py-2 text-sm focus:outline-none focus:border-orange-400/60">
<option value="">Choose</option>
<option value="heltec-v3">Heltec LoRa 32 V3</option>
<option value="heltec-v4">Heltec LoRa 32 V4</option>
</select>
<p v-if="!boardAutoDetected" class="text-[11px] text-amber-400/80 mt-1">
Couldn't confirm the board automatically double check before flashing.
Flashing the wrong board's image can brick it.
</p>
</div>
</div>
<div class="rounded-xl bg-red-500/10 border border-red-500/30 p-3 mt-4">
<label class="flex items-start gap-2 text-xs text-red-300">
<input type="checkbox" v-model="flashConfirmed" class="mt-0.5" />
<span>
This <strong>erases the entire chip</strong>, including any existing
keys, identity, and contacts. This cannot be undone.
</span>
</label>
</div>
<p v-if="error" class="text-xs text-red-400 mt-3">{{ error }}</p>
<div class="flex gap-2 mt-6">
<button class="glass-button px-4 py-2 rounded-lg text-sm" @click="step = 1">Back</button>
<button
class="flex-1 glass-button px-4 py-2 rounded-lg text-sm font-medium bg-red-500/80 hover:bg-red-500 text-white disabled:opacity-50"
:disabled="!flashFamily || !flashBoard || !flashConfirmed || starting"
@click="startFlash"
>
{{ starting ? 'Starting…' : 'Erase & Flash Now' }}
</button>
</div>
</template>
<!-- Progress -->
<template v-else>
<div class="text-center py-2">
<p class="text-white text-sm font-medium">{{ flashStageLabel }}</p>
<div class="mt-3 h-2 rounded-full bg-white/10 overflow-hidden">
<div
class="h-full bg-orange-400 transition-all"
:style="{ width: (flashJob?.percent ?? (flashJob?.stage === 'done' ? 100 : 8)) + '%' }"
></div>
</div>
<p v-if="flashJob?.error" class="text-xs text-red-400 mt-3">{{ flashJob.error }}</p>
</div>
<div class="mt-3 rounded-xl bg-black/30 border border-white/10 p-2 h-32 overflow-y-auto font-mono text-[10px] text-white/50 leading-relaxed">
<div v-for="(line, i) in (flashJob?.log_tail ?? []).slice(-40)" :key="i">{{ line }}</div>
</div>
<div class="flex gap-2 mt-4">
<button
v-if="flashJob?.stage === 'downloading' && flashJob?.active"
class="glass-button px-4 py-2 rounded-lg text-sm"
@click="cancelFlash"
>
Cancel
</button>
<button
v-if="!flashJob?.active"
class="flex-1 glass-button glass-button-warning px-4 py-2 rounded-lg text-sm font-medium"
@click="closeFlashStep"
>
Done
</button>
</div>
</template>
</div>
<!-- Step 2: our latest parameters, shown before anything is written -->
<div v-else>
<p class="text-white/60 text-xs mb-3">
These are the latest Archipelago settings nothing is written to the
radio until you confirm.
These are the recommended Archipelago settings nothing is written to
the radio until you confirm.
</p>
<!-- Summary of what will be applied -->
@@ -190,7 +300,7 @@
import { ref, computed, watch } from 'vue'
import { useRouter } from 'vue-router'
import BaseModal from '@/components/BaseModal.vue'
import { useMeshStore, type MeshDeviceProbe, type MeshConfigureParams } from '@/stores/mesh'
import { useMeshStore, type MeshDeviceProbe, type MeshConfigureParams, type FlashFirmwareFamily, type FlashBoard, type FlashJobStatus } from '@/stores/mesh'
import { useAppStore } from '@/stores/app'
import { LORA_REGIONS, regionByCode, suggestRegionFromLatLon, meshcorePlanFor } from '@/utils/loraRegions'
import { resolveMeshDeviceImage } from '@/utils/meshDeviceImages'
@@ -199,14 +309,38 @@ const mesh = useMeshStore()
const appStore = useAppStore()
const router = useRouter()
const step = ref<1 | 2>(1)
const step = ref<1 | 2 | 'flash'>(1)
const connecting = ref<false | 'keep' | 'setup'>(false)
const error = ref('')
const probing = ref(false)
const probe = ref<MeshDeviceProbe | null>(null)
const probeError = ref('')
const devicePath = computed(() => mesh.undismissedDetectedDevices[0] ?? '')
// Time-driven probe progress: the probe RPC is a single opaque call that can
// take ~5-30s (boot settle + up to three firmware handshakes), so the bar
// advances on a clock toward 92% and snaps to 100% when the result lands.
const probeProgress = ref(0)
const probeStage = ref('Waiting for the radio to boot…')
let probeTicker: ReturnType<typeof setInterval> | null = null
function startProbeProgress() {
stopProbeProgress()
probeProgress.value = 0
probeStage.value = 'Waiting for the radio to boot…'
const startedAt = Date.now()
probeTicker = setInterval(() => {
const elapsed = (Date.now() - startedAt) / 1000
// ~92% at 30s, decelerating never looks stuck, never lies "done".
probeProgress.value = Math.min(92, 100 * (1 - Math.exp(-elapsed / 11)))
if (elapsed >= 4) probeStage.value = 'Detecting firmware…'
if (elapsed >= 18) probeStage.value = 'Still checking (radios can be slow to answer)…'
}, 400)
}
function stopProbeProgress(done = false) {
if (probeTicker) { clearInterval(probeTicker); probeTicker = null }
if (done) probeProgress.value = 100
}
const devicePath = computed(() => mesh.flashFlowPath ?? mesh.undismissedDetectedDevices[0] ?? '')
const show = computed(() => !!devicePath.value)
const imageFailed = ref(false)
const deviceImage = computed(() =>
@@ -264,7 +398,27 @@ const rfPreset = computed(() => {
// (Re)probe + (re)apply presets each time a new device surfaces the modal
watch([show, devicePath], async ([visible]) => {
if (!visible) return
if (!visible) {
stopFlashPoll()
return
}
if (mesh.flashFlowPath) {
// Manual "Flash LoRa" entry: jump straight to the flash step. Skip the
// read-only probe the port is usually the live session's, and a second
// opener on the tty corrupts the running connection; status already
// knows the firmware kind for the connected radio.
probe.value = null
probeError.value = ''
probing.value = false
stopProbeProgress()
imageFailed.value = false
openFlashStep()
const t = (mesh.status?.device_type ?? '').toLowerCase()
if (t === 'meshcore' || t === 'meshtastic' || t === 'reticulum') {
flashFamily.value = t as FlashFirmwareFamily
}
return
}
step.value = 1
error.value = ''
imageFailed.value = false
@@ -275,6 +429,7 @@ watch([show, devicePath], async ([visible]) => {
probe.value = null
probeError.value = ''
probing.value = true
startProbeProgress()
const path = devicePath.value
try {
const res = await mesh.probeDevice(path)
@@ -284,11 +439,16 @@ watch([show, devicePath], async ([visible]) => {
probeError.value = e instanceof Error ? e.message : String(e)
}
} finally {
stopProbeProgress(true)
if (devicePath.value === path) probing.value = false
}
}, { immediate: false })
function dismiss() {
if (mesh.flashFlowPath) {
mesh.closeFlashFlow()
return
}
if (devicePath.value) mesh.dismissDetectedDevice(devicePath.value)
}
@@ -349,6 +509,123 @@ async function applySetup() {
connecting.value = false
}
}
// Step 3: erase + reflash
const flashFamily = ref<FlashFirmwareFamily | ''>('')
const flashBoard = ref<FlashBoard | ''>('')
const flashConfirmed = ref(false)
const starting = ref(false)
const flashJob = ref<FlashJobStatus | null>(null)
let flashPollTimer: ReturnType<typeof setInterval> | null = null
const detectedInfo = computed(() =>
mesh.status?.detected_device_info?.find(d => d.path === devicePath.value)
)
// Mirrors mesh::flash::resolve_flash_board (core/archipelago/src/mesh/flash.rs)
// exactly matching on the display label was wrong: a Heltec V3's CP2102
// bridge chip reports "CP2102 USB to UART Bridge Controller" in its USB
// strings, not "Heltec", so meshDeviceImages.ts falls back to a generic
// "LoRa radio (CP2102 serial)" label that never matched /v3/i, showing the
// "couldn't confirm automatically" warning even though the backend CAN
// safely auto-detect V3 via vid:pid. Heltec V4 deliberately has no entry
// here, same reasoning as the backend: its vid:pid (303a:1001) is the
// ESP32-S3's generic native-USB descriptor, not V4-specific, so it can't be
// safely auto-matched and always requires manual selection.
const resolvedFlashBoard = computed<FlashBoard | ''>(() => {
const info = detectedInfo.value
if (info?.vid?.toLowerCase() === '10c4' && info?.pid?.toLowerCase() === 'ea60') return 'heltec-v3'
return ''
})
const boardAutoDetected = computed(() => !!resolvedFlashBoard.value)
const flashStageLabel = computed(() => {
switch (flashJob.value?.stage) {
case 'downloading': return 'Downloading firmware…'
case 'erasing': return 'Erasing chip…'
case 'writing': return 'Writing firmware…'
case 'autoinstalling': return 'Installing (rnodeconf)…'
case 'done': return 'Flash complete'
case 'failed': return 'Flash failed'
default: return ''
}
})
function openFlashStep() {
flashFamily.value = (probe.value?.kind as FlashFirmwareFamily) ?? ''
flashBoard.value = resolvedFlashBoard.value
flashConfirmed.value = false
flashJob.value = null
error.value = ''
step.value = 'flash'
}
function stopFlashPoll() {
if (flashPollTimer) {
clearInterval(flashPollTimer)
flashPollTimer = null
}
}
async function pollFlashStatus() {
try {
const status = await mesh.flashStatus()
flashJob.value = status
if (!status.active) {
stopFlashPoll()
if (status.done && !status.error) {
// Mirrors the unplug/replug hot-swap flow: re-probe so the details
// card reflects whatever firmware is actually on the board now.
const path = devicePath.value
probing.value = true
try {
probe.value = await mesh.probeDevice(path)
} catch {
probe.value = null
} finally {
probing.value = false
}
}
}
} catch {
stopFlashPoll()
}
}
async function startFlash() {
if (!flashFamily.value || !flashBoard.value || !flashConfirmed.value) return
starting.value = true
error.value = ''
try {
await mesh.flashDevice(devicePath.value, flashFamily.value, flashBoard.value)
flashJob.value = { active: true, stage: 'downloading', log_tail: [] }
stopFlashPoll()
flashPollTimer = setInterval(pollFlashStatus, 1500)
} catch (e) {
error.value = e instanceof Error ? e.message : 'Failed to start flashing'
} finally {
starting.value = false
}
}
async function cancelFlash() {
try {
await mesh.flashCancel()
} catch (e) {
error.value = e instanceof Error ? e.message : 'Failed to cancel'
}
}
function closeFlashStep() {
stopFlashPoll()
if (mesh.flashFlowPath) {
// Manual entry has no detection step to go back to close the modal.
mesh.closeFlashFlow()
return
}
step.value = 1
}
</script>
<style scoped>
@@ -0,0 +1,107 @@
// Stale-while-revalidate resource hook over the shared resources store.
//
// Usage:
// const files = useCachedResource<CloudFile[]>({
// key: 'cloud.my-files',
// fetcher: (signal) => rpcClient.call({ method: 'content.list', signal, dedup: true }),
// ttlMs: 30_000,
// })
// // template: files.data renders instantly on revisit (cache), while
// // files.loadState === 'refreshing' drives a subtle refresh indicator.
//
// Behavior:
// - Synchronous hydrate: memory (survives navigation) → sessionStorage
// snapshot (survives reload) → fetch.
// - Sticky-ready: never regresses ready → loading; refreshes are
// 'refreshing' so content stays on screen.
// - Stale-while-revalidate: on mount, cached data is shown immediately and a
// background refresh runs only if the TTL has lapsed (or never fetched).
// - Keep-last-value on error, with `isStale`/`ageMs` for badges.
// - revalidateOnFocus: refreshes when the tab regains focus and the data is
// stale (debounced by TTL, so focus-flapping is free).
// - Abort-on-unmount: the fetcher receives an AbortSignal that fires when
// the last subscribed component unmounts.
import { computed, getCurrentScope, onScopeDispose, type ComputedRef } from 'vue'
import { useResourcesStore, type ResourceEntry, type ResourceLoadState } from '@/stores/resources'
export interface CachedResourceOptions<T> {
/** Cache key. Include identifying params, e.g. `peer-files:${onion}`. */
key: string
/** Fetch fresh data. Receives an abort signal tied to component lifetime. */
fetcher: (signal: AbortSignal) => Promise<T>
/** Data older than this triggers a background revalidate (default 30s). */
ttlMs?: number
/** Snapshot to sessionStorage so reloads paint instantly (default true).
* Disable for large payloads. */
persist?: boolean
/** Revalidate (if stale) when the window regains focus (default true). */
revalidateOnFocus?: boolean
/** Fetch on first use (default true). Set false for lazy resources. */
immediate?: boolean
}
export interface CachedResource<T> {
entry: ResourceEntry<T>
/** Convenience computed views over the entry. */
data: ComputedRef<T | null>
loadState: ComputedRef<ResourceLoadState>
error: ComputedRef<string | null>
/** True when data exists but is older than the TTL (drive an age badge). */
isStale: ComputedRef<boolean>
ageMs: ComputedRef<number | null>
/** Force a refresh now (deduped with any in-flight one). */
refresh: () => Promise<void>
/** Mark stale + debounce-refresh all mounted users of this key. */
invalidate: () => void
/** Optimistically update cached data; returns rollback for RPC failure. */
optimistic: (update: (current: T | null) => T) => () => void
}
export function useCachedResource<T>(opts: CachedResourceOptions<T>): CachedResource<T> {
const store = useResourcesStore()
const ttlMs = opts.ttlMs ?? 30_000
const persist = opts.persist ?? true
const entry = store.entry<T>(opts.key, persist)
const aborter = new AbortController()
const fetcher = () => opts.fetcher(aborter.signal)
const refresh = () => store.refresh(opts.key, fetcher, { persist })
const stale = () => entry.fetchedAt === null || Date.now() - entry.fetchedAt > ttlMs
const refreshIfStale = () => {
if (stale()) void refresh()
}
// Register as a live revalidator so invalidate(key) reaches us.
const unsubscribe = store.subscribe(opts.key, () => void refresh())
const onFocus = () => refreshIfStale()
if (opts.revalidateOnFocus ?? true) {
window.addEventListener('focus', onFocus)
}
// Tied to the owning effect scope (component setup or manual scope);
// outside any scope (tests, module init) there's nothing to dispose.
if (getCurrentScope()) {
onScopeDispose(() => {
unsubscribe()
window.removeEventListener('focus', onFocus)
aborter.abort()
})
}
if (opts.immediate ?? true) refreshIfStale()
return {
entry,
data: computed(() => entry.data),
loadState: computed(() => entry.loadState),
error: computed(() => entry.error),
isStale: computed(() => entry.data !== null && stale()),
ageMs: computed(() => (entry.fetchedAt === null ? null : Date.now() - entry.fetchedAt)),
refresh,
invalidate: () => store.invalidate(opts.key),
optimistic: (update) => store.optimistic<T>(opts.key, update),
}
}
@@ -0,0 +1,131 @@
import { describe, it, expect, vi, beforeEach, afterEach } from 'vitest'
import { setActivePinia, createPinia } from 'pinia'
import { useResourcesStore } from '../resources'
import { useCachedResource } from '@/composables/useCachedResource'
describe('resources store — stale-while-revalidate semantics', () => {
beforeEach(() => {
setActivePinia(createPinia())
sessionStorage.clear()
vi.useFakeTimers()
})
afterEach(() => {
vi.useRealTimers()
})
it('first fetch goes idle → loading → ready with data', async () => {
const store = useResourcesStore()
const e = store.entry<string>('k1')
expect(e.loadState).toBe('idle')
const p = store.refresh('k1', async () => 'hello')
expect(e.loadState).toBe('loading')
await p
expect(e.loadState).toBe('ready')
expect(e.data).toBe('hello')
expect(e.fetchedAt).not.toBeNull()
})
it('sticky-ready: refresh never regresses ready → loading', async () => {
const store = useResourcesStore()
await store.refresh('k2', async () => 1)
const e = store.entry<number>('k2')
const p = store.refresh('k2', async () => 2)
expect(e.loadState).toBe('refreshing')
await p
expect(e.loadState).toBe('ready')
expect(e.data).toBe(2)
})
it('keeps last-known data on refresh error (ready + error set)', async () => {
const store = useResourcesStore()
await store.refresh('k3', async () => 'good')
const e = store.entry<string>('k3')
await store.refresh('k3', async () => {
throw new Error('boom')
})
expect(e.data).toBe('good')
expect(e.loadState).toBe('ready')
expect(e.error).toBe('boom')
})
it('errors with no prior data land in error state', async () => {
const store = useResourcesStore()
await store.refresh('k4', async () => {
throw new Error('down')
})
const e = store.entry('k4')
expect(e.loadState).toBe('error')
expect(e.data).toBeNull()
})
it('dedups concurrent refreshes for the same key', async () => {
const store = useResourcesStore()
const fetcher = vi.fn(async () => 'once')
const p1 = store.refresh('k5', fetcher)
const p2 = store.refresh('k5', fetcher)
await Promise.all([p1, p2])
expect(fetcher).toHaveBeenCalledTimes(1)
})
it('hydrates a new entry from the sessionStorage snapshot', async () => {
const store = useResourcesStore()
await store.refresh('k6', async () => ({ n: 42 }))
// Fresh pinia = fresh memory cache, same sessionStorage.
setActivePinia(createPinia())
const store2 = useResourcesStore()
const e = store2.entry<{ n: number }>('k6')
expect(e.loadState).toBe('ready')
expect(e.data).toEqual({ n: 42 })
})
it('optimistic update applies immediately and rollback restores', async () => {
const store = useResourcesStore()
await store.refresh('k7', async () => ['a'])
const e = store.entry<string[]>('k7')
const rollback = store.optimistic<string[]>('k7', (cur) => [...(cur ?? []), 'b'])
expect(e.data).toEqual(['a', 'b'])
rollback()
expect(e.data).toEqual(['a'])
})
it('invalidate marks stale and debounce-runs subscribers', async () => {
const store = useResourcesStore()
await store.refresh('k8', async () => 1)
const revalidate = vi.fn()
store.subscribe('k8', revalidate)
store.invalidate('k8')
expect(store.entry('k8').fetchedAt).toBeNull()
expect(revalidate).not.toHaveBeenCalled()
vi.advanceTimersByTime(900)
expect(revalidate).toHaveBeenCalledTimes(1)
})
})
describe('useCachedResource composable', () => {
beforeEach(() => {
setActivePinia(createPinia())
sessionStorage.clear()
})
it('fetches immediately when stale and exposes reactive views', async () => {
const fetcher = vi.fn(async () => 'data')
const r = useCachedResource<string>({ key: 'c1', fetcher, revalidateOnFocus: false })
await r.refresh()
expect(fetcher).toHaveBeenCalled()
expect(r.data.value).toBe('data')
expect(r.loadState.value).toBe('ready')
expect(r.isStale.value).toBe(false)
})
it('does not refetch within TTL (instant render from cache)', async () => {
const fetcher = vi.fn(async () => 'v1')
const r1 = useCachedResource<string>({ key: 'c2', fetcher, ttlMs: 60_000, revalidateOnFocus: false })
await r1.refresh()
// Second component using the same key inside the TTL: no new fetch.
const fetcher2 = vi.fn(async () => 'v2')
const r2 = useCachedResource<string>({ key: 'c2', fetcher: fetcher2, ttlMs: 60_000, revalidateOnFocus: false })
expect(r2.data.value).toBe('v1')
expect(fetcher2).not.toHaveBeenCalled()
})
})
+28 -12
View File
@@ -8,6 +8,11 @@ export const useCloudStore = defineStore('cloud', () => {
const loading = ref(false)
const error = ref<string | null>(null)
const authenticated = ref(false)
// Per-path listing cache: re-entering a folder paints the last listing
// immediately (no spinner) while the fresh listing loads behind it.
const pathCache = new Map<string, FileBrowserItem[]>()
// Last-wins guard for overlapping navigations (fast folder hopping).
let navSeq = 0
const breadcrumbs = computed(() => {
const parts = currentPath.value.split('/').filter(Boolean)
@@ -36,7 +41,22 @@ export const useCloudStore = defineStore('cloud', () => {
}
async function navigate(path: string): Promise<void> {
loading.value = true
const seq = ++navSeq
const apply = (p: string, result: FileBrowserItem[]) => {
pathCache.set(p, result)
if (seq !== navSeq) return // a newer navigation superseded this one
items.value = result
currentPath.value = p
}
// Stale-while-revalidate: show the cached listing for this path
// immediately (no spinner), then refresh it underneath.
const cached = pathCache.get(path)
if (cached) {
items.value = cached
currentPath.value = path
} else {
loading.value = true
}
error.value = null
try {
if (!authenticated.value) {
@@ -47,9 +67,7 @@ export const useCloudStore = defineStore('cloud', () => {
}
}
try {
const result = await fileBrowserClient.listDirectory(path)
items.value = result
currentPath.value = path
apply(path, await fileBrowserClient.listDirectory(path))
} catch {
// Directory may not exist — try to create it, then retry
if (path !== '/') {
@@ -57,23 +75,20 @@ export const useCloudStore = defineStore('cloud', () => {
const parentPath = path.substring(0, path.lastIndexOf('/')) || '/'
const dirName = path.substring(path.lastIndexOf('/') + 1)
await fileBrowserClient.createFolder(parentPath, dirName)
const result = await fileBrowserClient.listDirectory(path)
items.value = result
currentPath.value = path
apply(path, await fileBrowserClient.listDirectory(path))
} catch {
// Fall back to root
const result = await fileBrowserClient.listDirectory('/')
items.value = result
currentPath.value = '/'
apply('/', await fileBrowserClient.listDirectory('/'))
}
} else {
throw new Error('Failed to list root directory')
}
}
} catch (e) {
error.value = e instanceof Error ? e.message : 'Failed to load files'
// Keep showing the cached listing on a failed revalidate.
if (!cached) error.value = e instanceof Error ? e.message : 'Failed to load files'
} finally {
loading.value = false
if (seq === navSeq) loading.value = false
}
}
@@ -112,6 +127,7 @@ export const useCloudStore = defineStore('cloud', () => {
items.value = []
loading.value = false
error.value = null
pathCache.clear()
}
return {
+101 -10
View File
@@ -57,6 +57,23 @@ export interface MeshDeviceProbe {
max_contacts: number | null
}
export type FlashFirmwareFamily = 'meshcore' | 'meshtastic' | 'reticulum'
export type FlashBoard = 'heltec-v3' | 'heltec-v4'
export type FlashStage = 'downloading' | 'erasing' | 'writing' | 'autoinstalling' | 'done' | 'failed'
/** Live progress for the one flash job that can run at a time. */
export interface FlashJobStatus {
active: boolean
board?: FlashBoard
family?: FlashFirmwareFamily
path?: string
stage?: FlashStage
percent?: number | null
log_tail?: string[]
done?: boolean
error?: string | null
}
/** Params accepted by mesh.configure (superset of the status fields). */
export interface MeshConfigureParams {
enabled?: boolean
@@ -264,8 +281,14 @@ export const useMeshStore = defineStore('mesh', () => {
// Track unread message counts per peer (contact_id -> count)
const unreadCounts = ref<Record<number, number>>({})
// Currently viewing chat for this contact_id (clears unread)
const viewingChatId = ref<number | null>(null)
// Contact ids of the chat currently on screen — ALL twins of the merged
// conversation, not just the clicked row's id, since the unread badge sums
// across every underlying contact_id (a message can land on any twin).
const viewingChatIds = ref<number[]>([])
// Whether the open chat is scrolled to (near) the bottom. New messages only
// auto-clear as read while the latest messages are actually in view —
// standard chat-app semantics; scrolled-up-in-history still counts unread.
const viewingAtBottom = ref(true)
// Total unread count for nav badge
const totalUnread = computed(() =>
Object.values(unreadCounts.value).reduce((a, b) => a + b, 0)
@@ -274,12 +297,16 @@ export const useMeshStore = defineStore('mesh', () => {
async function fetchStatus() {
try {
loading.value = true
error.value = null
const res = await rpcClient.call<MeshStatus>({ method: 'mesh.status' })
status.value = res
trackDetectedDevices(res)
} catch (err: unknown) {
error.value = err instanceof Error ? err.message : 'Failed to fetch mesh status'
// Don't clobber a user-action error (broadcast/configure/send) — this
// runs on a 5s poll, and the old `error.value = null` on entry meant
// any real error banner survived at most one poll tick.
if (!error.value) {
error.value = err instanceof Error ? err.message : 'Failed to fetch mesh status'
}
} finally {
loading.value = false
}
@@ -350,6 +377,16 @@ export const useMeshStore = defineStore('mesh', () => {
}
localStorage.setItem(DETECT_DISMISS_KEY, JSON.stringify(dismissedDetected.value))
}
// Manual "Flash LoRa" entry (Mesh header button): forces the global setup
// modal open at the flash step for this port — including the live session's
// port, which detection-driven opening deliberately excludes.
const flashFlowPath = ref<string | null>(null)
function openFlashFlow(path: string) {
flashFlowPath.value = path
}
function closeFlashFlow() {
flashFlowPath.value = null
}
/** Read-only firmware/config probe of a detected port (hot-swap modal). */
async function probeDevice(path: string): Promise<MeshDeviceProbe> {
return rpcClient.call<MeshDeviceProbe>({
@@ -358,6 +395,32 @@ export const useMeshStore = defineStore('mesh', () => {
timeout: 45000, // serial probes are slow (multi-firmware handshakes)
})
}
/** Available firmware version(s) for a family v1 only ever returns
* ["latest"], since firmware is always fetched from upstream at flash
* time rather than pinned/bundled. */
async function flashListFirmware(family: FlashFirmwareFamily): Promise<string[]> {
const res = await rpcClient.call<{ versions: string[] }>({
method: 'mesh.flash-list-firmware',
params: { family },
})
return res.versions
}
/** Erase + reflash a detected radio. `board` is optional omit it to let
* the backend auto-resolve from the port's USB vid:pid; if that fails
* (e.g. Heltec V4 not yet in the vid:pid table), it errors and the UI
* must ask the user to pick the board explicitly. Always erases first. */
async function flashDevice(path: string, family: FlashFirmwareFamily, board?: FlashBoard): Promise<void> {
await rpcClient.call({
method: 'mesh.flash-device',
params: board ? { path, family, board } : { path, family },
})
}
async function flashStatus(): Promise<FlashJobStatus> {
return rpcClient.call<FlashJobStatus>({ method: 'mesh.flash-status' })
}
async function flashCancel(): Promise<void> {
await rpcClient.call({ method: 'mesh.flash-cancel' })
}
let globalDetectTimer: ReturnType<typeof setInterval> | null = null
/** App-wide light poll so the detected-device modal works on every page
* (the Mesh view's own 5s poll takes over while it is mounted). */
@@ -397,8 +460,11 @@ export const useMeshStore = defineStore('mesh', () => {
m => m.direction === 'received' && !messages.value.some(existing => existing.id === m.id)
)
for (const msg of newMsgs) {
// Don't count as unread if we're currently viewing that chat
if (msg.peer_contact_id !== viewingChatId.value) {
// Don't count as unread if we're currently viewing that chat AND the
// bottom (latest messages) is in view — i.e. the user actually sees it.
const seenLive =
viewingChatIds.value.includes(msg.peer_contact_id) && viewingAtBottom.value
if (!seenLive) {
unreadCounts.value[msg.peer_contact_id] = (unreadCounts.value[msg.peer_contact_id] || 0) + 1
}
}
@@ -526,13 +592,15 @@ export const useMeshStore = defineStore('mesh', () => {
federatedPositions.value = next
}
function markChatRead(contactId: number) {
viewingChatId.value = contactId
delete unreadCounts.value[contactId]
function markChatRead(contactId: number | number[]) {
const ids = Array.isArray(contactId) ? contactId : [contactId]
viewingChatIds.value = ids
for (const id of ids) delete unreadCounts.value[id]
}
function clearViewingChat() {
viewingChatId.value = null
viewingChatIds.value = []
viewingAtBottom.value = true
}
async function sendMessage(contactId: number, message: string) {
@@ -677,6 +745,8 @@ export const useMeshStore = defineStore('mesh', () => {
tier: 'auto-mesh' | 'choose' | 'resource-mesh' | 'tor-only' | 'impossible'
est_seconds: number
has_tor: boolean
has_fips: boolean
last_transport: string | null
reason: string
size: number
mesh_auto_max: number
@@ -975,6 +1045,18 @@ export const useMeshStore = defineStore('mesh', () => {
await Promise.all([fetchStatus(), fetchPeers(), fetchMessages(), fetchDeadmanStatus(), fetchBlockHeaders()])
}
/** Ask the backend to actively re-query the radio's contact table (and by
* extension re-drain daemon events for Reticulum) the server-side half
* of the Refresh button; refreshAll() alone only re-reads caches. */
async function refreshRadio(): Promise<boolean> {
try {
const res = await rpcClient.call<{ refreshed: boolean }>({ method: 'mesh.refresh' })
return !!res.refreshed
} catch {
return false
}
}
return {
status,
peers,
@@ -983,6 +1065,7 @@ export const useMeshStore = defineStore('mesh', () => {
error,
sending,
unreadCounts,
viewingAtBottom,
totalUnread,
nodePositions,
federatedPositions,
@@ -993,7 +1076,14 @@ export const useMeshStore = defineStore('mesh', () => {
fetchStatus,
undismissedDetectedDevices,
dismissDetectedDevice,
flashFlowPath,
openFlashFlow,
closeFlashFlow,
probeDevice,
flashListFirmware,
flashDevice,
flashStatus,
flashCancel,
startGlobalDetection,
fetchPeers,
fetchMessages,
@@ -1002,6 +1092,7 @@ export const useMeshStore = defineStore('mesh', () => {
broadcastIdentity,
configure,
refreshAll,
refreshRadio,
markChatRead,
clearViewingChat,
sendInvoice,
+166
View File
@@ -0,0 +1,166 @@
// Shared cache for RPC-backed page data (the "stale-while-revalidate" layer).
//
// Pages used to fetch-on-mount with a spinner on every navigation — Dashboard
// keys its router-view by route.path, so each visit unmounted and refetched
// everything. This store is the single place resource state lives instead:
// keyed entries survive navigation (Pinia) and reloads (sessionStorage
// snapshot), and `useCachedResource` renders them instantly while
// revalidating in the background.
//
// Semantics (generalized from homeStatus.ts / useFleetData.ts, the proven
// hand-rolled versions):
// - sticky-ready: once a key is 'ready' it never regresses to 'loading';
// refreshes show as 'refreshing' so the UI keeps the data visible.
// - keep-last-known-value on error: a failed revalidate leaves data in place
// (with `error` set and `fetchedAt` untouched → age badge shows staleness).
// - in-flight dedup per key: concurrent refreshes collapse into one fetch.
import { defineStore } from 'pinia'
import { reactive } from 'vue'
export type ResourceLoadState = 'idle' | 'loading' | 'ready' | 'refreshing' | 'error'
export interface ResourceEntry<T = unknown> {
data: T | null
loadState: ResourceLoadState
/** Epoch ms of the last SUCCESSFUL fetch (drives TTL + stale badges). */
fetchedAt: number | null
error: string | null
}
const SNAPSHOT_PREFIX = 'resource:'
function readSnapshot<T>(key: string): { data: T; fetchedAt: number } | null {
try {
const raw = sessionStorage.getItem(SNAPSHOT_PREFIX + key)
if (!raw) return null
const parsed = JSON.parse(raw)
if (parsed && typeof parsed.fetchedAt === 'number' && 'data' in parsed) return parsed
} catch {
/* corrupt/absent snapshot — fall through to a fresh fetch */
}
return null
}
function writeSnapshot(key: string, data: unknown, fetchedAt: number): void {
try {
sessionStorage.setItem(SNAPSHOT_PREFIX + key, JSON.stringify({ data, fetchedAt }))
} catch {
/* quota exceeded or unserializable — memory cache still works */
}
}
export const useResourcesStore = defineStore('resources', () => {
const entries = reactive(new Map<string, ResourceEntry>())
// Non-reactive bookkeeping: in-flight fetches + active revalidators.
const inflight = new Map<string, Promise<void>>()
const revalidators = new Map<string, Set<() => void>>()
const invalidateTimers = new Map<string, ReturnType<typeof setTimeout>>()
/** Get (or create) the reactive entry for a key, hydrating from the
* sessionStorage snapshot on first sight so revisits after a reload paint
* before any RPC completes. Pass `persist: false` to skip snapshots. */
function entry<T>(key: string, persist = true): ResourceEntry<T> {
let e = entries.get(key)
if (!e) {
const snap = persist ? readSnapshot<T>(key) : null
e = reactive<ResourceEntry>({
data: snap ? snap.data : null,
loadState: snap ? 'ready' : 'idle',
fetchedAt: snap ? snap.fetchedAt : null,
error: null,
})
entries.set(key, e)
}
return e as ResourceEntry<T>
}
/** Run `fetcher` for `key` with sticky-ready + keep-last-value semantics.
* Concurrent calls for the same key share one in-flight fetch. */
function refresh<T>(
key: string,
fetcher: () => Promise<T>,
opts: { persist?: boolean } = {},
): Promise<void> {
const existing = inflight.get(key)
if (existing) return existing
const e = entry<T>(key, opts.persist ?? true)
e.loadState = e.loadState === 'ready' || e.loadState === 'refreshing' ? 'refreshing' : 'loading'
const p = (async () => {
try {
const data = await fetcher()
e.data = data
e.error = null
e.fetchedAt = Date.now()
e.loadState = 'ready'
if (opts.persist ?? true) writeSnapshot(key, data, e.fetchedAt)
} catch (err) {
e.error = err instanceof Error ? err.message : String(err)
// Keep last-known data visible; only 'error' when we have nothing.
e.loadState = e.data !== null ? 'ready' : 'error'
} finally {
inflight.delete(key)
}
})()
inflight.set(key, p)
return p
}
/** Mark a key stale and (debounced) re-run every mounted subscriber's
* fetcher. Call after a mutation or on a relevant WS push. */
function invalidate(key: string, opts: { debounceMs?: number } = {}): void {
const e = entries.get(key)
if (e) e.fetchedAt = null
const subs = revalidators.get(key)
if (!subs || subs.size === 0) return
const t = invalidateTimers.get(key)
if (t) clearTimeout(t)
invalidateTimers.set(
key,
setTimeout(() => {
invalidateTimers.delete(key)
for (const fn of subs) fn()
}, opts.debounceMs ?? 800),
)
}
/** Register a live revalidator for a key (used by useCachedResource);
* returns an unsubscribe fn. */
function subscribe(key: string, revalidate: () => void): () => void {
let subs = revalidators.get(key)
if (!subs) {
subs = new Set()
revalidators.set(key, subs)
}
subs.add(revalidate)
return () => {
subs.delete(revalidate)
}
}
/** Optimistically apply `update` to the cached value; returns a rollback.
* Pattern: rollback on RPC failure (generalized TransportPrefsCard). */
function optimistic<T>(key: string, update: (current: T | null) => T): () => void {
const e = entry<T>(key)
const before = e.data
const beforeState = e.loadState
e.data = update(before)
if (e.loadState === 'idle' || e.loadState === 'error') e.loadState = 'ready'
return () => {
e.data = before
e.loadState = beforeState
}
}
/** Drop a key entirely (memory + snapshot). */
function evict(key: string): void {
entries.delete(key)
try {
sessionStorage.removeItem(SNAPSHOT_PREFIX + key)
} catch {
/* noop */
}
}
return { entries, entry, refresh, invalidate, subscribe, optimistic, evict }
})
+31 -1
View File
@@ -2,9 +2,38 @@
import { defineStore } from 'pinia'
import { ref, computed } from 'vue'
import type { DataModel } from '../types/api'
import type { DataModel, PatchOperation } from '../types/api'
import { wsClient, applyDataPatch } from '../api/websocket'
import { rpcClient } from '../api/rpc-client'
import { useResourcesStore } from './resources'
/** Unescape one JSON-pointer segment (RFC 6901: ~1 → '/', ~0 → '~'). */
function pointerSegment(path: string, prefix: string): string {
const seg = path.slice(prefix.length).split('/')[0] ?? ''
return seg.replace(/~1/g, '/').replace(/~0/g, '~')
}
/** B5: bridge /ws/db pushes into the cached-resource layer. Each patch op
* maps to the resource keys whose backing data it changes; invalidate()
* debounces (800ms) and only refetches keys with mounted subscribers, so a
* patch storm costs one revalidation per key. The 30s staleness
* reconciliation stays as the backstop for anything unmapped. */
function invalidateResourcesForPatch(patch: PatchOperation[]): void {
const resources = useResourcesStore()
for (const op of patch) {
const path = op.path ?? ''
if (path.startsWith('/peer-health/')) {
// A peer flipping reachability changes both its browse result and the
// federation node list's online state.
const onion = pointerSegment(path, '/peer-health/')
if (onion) resources.invalidate(`cloud.peer-browse:${onion}`)
resources.invalidate('federation.nodes')
} else if (path.startsWith('/package-data/')) {
// App installs/uninstalls add or remove their tor services.
resources.invalidate('server.tor-services')
}
}
}
export const useSyncStore = defineStore('sync', () => {
// State
@@ -108,6 +137,7 @@ export const useSyncStore = defineStore('sync', () => {
try {
if (import.meta.env.DEV) console.log('[Store] Applying patch at revision', update.rev || 'unknown')
data.value = applyDataPatch(data.value, update.patch)
invalidateResourcesForPatch(update.patch)
// Mark as connected once we receive any valid patch
if (!isConnected.value) {
isConnected.value = true
+227 -122
View File
@@ -194,7 +194,7 @@
Open Federation
</RouterLink>
</div>
<div v-else-if="filteredPeerFiles.length === 0" class="glass-card p-8 text-center text-white/40 text-sm">
<div v-else-if="filteredPeerFiles.length === 0 && peerFilesPending === 0" class="glass-card p-8 text-center text-white/40 text-sm">
{{ selectedCategory === 'all' ? 'Your peers are not sharing any files yet.' : 'No peer files in this category.' }}
</div>
<div v-else class="space-y-2">
@@ -216,6 +216,13 @@
<span class="text-[10px] px-2 py-0.5 rounded-full bg-purple-500/15 text-purple-400 shrink-0">{{ f.peerName }}</span>
</button>
</div>
<p v-if="peerFilesPending > 0" class="text-[11px] text-white/35 text-center mt-3 flex items-center justify-center gap-2">
<svg class="animate-spin h-3 w-3" fill="none" viewBox="0 0 24 24">
<circle class="opacity-25" cx="12" cy="12" r="10" stroke="currentColor" stroke-width="4"></circle>
<path class="opacity-75" fill="currentColor" d="M4 12a8 8 0 018-8V0C5.373 0 0 5.373 0 12h4zm2 5.291A7.962 7.962 0 014 12H0c0 3.042 1.135 5.824 3 7.938l3-2.647z"></path>
</svg>
Still fetching from {{ peerFilesPending }} peer{{ peerFilesPending === 1 ? '' : 's' }}
</p>
<p v-if="peerFilesErrors > 0" class="text-[11px] text-white/35 text-center mt-3">
{{ peerFilesErrors }} peer{{ peerFilesErrors === 1 ? '' : 's' }} unreachable showing what answered.
</p>
@@ -301,12 +308,23 @@
<span class="w-1.5 h-1.5 rounded-full" :class="peer.trust_level === 'trusted' ? 'bg-green-400' : 'bg-purple-400'"></span>
{{ peer.trust_level }}
</span>
<span class="text-white/30">Peer Node</span>
<!-- Live transport badge which route actually served the last
browse (FIPS = direct mesh, fast; Tor = fallback, slow). -->
<span
v-if="peerTransport(peer.onion)"
class="inline-flex items-center gap-1.5 px-2 py-1 rounded-full"
:class="peerTransport(peer.onion)!.transport === 'fips' ? 'bg-emerald-500/15 text-emerald-300' : 'bg-amber-500/15 text-amber-300'"
:title="`Last browse served via ${peerTransport(peer.onion)!.transport.toUpperCase()}`"
>
<span class="w-1.5 h-1.5 rounded-full" :class="peerTransport(peer.onion)!.transport === 'fips' ? 'bg-emerald-400' : 'bg-amber-400'"></span>
{{ peerTransport(peer.onion)!.transport.toUpperCase() }} · {{ (peerTransport(peer.onion)!.latencyMs / 1000).toFixed(1) }}s
</span>
<span v-else class="text-white/30">Peer Node</span>
</div>
</div>
<div
v-if="peersLoading && peerNodes.length > 0"
v-if="(peersLoading || peersRefreshing) && peerNodes.length > 0"
class="glass-card p-3 text-center text-white/45 text-xs md:col-span-2 lg:col-span-3 flex items-center justify-center gap-2"
>
<svg class="animate-spin h-3.5 w-3.5" fill="none" viewBox="0 0 24 24">
@@ -388,6 +406,8 @@ import { computed, ref, watch, onMounted } from 'vue'
import { useRouter, RouterLink } from 'vue-router'
import { useAppStore } from '../stores/app'
import { useCloudStore } from '../stores/cloud'
import { useResourcesStore } from '../stores/resources'
import { useCachedResource } from '../composables/useCachedResource'
import { fileBrowserClient, type FileBrowserItem } from '@/api/filebrowser-client'
import { rpcClient } from '@/api/rpc-client'
import { getFileCategory } from '../composables/useFileType'
@@ -399,9 +419,19 @@ import MediaLightbox from '../components/cloud/MediaLightbox.vue'
const router = useRouter()
const store = useAppStore()
const cloudStore = useCloudStore()
const resources = useResourcesStore()
const audioPlayer = useAudioPlayer()
const sectionCounts = ref<Record<string, number>>({})
const countsLoading = ref(false)
// Section counts cached: revisits render the last-known counts instantly
// and refresh in the background (sticky-ready never regresses to "Loading").
const countsResource = useCachedResource<Record<string, number>>({
key: 'cloud.section-counts',
fetcher: fetchCounts,
ttlMs: 30_000,
immediate: false, // gated on fileBrowserRunning; kicked from onMounted/watch
})
const sectionCounts = computed(() => countsResource.entry.data ?? {})
const countsLoading = computed(() => countsResource.entry.loadState === 'loading')
// Tabs / categories / search state
type TabId = 'folders' | 'mine' | 'peers' | 'paid'
@@ -424,14 +454,18 @@ const activeTab = ref<TabId>('folders')
// Paid Files tab
interface PaidItem { onion: string; content_id: string; filename: string; mime_type: string; size_bytes: number; paid_sats: number; purchased_at: string }
const paidItems = ref<PaidItem[]>([])
const paidLoading = ref(false)
async function loadPaidItems() {
paidLoading.value = true
try {
const res = await rpcClient.call<{ items: PaidItem[] }>({ method: 'content.owned-list' })
paidItems.value = (res.items || []).slice().reverse()
} catch { paidItems.value = [] } finally { paidLoading.value = false }
const paidResource = useCachedResource<PaidItem[]>({
key: 'cloud.paid-items',
fetcher: async (signal) => {
const res = await rpcClient.call<{ items: PaidItem[] }>({ method: 'content.owned-list', signal, dedup: true })
return (res.items || []).slice().reverse()
},
immediate: false, // loaded when the Paid tab is opened
})
const paidItems = computed(() => paidResource.entry.data ?? [])
const paidLoading = computed(() => paidResource.entry.loadState === 'loading')
function loadPaidItems() {
return paidResource.refresh()
}
async function viewPaidItem(it: PaidItem) {
try {
@@ -473,8 +507,21 @@ interface PeerNode {
trust_level: string
}
const peerNodes = ref<PeerNode[]>([])
const peersLoading = ref(true)
// Federation peers cached so the Folders tab's peer cards paint instantly
// on revisit while the list revalidates behind them.
const peersResource = useCachedResource<PeerNode[]>({
key: 'cloud.peer-nodes',
fetcher: async (signal) => {
const result = await rpcClient.federationListNodes()
void signal
return result?.nodes ?? []
},
ttlMs: 30_000,
immediate: false, // kicked from onMounted (keeps the legacy load order)
})
const peerNodes = computed(() => peersResource.entry.data ?? [])
const peersLoading = computed(() => peersResource.entry.loadState === 'loading')
const peersRefreshing = computed(() => peersResource.entry.loadState === 'refreshing')
const loadError = ref('')
const APP_ALIASES: Record<string, string[]> = {
@@ -579,42 +626,51 @@ function formatSize(bytes: number): string {
}
// My Files (flat list of every own file across the sections)
const myFiles = ref<FileBrowserItem[]>([])
const myFilesLoading = ref(false)
const myFilesLoaded = ref(false)
// Cached: revisiting the tab renders the last walk instantly and re-walks in
// the background only when stale.
const myFilesResource = useCachedResource<FileBrowserItem[]>({
key: 'cloud.my-files',
fetcher: fetchMyFiles,
ttlMs: 60_000,
immediate: false, // loaded when the My Files tab (or search) needs it
})
const myFiles = computed(() => myFilesResource.entry.data ?? [])
const myFilesLoading = computed(() => myFilesResource.entry.loadState === 'loading')
/** Depth-limited walk of the section folders; flat file list, capped. */
async function loadMyFiles(force = false) {
if (myFilesLoading.value || (myFilesLoaded.value && !force)) return
if (!fileBrowserRunning.value) { myFilesLoaded.value = true; return }
myFilesLoading.value = true
try {
const ok = await cloudStore.init()
if (!ok) return
const out: FileBrowserItem[] = []
for (const [sectionId, root] of Object.entries(SECTION_PATHS)) {
if (sectionId === 'files') continue // '/' would double-visit the sections
const queue: Array<{ path: string; depth: number }> = [{ path: root, depth: 0 }]
while (queue.length > 0 && out.length < 500) {
const { path, depth } = queue.shift()!
let items: FileBrowserItem[]
try { items = await fileBrowserClient.listDirectory(path) } catch { continue }
for (const item of items) {
const itemPath = item.path || `${path.replace(/\/$/, '')}/${item.name}`
if (item.isDir) {
if (depth < 3) queue.push({ path: itemPath, depth: depth + 1 })
} else {
out.push({ ...item, path: itemPath })
}
async function fetchMyFiles(): Promise<FileBrowserItem[]> {
if (!fileBrowserRunning.value) return []
const ok = await cloudStore.init()
if (!ok) return []
const out: FileBrowserItem[] = []
for (const [sectionId, root] of Object.entries(SECTION_PATHS)) {
if (sectionId === 'files') continue // '/' would double-visit the sections
const queue: Array<{ path: string; depth: number }> = [{ path: root, depth: 0 }]
while (queue.length > 0 && out.length < 500) {
const { path, depth } = queue.shift()!
let items: FileBrowserItem[]
try { items = await fileBrowserClient.listDirectory(path) } catch { continue }
for (const item of items) {
const itemPath = item.path || `${path.replace(/\/$/, '')}/${item.name}`
if (item.isDir) {
if (depth < 3) queue.push({ path: itemPath, depth: depth + 1 })
} else {
out.push({ ...item, path: itemPath })
}
}
}
out.sort((a, b) => a.name.localeCompare(b.name))
myFiles.value = out
myFilesLoaded.value = true
} finally {
myFilesLoading.value = false
}
out.sort((a, b) => a.name.localeCompare(b.name))
return out
}
/** Load if never fetched or stale; `force` always re-walks. */
function loadMyFiles(force = false): Promise<void> {
if (force) return myFilesResource.refresh()
if (myFilesResource.entry.data === null || myFilesResource.isStale.value) {
return myFilesResource.refresh()
}
return Promise.resolve()
}
const filteredMyFiles = computed(() =>
@@ -668,7 +724,8 @@ function handlePreview(path: string, context: FileBrowserItem[]) {
async function handleDelete(path: string) {
try {
await cloudStore.deleteItem(path)
myFiles.value = myFiles.value.filter(f => f.path !== path)
// Delete confirmed update the cache in place (no rollback needed).
myFilesResource.optimistic((cur) => (cur ?? []).filter(f => f.path !== path))
searchResults.value = searchResults.value.filter(r => r.item?.path !== path)
} catch (e) {
loadError.value = e instanceof Error ? e.message : 'Delete failed'
@@ -686,11 +743,6 @@ interface PeerFileEntry {
peerOnion: string
}
const peerFiles = ref<PeerFileEntry[]>([])
const peerFilesLoading = ref(false)
const peerFilesLoaded = ref(false)
const peerFilesErrors = ref(0)
interface CatalogItem {
id: string
filename: string
@@ -704,46 +756,96 @@ function priceOf(access: CatalogItem['access']): number {
return typeof access === 'object' && access?.paid ? access.paid.price_sats : 0
}
/** Fan out content.browse-peer over every federation node; tolerate stragglers. */
async function loadPeerFiles(force = false) {
if (peerFilesLoading.value || (peerFilesLoaded.value && !force)) return
peerFilesLoading.value = true
peerFilesErrors.value = 0
try {
if (peerNodes.value.length === 0) await loadPeers()
const results = await Promise.allSettled(
peerNodes.value.map(async (peer) => {
const res = await rpcClient.call<{ items?: CatalogItem[] }>({
method: 'content.browse-peer',
params: { onion: peer.onion },
timeout: 30000,
})
return { peer, items: res?.items ?? [] }
}),
)
const merged: PeerFileEntry[] = []
for (const r of results) {
if (r.status !== 'fulfilled') { peerFilesErrors.value++; continue }
const { peer, items } = r.value
const peerName = peer.name || peerDisplayName(peer.did)
for (const item of items) {
merged.push({
key: `${peer.onion}:${item.id}`,
filename: item.filename,
sizeBytes: item.size_bytes,
priceSats: priceOf(item.access),
category: categoryOf(item.mime_type || item.filename),
peerName,
peerOnion: peer.onion,
})
}
// Per-peer browse results live as individual cached entries so (a) each
// peer's card/rows render the moment THAT peer answers no more blocking on
// the slowest peer via Promise.allSettled and (b) revisits paint from
// cache. The response's `transport` (fips/tor) + measured latency ride
// along, giving every peer a live transport badge.
interface PeerBrowse {
items: CatalogItem[]
transport: string | null
latencyMs: number
}
const peerBrowseKey = (onion: string) => `cloud.peer-browse:${onion}`
function browsePeer(peer: PeerNode): Promise<void> {
return resources.refresh<PeerBrowse>(peerBrowseKey(peer.onion), async () => {
const t0 = Date.now()
const res = await rpcClient.call<{ items?: CatalogItem[]; transport?: string }>({
method: 'content.browse-peer',
params: { onion: peer.onion },
timeout: 30000,
// One slow/unreachable peer must cost its timeout ONCE, not ×3
// the retry loop is why one dead peer meant a 90s spinner.
maxRetries: 1,
dedup: true,
})
return { items: res?.items ?? [], transport: res?.transport ?? null, latencyMs: Date.now() - t0 }
})
}
function peerBrowseEntry(onion: string) {
return resources.entry<PeerBrowse>(peerBrowseKey(onion))
}
/** Transport badge data for a peer (null until its first browse resolves). */
function peerTransport(onion: string): { transport: string; latencyMs: number } | null {
const e = peerBrowseEntry(onion)
if (!e.data?.transport) return null
return { transport: e.data.transport, latencyMs: e.data.latencyMs }
}
/** Aggregated peer files, incrementally updated as each peer resolves. */
const peerFiles = computed<PeerFileEntry[]>(() => {
const merged: PeerFileEntry[] = []
for (const peer of peerNodes.value) {
const e = peerBrowseEntry(peer.onion)
if (!e.data) continue
const peerName = peer.name || peerDisplayName(peer.did)
for (const item of e.data.items) {
merged.push({
key: `${peer.onion}:${item.id}`,
filename: item.filename,
sizeBytes: item.size_bytes,
priceSats: priceOf(item.access),
category: categoryOf(item.mime_type || item.filename),
peerName,
peerOnion: peer.onion,
})
}
merged.sort((a, b) => a.filename.localeCompare(b.filename))
peerFiles.value = merged
peerFilesLoaded.value = true
} finally {
peerFilesLoading.value = false
}
merged.sort((a, b) => a.filename.localeCompare(b.filename))
return merged
})
/** Peers still on their first in-flight browse (nothing cached yet). */
const peerFilesPending = computed(() =>
peerNodes.value.filter(p => {
const s = peerBrowseEntry(p.onion).loadState
return s === 'loading' || s === 'idle'
}).length,
)
/** Peers whose browse failed with no cached data to show. */
const peerFilesErrors = computed(() =>
peerNodes.value.filter(p => peerBrowseEntry(p.onion).loadState === 'error').length,
)
/** All-or-nothing spinner ONLY when nothing has ever been cached. */
const peerFilesLoading = computed(() =>
peerNodes.value.length > 0 && peerFiles.value.length === 0 && peerFilesPending.value > 0 && peerFilesErrors.value < peerNodes.value.length,
)
/** Fan out content.browse-peer; each peer renders as it resolves. */
async function loadPeerFiles(force = false) {
if (peerNodes.value.length === 0) await loadPeers()
const targets = peerNodes.value.filter(p => {
if (force) return true
const e = peerBrowseEntry(p.onion)
const stale = e.fetchedAt === null || Date.now() - e.fetchedAt > 30_000
return e.loadState === 'idle' || e.loadState === 'error' ? true : stale
})
// Fire-and-collect: the computed aggregation updates per resolution.
await Promise.allSettled(targets.map(p => browsePeer(p)))
}
const filteredPeerFiles = computed(() =>
@@ -821,47 +923,50 @@ const searchMineItems = computed(() =>
)
// Existing counts / peers loading
async function loadCounts() {
if (!fileBrowserRunning.value) return
countsLoading.value = true
try {
const ok = await fileBrowserClient.login()
if (!ok) return
for (const section of contentSections) {
const path = SECTION_PATHS[section.id]
if (!path) continue
try {
const items = await fileBrowserClient.listDirectory(path)
sectionCounts.value[section.id] = items.length
} catch {
sectionCounts.value[section.id] = 0
}
async function fetchCounts(): Promise<Record<string, number>> {
if (!fileBrowserRunning.value) return {}
const ok = await fileBrowserClient.login()
if (!ok) throw new Error('File Browser login failed')
const counts: Record<string, number> = {}
for (const section of contentSections) {
const path = SECTION_PATHS[section.id]
if (!path) continue
try {
counts[section.id] = (await fileBrowserClient.listDirectory(path)).length
} catch {
counts[section.id] = 0
}
} catch (e) {
loadError.value = e instanceof Error ? e.message : 'Failed to load file counts'
if (import.meta.env.DEV) console.warn('FileBrowser count loading failed', e)
} finally {
countsLoading.value = false
}
return counts
}
function loadCounts() {
if (countsResource.entry.data === null || countsResource.isStale.value) {
void countsResource.refresh()
}
}
onMounted(() => {
onMounted(async () => {
loadCounts()
loadPeers()
await loadPeers()
// Warm the per-peer browse cache in the background: peer cards get their
// FIPS/Tor badge and the Peer Files tab is instant. Staleness-gated, so
// quick revisits don't refetch.
void loadPeerFiles()
})
// File Browser can finish its startup scan after we mount pick counts up
// the moment it becomes available instead of showing a permanent blank.
watch(fileBrowserRunning, (running) => {
if (running) loadCounts()
})
async function loadPeers() {
const hadPeers = peerNodes.value.length > 0
peersLoading.value = true
try {
const result = await rpcClient.federationListNodes()
peerNodes.value = result?.nodes ?? []
} catch (e) {
if (!hadPeers) peerNodes.value = []
loadError.value = e instanceof Error ? e.message : 'Failed to load peer nodes'
} finally {
peersLoading.value = false
}
await peersResource.refresh()
// Surface refresh failures in the banner the cached peer list stays
// visible either way (keep-last-known-value).
const e = peersResource.entry
if (e.error) loadError.value = e.error
}
function peerDisplayName(did: string): string {
+4 -4
View File
@@ -306,12 +306,12 @@ const backLabel = computed(() => {
return atSectionRoot.value ? 'Back to Cloud' : 'Back to Parent Folder'
})
// Initialize native file browser when entering a native-UI section
// Initialize native file browser when entering a native-UI section.
// No reset() here: navigate() serves the per-path cache instantly and
// revalidates underneath resetting wiped the listing and forced a
// spinner on every folder entry.
watch([useNativeUI, section, routeFolderPath], async ([native, sec, path]) => {
if (native && sec) {
if (cloudStore.currentPath !== path) {
cloudStore.reset()
}
const ok = await cloudStore.init()
if (ok) {
await cloudStore.navigate(path)
+31 -31
View File
@@ -199,8 +199,9 @@
</template>
<script setup lang="ts">
import { ref, onMounted } from 'vue'
import { ref, computed } from 'vue'
import { rpcClient } from '@/api/rpc-client'
import { useCachedResource } from '@/composables/useCachedResource'
import BackButton from '@/components/BackButton.vue'
interface Identity {
@@ -228,9 +229,30 @@ interface Credential {
status: string
}
const identities = ref<Identity[]>([])
const credentials = ref<Credential[]>([])
const loadingCreds = ref(false)
// Cached: revisits paint identities/credentials instantly and revalidate
// behind them (errors keep the last-known lists).
const identitiesRes = useCachedResource<Identity[]>({
key: 'credentials.identities',
fetcher: async (signal) => {
const result = await rpcClient.call<{ identities: Identity[] }>({
method: 'identity.list', params: {}, signal, dedup: true, maxRetries: 1,
})
return result?.identities || []
},
})
const credentialsRes = useCachedResource<Credential[]>({
key: 'credentials.list',
fetcher: async (signal) => {
const result = await rpcClient.call<{ credentials: Credential[] }>({
method: 'identity.list-credentials', params: {}, signal, dedup: true, maxRetries: 1,
})
return result?.credentials || []
},
})
const identities = computed(() => identitiesRes.data.value ?? [])
const credentials = computed(() => credentialsRes.data.value ?? [])
const loadingCreds = computed(() =>
credentialsRes.loadState.value === 'loading' || credentialsRes.loadState.value === 'refreshing')
const selectedCredential = ref<Credential | null>(null)
const credCopied = ref(false)
const revoking = ref(false)
@@ -280,31 +302,10 @@ function formatClaims(subject: Record<string, unknown>): string {
return JSON.stringify(claims, null, 2)
}
async function loadIdentities() {
try {
const result = await rpcClient.call<{ identities: Identity[] }>({
method: 'identity.list',
params: {},
})
identities.value = result.identities || []
} catch (e) {
identities.value = []
if (import.meta.env.DEV) console.warn('Failed to load identities:', e)
}
}
async function loadCredentials() {
loadingCreds.value = true
try {
const result = await rpcClient.call<{ credentials: Credential[] }>({
method: 'identity.list-credentials',
params: {},
})
credentials.value = result.credentials || []
} catch (e) {
showToast(`Failed to load credentials: ${e instanceof Error ? e.message : 'Unknown error'}`, 'error')
} finally {
loadingCreds.value = false
await credentialsRes.refresh()
if (credentialsRes.error.value) {
showToast(`Failed to load credentials: ${credentialsRes.error.value}`, 'error')
}
}
@@ -404,9 +405,8 @@ async function copyCredentialJson() {
setTimeout(() => { credCopied.value = false }, 2000)
}
onMounted(async () => {
await Promise.all([loadIdentities(), loadCredentials()])
})
// Both resources fetch themselves on first use (skipping the fetch entirely
// when the cached value is fresh).
defineExpose({ credentials, loadCredentials })
</script>
+25 -30
View File
@@ -229,6 +229,7 @@
<script setup lang="ts">
import { ref, computed, onMounted, onUnmounted } from 'vue'
import { rpcClient } from '@/api/rpc-client'
import { useCachedResource } from '@/composables/useCachedResource'
import { useTransportStore } from '@/stores/transport'
import { useAppStore } from '@/stores/app'
import { useSyncStore } from '@/stores/sync'
@@ -250,8 +251,15 @@ const transportStore = useTransportStore()
const appStore = useAppStore()
const syncStore = useSyncStore()
const nodes = ref<FederatedNode[]>([])
const loading = ref(true)
// Cached: revisits paint the node list instantly; the 5s poll and mutation
// refreshes revalidate behind it. `loading` is initial-load only (background
// refreshes keep content on screen the old showLoader:false semantics).
const nodesRes = useCachedResource<FederatedNode[]>({
key: 'federation.nodes',
fetcher: async () => (await rpcClient.federationListNodes()).nodes,
})
const nodes = computed(() => nodesRes.data.value ?? [])
const loading = computed(() => nodesRes.loadState.value === 'loading')
const error = ref('')
const selectedNode = ref<FederatedNode | null>(null)
const inviteType = ref<'trusted' | 'observer'>('trusted')
@@ -320,7 +328,12 @@ const mapLinks = computed(() => {
}))
})
const dwnStatus = ref<DwnStatus | null>(null)
const dwnStatusRes = useCachedResource<DwnStatus>({
key: 'federation.dwn-status',
fetcher: (signal) => rpcClient.call<DwnStatus>({ method: 'dwn.status', signal, dedup: true, maxRetries: 1 }),
immediate: false,
})
const dwnStatus = computed(() => dwnStatusRes.data.value)
const dwnSyncing = ref(false)
const dwnSyncDotClass = computed(() => {
@@ -500,25 +513,13 @@ function isOnlineCheck(node: FederatedNode): boolean {
return lastSeen > tenMinutesAgo
}
/** Explicit reload (mutations, retry): surfaces a load failure in the error
* banner. The background poll calls nodesRes.refresh() directly and stays
* silent, like the old surfaceErrors:false path. */
async function loadNodes() {
return loadNodesWithOptions()
}
async function loadNodesWithOptions(options: { showLoader?: boolean; surfaceErrors?: boolean } = {}) {
const showLoader = options.showLoader ?? nodes.value.length === 0
const surfaceErrors = options.surfaceErrors ?? true
try {
if (showLoader) loading.value = true
const result = await rpcClient.federationListNodes()
nodes.value = result.nodes
error.value = ''
} catch (e) {
if (surfaceErrors) {
error.value = e instanceof Error ? e.message : 'Failed to load nodes'
}
} finally {
if (showLoader) loading.value = false
}
await nodesRes.refresh()
if (nodesRes.error.value) error.value = nodesRes.error.value
else error.value = ''
}
function handleGenerateInvite(type: 'trusted' | 'observer') {
@@ -610,13 +611,8 @@ async function deployApp(did: string, appId: string) {
}
}
async function loadDwnStatus() {
try {
const result = await rpcClient.call<DwnStatus>({ method: 'dwn.status' })
dwnStatus.value = result
} catch {
dwnStatus.value = null
}
function loadDwnStatus() {
return dwnStatusRes.refresh()
}
async function triggerDwnSync() {
@@ -681,7 +677,6 @@ async function rotateDid(password: string) {
let autoRefreshTimer: ReturnType<typeof setInterval> | null = null
onMounted(async () => {
loadNodesWithOptions({ showLoader: true })
loadDwnStatus()
loadDiscoveryState()
loadPendingRequests()
@@ -694,7 +689,7 @@ onMounted(async () => {
// Self DID not available
}
autoRefreshTimer = setInterval(() => {
loadNodesWithOptions({ showLoader: false, surfaceErrors: false })
void nodesRes.refresh()
loadPendingRequests()
}, 5000)
})
+285 -31
View File
@@ -21,6 +21,18 @@ const mesh = useMeshStore()
const transport = useTransportStore()
const route = useRoute()
// "Flash LoRa" header button target: the connected radio wins, else any
// detected-but-unconnected stick. Opens the global setup modal at its
// flash step (backend stops the listener and frees the port itself).
const flashLoraPath = computed(() =>
(mesh.status?.device_connected && mesh.status.device_path) ||
mesh.status?.detected_devices?.[0] ||
''
)
function openFlashLora() {
if (flashLoraPath.value) mesh.openFlashFlow(flashLoraPath.value)
}
// Responsive layout breakpoints
const isWideDesktop = ref(window.innerWidth >= 1536)
const isVeryWideDesktop = ref(window.innerWidth >= 2560 && window.innerHeight >= 1200)
@@ -38,6 +50,8 @@ const activeChatChannel = ref<{ index: number; name: string } | null>(null)
const messageText = ref('')
const sendError = ref('')
const broadcasting = ref(false)
const broadcastResult = ref<string | null>(null) // 'ok' | error message
const refreshing = ref(false)
const configuring = ref(false)
const connectingDevice = ref<string | null>(null)
// Device-detected onboarding now lives in the global MeshDeviceSetupModal (App.vue).
@@ -383,12 +397,22 @@ onMounted(async () => {
archPollInterval = setInterval(loadArchMessages, 15000)
}
if (!pollInterval) {
let tick = 0
pollInterval = setInterval(() => {
mesh.fetchStatus()
mesh.fetchPeers()
mesh.fetchMessages()
mesh.fetchDeadmanStatus()
mesh.fetchBlockHeaders()
// Contacts/aliases, federation nodes and the outbox badge previously
// loaded ONCE at mount and went permanently stale new federation
// peers or renames never appeared without a full page reload. Every
// 6th tick (~30s) keeps them fresh without adding per-5s load.
if (++tick % 6 === 0) {
void refreshContacts()
void refreshFederationNodes()
void refreshOutboxCount()
}
}, 5000)
}
@@ -884,8 +908,14 @@ function openChat(peer: MeshPeer) {
messageText.value = ''
activeTab.value = 'chat'
mobileShowChat.value = true
mesh.markChatRead(peer.contact_id)
nextTick(() => scrollChatToBottom())
nextTick(() => {
// Clear unread only after the chat has rendered and auto-scrolled to the
// latest messages ("you've actually seen them"), and clear ALL twins of
// the merged conversation the badge sums across every contact_id, so
// clearing just the clicked row's id left the badge stuck.
scrollChatToBottom()
mesh.markChatRead(activeMergedPeer.value?.contact_ids ?? peer.contact_id)
})
}
function openChannelChat(channel: { index: number; name: string }) {
@@ -997,9 +1027,25 @@ async function handleSendMessage() {
function scrollChatToBottom() {
if (chatScrollEl.value) {
chatScrollEl.value.scrollTop = chatScrollEl.value.scrollHeight
mesh.viewingAtBottom = true
}
}
// Scroll-position read tracking: while the latest messages are in view the
// open conversation stays "read" (new arrivals don't badge); scrolled up into
// history, incoming messages accumulate unread like any normal chat app
// scrolling back down clears them.
function onChatScroll() {
const el = chatScrollEl.value
if (!el) return
const nearBottom = el.scrollHeight - el.scrollTop - el.clientHeight < 48
mesh.viewingAtBottom = nearBottom
if (nearBottom && activeMergedPeer.value) {
mesh.markChatRead(activeMergedPeer.value.contact_ids)
}
scheduleReadReceipt()
}
// Keep the compose field focused after a send so the user can keep typing
// without re-clicking it (Enter re-focuses natively, but the Send button
// click otherwise leaves focus on the button).
@@ -1021,7 +1067,37 @@ function onChatWheel(e: WheelEvent) {
async function handleBroadcast() {
broadcasting.value = true
try { await mesh.broadcastIdentity() } finally { broadcasting.value = false }
broadcastResult.value = null
try {
await mesh.broadcastIdentity()
broadcastResult.value = 'ok'
} catch (e) {
broadcastResult.value = e instanceof Error ? e.message : 'Broadcast failed'
} finally {
broadcasting.value = false
setTimeout(() => { broadcastResult.value = null }, 4000)
}
}
async function handleRefresh() {
if (refreshing.value) return
refreshing.value = true
try {
// Backend first: re-query the radio's contact table (mesh.refresh), then
// re-read EVERYTHING the list is built from peers, contacts/aliases,
// federation nodes, outbox not just the mesh caches.
await Promise.allSettled([
mesh.refreshRadio(),
mesh.refreshAll(),
refreshContacts(),
refreshFederationNodes(),
refreshOutboxCount(),
])
// Radio contact refresh is async on the backend pick up its result.
await mesh.fetchPeers()
} finally {
refreshing.value = false
}
}
async function handleToggleEnabled() {
@@ -1094,14 +1170,15 @@ interface PendingReply {
}
const pendingReply = ref<PendingReply | null>(null)
const actionMenuForId = ref<number | null>(null)
const QUICK_REACTIONS = ['👍', '❤️', '😂', '😮', '😢', '🙏']
function openActionMenu(msgId: number, ev?: Event) {
ev?.stopPropagation()
actionMenuForId.value = actionMenuForId.value === msgId ? null : msgId
reactionPickerForId.value = null
}
function closeActionMenu() {
actionMenuForId.value = null
reactionPickerForId.value = null
}
function handleDocClickForMenu(ev: MouseEvent) {
if (actionMenuForId.value === null) return
@@ -1211,6 +1288,43 @@ function scheduleReadReceipt() {
}, 400)
}
// Hop visualization modal click a message's transport pill to see how it
// traveled: radio hops + signal quality for LoRa transports, overlay/circuit
// shape for FIPS/Tor. Signal numbers are the PEER's current values (per-link,
// not stored per-message) labelled as such in the modal.
const hopVizMsg = ref<MeshMessage | null>(null)
const hopVizPeer = computed<MeshPeer | null>(() => {
const m = hopVizMsg.value
if (!m) return null
return mesh.peers.find(p => p.contact_id === m.peer_contact_id) ?? activeChatPeer.value
})
function hopVizHops(): number | null {
const p = hopVizPeer.value
if (!p || p.hops == null || p.hops === 0xff) return null
return p.hops
}
function signalQualityLabel(snr: number | null, rssi: number | null): string {
if (snr == null && rssi == null) return 'signal unknown'
if (snr != null) {
if (snr > 5) return 'excellent signal'
if (snr > 0) return 'good signal'
if (snr > -10) return 'fair signal'
return 'weak signal'
}
if (rssi != null) {
if (rssi > -80) return 'excellent signal'
if (rssi > -100) return 'good signal'
if (rssi > -115) return 'fair signal'
return 'weak signal'
}
return 'signal unknown'
}
// Reaction dropdown: the quick-reaction row lives behind a "React" toggle so
// the action menu stays compact and a larger emoji palette fits.
const reactionPickerForId = ref<number | null>(null)
const REACTION_PALETTE = ['👍', '❤️', '😂', '😮', '😢', '🙏', '🔥', '🎉', '💯', '👀', '😡', '🫡']
const reactionInFlight = ref<string | null>(null) // `${msgId}:${emoji}` while RPC is running
async function reactTo(msg: MeshMessage, emoji: string) {
const key = messageKeyFor(msg)
@@ -1398,6 +1512,14 @@ function pickTransport(choice: 'mesh' | 'tor' | 'cancel') {
const imageQualityChoice = ref<{ file: File } | null>(null)
const imageQualityEstimates = ref<Map<string, string>>(new Map())
let imageQualityResolve: ((preset: ImageCompressionPreset | null) => void) | null = null
// Transport pills at the bottom of the image modal: when the peer is also a
// federation node (FIPS overlay and/or Tor), the user can send the image that
// way instead of over LoRa. 'lora' keeps the existing radio flow; 'fips'/'tor'
// route via the blob/content-ref path (the dial layer prefers FIPS with Tor
// fallback the pills are capability labels, defaulted to whichever of the
// two actually worked last for this peer).
const imageSendTransport = ref<'lora' | 'fips' | 'tor'>('lora')
const imageTransportOptions = ref<{ fips: boolean; tor: boolean }>({ fips: false, tor: false })
function formatEstSeconds(seconds: number): string {
if (seconds < 60) return `~${seconds}s`
@@ -1407,6 +1529,8 @@ function formatEstSeconds(seconds: number): string {
async function openImageQualityDialog(file: File, peerContactId: number): Promise<ImageCompressionPreset | null> {
imageQualityChoice.value = { file }
imageQualityEstimates.value = new Map()
imageSendTransport.value = 'lora'
imageTransportOptions.value = { fips: false, tor: false }
// Fire off estimates for all presets in parallel each preset's nominal
// target size (or the real file size for 'original') against the SAME
// mesh.transport-advice RPC the non-image attach flow already uses.
@@ -1418,6 +1542,7 @@ async function openImageQualityDialog(file: File, peerContactId: number): Promis
const label =
advice.tier === 'impossible' ? 'too large' : formatEstSeconds(advice.est_seconds)
imageQualityEstimates.value = new Map(imageQualityEstimates.value).set(preset.key, label)
imageTransportOptions.value = { fips: advice.has_fips, tor: advice.has_tor }
} catch {
imageQualityEstimates.value = new Map(imageQualityEstimates.value).set(preset.key, '?')
}
@@ -1546,12 +1671,18 @@ async function handleAttachFile(ev: Event) {
attaching.value = true
attachError.value = null
try {
let forcedTransport: 'fips' | 'tor' | null = null
if (file.type.startsWith('image/')) {
const preset = await openImageQualityDialog(file, peer.contact_id)
if (!preset) return // user cancelled
if (imageSendTransport.value !== 'lora') forcedTransport = imageSendTransport.value
file = await compressImage(file, preset)
}
if (!(await sendFileViaBestTransport(file, peer))) return
if (forcedTransport) {
// User picked a FIPS/Tor pill in the image modal skip the LoRa
// advice/chooser flow entirely and ship via the content-ref path.
await sendViaTorContentRef(file, peer.contact_id, peer.advert_name)
} else if (!(await sendFileViaBestTransport(file, peer))) return
messageText.value = ''
nextTick(() => scrollChatToBottom())
} catch (e) {
@@ -1741,14 +1872,14 @@ async function downloadAttachment(payload: MeshAttachmentPayload) {
<span v-else-if="mesh.status?.device_present" class="mesh-subtitle-badge">Mesh device detected</span>
</p>
</div>
<a
href="https://flasher.meshcore.co.uk/"
target="_blank"
rel="noopener noreferrer"
<button
class="glass-button mesh-flasher-btn"
:disabled="!flashLoraPath"
:title="flashLoraPath ? '' : 'Plug in a LoRa radio first'"
@click="openFlashLora"
>
Flash Meshcore <span class="mesh-flasher-sep">|</span> Choose Companion USB
</a>
Flash LoRa
</button>
</div>
<!-- Error banner -->
@@ -1830,8 +1961,14 @@ async function downloadAttachment(payload: MeshAttachmentPayload) {
<button class="glass-button mesh-action-btn" :disabled="configuring" @click="handleToggleEnabled">
{{ mesh.status?.enabled ? 'Disable' : 'Enable' }}
</button>
<button class="glass-button mesh-action-btn" :disabled="!mesh.status?.device_connected || broadcasting" @click="handleBroadcast">
{{ broadcasting ? 'Sending...' : 'Broadcast' }}
<button
class="glass-button mesh-action-btn"
:class="broadcastResult === 'ok' ? 'mesh-action-ok' : ''"
:disabled="!mesh.status?.device_connected || broadcasting"
:title="broadcastResult && broadcastResult !== 'ok' ? broadcastResult : 'Announce this node so nearby radios learn about it'"
@click="handleBroadcast"
>
{{ broadcasting ? 'Sending…' : broadcastResult === 'ok' ? 'Sent ✓' : broadcastResult ? 'Failed ✕' : 'Broadcast' }}
</button>
<button
class="glass-button mesh-action-btn"
@@ -1841,7 +1978,12 @@ async function downloadAttachment(payload: MeshAttachmentPayload) {
>
{{ transport.meshOnly ? 'Go Online' : 'Off-Grid' }}
</button>
<button class="glass-button mesh-action-btn" @click="mesh.refreshAll()">Refresh</button>
<!-- While refreshing show ONLY the spinner spinner + "Refreshing…"
together overflow the button's fixed width. -->
<button class="glass-button mesh-action-btn" :disabled="refreshing" @click="handleRefresh" :title="refreshing ? 'Refreshing…' : 'Re-query the radio and reload peers, contacts and federation nodes'">
<span v-if="refreshing" class="mesh-refresh-spinner" aria-hidden="true"></span>
<template v-if="!refreshing">Refresh</template>
</button>
</div>
<!-- Peers list -->
@@ -1871,7 +2013,10 @@ async function downloadAttachment(payload: MeshAttachmentPayload) {
>&times;</button>
</div>
<div v-if="mesh.peers.length === 0 && !mesh.status?.device_connected" class="mesh-empty">
<!-- Only claim "no peers" when the MERGED list (radio + federation)
is truly empty with no radio attached the federation rows and
the two channel rows must still render. -->
<div v-if="displayedPeers.length === 0 && !mesh.status?.device_connected" class="mesh-empty">
No peers discovered yet.
</div>
@@ -2028,7 +2173,7 @@ async function downloadAttachment(payload: MeshAttachmentPayload) {
<span v-if="activeChatPeer" class="mesh-chat-header-time">{{ timeAgo(activeChatPeer.last_heard) }}</span>
</div>
</div>
<div ref="chatScrollEl" class="mesh-chat-messages" @scroll="scheduleReadReceipt" @wheel.stop.prevent="onChatWheel">
<div ref="chatScrollEl" class="mesh-chat-messages" @scroll="onChatScroll" @wheel.stop.prevent="onChatWheel">
<div v-if="chatMessages.length === 0" class="mesh-chat-no-messages">
No messages yet. Say hello!
</div>
@@ -2140,8 +2285,14 @@ async function downloadAttachment(payload: MeshAttachmentPayload) {
<button
class="mesh-typed-content-download-btn"
title="Download"
aria-label="Download image"
@click="downloadAttachment(msg.typed_payload as any)"
>&#x2B07;</button>
>
<svg viewBox="0 0 24 24" fill="none" stroke="currentColor" stroke-width="2" stroke-linecap="round" stroke-linejoin="round" aria-hidden="true">
<path d="M12 4v11m0 0l-4.5-4.5M12 15l4.5-4.5" />
<path d="M5 19h14" />
</svg>
</button>
</div>
<audio
v-else-if="(msg.typed_payload.mime || '').startsWith('audio/')"
@@ -2165,10 +2316,19 @@ async function downloadAttachment(payload: MeshAttachmentPayload) {
@click="openMeshLightbox(msg.typed_payload as any)"
/>
<button
class="btn"
class="mesh-typed-content-fetch-btn"
:disabled="fetchingCids.has(msg.typed_payload.cid)"
@click="handleFetchContent(msg.typed_payload as any)"
>
<span
v-if="fetchingCids.has(msg.typed_payload.cid)"
class="mesh-refresh-spinner"
aria-hidden="true"
></span>
<svg v-else viewBox="0 0 24 24" fill="none" stroke="currentColor" stroke-width="2" stroke-linecap="round" stroke-linejoin="round" aria-hidden="true">
<path d="M12 4v11m0 0l-4.5-4.5M12 15l4.5-4.5" />
<path d="M5 19h14" />
</svg>
{{ fetchingCids.has(msg.typed_payload.cid) ? 'Fetching…' : 'Download' }}
</button>
</template>
@@ -2183,7 +2343,7 @@ async function downloadAttachment(payload: MeshAttachmentPayload) {
<!-- Default: plain text -->
<div v-else class="mesh-chat-bubble-text">{{ msg.plaintext }}</div>
<div class="mesh-chat-bubble-meta">
<span v-if="transportLabel(msg)" class="mesh-chat-transport" :class="'transport-' + msg.transport" :title="'Delivered over ' + transportLabel(msg)">{{ transportLabel(msg) }}</span>
<span v-if="transportLabel(msg)" class="mesh-chat-transport mesh-chat-transport-clickable" :class="'transport-' + msg.transport" :title="'Delivered over ' + transportLabel(msg) + ' — click for route details'" @click.stop="hopVizMsg = msg">{{ transportLabel(msg) }}</span>
<span v-if="msg.encrypted" class="mesh-chat-e2e">E2E</span>
<span v-if="isEditedMessage(msg) !== null" class="mesh-chat-edited">(edited)</span>
<span v-if="msg.delivered && msg.direction === 'sent'" class="mesh-chat-ack">&#x2713;&#x2713;</span>
@@ -2214,17 +2374,25 @@ async function downloadAttachment(payload: MeshAttachmentPayload) {
<button v-if="msg.direction === 'sent'" class="mesh-chat-action-btn" :disabled="reactionInFlight !== null" @click="startEditOf(msg)">Edit</button>
<button v-if="msg.direction === 'sent'" class="mesh-chat-action-btn mesh-chat-action-danger" :disabled="reactionInFlight !== null" @click="deleteOwnMessage(msg)">Delete</button>
<button
v-for="emoji in QUICK_REACTIONS"
:key="emoji"
class="mesh-chat-reaction-btn"
:class="{ 'is-busy': reactionInFlight === `${msg.id}:${emoji}` }"
class="mesh-chat-action-btn"
:class="{ active: reactionPickerForId === msg.id }"
:disabled="reactionInFlight !== null"
@click="reactTo(msg, emoji)"
>
<span v-if="reactionInFlight === `${msg.id}:${emoji}`" class="mesh-spinner" aria-hidden="true"></span>
<span v-else>{{ emoji }}</span>
</button>
@click="reactionPickerForId = reactionPickerForId === msg.id ? null : msg.id"
>😀 React </button>
<button class="mesh-chat-action-btn" :disabled="reactionInFlight !== null" @click="closeActionMenu"></button>
<div v-if="reactionPickerForId === msg.id" class="mesh-chat-reaction-dropdown">
<button
v-for="emoji in REACTION_PALETTE"
:key="emoji"
class="mesh-chat-reaction-btn"
:class="{ 'is-busy': reactionInFlight === `${msg.id}:${emoji}` }"
:disabled="reactionInFlight !== null"
@click="reactTo(msg, emoji)"
>
<span v-if="reactionInFlight === `${msg.id}:${emoji}`" class="mesh-spinner" aria-hidden="true"></span>
<span v-else>{{ emoji }}</span>
</button>
</div>
</div>
</div>
</div>
@@ -2363,7 +2531,11 @@ async function downloadAttachment(payload: MeshAttachmentPayload) {
</Teleport>
<!-- Transport chooser modal: shown when attachment size fits both mesh
(inline-chunked) and Tor. User picks which path to send it over. -->
(inline-chunked) and Tor. User picks which path to send it over.
Teleported to body so the fixed backdrop covers the FULL viewport
rendered in place it sits inside a transformed/filtered glass panel,
which traps position:fixed to just the right chat panel. -->
<Teleport to="body">
<div v-if="transportChoice" class="mesh-transport-modal-backdrop" @click.self="pickTransport('cancel')">
<div class="glass-card mesh-transport-modal">
<h3 class="mesh-transport-title">📎 How should I send this?</h3>
@@ -2392,10 +2564,13 @@ async function downloadAttachment(payload: MeshAttachmentPayload) {
<button class="mesh-transport-cancel" @click="pickTransport('cancel')">Cancel</button>
</div>
</div>
</Teleport>
<!-- Image quality-picker modal: shown before sending an image attachment.
Each preset shows its nominal size target + a transfer-time estimate
from the same mesh.transport-advice RPC the file-attach flow uses. -->
from the same mesh.transport-advice RPC the file-attach flow uses.
Teleported to body see the transport chooser above. -->
<Teleport to="body">
<div v-if="imageQualityChoice" class="mesh-transport-modal-backdrop" @click.self="pickImageQuality(null)">
<div class="glass-card mesh-transport-modal">
<h3 class="mesh-transport-title">🖼 Choose Image Quality</h3>
@@ -2412,12 +2587,91 @@ async function downloadAttachment(payload: MeshAttachmentPayload) {
>
<span class="mesh-transport-icon">🖼</span>
<span class="mesh-transport-label">{{ preset.displayName }} {{ preset.description }}</span>
<span class="mesh-transport-meta">{{ imageQualityEstimates.get(preset.key) ?? '…' }}</span>
<span class="mesh-transport-meta">{{
imageSendTransport === 'lora' ? (imageQualityEstimates.get(preset.key) ?? '…') : 'instant'
}}</span>
</button>
</div>
<!-- Transport pills: LoRa is always available (it's a mesh chat);
FIPS/Tor appear when the peer is a reachable federation node,
letting the user send the image that way instead. -->
<div
v-if="imageTransportOptions.fips || imageTransportOptions.tor"
class="mesh-image-transport-row"
>
<span class="mesh-image-transport-caption">Send via</span>
<button
class="mesh-image-transport-pill"
:class="{ active: imageSendTransport === 'lora' }"
@click="imageSendTransport = 'lora'"
>📡 LoRa</button>
<button
v-if="imageTransportOptions.fips"
class="mesh-image-transport-pill"
:class="{ active: imageSendTransport === 'fips' }"
@click="imageSendTransport = 'fips'"
> FIPS</button>
<button
v-if="imageTransportOptions.tor"
class="mesh-image-transport-pill"
:class="{ active: imageSendTransport === 'tor' }"
@click="imageSendTransport = 'tor'"
>🧅 Tor</button>
</div>
<button class="mesh-transport-cancel" @click="pickImageQuality(null)">Cancel</button>
</div>
</div>
</Teleport>
<!-- Hop visualization modal: click a message's transport pill to see how
it traveled radio hops + live signal for LoRa transports, overlay/
circuit shape for FIPS/Tor. Teleported to body (full-screen backdrop). -->
<Teleport to="body">
<div v-if="hopVizMsg" class="mesh-transport-modal-backdrop" @click.self="hopVizMsg = null">
<div class="glass-card mesh-transport-modal">
<h3 class="mesh-transport-title">{{ transportLabel(hopVizMsg) }} route</h3>
<p class="mesh-transport-sub">
{{ hopVizMsg.direction === 'sent' ? 'You → ' + (hopVizPeer?.advert_name || hopVizMsg.peer_name || 'peer') : (hopVizPeer?.advert_name || hopVizMsg.peer_name || 'peer') + ' → You' }}
</p>
<div class="mesh-hopviz-chain">
<div class="mesh-hopviz-node">
<span class="mesh-hopviz-icon">🏝</span>
<span class="mesh-hopviz-name">{{ hopVizMsg.direction === 'sent' ? 'You' : (hopVizPeer?.advert_name || hopVizMsg.peer_name || 'Peer') }}</span>
</div>
<template v-if="hopVizMsg.transport === 'tor'">
<div class="mesh-hopviz-link">🧅 3 anonymous relays</div>
</template>
<template v-else-if="hopVizMsg.transport === 'fips'">
<div class="mesh-hopviz-link"> FIPS overlay · direct peer-to-peer</div>
</template>
<template v-else>
<div class="mesh-hopviz-link">
📡 {{ hopVizHops() === null || hopVizHops() === 0 ? 'direct radio link' : `${hopVizHops()} hop${hopVizHops() === 1 ? '' : 's'}` }}
<span v-if="hopVizHops() !== null && hopVizHops()! > 0" class="mesh-hopviz-dots">
<span v-for="i in Math.min(hopVizHops()!, 6)" :key="i" class="mesh-hopviz-dot" title="relay node"></span>
</span>
</div>
</template>
<div class="mesh-hopviz-node">
<span class="mesh-hopviz-icon">🏝</span>
<span class="mesh-hopviz-name">{{ hopVizMsg.direction === 'sent' ? (hopVizPeer?.advert_name || hopVizMsg.peer_name || 'Peer') : 'You' }}</span>
</div>
</div>
<div v-if="hopVizMsg.transport !== 'tor' && hopVizMsg.transport !== 'fips'" class="mesh-hopviz-signal">
<span>{{ signalQualityLabel(hopVizPeer?.snr ?? null, hopVizPeer?.rssi ?? null) }}</span>
<span v-if="hopVizPeer?.snr != null" class="mesh-hopviz-meta">SNR {{ hopVizPeer.snr.toFixed(1) }} dB</span>
<span v-if="hopVizPeer?.rssi != null" class="mesh-hopviz-meta">RSSI {{ hopVizPeer.rssi }} dBm</span>
<p class="mesh-hopviz-note">Signal values are the current link readings for this peer, not a snapshot from this message.</p>
</div>
<div class="mesh-hopviz-signal">
<span v-if="hopVizMsg.encrypted" class="mesh-chat-e2e">E2E</span>
<span class="mesh-hopviz-meta">{{ hopVizMsg.delivered && hopVizMsg.direction === 'sent' ? 'delivered ✓✓' : hopVizMsg.direction === 'sent' ? 'sent' : 'received' }}</span>
<span class="mesh-hopviz-meta">{{ timeAgo(hopVizMsg.timestamp) }}</span>
</div>
<button class="mesh-transport-cancel" @click="hopVizMsg = null">Close</button>
</div>
</div>
</Teleport>
<!-- The "mesh device detected" setup flow is now the global
MeshDeviceSetupModal mounted in App.vue (fires on every page,
+58 -73
View File
@@ -218,6 +218,7 @@ import { ref, computed, onMounted, onUnmounted } from 'vue'
import { useRouter, useRoute } from 'vue-router'
import { useI18n } from 'vue-i18n'
import { rpcClient } from '@/api/rpc-client'
import { useCachedResource } from '@/composables/useCachedResource'
import { useHomeStatusStore } from '@/stores/homeStatus'
import BackButton from '@/components/BackButton.vue'
import LineChart from '@/components/LineChart.vue'
@@ -291,11 +292,51 @@ const backTarget = computed(() => (cameFromHome.value ? '/dashboard' : '/dashboa
const backLabel = computed(() => (cameFromHome.value ? t('common.back') : 'Web5'))
const homeStatus = useHomeStatusStore()
const current = ref<MetricSnapshot | null>(null)
const history = ref<MetricSnapshot[]>([])
const containers = ref<ContainerMetrics[]>([])
const alerts = ref<FiredAlert[]>([])
const alertRules = ref<AlertRule[]>([])
// Cached: revisits paint the last snapshot/chart/alerts instantly and the 5s
// poll revalidates behind them; errors keep the last-known values.
const currentRes = useCachedResource<MetricSnapshot>({
key: 'monitoring.current',
fetcher: async (signal) => {
const data = await rpcClient.call<MetricSnapshot | { status: string }>({
method: 'monitoring.current', signal, dedup: true, maxRetries: 1,
})
if (!data || !('system' in data)) throw new Error('metrics not ready')
return data
},
})
const historyRes = useCachedResource<MetricSnapshot[]>({
key: 'monitoring.history.minute60',
fetcher: async (signal) => {
const data = await rpcClient.call<HistoryResponse>({
method: 'monitoring.history', params: { resolution: 'minute', count: 60 },
signal, dedup: true, maxRetries: 1,
})
return data?.data ?? []
},
})
const alertsRes = useCachedResource<FiredAlert[]>({
key: 'monitoring.alerts',
fetcher: async (signal) => {
const data = await rpcClient.call<{ alerts: FiredAlert[] }>({
method: 'monitoring.alerts', params: { count: 50 }, signal, dedup: true, maxRetries: 1,
})
return (data?.alerts ?? []).reverse()
},
})
const alertRulesRes = useCachedResource<AlertRule[]>({
key: 'monitoring.alert-rules',
fetcher: async (signal) => {
const data = await rpcClient.call<{ rules: AlertRule[] }>({
method: 'monitoring.alert-rules', signal, dedup: true, maxRetries: 1,
})
return data?.rules ?? []
},
})
const current = computed(() => currentRes.data.value)
const history = computed(() => historyRes.data.value ?? [])
const containers = computed<ContainerMetrics[]>(() => currentRes.data.value?.containers ?? [])
const alerts = computed(() => alertsRes.data.value ?? [])
const alertRules = computed(() => alertRulesRes.data.value ?? [])
const showAlertConfig = ref(false)
const chartWidth = ref(380)
let pollTimer: ReturnType<typeof setInterval> | null = null
@@ -464,66 +505,10 @@ async function exportMetrics(format: 'csv' | 'json') {
}
}
async function fetchCurrent() {
try {
await homeStatus.refreshSystemStats()
const data = await rpcClient.call<MetricSnapshot | { status: string }>({
method: 'monitoring.current',
})
if (data && 'system' in data) {
current.value = data
containers.value = data.containers ?? []
}
} catch {
// Silently retry on next poll
}
}
async function fetchHistory() {
try {
const data = await rpcClient.call<HistoryResponse>({
method: 'monitoring.history',
params: { resolution: 'minute', count: 60 },
})
if (data?.data) {
history.value = data.data
}
} catch {
// Silently retry on next poll
}
}
async function fetchAlerts() {
try {
const data = await rpcClient.call<{ alerts: FiredAlert[] }>({
method: 'monitoring.alerts',
params: { count: 50 },
})
if (data?.alerts) {
alerts.value = data.alerts.reverse()
}
} catch {
// Silently retry on next poll
}
}
async function fetchAlertRules() {
try {
const data = await rpcClient.call<{ rules: AlertRule[] }>({
method: 'monitoring.alert-rules',
})
if (data?.rules) {
alertRules.value = data.rules
}
} catch {
// Non-critical
}
}
async function toggleAlertRule(kind: string, enabled: boolean) {
try {
await rpcClient.call({ method: 'monitoring.configure-alert', params: { kind, enabled } })
await fetchAlertRules()
await alertRulesRes.refresh()
} catch {
// Non-critical
}
@@ -534,7 +519,7 @@ async function updateThreshold(kind: string, value: string) {
if (isNaN(threshold) || threshold <= 0) return
try {
await rpcClient.call({ method: 'monitoring.configure-alert', params: { kind, threshold } })
await fetchAlertRules()
await alertRulesRes.refresh()
} catch {
// Non-critical
}
@@ -543,7 +528,7 @@ async function updateThreshold(kind: string, value: string) {
async function acknowledgeAlert(id: string) {
try {
await rpcClient.call({ method: 'monitoring.acknowledge-alert', params: { id } })
await fetchAlerts()
await alertsRes.refresh()
} catch {
// Non-critical
}
@@ -556,18 +541,18 @@ function updateChartWidth() {
}
}
onMounted(async () => {
onMounted(() => {
updateChartWidth()
window.addEventListener('resize', updateChartWidth)
await Promise.all([fetchCurrent(), fetchHistory(), fetchAlerts(), fetchAlertRules()])
pollTimer = setInterval(async () => {
try {
await Promise.all([fetchCurrent(), fetchHistory(), fetchAlerts()])
} catch {
// Background poll ignore transient errors
}
// The cached resources fetch themselves on first use; the poll keeps the
// live view fresh (refreshes dedup in the store).
void homeStatus.refreshSystemStats()
pollTimer = setInterval(() => {
void homeStatus.refreshSystemStats()
void currentRes.refresh()
void historyRes.refresh()
void alertsRes.refresh()
}, 5000)
})
+66 -28
View File
@@ -594,10 +594,11 @@
</template>
<script setup lang="ts">
import { ref, computed, reactive, watch, onMounted } from 'vue'
import { ref, computed, reactive, watch, onMounted, onUnmounted } from 'vue'
import { useRouter } from 'vue-router'
import QRCode from 'qrcode'
import { rpcClient } from '@/api/rpc-client'
import { useResourcesStore } from '@/stores/resources'
import { useAudioPlayer } from '@/composables/useAudioPlayer'
import { pipSupported, togglePip } from '@/utils/pip'
import BackButton from '@/components/BackButton.vue'
@@ -625,16 +626,33 @@ interface CatalogItem {
access: string | { paid: { price_sats: number } }
}
const loading = ref(true)
const resources = useResourcesStore()
const currentPeer = ref<PeerNode | null>(null)
const catalogError = ref('')
const catalogItems = ref<CatalogItem[]>([])
const downloading = ref<string | null>(null)
const playing = ref<string | null>(null)
const purchaseError = ref<string | null>(null)
// The catalog is the SAME cached entry Cloud.vue's per-peer fan-in fills
// (`cloud.peer-browse:<onion>`): arriving here from the Cloud page paints
// the file list instantly from cache and revalidates behind it.
interface PeerBrowse {
items: CatalogItem[]
transport: string | null
latencyMs: number
}
const peerOnion = computed(() => props.peerId || currentPeer.value?.onion || '')
function browseEntry() {
return resources.entry<PeerBrowse>(`cloud.peer-browse:${peerOnion.value}`)
}
const catalogItems = computed(() => browseEntry().data?.items ?? [])
const catalogError = computed(() => browseEntry().error ?? '')
const loading = computed(() => {
const s = browseEntry().loadState
return s === 'loading' || s === 'refreshing' || (s === 'idle' && !!peerOnion.value)
})
// Transport actually used to reach this peer (returned by content.browse-peer)
// so we can show a FIPS/Tor pill instead of always assuming Tor (B21).
const transport = ref<string | null>(null)
const transport = computed(() => browseEntry().data?.transport ?? null)
const transportPill = computed(() => {
switch (transport.value) {
case 'fips':
@@ -807,44 +825,62 @@ onMounted(async () => {
loadCatalog(),
loadOwned(),
])
} else {
loading.value = false
}
// No peerId peerOnion is empty and `loading` stays false on its own.
})
async function loadCatalog() {
const onion = props.peerId || currentPeer.value?.onion
if (!onion) return
const hadItems = catalogItems.value.length > 0
loading.value = true
catalogError.value = ''
try {
function loadCatalog(): Promise<void> {
const onion = peerOnion.value
if (!onion) return Promise.resolve()
return resources.refresh<PeerBrowse>(`cloud.peer-browse:${onion}`, async () => {
const t0 = Date.now()
const result = await rpcClient.call<{ items?: CatalogItem[]; transport?: string }>({
method: 'content.browse-peer',
params: { onion },
timeout: 30000,
// The caller has its own timeout UX; retry×3 turned one slow peer
// into a 90s spinner.
maxRetries: 1,
dedup: true,
})
return { items: result?.items ?? [], transport: result?.transport ?? null, latencyMs: Date.now() - t0 }
})
}
// Load visual previews for image and video items when catalog loads.
// Audio files don't need visual thumbnails they show a waveform icon.
// The fan-out is capped (3 concurrent) and aborts on unmount it used to
// fire one 30s RPC per media item all at once, unbounded.
const previewAborter = new AbortController()
onUnmounted(() => previewAborter.abort())
const previewQueued = new Set<string>()
let previewQueue: CatalogItem[] = []
let previewWorkers = 0
const PREVIEW_CONCURRENCY = 3
function pumpPreviews(onion: string) {
while (previewWorkers < PREVIEW_CONCURRENCY && previewQueue.length > 0) {
const item = previewQueue.shift()!
previewWorkers++
void loadPreview(onion, item).finally(() => {
previewWorkers--
pumpPreviews(onion)
})
catalogItems.value = result?.items ?? []
transport.value = result?.transport ?? null
} catch (e: unknown) {
catalogError.value = e instanceof Error ? e.message : 'Failed to connect to peer'
if (!hadItems) catalogItems.value = []
} finally {
loading.value = false
}
}
// Load visual previews for image and video items when catalog loads
// Audio files don't need visual thumbnails they show a waveform icon
watch(catalogItems, async (items) => {
const onion = props.peerId || currentPeer.value?.onion
watch(catalogItems, (items) => {
const onion = peerOnion.value
if (!onion) return
for (const item of items) {
if ((item.mime_type.startsWith('image/') || item.mime_type.startsWith('video/')) && !previewUrls[item.id]) {
loadPreview(onion, item)
const isVisual = item.mime_type.startsWith('image/') || item.mime_type.startsWith('video/')
if (isVisual && !previewUrls[item.id] && !previewQueued.has(item.id)) {
previewQueued.add(item.id)
previewQueue.push(item)
}
}
})
pumpPreviews(onion)
}, { immediate: true })
async function loadPreview(onion: string, item: CatalogItem) {
try {
@@ -852,6 +888,8 @@ async function loadPreview(onion: string, item: CatalogItem) {
method: 'content.preview-peer',
params: { onion, content_id: item.id },
timeout: 30000,
maxRetries: 1,
signal: previewAborter.signal,
})
if (result?.data) {
const mime = result.content_type || item.mime_type
+106 -67
View File
@@ -407,6 +407,7 @@
import { ref, computed, onMounted, onUnmounted, watch } from 'vue'
import DOMPurify from 'dompurify'
import { rpcClient } from '@/api/rpc-client'
import { useCachedResource, type CachedResource } from '@/composables/useCachedResource'
import { useAppStore } from '@/stores/app'
import QuickActionsCard from './server/QuickActionsCard.vue'
import TorServicesCard from './server/TorServicesCard.vue'
@@ -434,18 +435,51 @@ const torStatusColor = computed(() => {
const autoSyncEnabled = ref(true)
const logCount = ref(0)
// Network data
const networkLoading = ref(true)
const networkRefreshing = ref(false)
const networkHasLoaded = ref(false)
const networkData = ref({
wifiCount: 'N/A', wifiSsid: null as string | null, torConnected: false, forwardCount: 'N/A',
// Network data a cached aggregate over four RPCs (allSettled: a failing
// one keeps that slice's previous values). Revisits paint instantly.
interface NetworkData {
wifiCount: string; wifiSsid: string | null; torConnected: boolean; forwardCount: string
vpnConnected: boolean; vpnProvider: string; vpnIp: string; wgIp: string; wgPubkey: string
vpnHostname: string; vpnPeers: number
dnsProvider: string; dnsServers: string[]; dnsDoH: boolean
}
const defaultNetworkData = (): NetworkData => ({
wifiCount: 'N/A', wifiSsid: null, torConnected: false, forwardCount: 'N/A',
vpnConnected: false, vpnProvider: '', vpnIp: '', wgIp: '', wgPubkey: '', vpnHostname: '', vpnPeers: 0,
dnsProvider: 'system', dnsServers: [] as string[], dnsDoH: false,
dnsProvider: 'system', dnsServers: [], dnsDoH: false,
})
// immediate:false the fetcher merges onto the previous value via
// networkRes, so it must not run during this initializer (onMounted loads
// it). The explicit annotation breaks the self-referential inference cycle.
const networkRes: CachedResource<NetworkData> = useCachedResource<NetworkData>({
key: 'server.network-summary',
immediate: false,
fetcher: async () => {
const next = { ...(networkRes.data.value ?? defaultNetworkData()) }
const [diagRes, fwdRes, vpnRes, dnsRes] = await Promise.allSettled([
rpcClient.call<{ wan_ip: string | null; nat_type: string; upnp_available: boolean; tor_connected: boolean; wifi_count?: number }>({ method: 'network.diagnostics' }),
rpcClient.call<{ forwards: unknown[] }>({ method: 'router.list-forwards' }),
rpcClient.vpnStatus(),
rpcClient.dnsStatus(),
])
if (diagRes.status === 'fulfilled') { next.torConnected = diagRes.value.tor_connected; next.wifiCount = diagRes.value.wifi_count !== undefined ? `${diagRes.value.wifi_count} configured` : 'N/A'; next.wifiSsid = (diagRes.value as { wifi_ssid?: string | null }).wifi_ssid ?? null }
if (fwdRes.status === 'fulfilled') { const c = fwdRes.value.forwards?.length ?? 0; next.forwardCount = `${c} rule${c !== 1 ? 's' : ''}` }
if (vpnRes.status === 'fulfilled') { next.vpnConnected = vpnRes.value.connected; next.vpnProvider = vpnRes.value.provider ?? ''; next.vpnIp = (vpnRes.value.ip_address ?? '').replace(/\/\d+$/, ''); next.wgIp = vpnRes.value.wg_ip ?? ''; next.wgPubkey = (vpnRes.value as Record<string, unknown>).wg_pubkey as string ?? '' }
if (dnsRes.status === 'fulfilled') { next.dnsProvider = dnsRes.value.provider; next.dnsServers = dnsRes.value.resolv_conf_servers ?? []; next.dnsDoH = dnsRes.value.doh_enabled }
return next
},
})
const networkData = computed(() => networkRes.data.value ?? defaultNetworkData())
const networkLoading = computed(() => networkRes.loadState.value === 'loading')
const networkRefreshing = computed(() => networkRes.loadState.value === 'refreshing')
// FIPS status row for the Local Network card. Full FIPS card lives below.
const fipsSummary = ref<{ installed: boolean; service_active: boolean; key_present: boolean; anchor_connected?: boolean; authenticated_peer_count?: number } | null>(null)
const fipsSummaryRes = useCachedResource<{ installed: boolean; service_active: boolean; key_present: boolean; anchor_connected?: boolean; authenticated_peer_count?: number }>({
key: 'server.fips-summary',
immediate: false,
fetcher: (signal) => rpcClient.call({ method: 'fips.status', signal, dedup: true, maxRetries: 1 }),
})
const fipsSummary = computed(() => fipsSummaryRes.data.value)
const fipsRowLabel = computed(() => {
const s = fipsSummary.value
if (!s) return '…'
@@ -467,32 +501,12 @@ const fipsRowTextClass = computed(() => {
if (s.anchor_connected === false) return 'text-orange-400'
return 'text-green-400'
})
async function loadFipsSummary() {
try {
fipsSummary.value = await rpcClient.call<{ installed: boolean; service_active: boolean; key_present: boolean; anchor_connected?: boolean; authenticated_peer_count?: number }>({ method: 'fips.status' })
} catch { /* backend too old */ }
function loadFipsSummary() {
return fipsSummaryRes.refresh()
}
async function loadNetworkData() {
const initialLoad = !networkHasLoaded.value
networkLoading.value = initialLoad
networkRefreshing.value = !initialLoad
try {
const [diagRes, fwdRes, vpnRes, dnsRes] = await Promise.allSettled([
rpcClient.call<{ wan_ip: string | null; nat_type: string; upnp_available: boolean; tor_connected: boolean; wifi_count?: number }>({ method: 'network.diagnostics' }),
rpcClient.call<{ forwards: unknown[] }>({ method: 'router.list-forwards' }),
rpcClient.vpnStatus(),
rpcClient.dnsStatus(),
])
if (diagRes.status === 'fulfilled') { networkData.value.torConnected = diagRes.value.tor_connected; networkData.value.wifiCount = diagRes.value.wifi_count !== undefined ? `${diagRes.value.wifi_count} configured` : 'N/A'; networkData.value.wifiSsid = (diagRes.value as { wifi_ssid?: string | null }).wifi_ssid ?? null }
if (fwdRes.status === 'fulfilled') { const c = fwdRes.value.forwards?.length ?? 0; networkData.value.forwardCount = `${c} rule${c !== 1 ? 's' : ''}` }
if (vpnRes.status === 'fulfilled') { networkData.value.vpnConnected = vpnRes.value.connected; networkData.value.vpnProvider = vpnRes.value.provider ?? ''; networkData.value.vpnIp = (vpnRes.value.ip_address ?? '').replace(/\/\d+$/, ''); networkData.value.wgIp = vpnRes.value.wg_ip ?? ''; networkData.value.wgPubkey = (vpnRes.value as Record<string, unknown>).wg_pubkey as string ?? '' }
if (dnsRes.status === 'fulfilled') { networkData.value.dnsProvider = dnsRes.value.provider; networkData.value.dnsServers = dnsRes.value.resolv_conf_servers ?? []; networkData.value.dnsDoH = dnsRes.value.doh_enabled }
} catch { /* keep existing/default values */ } finally {
networkHasLoaded.value = true
networkLoading.value = false
networkRefreshing.value = false
}
function loadNetworkData() {
return networkRes.refresh()
}
// VPN peer management
@@ -507,13 +521,18 @@ const sanitizedPeerQrSvg = computed(() =>
)
const peerError = ref('')
const copiedConfig = ref(false)
const vpnPeers = ref<{ name: string; ip: string; type?: string; npub?: string }[]>([])
const vpnPeersRes = useCachedResource<{ name: string; ip: string; type?: string; npub?: string }[]>({
key: 'server.vpn-peers',
immediate: false,
fetcher: async (signal) => {
const res = await rpcClient.call<{ peers: { name: string; ip: string }[] }>({ method: 'vpn.list-peers', signal, dedup: true, maxRetries: 1 })
return res.peers || []
},
})
const vpnPeers = computed(() => vpnPeersRes.data.value ?? [])
async function loadVpnPeers() {
try {
const res = await rpcClient.call<{ peers: { name: string; ip: string }[] }>({ method: 'vpn.list-peers' })
vpnPeers.value = res.peers || []
} catch { /* no peers */ }
function loadVpnPeers() {
return vpnPeersRes.refresh()
}
async function createPeer() {
@@ -557,7 +576,7 @@ async function removePeer(name: string) {
removingPeer.value = name
try {
await rpcClient.call({ method: 'vpn.remove-peer', params: { name } })
vpnPeers.value = vpnPeers.value.filter(p => p.name !== name)
vpnPeersRes.optimistic(cur => (cur ?? []).filter(p => p.name !== name))
} catch { /* ignore */ }
finally { removingPeer.value = '' }
}
@@ -583,10 +602,17 @@ async function copyPeerConfig() {
interface NetworkInterface { name: string; type: string; state: string; mac: string; ipv4: string[] }
interface WifiNetwork { ssid: string; signal: number; security: string }
const interfacesLoading = ref(true)
const interfacesRefreshing = ref(false)
const interfacesHaveLoaded = ref(false)
const allInterfaces = ref<NetworkInterface[]>([])
const interfacesRes = useCachedResource<NetworkInterface[]>({
key: 'server.interfaces',
immediate: false,
fetcher: async (signal) => {
const res = await rpcClient.call<{ interfaces: NetworkInterface[] }>({ method: 'network.list-interfaces', signal, dedup: true, maxRetries: 1 })
return res.interfaces
},
})
const interfacesLoading = computed(() => interfacesRes.loadState.value === 'loading')
const interfacesRefreshing = computed(() => interfacesRes.loadState.value === 'refreshing')
const allInterfaces = computed(() => interfacesRes.data.value ?? [])
const physicalInterfaces = computed(() => allInterfaces.value.filter(i => i.type === 'ethernet' || i.type === 'wifi'))
const wifiAvailable = computed(() => allInterfaces.value.some(i => i.type === 'wifi'))
@@ -637,19 +663,19 @@ async function applyDnsConfig(customServers: string) {
const res = await rpcClient.configureDns(params)
// Never trust the response shape: an undefined `servers` used to reach the
// dnsDisplayLabel computed and crash the whole page render on `.length`.
networkData.value.dnsProvider = res?.provider ?? provider
networkData.value.dnsServers = Array.isArray(res?.servers) ? res.servers : (params.servers ?? [])
networkData.value.dnsDoH = !!res?.doh_enabled
// Write-through to the cached aggregate (the RPC already succeeded).
networkRes.optimistic(cur => ({
...(cur ?? defaultNetworkData()),
dnsProvider: res?.provider ?? provider,
dnsServers: Array.isArray(res?.servers) ? res.servers : (params.servers ?? []),
dnsDoH: !!res?.doh_enabled,
}))
showDnsModal.value = false
} catch (e) { dnsError.value = e instanceof Error ? e.message : 'DNS configuration failed.' } finally { dnsApplying.value = false }
}
async function loadInterfaces() {
const initialLoad = !interfacesHaveLoaded.value
const hadInterfaces = allInterfaces.value.length > 0
interfacesLoading.value = initialLoad
interfacesRefreshing.value = !initialLoad
try { const res = await rpcClient.call<{ interfaces: NetworkInterface[] }>({ method: 'network.list-interfaces' }); allInterfaces.value = res.interfaces } catch { if (!hadInterfaces) allInterfaces.value = [] } finally { interfacesHaveLoaded.value = true; interfacesLoading.value = false; interfacesRefreshing.value = false }
function loadInterfaces() {
return interfacesRes.refresh()
}
async function toggleWifiRadio(iface: NetworkInterface) {
@@ -731,9 +757,18 @@ function formatBytes(bytes: number): string {
}
// Tor Services
const torServices = ref<TorServiceInfo[]>([])
const torServicesLoading = ref(false)
const torDaemonRunning = ref(false)
const torServicesRes = useCachedResource<{ services: TorServiceInfo[]; tor_running: boolean }>({
key: 'server.tor-services',
immediate: false,
fetcher: async (signal) => {
const res = await rpcClient.call<{ services: TorServiceInfo[]; tor_running: boolean }>({ method: 'tor.list-services', signal, dedup: true, maxRetries: 1 })
return { services: res.services || [], tor_running: res.tor_running ?? false }
},
})
const torServices = computed(() => torServicesRes.data.value?.services ?? [])
const torServicesLoading = computed(() =>
torServicesRes.loadState.value === 'loading' || torServicesRes.loadState.value === 'refreshing')
const torDaemonRunning = computed(() => torServicesRes.data.value?.tor_running ?? false)
const torRestarting = ref(false)
const torRotating = ref<string | false>(false)
const torDeleting = ref<string | false>(false)
@@ -750,11 +785,8 @@ const availableAppsForTor = computed(() => {
.sort((a, b) => a.title.localeCompare(b.title))
})
async function loadTorServices() {
const hadServices = torServices.value.length > 0
torServicesLoading.value = true
try { const res = await rpcClient.call<{ services: TorServiceInfo[]; tor_running: boolean }>({ method: 'tor.list-services' }); torServices.value = res.services || []; torDaemonRunning.value = res.tor_running ?? false }
catch { if (!hadServices) { torServices.value = []; torDaemonRunning.value = false } } finally { torServicesLoading.value = false }
function loadTorServices() {
return torServicesRes.refresh()
}
async function copyTorAddress(address: string) {
@@ -798,14 +830,18 @@ async function createService(name: string, port: number | null) {
onMounted(() => { checkTorStatus(); loadNetworkData(); loadInterfaces(); loadDiskStatus(); loadTorServices(); loadVpnPeers(); loadFipsSummary() })
// Poll VPN status every 15s so IP updates after pairing
// Poll VPN status every 15s so IP updates after pairing (write-through to
// the cached aggregate without refetching the other three RPCs)
const vpnPollInterval = setInterval(async () => {
try {
const vpnRes = await rpcClient.vpnStatus()
networkData.value.vpnConnected = vpnRes.connected
networkData.value.vpnProvider = vpnRes.provider ?? ''
networkData.value.vpnIp = (vpnRes.ip_address ?? '').replace(/\/\d+$/, '')
networkData.value.wgIp = vpnRes.wg_ip ?? ''
networkRes.optimistic(cur => ({
...(cur ?? defaultNetworkData()),
vpnConnected: vpnRes.connected,
vpnProvider: vpnRes.provider ?? '',
vpnIp: (vpnRes.ip_address ?? '').replace(/\/\d+$/, ''),
wgIp: vpnRes.wg_ip ?? '',
}))
} catch { /* ignore */ }
}, 15000)
onUnmounted(() => clearInterval(vpnPollInterval))
@@ -829,8 +865,11 @@ async function restartServices() {
async function checkTorStatus() {
checkingTor.value = true; torStatusLabel.value = 'checking'
try { const res = await rpcClient.call<{ services: TorServiceInfo[] }>({ method: 'tor.list-services' }); torServices.value = res.services || []; torStatusLabel.value = torServices.value.some(s => s.onion_address) ? 'running' : 'stopped' }
catch { torStatusLabel.value = 'stopped' } finally { checkingTor.value = false }
try {
await torServicesRes.refresh()
if (torServicesRes.error.value) torStatusLabel.value = 'stopped'
else torStatusLabel.value = torServices.value.some(s => s.onion_address) ? 'running' : 'stopped'
} finally { checkingTor.value = false }
}
const logsToast = ref('')
@@ -1,5 +1,6 @@
import { flushPromises, mount } from '@vue/test-utils'
import { describe, expect, it, vi } from 'vitest'
import { createPinia } from 'pinia'
import Credentials from '../Credentials.vue'
import { rpcClient } from '@/api/rpc-client'
@@ -42,6 +43,8 @@ describe('Credentials', () => {
const wrapper = mount(Credentials, {
global: {
// The cached-resource layer pulls the Pinia resources store in setup.
plugins: [createPinia()],
mocks: {
$router: { push: vi.fn() },
},
@@ -1,5 +1,6 @@
import { flushPromises, mount } from '@vue/test-utils'
import { describe, expect, it, vi } from 'vitest'
import { createPinia } from 'pinia'
import PeerFiles from '../PeerFiles.vue'
import { rpcClient } from '@/api/rpc-client'
@@ -55,6 +56,8 @@ describe('PeerFiles', () => {
const wrapper = mount(PeerFiles, {
props: { peerId: 'peer.onion' },
global: {
// The shared peer-browse cache lives in the Pinia resources store.
plugins: [createPinia()],
stubs: {
Teleport: true,
},
@@ -1,5 +1,6 @@
import { flushPromises, mount } from '@vue/test-utils'
import { describe, expect, it, vi } from 'vitest'
import { createPinia } from 'pinia'
import Server from '../Server.vue'
import { rpcClient } from '@/api/rpc-client'
@@ -29,6 +30,8 @@ function deferred<T>() {
function mountServer(options: { renderTorServices?: boolean } = {}) {
return mount(Server, {
global: {
// The cached-resource layer pulls the Pinia resources store in setup.
plugins: [createPinia()],
stubs: {
QuickActionsCard: true,
TorServicesCard: options.renderTorServices ? false : true,
@@ -98,6 +98,36 @@ describe('appsConfig service filtering', () => {
expect(isWebsitePackage('some-ui-app', uiApp)).toBe(false)
})
it('never offers Launch for an unknown container with a bare exposed port', () => {
// A self-deployed compose stack (e.g. podsteadr) publishes a port, so it
// has a runtime lan-address — but no manifest-declared or probed UI. It
// must classify as a service and must NOT get a Launch button.
const selfDeployed = makePkg('podsteadr', 'podsteadr', 'other')
selfDeployed.installed = { 'interface-addresses': { main: { 'lan-address': 'http://localhost:8095' } }, status: 'running' } as unknown as PackageDataEntry['installed']
expect(isWebsitePackage('podsteadr', selfDeployed)).toBe(true)
expect(canLaunch(selfDeployed)).toBe(false)
})
it('offers Launch for an unknown container once the backend confirms a UI', () => {
const confirmedUi = makePkg('podsteadr', 'podsteadr', 'other')
;(confirmedUi.manifest as unknown as Record<string, unknown>).interfaces = { main: { ui: 'true' } }
confirmedUi.installed = { 'interface-addresses': { main: { 'lan-address': 'http://localhost:8095' } }, status: 'running' } as unknown as PackageDataEntry['installed']
expect(canLaunch(confirmedUi)).toBe(true)
})
it('never offers Launch for curated service containers even with a UI flag', () => {
const service = makePkg('indeedhub-api', 'IndeeHub API', 'media')
;(service.manifest as unknown as Record<string, unknown>).interfaces = { main: { ui: 'true' } }
service.installed = { 'interface-addresses': { main: { 'lan-address': 'http://localhost:9100' } }, status: 'running' } as unknown as PackageDataEntry['installed']
expect(canLaunch(service)).toBe(false)
})
it('keeps Launch for curated apps that rely on a runtime address alone', () => {
const known = makePkg('jellyfin', 'Jellyfin', 'media')
known.installed = { 'interface-addresses': { main: { 'lan-address': 'http://localhost:8096' } }, status: 'running' } as unknown as PackageDataEntry['installed']
expect(canLaunch(known)).toBe(true)
})
it('explains that Fedimint waits for Bitcoin sync before Guardian starts', () => {
const pkg = makePkg('fedimint', 'Fedimint', 'money')
pkg.state = PackageState.Starting
+9 -1
View File
@@ -255,9 +255,17 @@ export function resolveAppIcon(id: string, pkg: PackageDataEntry, curatedIcon?:
export function canLaunch(pkg: PackageDataEntry): boolean {
if (isWebOnlyApp(pkg.manifest.id)) return true
// Headless backends never get a Launch button, even with a published port.
if (isServicePackage(pkg.manifest.id, pkg)) return false
const hasRuntimeAddress = !!pkg.installed?.['interface-addresses']?.main?.['lan-address']
const hasKnownLaunchUrl = typeof window !== 'undefined' && !!resolveAppUrl(pkg.manifest.id)
const hasUI = pkg.manifest.interfaces?.main?.ui || hasRuntimeAddress || hasKnownLaunchUrl
// A bare runtime address is only a launch signal for curated apps: the
// backend now sets interfaces.main.ui strictly for confirmed web UIs
// (manifest declaration or HTTP probe), so an unknown container with an
// exposed non-UI port must not become launchable just for having one.
const hasUI = pkg.manifest.interfaces?.main?.ui
|| hasKnownLaunchUrl
|| (hasRuntimeAddress && isKnownApp(pkg.manifest.id, pkg))
if ((pkg.manifest.id === 'fedimint' || pkg.manifest.id === 'fedimintd') && hasUI) {
return pkg.state === PackageState.Running || pkg.state === PackageState.Starting
}
+6 -3
View File
@@ -142,12 +142,15 @@ async function saveSettings() {
lora_region: form.value.region,
device_kind: form.value.deviceKind,
channel_name: form.value.channel.trim() || 'archipelago',
...(form.value.name.trim() ? { advert_name: form.value.name.trim() } : {}),
// Always sent: an empty string CLEARS the custom mesh name (backend
// maps "" -> None -> fall back to the server name). The old omit-when-
// empty made clearing impossible once a name was ever set.
advert_name: form.value.name.trim(),
broadcast_identity: form.value.broadcastIdentity,
...(rfParams ? { lora_radio_params: rfParams } : {}),
})
saveDone.value = true
setTimeout(() => { saveDone.value = false }, 3000)
setTimeout(() => { saveDone.value = false }, 5000)
} catch (e) {
saveError.value = e instanceof Error ? e.message : 'Failed to save mesh settings'
} finally {
@@ -286,7 +289,7 @@ async function saveSettings() {
>
{{ saving ? 'Saving…' : 'Save Settings' }}
</button>
<span v-if="saveDone" class="text-xs text-green-400">Saved applies on next radio session</span>
<span v-if="saveDone" class="text-xs text-green-400">Saved applying to the radio now</span>
<span v-if="saveError" class="text-xs text-red-400">{{ saveError }}</span>
</div>
</div>
+65 -5
View File
@@ -28,6 +28,7 @@
.mesh-subtitle { color: rgba(255, 255, 255, 0.5); font-size: 0.85rem; margin: 2px 0 0; display: flex; align-items: center; gap: 8px; }
.mesh-subtitle-badge { font-size: 0.65rem; font-weight: 600; color: #4ade80; background: rgba(74, 222, 128, 0.12); padding: 1px 6px; border-radius: 4px; text-transform: uppercase; letter-spacing: 0.5px; }
.mesh-flasher-btn { display: inline-flex; align-items: center; gap: 0; padding: 8px 16px; font-size: 0.9rem; text-decoration: none; white-space: nowrap; flex-shrink: 0; }
.mesh-flasher-btn:disabled { opacity: 0.45; cursor: not-allowed; }
.mesh-flasher-sep { margin: 0 8px; color: rgba(255, 255, 255, 0.2); }
.mesh-error { color: #ef4444; font-size: 0.85rem; padding: 8px 12px; background: rgba(239, 68, 68, 0.1); border-radius: 8px; border: 1px solid rgba(239, 68, 68, 0.2); flex-shrink: 0; }
.mesh-columns { display: flex; gap: 16px; flex: 1; min-height: 0; overflow: hidden; }
@@ -83,6 +84,19 @@
.mesh-offgrid-active { border-color: rgba(251, 146, 60, 0.4) !important; color: #fb923c !important; }
.mesh-actions { display: flex; gap: 8px; flex-shrink: 0; }
.mesh-action-btn { flex: 1; padding: 8px 0; font-size: 0.8rem; }
.mesh-action-ok { color: #34d399; border-color: rgba(52, 211, 153, 0.4); }
.mesh-refresh-spinner {
display: inline-block;
width: 10px;
height: 10px;
margin-right: 4px;
border-radius: 9999px;
border: 2px solid rgba(251, 146, 60, 0.7);
border-top-color: transparent;
animation: mesh-refresh-spin 0.8s linear infinite;
vertical-align: -1px;
}
@keyframes mesh-refresh-spin { to { transform: rotate(360deg); } }
.mesh-peers-card { padding: 14px; flex: 1; min-height: 0; display: flex; flex-direction: column; }
.mesh-peers-card .mesh-section-title { margin-bottom: 10px; flex-shrink: 0; }
.mesh-peer-list { display: flex; flex-direction: column; gap: 4px; overflow-y: auto; flex: 1; min-height: 0; }
@@ -361,13 +375,35 @@
.mesh-typed-content-audio { width: 220px; max-width: 100%; display: block; }
.mesh-typed-content-image-wrap { position: relative; display: inline-block; }
.mesh-typed-content-download-btn {
position: absolute; bottom: 6px; right: 6px; width: 1.75rem; height: 1.75rem;
border-radius: 50%; border: 1px solid rgba(255,255,255,0.15);
background: rgba(0,0,0,0.55); color: rgba(255,255,255,0.85); font-size: 0.85rem;
position: absolute; bottom: 8px; right: 8px;
width: 2.25rem; height: 2.25rem; min-width: 2.25rem; flex-shrink: 0;
border-radius: 50%; border: 1px solid rgba(255,255,255,0.18);
background: rgba(10,10,14,0.55); color: rgba(255,255,255,0.9);
display: flex; align-items: center; justify-content: center; cursor: pointer;
backdrop-filter: blur(6px);
backdrop-filter: blur(10px); -webkit-backdrop-filter: blur(10px);
box-shadow: 0 2px 8px rgba(0,0,0,0.35);
transition: background 0.15s ease, transform 0.15s ease;
}
.mesh-typed-content-download-btn:hover { background: rgba(0,0,0,0.75); color: #fff; }
.mesh-typed-content-download-btn svg { width: 1.05rem; height: 1.05rem; }
.mesh-typed-content-download-btn:hover { background: rgba(251,146,60,0.35); color: #fff; transform: scale(1.06); }
.mesh-typed-content-download-btn:active { transform: scale(0.96); }
/* Pre-fetch "Download" pill under an incoming attachment. The generic .btn it
replaced collapsed to its text width inside the narrow mobile bubble and
looked squashed this is a full-width glass pill in the house style. */
.mesh-typed-content-fetch-btn {
display: flex; align-items: center; justify-content: center; gap: 7px;
width: 100%; min-height: 2.4rem; padding: 8px 14px; margin-top: 2px;
border-radius: 12px; border: 1px solid rgba(255,255,255,0.14);
background: rgba(255,255,255,0.07); color: rgba(255,255,255,0.9);
font-size: 0.82rem; font-weight: 500; cursor: pointer; white-space: nowrap;
backdrop-filter: blur(10px); -webkit-backdrop-filter: blur(10px);
transition: background 0.15s ease, border-color 0.15s ease;
}
.mesh-typed-content-fetch-btn svg { width: 1rem; height: 1rem; flex-shrink: 0; }
.mesh-typed-content-fetch-btn:hover:not(:disabled) {
background: rgba(251,146,60,0.18); border-color: rgba(251,146,60,0.4); color: #fff;
}
.mesh-typed-content-fetch-btn:disabled { opacity: 0.6; cursor: default; }
.mesh-tab-bar { display: flex; gap: 2px; background: rgba(0,0,0,0.3); border-radius: 10px; padding: 3px; flex-shrink: 0; }
.mesh-tab { flex: 1; padding: 8px 12px; border: none; background: transparent; color: rgba(255,255,255,0.5); font-size: 0.82rem; font-weight: 500; border-radius: 8px; cursor: pointer; transition: all 0.2s ease; display: flex; align-items: center; justify-content: center; gap: 6px; }
.mesh-tab:hover { color: rgba(255,255,255,0.8); background: rgba(255,255,255,0.05); }
@@ -546,3 +582,27 @@ select.mesh-bitcoin-input option { background: #1a1a2e; color: rgba(255,255,255,
.mesh-transport-meta { flex: 0 0 auto; font-size: 0.75rem; color: rgba(255,255,255,0.5); }
.mesh-transport-cancel { margin-top: 4px; padding: 8px; background: transparent; border: none; color: rgba(255,255,255,0.5); cursor: pointer; font-size: 0.85rem; }
.mesh-transport-cancel:hover { color: #fff; }
/* Transport pills at the bottom of the image quality modal pick LoRa vs
FIPS vs Tor for the outgoing image when the peer is federation-reachable. */
.mesh-image-transport-row { display: flex; align-items: center; gap: 8px; margin-top: 10px; flex-wrap: wrap; }
.mesh-image-transport-caption { font-size: 0.75rem; color: rgba(255,255,255,0.5); }
.mesh-image-transport-pill { padding: 6px 12px; border-radius: 999px; background: rgba(255,255,255,0.05); border: 1px solid rgba(255,255,255,0.15); color: rgba(255,255,255,0.75); cursor: pointer; font-size: 0.8rem; transition: background 0.15s ease, border-color 0.15s ease, color 0.15s ease; }
.mesh-image-transport-pill:hover { background: rgba(255,255,255,0.1); }
.mesh-image-transport-pill.active { background: rgba(251,146,60,0.18); border-color: rgba(251,146,60,0.7); color: #fff; }
/* Hop visualization modal + clickable transport pill */
.mesh-chat-transport-clickable { cursor: pointer; }
.mesh-chat-transport-clickable:hover { filter: brightness(1.4); }
.mesh-hopviz-chain { display: flex; align-items: center; gap: 10px; justify-content: center; padding: 14px 8px; flex-wrap: wrap; }
.mesh-hopviz-node { display: flex; flex-direction: column; align-items: center; gap: 4px; min-width: 72px; }
.mesh-hopviz-icon { font-size: 1.8rem; }
.mesh-hopviz-name { font-size: 0.8rem; font-weight: 600; color: #fff; max-width: 110px; overflow: hidden; text-overflow: ellipsis; white-space: nowrap; }
.mesh-hopviz-link { flex: 1 1 auto; text-align: center; font-size: 0.8rem; color: rgba(255,255,255,0.75); border-top: 2px dashed rgba(251,146,60,0.5); padding-top: 6px; min-width: 120px; }
.mesh-hopviz-dots { margin-left: 6px; letter-spacing: 6px; color: rgba(251,146,60,0.9); }
.mesh-hopviz-signal { display: flex; align-items: center; gap: 10px; justify-content: center; flex-wrap: wrap; font-size: 0.8rem; color: rgba(255,255,255,0.75); padding: 4px 0; }
.mesh-hopviz-meta { font-size: 0.75rem; color: rgba(255,255,255,0.5); }
.mesh-hopviz-note { flex-basis: 100%; text-align: center; font-size: 0.68rem; color: rgba(255,255,255,0.35); margin: 2px 0 0; }
/* Reaction dropdown inside the message action menu */
.mesh-chat-reaction-dropdown { flex-basis: 100%; display: flex; flex-wrap: wrap; gap: 4px; padding-top: 6px; }
+16 -13
View File
@@ -121,6 +121,7 @@
<script setup lang="ts">
import { computed, onMounted, onUnmounted, ref } from 'vue'
import { rpcClient } from '@/api/rpc-client'
import { useCachedResource } from '@/composables/useCachedResource'
import { safeClipboardWrite } from '@/views/web5/utils'
import FipsSeedAnchorsCard from './FipsSeedAnchorsCard.vue'
@@ -136,7 +137,14 @@ interface FipsStatus {
anchor_connected?: boolean
}
const status = ref<FipsStatus>({
// Shares `server.fips-summary` with the Local Network card's FIPS row, so
// both paint from the same cache instantly on revisit and never disagree.
const statusRes = useCachedResource<FipsStatus>({
key: 'server.fips-summary',
ttlMs: 15_000,
fetcher: (signal) => rpcClient.call<FipsStatus>({ method: 'fips.status', signal, dedup: true, maxRetries: 1 }),
})
const status = computed<FipsStatus>(() => statusRes.data.value ?? {
installed: false,
version: null,
service_state: 'unknown',
@@ -199,18 +207,11 @@ function flash(msg: string, isError = false) {
setTimeout(() => { statusMessage.value = '' }, 6000)
}
async function loadStatus() {
try {
status.value = await rpcClient.call<FipsStatus>({ method: 'fips.status' })
} catch (e) {
if (import.meta.env.DEV) console.warn('fips.status failed', e)
}
}
async function installAndActivate() {
installing.value = true
try {
status.value = await rpcClient.call<FipsStatus>({ method: 'fips.install' })
const next = await rpcClient.call<FipsStatus>({ method: 'fips.install' })
statusRes.optimistic(() => next) // confirmed server state, not a guess
flash('FIPS started')
} catch (e: unknown) {
const msg = e instanceof Error ? e.message : String(e)
@@ -235,7 +236,7 @@ async function reconnectAnchor() {
}>({ method: 'fips.reconnect', timeout: 60_000 })
// Update the card with the post-reconnect status returned by the
// backend avoids an extra status fetch race.
status.value = { ...status.value, ...res.after }
statusRes.optimistic((cur) => ({ ...(cur ?? status.value), ...res.after }))
if (res.recovered) {
flash('Anchor reconnected.')
} else if (res.likely_cause === 'connected') {
@@ -258,8 +259,10 @@ async function reconnectAnchor() {
// stuck showing whatever anchor state existed at mount time forever.
let statusInterval: ReturnType<typeof setInterval> | null = null
onMounted(() => {
loadStatus()
statusInterval = setInterval(loadStatus, 15000)
statusInterval = setInterval(() => {
if (document.hidden) return
void statusRes.refresh()
}, 15000)
})
onUnmounted(() => {
if (statusInterval) clearInterval(statusInterval)
@@ -88,8 +88,9 @@
</template>
<script setup lang="ts">
import { onMounted, reactive, ref } from 'vue'
import { computed, reactive, ref } from 'vue'
import { rpcClient } from '@/api/rpc-client'
import { useCachedResource } from '@/composables/useCachedResource'
defineProps<{ closable?: boolean }>()
defineEmits<{ (e: 'close'): void }>()
@@ -107,7 +108,16 @@ interface ApplyResult {
message: string
}
const anchors = ref<SeedAnchor[]>([])
const anchorsRes = useCachedResource<SeedAnchor[]>({
key: 'server.fips-seed-anchors',
fetcher: async (signal) => {
const res = await rpcClient.call<{ seed_anchors: SeedAnchor[] }>({
method: 'fips.list-seed-anchors', signal, dedup: true, maxRetries: 1,
})
return res.seed_anchors
},
})
const anchors = computed(() => anchorsRes.data.value ?? [])
const adding = ref(false)
const applying = ref(false)
const statusMessage = ref('')
@@ -126,15 +136,6 @@ function flash(msg: string, isError = false) {
setTimeout(() => { statusMessage.value = '' }, 6000)
}
async function load() {
try {
const res = await rpcClient.call<{ seed_anchors: SeedAnchor[] }>({ method: 'fips.list-seed-anchors' })
anchors.value = res.seed_anchors
} catch (e: unknown) {
if (import.meta.env.DEV) console.warn('fips.list-seed-anchors failed', e)
}
}
async function addAnchor() {
if (!draft.npub.trim() || !draft.address.trim()) return
adding.value = true
@@ -148,7 +149,7 @@ async function addAnchor() {
label: draft.label.trim(),
},
})
anchors.value = res.seed_anchors
anchorsRes.optimistic(() => res.seed_anchors) // authoritative post-add list
draft.npub = ''
draft.address = ''
draft.label = ''
@@ -168,7 +169,7 @@ async function removeAnchor(npub: string) {
method: 'fips.remove-seed-anchor',
params: { npub },
})
anchors.value = res.seed_anchors
anchorsRes.optimistic(() => res.seed_anchors)
flash('Anchor removed.')
} catch (e: unknown) {
const msg = e instanceof Error ? e.message : String(e)
@@ -189,6 +190,4 @@ async function applyAll() {
applying.value = false
}
}
onMounted(load)
</script>
+22 -14
View File
@@ -2,6 +2,7 @@
import { ref, computed, onMounted } from 'vue'
import { useRouter } from 'vue-router'
import { rpcClient } from '@/api/rpc-client'
import { useResourcesStore } from '@/stores/resources'
import BackButton from '@/components/BackButton.vue'
const router = useRouter()
@@ -73,8 +74,15 @@ interface ScannedNetwork {
encryption: string
}
const status = ref<RouterStatus | null>(null)
const loading = ref(true)
const status = computed(() => statusEntry().data)
// Router status is cached in the shared resources store so revisits paint
// the last-known state instantly while a fresh read runs behind it.
const resources = useResourcesStore()
const statusEntry = () => resources.entry<RouterStatus>('server.openwrt-status')
const loading = computed(() => {
const s = statusEntry().loadState
return s === 'loading' || s === 'refreshing' || (s === 'idle' && statusEntry().data === null)
})
const error = ref('')
const host = ref('')
const sshUser = ref('root')
@@ -115,25 +123,25 @@ const dhcpLimit = ref(150)
const masqEnabled = ref(true)
async function load(params?: Record<string, string>) {
loading.value = true
error.value = ''
try {
status.value = await rpcClient.call<RouterStatus>({
await resources.refresh<RouterStatus>('server.openwrt-status', () =>
rpcClient.call<RouterStatus>({
method: 'openwrt.get-status',
params: params ?? {},
timeout: 30000,
})
showConnectForm.value = false
if (params) connectedParams.value = params
} catch (e) {
const msg = e instanceof Error ? e.message : String(e)
if (msg.includes('No router configured')) {
dedup: true,
maxRetries: 1,
}))
const err = statusEntry().error
if (err) {
if (err.includes('No router configured')) {
showConnectForm.value = true
} else {
error.value = msg
error.value = err
}
} finally {
loading.value = false
} else {
showConnectForm.value = false
if (params) connectedParams.value = params
}
}
@@ -366,14 +366,24 @@ init()
<div>
<div class="flex items-center gap-2 mb-3">
<span class="text-xs font-mono px-2 py-0.5 rounded bg-orange-500/20 text-orange-300">v1.7.117-alpha</span>
<span class="text-xs text-white/40">July 27, 2026</span>
<span class="text-xs text-white/40">July 29, 2026</span>
</div>
<div class="space-y-3 text-sm text-white/80 pl-3 border-l border-white/10">
<p>Flash your LoRa radio from inside the app. The Mesh page now has a "Flash LoRa" button that opens a guided flow: pick the firmware family (MeshCore, Meshtastic, or Reticulum RNode) and your board, and the node downloads the latest release and flashes it with live progress no external flasher website, no cables to a computer. The same flow appears when a freshly plugged-in radio is detected, and a long list of flashing pitfalls was fixed along the way: radios no longer boot-loop after a flash, failures show the real error instead of silently bouncing back, wedged flash jobs can't get stuck forever, and board auto-detection no longer misidentifies Heltec boards.</p>
<p>Every Archipelago node now acts as a Reticulum relay. Nodes forward mesh traffic and re-broadcast peer announcements, so two radios that can't hear each other directly can still discover and message each other through any Archipelago node in between your nodes become infrastructure for the whole neighbourhood mesh, including non-Archipelago apps like Sideband.</p>
<p>Reticulum (RNode) radios are now first-class mesh citizens. Radios are reliably detected on node startup (a boot-timing race used to leave them unclaimed), settings changes apply live without a restart, your node's name propagates over the Reticulum network so other apps like Sideband see it properly, and a crashed Reticulum daemon is detected and restarted automatically. Photo and file attachments sent over Reticulum now actually arrive four separate delivery bugs were found and fixed, verified end-to-end over real radio hardware.</p>
<p>Messages to contacts that exist on both the internet mesh and a LoRa radio now prefer the radio when it's live, and attachments follow the same path so co-located nodes talk over the air even when the internet path exists.</p>
<p>Mesh chat polish: each message in the image viewer shows which transport carried it, a new hop-route view shows the path a message took, reactions moved into a tidy dropdown, and read-tracking now reflects what you've actually seen. The Refresh and Broadcast buttons give real feedback, and the radio-setup modal shows honest probe progress instead of freezing.</p>
<p>The wallet transactions list works properly on phones now: it scrolls (it silently couldn't on touch screens before), and the All / On-chain / Lightning / Ecash filter tabs stay pinned at the top with a subtle blur while the list scrolls underneath.</p>
<p>Backend services no longer masquerade as launchable apps. Anything without a real web interface databases, APIs, background workers, including stacks you deploy by hand for testing now files under Services with no Launch button. Apps declare their interface in their manifest; for everything else the node checks the port itself to see whether a browser page actually lives there.</p>
<p>Lightning payments that take a while (slow multi-hop routes) are no longer reported as failed while they're still in flight. The wallet now waits properly, shows an honest "pending" state, and reports the true final outcome.</p>
<p>Server pages feel instant: Server, Federation, Lightning channels, Monitoring, wallet, Cloud, and Credentials screens now render immediately from a shared cache and refresh live in the background (including push updates over the node's websocket), instead of blanking while every panel refetches.</p>
<p>The node stays responsive under heavy load: the connection handler now sheds excess load instead of stalling everything behind it, and companion-app probes no longer trigger container builds during routine checks.</p>
<p>FIPS mesh uptime hardening continues: the node's peer port is opened explicitly everywhere, LAN anchors use the right port, direct peering between co-located nodes works again, dials fail fast instead of hanging, and a connectivity watcher re-applies anchors immediately when the network comes back.</p>
<p>FIPS startup is more reliable on nodes that have the packaged fips.service instead of Archipelago's archipelago-fips.service. Startup self-heal, onboarding, dashboard Start, and reconnect now use the systemd unit the node actually has, so FIPS no longer looks like it needs to be installed when it only needs to be started.</p>
<p>App screens over the FIPS mesh now bind their relay only to the node's FIPS address instead of reserving the same host ports Podman needs. This keeps apps such as FileBrowser and Botfights from restart-looping because the backend was already holding their published ports.</p>
<p>Companion WebView safe-area handling now also moves fixed and sticky top bars below the phone status bar, including headers mounted after page load by single-page apps.</p>
<p>Companion app 0.5.25: a redesigned settings hub (three-finger tap opens it over the dashboard), seamless transport handoff with FIPS mesh settings, the wallet scanner reads dense invoice QR codes, app webviews clear the phone status bar with an HTTPS toggle on add/edit, and off-LAN loads fall back to the mesh URL instead of a dead LAN address.</p>
<p>Public-source preparation now includes a Nostr Git hosting plan using ngit, NIP-34, and GRASP: anyone can clone, fork, review, and propose changes from their Archipelago node, while canonical merge authority stays with a small signed maintainer set in the style of Bitcoin Core.</p>
<p>Node OS release notes for v1.7.117 are still open; add any installer, service, kernel, firewall, or package changes here before cutting the release.</p>
</div>
</div>
<!-- v1.7.116-alpha -->
+34 -75
View File
@@ -93,8 +93,9 @@ let web5AnimationDone = false
import { ref, computed, onMounted, onUnmounted } from 'vue'
import { useI18n } from 'vue-i18n'
import { rpcClient } from '@/api/rpc-client'
import { useCachedResource } from '@/composables/useCachedResource'
import { safeClipboardWrite } from './utils'
import type { ProfitsData, WalletTransaction, HwWalletDevice } from './types'
import type { ProfitsData, HwWalletDevice } from './types'
import Web5QuickActions from './Web5QuickActions.vue'
// import Web5Wallet from './Web5Wallet.vue' // hidden for now
@@ -136,7 +137,13 @@ function showToast(text: string) {
}
// --- Networking Profits ---
const profitsBreakdown = ref<ProfitsData | null>(null)
const profitsRes = useCachedResource<ProfitsData>({
key: 'web5.networking-profits',
fetcher: (signal) => rpcClient.call<ProfitsData>({ method: 'wallet.networking-profits', signal, dedup: true, maxRetries: 1 }),
})
const profitsBreakdown = computed<ProfitsData | null>(() =>
profitsRes.data.value
?? (profitsRes.error.value ? { total_sats: 0, content_sales_sats: 0, routing_fees_sats: 0 } : null))
const networkingProfitsDisplay = computed(() => {
if (!profitsBreakdown.value) return '...'
const sats = profitsBreakdown.value.total_sats
@@ -146,15 +153,6 @@ const networkingProfitsDisplay = computed(() => {
return `\u20BF${btc.toFixed(8).replace(/0+$/, '').replace(/\.$/, '')}`
})
async function loadNetworkingProfits() {
try {
const res = await rpcClient.call<ProfitsData>({ method: 'wallet.networking-profits' })
profitsBreakdown.value = res
} catch {
profitsBreakdown.value = { total_sats: 0, content_sales_sats: 0, routing_fees_sats: 0 }
}
}
// --- DID State ---
const storedDid = ref<string | null>(null)
try {
@@ -290,64 +288,35 @@ async function copyDidDocument() {
}
// --- Wallet / LND Balances ---
const walletConnected = ref(false)
// Cached: balances/transactions paint instantly on revisit and revalidate
// behind the cached value; errors keep the last-known data.
const lndInfoRes = useCachedResource<{
balance_sats: number
channel_balance_sats: number
synced_to_chain: boolean
}>({
key: 'web5.lnd-info',
fetcher: (signal) => rpcClient.call({ method: 'lnd.getinfo', signal, dedup: true, maxRetries: 1 }),
})
// connectWallet() can still "disconnect" the (hidden) wallet card UI-side.
const walletManuallyDisconnected = ref(false)
const walletConnected = computed(() =>
!walletManuallyDisconnected.value && lndInfoRes.data.value !== null && !lndInfoRes.error.value)
const connectingWallet = ref(false)
const lndOnchainBalance = ref(0)
const lndChannelBalance = ref(0)
const walletError = ref('')
const ecashBalance = ref(0)
// Transactions wallet card hidden, but loadTransactions still called for QuickActions walletConnected state
const walletTransactions = ref<WalletTransaction[]>([])
// Ecash/transaction/balance display lives in the hidden wallet card when it
// returns, add cached resources for wallet.ecash-balance / lnd.gettransactions
// here rather than reviving the old eager loaders.
// Hardware wallets
const detectedHwWallets = ref<HwWalletDevice[]>([])
async function loadLndBalances() {
try {
const res = await rpcClient.call<{
balance_sats: number
channel_balance_sats: number
synced_to_chain: boolean
}>({ method: 'lnd.getinfo' })
lndOnchainBalance.value = res.balance_sats || 0
lndChannelBalance.value = res.channel_balance_sats || 0
walletConnected.value = true
walletError.value = ''
} catch (e) {
walletConnected.value = false
lndOnchainBalance.value = 0
lndChannelBalance.value = 0
walletError.value = e instanceof Error ? e.message : 'Failed to load wallet balances'
}
}
async function loadEcashBalance() {
try {
const res = await rpcClient.call<{ balance_sats: number; token_count: number }>({ method: 'wallet.ecash-balance' })
ecashBalance.value = res.balance_sats ?? 0
} catch {
// Keep last-known balance on a transient failure rather than flashing 0.
}
}
async function loadTransactions() {
try {
const res = await rpcClient.call<{ transactions: WalletTransaction[]; incoming_pending_count: number }>({ method: 'lnd.gettransactions' })
walletTransactions.value = res.transactions || []
walletError.value = ''
} catch (e) {
walletTransactions.value = []
walletError.value = e instanceof Error ? e.message : 'Failed to load transactions'
}
}
async function connectWallet() {
if (walletConnected.value) {
walletConnected.value = false
walletManuallyDisconnected.value = true
} else {
connectingWallet.value = true
await loadLndBalances()
walletManuallyDisconnected.value = false
await lndInfoRes.refresh()
connectingWallet.value = false
}
}
@@ -361,13 +330,8 @@ async function detectHardwareWallets() {
}
}
// function reloadBalances() { // wallet hidden
// loadLndBalances()
// loadEcashBalance()
// loadTransactions()
// }
// Auto-refresh wallet data every 30s
// Auto-refresh wallet data every 30s while mounted (B5 will move this to
// WS-push invalidation; the store dedups overlapping refreshes).
let walletRefreshInterval: ReturnType<typeof setInterval> | null = null
onMounted(() => {
@@ -392,20 +356,15 @@ onMounted(() => {
// credentialsRef.value?.loadCredentials() // hidden for now
// sharedContentRef.value?.loadContentItems() // hidden for now
// Load local state data
loadEcashBalance()
loadNetworkingProfits()
loadLndBalances()
loadTransactions()
// Wallet/profits resources fetch themselves on first use (and skip the
// fetch entirely when the cached value is still fresh).
detectHardwareWallets()
// Shared content loaded by the component itself via expose
// The SharedContent component manages its own loadContentItems
walletRefreshInterval = setInterval(() => {
loadLndBalances()
loadTransactions()
loadEcashBalance()
void lndInfoRes.refresh()
}, 30000)
})
+24 -17
View File
@@ -1,29 +1,36 @@
{
"changelog": [
"Nodes no longer get stuck on \"server starting up\" after an update or reboot. On a node running many apps, the backend used to spend minutes recovering containers before it told the system it was ready, and anything that touched it during that window could leave it down for good. It now reports ready immediately and recovers in the background, and it always restarts itself if it ever does go down.",
"Installing apps no longer crashes the node. A change that made app screens reachable over the mesh was accidentally holding onto every app's network port in advance — so installing an app like Grafana, Photoprism, Uptime Kuma, or Jellyfin collided with it and the port-cleanup step took the whole backend down, rolling the install back. Installs are now clean and the backend can never be caught by that cleanup.",
"Rolls up everything from v1.7.115: app screens and the dashboard load over the mesh out of the box (firewall openings shipped automatically, IPv6 support end to end), and nodes rejoin the mesh in seconds after their rendezvous point restarts."
"Flash your LoRa radio from inside the app. The Mesh page now has a \"Flash LoRa\" button that opens a guided flow: pick the firmware family (MeshCore, Meshtastic, or Reticulum RNode) and your board, and the node downloads the latest release and flashes it with live progress — no external flasher website, no cables to a computer. The same flow appears when a freshly plugged-in radio is detected, and a long list of flashing pitfalls was fixed along the way: radios no longer boot-loop after a flash, failures show the real error instead of silently bouncing back, wedged flash jobs can't get stuck forever, and board auto-detection no longer misidentifies Heltec boards.",
"Every Archipelago node now acts as a Reticulum relay. Nodes forward mesh traffic and re-broadcast peer announcements, so two radios that can't hear each other directly can still discover and message each other through any Archipelago node in between — your nodes become infrastructure for the whole neighbourhood mesh, including non-Archipelago apps like Sideband.",
"Reticulum (RNode) radios are now first-class mesh citizens. Radios are reliably detected on node startup (a boot-timing race used to leave them unclaimed), settings changes apply live without a restart, your node's name propagates over the Reticulum network so other apps like Sideband see it properly, and a crashed Reticulum daemon is detected and restarted automatically. Photo and file attachments sent over Reticulum now actually arrive — four separate delivery bugs were found and fixed, verified end-to-end over real radio hardware.",
"Messages to contacts that exist on both the internet mesh and a LoRa radio now prefer the radio when it's live, and attachments follow the same path — so co-located nodes talk over the air even when the internet path exists.",
"Mesh chat polish: each message in the image viewer shows which transport carried it, a new hop-route view shows the path a message took, reactions moved into a tidy dropdown, and read-tracking now reflects what you've actually seen. The Refresh and Broadcast buttons give real feedback, and the radio-setup modal shows honest probe progress instead of freezing.",
"The wallet transactions list works properly on phones now: it scrolls (it silently couldn't on touch screens before), and the All / On-chain / Lightning / Ecash filter tabs stay pinned at the top with a subtle blur while the list scrolls underneath.",
"Backend services no longer masquerade as launchable apps. Anything without a real web interface — databases, APIs, background workers, including stacks you deploy by hand for testing — now files under Services with no Launch button. Apps declare their interface in their manifest; for everything else the node checks the port itself to see whether a browser page actually lives there.",
"Lightning payments that take a while (slow multi-hop routes) are no longer reported as failed while they're still in flight. The wallet now waits properly, shows an honest \"pending\" state, and reports the true final outcome.",
"Server pages feel instant: Server, Federation, Lightning channels, Monitoring, wallet, Cloud, and Credentials screens now render immediately from a shared cache and refresh live in the background (including push updates over the node's websocket), instead of blanking while every panel refetches.",
"The node stays responsive under heavy load: the connection handler now sheds excess load instead of stalling everything behind it, and companion-app probes no longer trigger container builds during routine checks."
],
"components": [
{
"current_version": "1.7.116-alpha",
"download_url": "http://146.59.87.168:3000/lfg2025/archy/releases/download/v1.7.116-alpha/archipelago",
"current_version": "1.7.117-alpha",
"download_url": "http://146.59.87.168:3000/lfg2025/archy/releases/download/v1.7.117-alpha/archipelago",
"name": "archipelago",
"new_version": "1.7.116-alpha",
"sha256": "376cde3ff9691c7141e67b1b87e746634c45a20167c578938c4a33801eefe46e",
"size_bytes": 51787208
"new_version": "1.7.117-alpha",
"sha256": "a63bf41ac00e0b77da7bf3796e55a95e2973d4fc335580c5157bd7a506b4a59b",
"size_bytes": 53577760
},
{
"current_version": "1.7.116-alpha",
"download_url": "http://146.59.87.168:3000/lfg2025/archy/releases/download/v1.7.116-alpha/archipelago-frontend-1.7.116-alpha.tar.gz",
"name": "archipelago-frontend-1.7.116-alpha.tar.gz",
"new_version": "1.7.116-alpha",
"sha256": "7008f26d16c7b7d5dacc8edf55bd30b58c02602d3419359516bbf2497591db58",
"size_bytes": 178062490
"current_version": "1.7.117-alpha",
"download_url": "http://146.59.87.168:3000/lfg2025/archy/releases/download/v1.7.117-alpha/archipelago-frontend-1.7.117-alpha.tar.gz",
"name": "archipelago-frontend-1.7.117-alpha.tar.gz",
"new_version": "1.7.117-alpha",
"sha256": "10d409308736a664ede4415d086e1fd9b9b8c25aed4649c3b89562df97d169a0",
"size_bytes": 178025421
}
],
"release_date": "2026-07-27",
"signature": "455e0ce176a0f8c9adf3bbfd7bf949739ad0e5e23c40af9ed6c89b367a42f5d52dbfe97f5ef53f838f3cd17122087b2081c1e5549065504f1f9ea101c8ffc30e",
"release_date": "2026-07-29",
"signature": "d1a00037db19cdadf28950e43037dea4b3316d606001593f59afadf13c8fc43502a1404732eb9701f2f2ad9b1803f023a81bbd30d884432499276aeca0711a09",
"signed_by": "did:key:z6MkkidEnEpo6qHMCNSZoNKWtvQvxq3whnaME9wGgEFhq7ur",
"version": "1.7.116-alpha"
"version": "1.7.117-alpha"
}
+24 -17
View File
@@ -1,29 +1,36 @@
{
"changelog": [
"Nodes no longer get stuck on \"server starting up\" after an update or reboot. On a node running many apps, the backend used to spend minutes recovering containers before it told the system it was ready, and anything that touched it during that window could leave it down for good. It now reports ready immediately and recovers in the background, and it always restarts itself if it ever does go down.",
"Installing apps no longer crashes the node. A change that made app screens reachable over the mesh was accidentally holding onto every app's network port in advance — so installing an app like Grafana, Photoprism, Uptime Kuma, or Jellyfin collided with it and the port-cleanup step took the whole backend down, rolling the install back. Installs are now clean and the backend can never be caught by that cleanup.",
"Rolls up everything from v1.7.115: app screens and the dashboard load over the mesh out of the box (firewall openings shipped automatically, IPv6 support end to end), and nodes rejoin the mesh in seconds after their rendezvous point restarts."
"Flash your LoRa radio from inside the app. The Mesh page now has a \"Flash LoRa\" button that opens a guided flow: pick the firmware family (MeshCore, Meshtastic, or Reticulum RNode) and your board, and the node downloads the latest release and flashes it with live progress — no external flasher website, no cables to a computer. The same flow appears when a freshly plugged-in radio is detected, and a long list of flashing pitfalls was fixed along the way: radios no longer boot-loop after a flash, failures show the real error instead of silently bouncing back, wedged flash jobs can't get stuck forever, and board auto-detection no longer misidentifies Heltec boards.",
"Every Archipelago node now acts as a Reticulum relay. Nodes forward mesh traffic and re-broadcast peer announcements, so two radios that can't hear each other directly can still discover and message each other through any Archipelago node in between — your nodes become infrastructure for the whole neighbourhood mesh, including non-Archipelago apps like Sideband.",
"Reticulum (RNode) radios are now first-class mesh citizens. Radios are reliably detected on node startup (a boot-timing race used to leave them unclaimed), settings changes apply live without a restart, your node's name propagates over the Reticulum network so other apps like Sideband see it properly, and a crashed Reticulum daemon is detected and restarted automatically. Photo and file attachments sent over Reticulum now actually arrive — four separate delivery bugs were found and fixed, verified end-to-end over real radio hardware.",
"Messages to contacts that exist on both the internet mesh and a LoRa radio now prefer the radio when it's live, and attachments follow the same path — so co-located nodes talk over the air even when the internet path exists.",
"Mesh chat polish: each message in the image viewer shows which transport carried it, a new hop-route view shows the path a message took, reactions moved into a tidy dropdown, and read-tracking now reflects what you've actually seen. The Refresh and Broadcast buttons give real feedback, and the radio-setup modal shows honest probe progress instead of freezing.",
"The wallet transactions list works properly on phones now: it scrolls (it silently couldn't on touch screens before), and the All / On-chain / Lightning / Ecash filter tabs stay pinned at the top with a subtle blur while the list scrolls underneath.",
"Backend services no longer masquerade as launchable apps. Anything without a real web interface — databases, APIs, background workers, including stacks you deploy by hand for testing — now files under Services with no Launch button. Apps declare their interface in their manifest; for everything else the node checks the port itself to see whether a browser page actually lives there.",
"Lightning payments that take a while (slow multi-hop routes) are no longer reported as failed while they're still in flight. The wallet now waits properly, shows an honest \"pending\" state, and reports the true final outcome.",
"Server pages feel instant: Server, Federation, Lightning channels, Monitoring, wallet, Cloud, and Credentials screens now render immediately from a shared cache and refresh live in the background (including push updates over the node's websocket), instead of blanking while every panel refetches.",
"The node stays responsive under heavy load: the connection handler now sheds excess load instead of stalling everything behind it, and companion-app probes no longer trigger container builds during routine checks."
],
"components": [
{
"current_version": "1.7.116-alpha",
"download_url": "http://146.59.87.168:3000/lfg2025/archy/releases/download/v1.7.116-alpha/archipelago",
"current_version": "1.7.117-alpha",
"download_url": "http://146.59.87.168:3000/lfg2025/archy/releases/download/v1.7.117-alpha/archipelago",
"name": "archipelago",
"new_version": "1.7.116-alpha",
"sha256": "376cde3ff9691c7141e67b1b87e746634c45a20167c578938c4a33801eefe46e",
"size_bytes": 51787208
"new_version": "1.7.117-alpha",
"sha256": "a63bf41ac00e0b77da7bf3796e55a95e2973d4fc335580c5157bd7a506b4a59b",
"size_bytes": 53577760
},
{
"current_version": "1.7.116-alpha",
"download_url": "http://146.59.87.168:3000/lfg2025/archy/releases/download/v1.7.116-alpha/archipelago-frontend-1.7.116-alpha.tar.gz",
"name": "archipelago-frontend-1.7.116-alpha.tar.gz",
"new_version": "1.7.116-alpha",
"sha256": "7008f26d16c7b7d5dacc8edf55bd30b58c02602d3419359516bbf2497591db58",
"size_bytes": 178062490
"current_version": "1.7.117-alpha",
"download_url": "http://146.59.87.168:3000/lfg2025/archy/releases/download/v1.7.117-alpha/archipelago-frontend-1.7.117-alpha.tar.gz",
"name": "archipelago-frontend-1.7.117-alpha.tar.gz",
"new_version": "1.7.117-alpha",
"sha256": "10d409308736a664ede4415d086e1fd9b9b8c25aed4649c3b89562df97d169a0",
"size_bytes": 178025421
}
],
"release_date": "2026-07-27",
"signature": "455e0ce176a0f8c9adf3bbfd7bf949739ad0e5e23c40af9ed6c89b367a42f5d52dbfe97f5ef53f838f3cd17122087b2081c1e5549065504f1f9ea101c8ffc30e",
"release_date": "2026-07-29",
"signature": "d1a00037db19cdadf28950e43037dea4b3316d606001593f59afadf13c8fc43502a1404732eb9701f2f2ad9b1803f023a81bbd30d884432499276aeca0711a09",
"signed_by": "did:key:z6MkkidEnEpo6qHMCNSZoNKWtvQvxq3whnaME9wGgEFhq7ur",
"version": "1.7.116-alpha"
"version": "1.7.117-alpha"
}
+6 -1
View File
@@ -47,11 +47,16 @@ if [ -n "$RNODECONF_SRC" ] && [ -f "$RNODECONF_SRC" ]; then
# exit()/quit() builtins, which only exist in interactive Python (site.py
# injects them) — a frozen app hits NameError right as it tries to quit
# cleanly, after all the real work already succeeded. See
# pyi_rthook_exit_builtins.py.
# pyi_rthook_exit_builtins.py. A second hook fixes rnodeconf's board-flash
# step, which shells out to a bundled esptool.py via `sys.executable` —
# under a frozen binary that's the binary itself, not a real interpreter,
# so the flash subprocess call breaks. See
# pyi_rthook_fix_flasher_executable.py.
.venv/bin/pyinstaller --onefile --name archy-rnodeconf --clean --noconfirm \
--collect-submodules RNS \
--collect-data RNS \
--runtime-hook pyi_rthook_exit_builtins.py \
--runtime-hook pyi_rthook_fix_flasher_executable.py \
-d noarchive \
"$RNODECONF_SRC"
echo "Built dist/archy-rnodeconf ($(du -h dist/archy-rnodeconf | cut -f1))"
@@ -0,0 +1,34 @@
# PyInstaller runtime hook — see build.sh.
#
# rnodeconf's own board-flashing code shells out to a bundled esptool.py as
# `[sys.executable, flasher_path, "--chip", ..., "write_flash", ...]` (RNS's
# rnodeconf.py, ~line 2794 as of RNS 1.3.5). That's correct for a normal
# `python rnodeconf.py` invocation, but under a frozen PyInstaller binary
# `sys.executable` is the frozen binary itself, not a real interpreter — so
# the "subprocess" just re-invokes archy-rnodeconf's OWN argparse CLI with
# esptool-shaped flags, which it doesn't recognize, and the flash step fails
# immediately with "unrecognized arguments: --chip ...". Confirmed live
# against a real Heltec V4 (2026-07-23): device selection, band selection,
# and firmware download all worked; only the final `write_flash` subprocess
# call broke this way.
#
# Fix: point sys.executable at a real Python interpreter that has rnodeconf's
# own runtime deps available (esptool.py only needs pyserial, which RNS
# already depends on) before any of rnodeconf's code runs. Prefer the build
# venv this exact binary was frozen from — see build.sh — falling back to a
# bare `python3` on PATH if that venv isn't present on this node.
import os
import sys
if getattr(sys, "frozen", False):
_candidates = [
os.environ.get("ARCHY_RNODECONF_PYTHON", ""),
os.path.join(os.path.dirname(os.path.abspath(sys.argv[0])), "..", "reticulum-daemon", ".venv", "bin", "python3"),
os.path.expanduser("~/archy/reticulum-daemon/.venv/bin/python3"),
]
for _candidate in _candidates:
if _candidate and os.path.isfile(_candidate):
sys.executable = _candidate
break
else:
sys.executable = "python3"
+149 -34
View File
@@ -14,12 +14,13 @@ Security posture (see the plan's "most secure way" section):
RPC (one JSON object per line, both directions):
in : {"cmd":"send","dest_hash":"<hex16>","content":"","title":"","method":"direct|opportunistic"}
{"cmd":"announce"}
{"cmd":"set_name","name":""}
{"cmd":"status"}
{"cmd":"send_resource","id":"<correlation>","dest_hash":"<hex16>","data_b64":""}
{"cmd":"shutdown"}
out: {"event":"ready","dest_hash":"<hex16>","display_name":""}
{"event":"recv","source_hash":"<hex16>","content":"","title":"","fields":{},"app_data":"<hex>","rssi":n,"snr":n,"stamp":t}
{"event":"announce","dest_hash":"<hex16>","app_data":"<hex>"}
{"event":"announce","dest_hash":"<hex16>","app_data":"<hex>","display_name":""|null,"archy_blob":"ARCHY:2:…"|null}
{"event":"delivered","dest_hash":"<hex16>","state":"delivered|failed","id":"<hex>"}
{"event":"status","connected":bool,"dest_hash":"<hex16>","interfaces":[]}
{"event":"resource_progress","id":"<correlation>","transferred":n,"total":n}
@@ -81,6 +82,7 @@ def _write_rns_config(
no_radio: bool,
tcp_listen: str | None = None,
tcp_connect: list[str] | None = None,
enable_transport: bool = False,
) -> None:
"""Materialise an RNS config file. RNode interface for real radios; plain-TCP
server/client interface(s) for radio-less dev/verification (e.g. Aurora
@@ -135,7 +137,7 @@ def _write_rns_config(
)
cfg.write_text(
"[reticulum]\n"
" enable_transport = no\n"
f" enable_transport = {'yes' if enable_transport else 'no'}\n"
" share_instance = no\n"
" panic_on_interface_error = no\n\n"
"[interfaces]\n" + interfaces
@@ -190,6 +192,7 @@ class ReticulumDaemon:
no_radio=self.args.no_radio,
tcp_listen=self.args.tcp_listen,
tcp_connect=self.args.tcp_connect,
enable_transport=self.args.enable_transport,
)
self.reticulum = RNS.Reticulum(configdir=str(configdir))
self.identity = load_identity(self.seed)
@@ -227,31 +230,47 @@ class ReticulumDaemon:
if self.delivery_destination is not None:
self.delivery_destination.announce(app_data=self._announce_app_data())
def _announce_app_data(self) -> bytes:
"""Carry the Archy identity so peers bind this RNS destination onto the
existing contact, the same way a meshcore/Meshtastic identity advert does.
Reuses the exact ``ARCHY:2:{ed25519_hex}:{x25519_hex}`` wire format the
Rust side already parses (``protocol::parse_identity_broadcast``) and
binds via ``handle_identity_received``/``bind_federation_twins`` so a
Reticulum-carried identity merges into the SAME conversation as the
meshcore/Meshtastic/federation twins of the same Archy node, satisfying
cross-protocol DM convergence. The keys are the node's real Archipelago
ed25519/x25519 pubkeys (passed in by the Rust side, which already has
them) NOT this daemon's internally-HKDF-derived RNS keys, which exist
only to make the RNS destination hash deterministic and are never
themselves treated as an Archy identity.
Falls back to a plain display-name string (undetected as an identity
blob no `ARCHY:2:` prefix) if the Archy pubkeys weren't supplied, e.g.
a dev/selftest run with no `--archy-ed-pubkey-hex`.
"""
def _archy_identity_blob(self):
"""The ``ARCHY:2:{ed25519_hex}:{x25519_hex}`` identity string the Rust
side parses (``protocol::parse_identity_broadcast``) and binds via
``handle_identity_received`` so a Reticulum-carried identity merges
into the SAME conversation as the meshcore/Meshtastic/federation twins
of the same Archy node. The keys are the node's real Archipelago
pubkeys (passed in by the Rust side) NOT this daemon's
internally-HKDF-derived RNS keys, which exist only to make the RNS
destination hash deterministic. ``None`` when the pubkeys weren't
supplied (dev/selftest run)."""
if self.args.archy_ed_pubkey_hex and self.args.archy_x25519_pubkey_hex:
return (
f"ARCHY:2:{self.args.archy_ed_pubkey_hex}:"
f"{self.args.archy_x25519_pubkey_hex}"
).encode("ascii")
return (self.args.display_name or "").encode("utf-8")
return None
def _announce_app_data(self) -> bytes:
"""LXMF-standard announce app_data — msgpack ``[display_name,
stamp_cost, supported_functionality]`` via the router, so Sideband/
NomadNet/MeshChat (and upgraded archy nodes) all see our real display
name with the Archy identity blob appended as an EXTRA list element.
Stock clients only read the elements they know ([0]/[1]), so the blob
rides along invisibly instead of replacing the name the way the old
blob-only app_data did (which left every archy node nameless on RNS).
"""
import RNS.vendor.umsgpack as msgpack
app_data = self.router.get_announce_app_data(self.delivery_destination.hash)
blob = self._archy_identity_blob()
if blob is None:
return app_data
try:
peer_data = msgpack.unpackb(app_data)
if not isinstance(peer_data, list):
raise ValueError("unexpected announce app_data shape")
peer_data.append(blob)
return msgpack.packb(peer_data)
except Exception:
# Never let announce formatting kill announcing entirely — fall
# back to the legacy blob-only format (identity binding > name).
return blob
# ---- RNS-thread callbacks → asyncio ----
def _on_lxmf_delivery(self, message):
@@ -328,6 +347,15 @@ class ReticulumDaemon:
self._send(req)
elif cmd == "announce":
self.announce()
elif cmd == "set_name":
# Live rename: update the LXMF delivery destination's display name
# (what get_announce_app_data reads) and re-announce immediately so
# peers learn the new name without waiting for the next advert tick.
name = (req.get("name") or "").strip()
if name and self.delivery_destination is not None:
self.args.display_name = name
self.delivery_destination.display_name = name
self.announce()
elif cmd == "status":
self._broadcast(self._status())
elif cmd == "send_resource":
@@ -411,13 +439,29 @@ class ReticulumDaemon:
identity, RNS.Destination.OUT, RNS.Destination.SINGLE,
"archy", "resource",
)
link = RNS.Link(out_dest)
# established_callback identifies us to the peer BEFORE any Resource
# goes out: the receiving daemon attributes an inbound resource via
# link.get_remote_identity() (see _on_resource_received), which is
# None unless the initiator calls identify() — without this every
# transfer arrives with an empty source_hash and the Rust side can't
# route it to a contact (observed live 2026-07-28: 5KB image sent,
# concluded COMPLETE, never surfaced on the receiving node).
link = RNS.Link(
out_dest,
established_callback=lambda lk: self._on_out_link_established(
resource_hash, lk
),
)
link.set_link_closed_callback(
lambda lk: self.links.pop(resource_hash, None)
)
self.links[resource_hash] = link
return link, resource_hash
def _on_out_link_established(self, resource_hash: bytes, link):
link.identify(self.identity)
self._flush_pending_resource_sends(resource_hash, link)
def _send_resource(self, req: dict):
import RNS
req_id = req.get("id", "")
@@ -437,14 +481,14 @@ class ReticulumDaemon:
if link.status == RNS.Link.ACTIVE:
self._start_resource(link, data, req_id)
else:
# Link is establishing — queue and flush from the established
# callback. set_link_established_callback only fires once per Link
# object (the cache is reused across sends), so re-set it here to
# make sure THIS send's queue entry gets flushed too.
# Link is establishing — queue; the creation-time established
# callback (_on_out_link_established) identifies us then flushes
# the queue. Re-check afterwards to close the race where the
# link went ACTIVE between the status check and the append
# (the callback fires once, on the RNS thread).
self.pending_resource_sends[resource_hash].append((data, req_id))
link.set_link_established_callback(
lambda lk: self._flush_pending_resource_sends(resource_hash, lk)
)
if link.status == RNS.Link.ACTIVE:
self._flush_pending_resource_sends(resource_hash, link)
def _flush_pending_resource_sends(self, resource_hash: bytes, link):
import RNS
@@ -492,10 +536,17 @@ class ReticulumDaemon:
RNS.Destination.hash(identity, "lxmf", "delivery").hex()
if identity is not None else ""
)
# RNS hands a concluded Resource's data as a file-like object
# (BufferedReader over the assembled stream), not bytes —
# observed live 2026-07-28: b64encode raised "a bytes-like
# object is required" and every received transfer was lost.
data = resource.data
if hasattr(data, "read"):
data = data.read()
self._emit_threadsafe({
"event": "resource_recv",
"source_hash": source_hash,
"data_b64": base64.b64encode(resource.data).decode("ascii"),
"data_b64": base64.b64encode(data).decode("ascii"),
})
except Exception as e: # never let a callback kill the RNS thread
self._emit_threadsafe({"event": "error", "where": "resource_recv",
@@ -505,7 +556,14 @@ class ReticulumDaemon:
sock_path = self.args.socket
if os.path.exists(sock_path):
os.unlink(sock_path)
server = await asyncio.start_unix_server(self._handle_client, path=sock_path)
# limit: asyncio's default per-line StreamReader cap is 64KiB, but
# send_resource requests carry the whole payload base64-encoded on one
# JSON line — a ~48KB+ attachment overflows the default and the raised
# LimitOverrunError tears down the RPC connection (the Rust side then
# sees "reticulum-daemon is gone" and restarts the whole session).
server = await asyncio.start_unix_server(
self._handle_client, path=sock_path, limit=16 * 1024 * 1024
)
os.chmod(sock_path, 0o600)
self.announce()
async with server:
@@ -521,10 +579,41 @@ class _AnnounceHandler:
self.receive_path_responses = True
def received_announce(self, destination_hash, announced_identity, app_data):
# Decode what we can here (both the LXMF-standard display name and our
# appended ARCHY identity blob — see _announce_app_data) so the Rust
# side gets clean typed fields instead of re-implementing msgpack.
display_name = None
archy_blob = None
raw = app_data or b""
try:
import LXMF
display_name = LXMF.display_name_from_app_data(raw)
# A legacy blob-only announce is plain ascii, so LXMF's decoder
# returns the whole ARCHY identity blob as a "name" — drop it.
if display_name and display_name.startswith("ARCHY:"):
display_name = None
except Exception:
display_name = None
try:
if raw[:1] and ((0x90 <= raw[0] <= 0x9F) or raw[0] == 0xDC):
import RNS.vendor.umsgpack as msgpack
peer_data = msgpack.unpackb(raw)
if isinstance(peer_data, list):
for el in peer_data[3:]:
if isinstance(el, bytes) and el.startswith(b"ARCHY:"):
archy_blob = el.decode("ascii", "ignore")
break
elif raw.startswith(b"ARCHY:"):
# Legacy (pre-upgrade archy node): app_data IS the blob.
archy_blob = raw.decode("ascii", "ignore")
except Exception:
archy_blob = None
self.daemon._emit_threadsafe({
"event": "announce",
"dest_hash": destination_hash.hex(),
"app_data": (app_data or b"").hex(),
"app_data": raw.hex(),
"display_name": display_name,
"archy_blob": archy_blob,
})
@@ -554,6 +643,10 @@ def _parse_args(argv):
p.add_argument("--txpower", type=int, default=17)
p.add_argument("--spreadingfactor", type=int, default=8)
p.add_argument("--codingrate", type=int, default=5)
p.add_argument("--enable-transport", action="store_true",
help="run as an RNS transport node: relay traffic and rebroadcast "
"announces so nodes beyond direct RF range discover each other "
"through this one")
p.add_argument("--no-radio", action="store_true", help="bring up with no RNode (selftest)")
p.add_argument("--check", action="store_true", help="print derived dest hash and exit (no RNS)")
p.add_argument("--selftest", action="store_true", help="bring up RNS+LXMF with no radio, verify, exit")
@@ -604,8 +697,30 @@ def main(argv=None) -> int:
if args.selftest:
args.no_radio = True
daemon.bring_up()
# Announce app_data round-trip: the LXMF-standard msgpack name must be
# decodable by stock clients AND (with archy keys set) the appended
# identity blob must survive as an extra list element — this is the
# exact wire contract the Rust announce handler and Sideband both
# depend on, so verify it here where there's a real router to build it.
import LXMF as _LXMF
import RNS.vendor.umsgpack as _msgpack
args.archy_ed_pubkey_hex = args.archy_ed_pubkey_hex or "ab" * 32
args.archy_x25519_pubkey_hex = args.archy_x25519_pubkey_hex or "cd" * 32
app_data = daemon._announce_app_data()
decoded_name = _LXMF.display_name_from_app_data(app_data)
assert decoded_name == args.display_name, (
f"announce name round-trip failed: {decoded_name!r} != {args.display_name!r}"
)
blob_elems = [e for e in _msgpack.unpackb(app_data)[3:]
if isinstance(e, bytes) and e.startswith(b"ARCHY:")]
assert blob_elems, "identity blob missing from announce app_data"
# Live rename: set_name must change what the next announce carries.
daemon.delivery_destination.display_name = "selftest-renamed"
renamed = _LXMF.display_name_from_app_data(daemon._announce_app_data())
assert renamed == "selftest-renamed", f"rename round-trip failed: {renamed!r}"
print(f"selftest ok — dest_hash={daemon.dest_hash_hex} "
f"display_name={args.display_name!r} lxmf_router=up")
f"display_name={args.display_name!r} lxmf_router=up "
f"announce_app_data=verified set_name=verified")
return 0
for sig in (signal.SIGINT, signal.SIGTERM):
+82
View File
@@ -84,6 +84,64 @@ if ! command -v nano >/dev/null 2>&1; then
fi
fi
if ! command -v ping >/dev/null 2>&1; then
log "Installing iputils-ping..."
if sudo apt-get update -qq 2>>"$LOG_FILE" && sudo apt-get install -y -qq iputils-ping 2>>"$LOG_FILE"; then
ok "ping installed"
else
warn "Unable to install ping automatically; continuing update"
fi
fi
if ! command -v esptool >/dev/null 2>&1; then
log "Installing esptool for LoRa radio firmware flashing..."
if sudo apt-get update -qq 2>>"$LOG_FILE" && sudo apt-get install -y -qq esptool 2>>"$LOG_FILE"; then
ok "esptool installed"
else
warn "Unable to install esptool automatically; radio firmware flashing will be unavailable"
fi
fi
# Debian's esptool package (4.7.0+dfsg-0.1) ships without the precompiled
# esp32s3 "stub flasher" blob (stripped for DFSG compliance — no
# buildable-from-source path Debian could verify). Without it, esptool's
# normal stub-loader mode fails outright (FileNotFoundError), and the ROM
# bootloader fallback (--no-stub) doesn't implement a full-chip erase at
# all — confirmed live 2026-07-23 flashing a real Heltec V4, both ways.
# Fetching the exact same file from the matching upstream esptool release
# tag restores full (and correct) flashing behavior — it's the same
# open-source codebase, just the one blob Debian's packaging couldn't
# include.
if command -v esptool >/dev/null 2>&1; then
STUB_DIR="/usr/lib/python3/dist-packages/esptool/targets/stub_flasher"
STUB_FILE="$STUB_DIR/stub_flasher_32s3.json"
if [ ! -f "$STUB_FILE" ]; then
log "Fetching esptool's esp32s3 stub flasher (missing from the Debian package)..."
ESPTOOL_VERSION=$(esptool version 2>/dev/null | tail -1 | tr -d ' \t')
if [ -n "$ESPTOOL_VERSION" ] && sudo curl -fsSL -o "$STUB_FILE" \
"https://raw.githubusercontent.com/espressif/esptool/v${ESPTOOL_VERSION}/esptool/targets/stub_flasher/stub_flasher_32s3.json" \
2>>"$LOG_FILE"; then
sudo chmod 644 "$STUB_FILE"
ok "esp32s3 stub flasher installed"
else
sudo rm -f "$STUB_FILE" 2>/dev/null
warn "Unable to fetch esp32s3 stub flasher; LoRa firmware flashing will be unavailable"
fi
fi
fi
# Build-time prerequisites for reticulum-daemon/build.sh's PyInstaller step
# below (discovered the hard way: ensurepip needs python3-venv, and
# PyInstaller itself needs objdump + libpython3.13.so at build time — none
# of these are pulled in by a bare `python3` package on Debian trixie).
for pkg in python3-venv binutils libpython3.13; do
if ! dpkg -s "$pkg" >/dev/null 2>&1; then
log "Installing $pkg (reticulum-daemon build prerequisite)..."
sudo apt-get update -qq 2>>"$LOG_FILE" && sudo apt-get install -y -qq "$pkg" 2>>"$LOG_FILE" \
|| warn "Unable to install $pkg automatically; reticulum-daemon tools build may fail"
fi
done
# Fetch latest
log "Fetching from origin..."
git fetch origin main --quiet 2>>"$LOG_FILE"
@@ -155,6 +213,30 @@ sudo cp "$BUILT_BIN" "$INSTALL_BIN"
sudo chmod +x "$INSTALL_BIN"
ok "Backend installed"
# Build + install reticulum-daemon tools (archy-reticulum-daemon, archy-rnodeconf).
# Non-fatal: archipelago falls back to its dev venv path if the packaged
# binaries aren't present, so a missing/failed build here degrades mesh
# Reticulum support rather than breaking the update. This mirrors
# deploy-to-target.sh's existing manual-deploy step, which until now was the
# only path that ever installed these — a node that only ever received OTA
# self-updates had neither binary.
if [ -f "$REPO_DIR/reticulum-daemon/build.sh" ]; then
log "Building reticulum-daemon tools (archy-reticulum-daemon, archy-rnodeconf)..."
if (cd "$REPO_DIR/reticulum-daemon" && ./build.sh) 2>>"$LOG_FILE"; then
for tool in archy-reticulum-daemon archy-rnodeconf; do
if [ -f "$REPO_DIR/reticulum-daemon/dist/$tool" ]; then
sudo cp "$REPO_DIR/reticulum-daemon/dist/$tool" /usr/local/bin/
sudo chmod +x "/usr/local/bin/$tool"
ok "$tool installed"
else
warn "$tool not built — leaving existing /usr/local/bin/$tool (if any) in place"
fi
done
else
warn "reticulum-daemon tools build failed — continuing without updating them"
fi
fi
# Build frontend
log "Building Vue frontend (production)..."
cd "$FRONTEND_DIR"
+85
View File
@@ -0,0 +1,85 @@
#!/bin/bash
# Mesh / Reticulum test suite — the "is the mesh stack healthy" gate.
#
# Three layers, cheapest first:
# 1. Rust unit tests (no hardware, ~2s once built)
# 2. Daemon selftest (full RNS+LXMF bring-up, no radio; also verifies
# the announce app_data wire contract + set_name)
# 3. Live-node assertions (optional; needs a running archipelago with a
# radio — set MESH_TEST_LIVE=1 MESH_TEST_PW=...)
#
# Usage:
# tests/mesh/run-mesh-tests.sh # layers 1+2
# MESH_TEST_LIVE=1 MESH_TEST_PW='...' tests/mesh/run-mesh-tests.sh
# MESH_TEST_HOST=100.113.100.55 ... # live-test a remote node
set -u
cd "$(dirname "$0")/../.."
FAIL=0
ok() { echo "ok - $1"; }
bad() { echo "not ok - $1"; FAIL=1; }
# ── 1. Rust unit tests ────────────────────────────────────────────────
RUST_RESULTS=$(cd core && cargo test -p archipelago --bin archipelago mesh 2>&1 | grep "^test result:")
if [ -n "$RUST_RESULTS" ] && ! echo "$RUST_RESULTS" | grep -vq " 0 failed"; then
ok "rust mesh unit tests ($(echo "$RUST_RESULTS" | grep -o '[0-9]* passed' | head -1))"
else
bad "rust mesh unit tests"
fi
# ── 2. Reticulum daemon selftest (no radio) ───────────────────────────
TMP=$(mktemp -d)
trap 'rm -rf "$TMP"' EXIT
head -c 32 /dev/urandom > "$TMP/key"
DAEMON=reticulum-daemon/.venv/bin/python
if [ -x "$DAEMON" ]; then
if "$DAEMON" reticulum-daemon/reticulum_daemon.py \
--identity-key "$TMP/key" --rns-config "$TMP/rns" \
--socket "$TMP/sock" --display-name "SelftestNode" --selftest 2>/dev/null \
| grep -q "announce_app_data=verified set_name=verified"; then
ok "daemon selftest (announce wire contract + set_name)"
else
bad "daemon selftest"
fi
else
echo "skip - daemon selftest (no venv at $DAEMON)"
fi
# ── 3. Live node assertions (opt-in) ──────────────────────────────────
if [ "${MESH_TEST_LIVE:-0}" = "1" ]; then
HOST="${MESH_TEST_HOST:-127.0.0.1}"
PW="${MESH_TEST_PW:?set MESH_TEST_PW}"
# Nodes differ: dev boxes serve plain http on :80, ISO installs https.
RPC=""
for base in "http://$HOST" "https://$HOST" "http://$HOST:5678"; do
code=$(curl -ksS -o /dev/null -w '%{http_code}' -m 5 -X POST "$base/rpc/v1" 2>/dev/null || true)
case "$code" in 000|"") continue ;; *) RPC="$base/rpc/v1"; break ;; esac
done
[ -n "$RPC" ] || { bad "live: no RPC endpoint reachable on $HOST"; echo FAIL; exit 1; }
JAR="$TMP/jar"
curl -ksS -c "$JAR" -H "Content-Type: application/json" \
-d "{\"jsonrpc\":\"2.0\",\"method\":\"auth.login\",\"params\":{\"password\":\"$PW\"},\"id\":1}" \
"$RPC" > "$TMP/login"
if grep -q '"error":null' "$TMP/login"; then ok "live: rpc login"; else bad "live: rpc login"; fi
call() {
local csrf; csrf=$(awk '/^[^#]/ && /csrf_token/ {print $7; exit}' "$JAR")
curl -ksS -b "$JAR" -c "$JAR" -H "Content-Type: application/json" \
-H "X-CSRF-Token: $csrf" \
-d "{\"jsonrpc\":\"2.0\",\"method\":\"$1\",\"params\":${2:-{\}},\"id\":2}" \
--max-time 60 "$RPC"
}
ST=$(call mesh.status)
echo "$ST" | grep -q '"device_connected":true' \
&& ok "live: radio connected ($(echo "$ST" | grep -o '"device_type":"[a-z]*"'))" \
|| bad "live: radio connected"
echo "$ST" | grep -q '"self_advert_name":"[^"]' \
&& ok "live: node has a mesh name" || bad "live: node has a mesh name"
call mesh.refresh | grep -q '"refreshed":true' \
&& ok "live: mesh.refresh" || bad "live: mesh.refresh"
call mesh.broadcast | grep -q '"broadcast":true' \
&& ok "live: mesh.broadcast" || bad "live: mesh.broadcast"
# No peer may ever display a raw identity blob as its name.
call mesh.peers | grep -q '"advert_name":"ARCHY:' \
&& bad "live: no ARCHY-blob peer names" || ok "live: no ARCHY-blob peer names"
fi
[ "$FAIL" = 0 ] && echo "PASS" || { echo "FAIL"; exit 1; }