Phase 7 Unit 7d-B. When an operator opts an instance OUT of the Team Gateway
relay (Unit 7b deprovision), the connector revokes the per-gateway secret and
closes the gateway's WS with 4401. The reconnect supervisor previously treated
EVERY close as retryable, so the live process spun "retrying 4401" forever and
the dashboard showed a red error — opt-out looked like a failure.
Now a 4401 close that arrives AFTER a successful handshake is recognized as a
terminal credential revocation:
- ws_transport.py: track `_handshake_succeeded` (set when a descriptor is
received); on a 4401 close after a prior success, latch `auth_revoked` and do
NOT spawn the reconnect supervisor. A 4401 BEFORE any successful handshake
stays retryable (cold-start / not-yet-provisioned race, not a revocation).
New `auth_revoked` property + a websockets-version-safe close-code reader
(prefers `.rcvd`/`.sent` Close frames; `.code` is deprecated in websockets 13+).
- adapter.py: a revocation monitor turns `transport.auth_revoked` into a clean,
NON-retryable `relay_disabled` fatal and notifies the gateway's fatal-error
handler (so the adapter is removed and NOT queued for reconnection — the
credential is dead until the instance is recreated). Monitor is cancelled on
disconnect; only started when the transport exposes `auth_revoked` (prod WS).
- run.py: `_handle_adapter_fatal_error` maps the `relay_disabled` code to a
`disabled` platform_state (not `fatal`/`retrying`).
- web: PlatformsCard renders the `disabled` state with a neutral outline badge,
a PowerOff icon, and muted (not destructive-red) text + message. New optional
`status.disabled` i18n string ("Disabled").
Also bundles the Phase 7 contract-doc update (this doc is authoritative in
hermes-agent): docs/relay-connector-contract.md gains an "Author-first
resolution + the account-link (DM) path" section documenting the
multi-tenant-guild rule (D-7.2 — route by authenticated author binding, never by
guild; unlinked → fail-closed), the `/link <code>` DM flow, and the
connector-authoritative opt-out + terminal-4401 behavior this PR implements.
Tests: +2 ws_transport (4401-after-handshake terminal / no-reconnect;
4401-before-handshake stays retryable) and +2 adapter (revocation → non-retryable
relay_disabled fatal + handler fired; no-revocation → no fatal). 138 relay tests
pass (incl. the contract-doc conformance test); ruff clean; web tsc clean.
Phase 7 Unit 7d-B (relay-adapter solo lane). Q17 → Option 2; Option 3 (live
de-register, no recreate) + the restart-re-provision hole deferred post-alpha.
Register a per-instance wakeUrl and forward it to the connector at
self-provision so a suspended gateway can be poked awake when buffered
work arrives (pairs with the connector-side WakePoker).
- relay_wake_url() resolver (env GATEWAY_RELAY_WAKE_URL, then
gateway.relay_wake_url in config.yaml), mirroring relay_instance_id()
- thread wake_url through _post_provision (adds wakeUrl to the body only
when set) + self_provision_relay (resolve, forward, log)
- hermes gateway enroll --wake-url <url> persists GATEWAY_RELAY_WAKE_URL
- document the §5.2 wake poke in relay-connector-contract.md §3.3
- tests: relay_wake_url resolution (env/config/absent), provision
forwarding, body-only-when-set (6 new; 130 relay tests pass)
The actual reconnect+drain on wake is Unit B's loop; this unit only
wires the wake SIGNAL. Opt-in: absent wakeUrl => connector never pokes.
The gateway half of the going-idle/buffered-flip primitive (scale-to-zero
PRIMITIVE, not the behaviour). Integrates with the EXISTING drain transition:
- ws_transport: `go_idle()` sends `going_idle` + awaits the connector's
`going_idle_ack` (connector-authoritative flip-then-ack, Q-5.3c — stays
serving until the ack so nothing is lost in the flip window); acks a buffered
inbound (bufferId present) via `inbound_ack` after the handler runs
(drain-without-dup on the delivery leg); NET-NEW reconnect loop re-dials +
re-handshakes after an unexpected close (off by default, on in production).
- adapter: emits `going_idle` from its existing `disconnect()` drain seam before
tearing down the socket; best-effort + guarded (never blocks shutdown).
- transport Protocol + contract doc §3.2 document the 3 new frames.
+6 relay tests (124 pass). NOT in scope: the autonomous idle timer / machine
suspend / NAS health model (deferred behaviour). Ben's relay-adapter solo lane.
The gateway half of Phase 6 Unit ζ: project the agent's existing relevance
knobs into the connector's platform-agnostic vocabulary and declare them at boot
over the /relay/policy route, so the SAME mention-gating / free-response /
allow-bots behavior the agent applies directly also governs relay delivery (and
excluded chatter never wakes a scaled-to-zero agent).
- gateway/relay/__init__.py:
- relay_relevance_policy(): project require_mention -> requireAddress,
free_response_channels -> freeResponseScopes, {PLATFORM}_ALLOW_BOTS in
{mentions,all} -> allowOtherBots. Reads the fronted platform's config block
+ bridged top-level keys. Returns None when all-default (the connector's
quiet default already matches) or no concrete platform is fronted.
- send_relay_policy(): POST /relay/policy authenticated with the gateway's own
per-gateway upgrade token (make_upgrade_token — same bearer as the WS
upgrade), so the connector attaches it to the authenticated instance, never
a body-asserted id. Re-declares every boot (self-healing, full replace).
NEVER raises, NEVER blocks boot — relevance is an optimization layered on
the δ/ε authorization gate. Reuses the per-gateway secret + the
/relay/provision host; no new inbound surface, no new credential.
- _policy_url(): ws(s)://…/relay -> http(s)://…/relay/policy.
- gateway/run.py: call send_relay_policy() after register_relay_adapter()
succeeds (the secret is resolved by then).
- docs/relay-connector-contract.md: new §7 documenting per-instance delivery +
the management plane (/manage/* + /relay/policy) + the relevance-declaration
contract; versioning renumbered to §8. Contract conformance test stays green
(§2/§3 tables untouched).
Tests: +12 (projection mapping incl. comma-string + top-level fallback; send
auth/skip/fail-soft/non-200). Full relay suite 118 pass. The connector route is
already E2E-proven (connector repo gateway_policy_driver.py); this adds the real
gateway send-path it pairs with.
This completes Phase 6 (Team Gateway per-user isolation) end to end.
Add relay_instance_id() (env GATEWAY_RELAY_INSTANCE_ID first, then
gateway.relay_instance_id in config.yaml, mirroring the other relay readers) and
forward it in the /relay/provision body so the connector can bind
gatewayId -> instanceId and route inbound per-instance once Phase 6 delivery
lands.
The value is gateway-asserted but safely scoped: the org/tenant stays
NAS-token-verified at the connector, so a dishonest gateway can only bind its
OWN tenant's instance — same posture as relay_endpoint(). instanceId is only
added to the body when present, so omitting it lets the connector store null
(back-compat: self-hosted / pre-Phase-6 gateways simply have no binding yet).
For a managed (NAS-hosted) agent the id is NAS's AgentInstance.id, stamped into
the container env beside GATEWAY_RELAY_URL.
Tests: reader (env/config/absent), self_provision_relay forwards the id (set +
absent), and the real _post_provision body includes instanceId ONLY when set.
Refs: ~/nous/specs/gateway-gateway plan.md Phase 6 Unit α; decisions.md Q11.
The connector half (gateway-gateway) moves the passthrough plane's post-ACK
forward off the HTTP gatewayEndpoint onto the gateway's outbound /relay WS via
a new passthrough_forward frame. This is the gateway side: the relay adapter
now RECEIVES and handles that frame, so a hosted gateway (no public IP) can
process forwarded Class-2/3 traffic (Discord interactions, Twilio) over the
socket it already holds — closing the "passthrough inbound doesn't work for
hosted gateways" gap.
- ws_transport.py: decode the passthrough_forward frame; PassthroughForward
dataclass + _passthrough_from_wire (base64 body -> exact bytes, byte parity
with the connector's toPassthroughForward); set_passthrough_handler mirrors
set_interrupt_inbound_handler.
- transport.py: PassthroughHandler type + set_passthrough_handler on the
RelayTransport protocol.
- adapter.py: connect() wires the passthrough handler; _on_passthrough decodes
the (already-sanitized, token-free) forward and, for a Discord interaction,
converts it to a MessageEvent routed through the normal agent path
(handle_message) — the reply egresses over the outbound / token-less
follow_up path, so the gateway never holds the interaction credential. Never
raises (a bad forward can't kill the read loop). Non-discord forwards (Twilio)
are logged + dropped for now.
- docs/relay-connector-contract.md: document the passthrough_forward frame +
PassthroughForward shape + §3.1.
The interaction -> MessageEvent CONVERSION semantics (slash-command vs button
UX, option rendering) are the open sub-design flagged in the spec; the TRANSPORT
+ receive mechanism (this) is settled per Ben's Gate-2 decision: "the relay
adapter handles receiving these events over the WS."
Tests (tests/gateway/relay/test_relay_passthrough.py): byte-preservation
round-trip (+ malformed-body tolerance), connect() wiring, application-command
and message-component interactions route through handle_message with correct
session source + scope capture, malformed/non-discord forwards dropped cleanly.
100 relay tests green. Pairs with the connector PR (gateway-gateway).
* fix(relay): enable RELAY platform + normalize dial URL so hosted gateways actually connect
Three bugs blocked a self-provisioned hosted gateway from ever establishing its
inbound relay WS (found while standing up the live staging end-to-end). Each
masked the next; all three are needed for inbound to work.
1. RELAY platform never enabled in config.platforms (gateway/config.py).
register_relay_adapter() puts the adapter in the platform_registry, but
start_gateway()'s connect loop iterates self.config.platforms — which never
contained Platform.RELAY. So the adapter was "registered" but never connected
(logs showed "relay adapter registered" then "No messaging platforms
enabled"). Fix: _apply_env_overrides now enables Platform.RELAY (mirroring
relay_url into extra for the connected-checker) when GATEWAY_RELAY_URL (env)
or gateway.relay_url (yaml) is set. Absent -> no RELAY entry (direct/
single-tenant gateways unaffected).
2. URL scheme not converted for the WS dial (gateway/relay/ws_transport.py).
The relay URL is configured once as the http(s):// base (used as-is for the
provision POST), but websockets.connect rejects http(s):// with "scheme isn't
ws or wss". Fix: _ws_dial_url converts https->wss / http->ws.
3. /relay path not appended (same helper). The connector mounts its
WebSocketServer at path "/relay" and returns HTTP 400 on an upgrade to any
other path. GATEWAY_RELAY_URL is the base (no /relay), so the dial hit "/"
-> 400. Fix: _ws_dial_url ensures the path ends in /relay. Idempotent — a URL
already carrying ws(s):// and/or /relay is unchanged, so provision's
_provision_url (which derives /relay/provision from either form) still works.
Why the cross-repo E2E missed #2/#3: the stub connector binds ws://host:port and
its websockets.serve accepts ANY path, so neither the scheme nor the /relay path
was exercised. Real connector needs both.
Verified live on staging hermes-agent-stg-automated-perception-5054: after the
fixes the gateway logs "Connecting to relay..." -> "✓ relay connected" ->
"Gateway running with 1 platform(s)" against
wss://gateway-gateway.staging-nousresearch.com/relay, stable.
Tests: added _ws_dial_url scheme+path+idempotency cases (test_ws_transport.py)
and RELAY-platform-enablement cases for env + yaml + absent (test_config.py).
Full gateway/relay + config suites green (191 passed).
Relay-adapter lane. EXPERIMENTAL.
* fix(relay): re-attach guild_id to outbound so connector egress resolves the tenant
The final bug in the hosted-relay round-trip. Inbound worked end to end (Discord
-> connector -> bus -> agent WS -> agent runs -> reply), but the reply's egress
was declined by the connector: "discord egress declined: target not routed to an
onboarded tenant".
Cause: the connector's routedEgressGuard resolves the owning tenant from the
OUTBOUND action's metadata.guild_id (Discord's routing discriminator). The
gateway's generic delivery path builds outbound metadata via
run.py _thread_metadata_for_source, which only carries thread_id (and returns
None entirely for a non-threaded message) — so guild_id never reached the
connector, tenant resolution failed, and the shared bot refused to post.
Fix (relay-adapter-local, no perturbation of the generic delivery path or other
platforms): RelayAdapter learns chat_id -> guild_id from each inbound event
(_capture_scope) and re-attaches it to the outbound action's metadata in send()
(_with_scope) when not already present. No-op for chats we never saw inbound
(e.g. DMs) and never overwrites an explicit guild_id.
Verified live on staging hermes-agent-stg-automated-perception-5054: an
@mention in #general now produces a visible bot reply — full multi-tenant relay
round-trip (real Discord -> shared connector bot -> tenant routing -> agent WS ->
reply egress -> Discord).
Tests: _capture_scope/_with_scope reattach, no-scope no-op, explicit-guild_id
preserved (test_relay_adapter.py). Full relay + config suites green (160 passed).
Relay-adapter lane. EXPERIMENTAL.
self_provision_if_managed() gated on is_managed(), but is_managed() means
"NixOS/package-manager-managed" (it keys on HERMES_MANAGED or a ~/.hermes/.managed
marker) — NOT "NAS-hosted". A NAS-provisioned Fly agent sets NEITHER, so the gate
was always False and relay self-provision SILENTLY no-oped on exactly the hosted
agents it was built for. Caught live: a staging agent with GATEWAY_RELAY_URL
correctly stamped logged "No messaging platforms enabled" and never dialed the
connector; HERMES_MANAGED was unset on the machine. The unit tests had mocked
is_managed()->True, so they passed while the real trigger never fired (mocked-
trigger blind spot).
Fix: drop the is_managed() gate and rename self_provision_if_managed ->
self_provision_relay. The real trigger is now "relay_url() set + no pinned secret
+ a resolvable NAS token", which is both NAS-independent and self-guarding:
- NAS-hosted agent: GATEWAY_RELAY_URL + no pinned secret + bootstrapped NAS
token -> self-provisions.
- Self-hosted + `hermes gateway enroll`: pinned GATEWAY_RELAY_SECRET -> skipped
(existing secret-present guard).
- Self-hosted, unenrolled, no NAS identity: resolve_nous_access_token() fails
-> graceful no-op (existing fail-soft path).
Security: unchanged trust model. The connector still derives tenant from the
validated NAS token; this only broadens WHEN the provision attempt fires, and
every broadened case is still guarded by token-resolution + pinned-secret-skip.
Tests: replaced the (wrong) "skips when not managed" test with a regression test
proving a NAS host where is_managed()==False STILL provisions; renamed all call
sites; added a "no NAS token -> non-fatal skip" test for the self-hosted branch.
88 relay tests pass.
Relay-adapter lane. EXPERIMENTAL.
The connector now delivers inbound (messages + interrupts) over the gateway's
OUTBOUND /relay WebSocket, not a signed HTTP POST to an inbound endpoint. The
gateway needs no inbound HTTP port — which is what makes hosted gateways (no
public IP) able to receive inbound at all.
- gateway/relay/adapter.py: connect() wires set_interrupt_inbound_handler(
self.on_interrupt) so connector->gateway interrupt_inbound frames bridge into
the existing per-session interrupt path (the inbound message handler was
already wired). Removed _maybe_start_inbound_receiver() + the _inbound_runner
lifecycle — there is no HTTP receiver anymore.
- gateway/relay/inbound_receiver.py: deleted (the signed-HTTP InboundDelivery
receiver).
- gateway/relay/__init__.py: removed relay_inbound_config() (dead with the
receiver gone). The delivery key is still set in-process by self-provision for
forward-compat but is no longer consumed for inbound.
- docs/relay-connector-contract.md: §3 rewritten — inbound is the WS back-channel
routed cross-instance via the connector's relay bus; §5 interrupt + §6 auth
table updated; the old signed-HTTP-POST + per-tenant-delivery-key-signing path
is documented as superseded. gatewayEndpoint noted as passthrough-plane only.
Tests: stub_connector grows set_interrupt_inbound_handler + push_interrupt;
new test_relay_interrupt case proves connect() wires BOTH inbound handlers and an
interrupt_inbound frame over the WS cancels the right session. Removed the
HTTP-receiver test; updated the crypto-shedding scan + self-provision delivery-key
assertion. 88 relay tests pass.
EXPERIMENTAL. Pairs with gateway-gateway (relay bus + WsGatewayDelivery) and the
NAS GATEWAY_RELAY_URL stamp. The cross-repo E2E (connector repo) proves the full
multi-instance path against this production adapter code.
The gateway half of relay Phase 3. On a MANAGED boot with relay configured and
no secret pinned, the runtime self-provisions its relay credentials IN-PROCESS:
resolve the agent's own Nous access token (resolve_nous_access_token) -> POST
the connector's /relay/provision asserting its own endpoint + route keys ->
set GATEWAY_RELAY_ID/SECRET/DELIVERY_KEY into os.environ so the immediately-
following register_relay_adapter() reads them and dials out authenticated.
No human, no enrollment token, no disk write — the creds live only in process
memory (save_env_value refuses under managed anyway, and keeping the secret off
any volume is the stronger posture). Stateless: process-env creds don't survive
a restart, so a managed container re-provisions every boot; the connector's
rotation window covers a still-connected prior instance. An explicitly-pinned
GATEWAY_RELAY_SECRET is respected (skip). Self-hosted is unchanged: humans keep
using `hermes gateway enroll`.
Endpoint provenance is gateway-asserted (GATEWAY_RELAY_ENDPOINT +
GATEWAY_RELAY_ROUTE_KEYS, env or gateway.relay_* config) — uniform code path
whether the operator sets it (self-hosted) or NAS stamps it (hosted, the only
case NAS knows the public URL). Both absent -> outbound-only provisioning
(credentials, no inbound routes). The connector scopes the asserted endpoint to
the verified tenant, so it stays within the security model.
- gateway/relay/__init__.py: relay_endpoint(), relay_route_keys(),
_provision_url(), _post_provision(), self_provision_if_managed() (never
raises — a provision failure logs and boots without relay auth).
- gateway/run.py: call self_provision_if_managed() immediately before
register_relay_adapter() in the startup path.
Tests: 12 unit (trigger logic, respect-pinned-secret, in-process env wiring,
endpoint+routes vs outbound-only, fail-soft on token/connector failure);
mutation-checked (drop is_managed guard / pinned-secret guard -> tests fail).
Cross-repo live E2E driver lands on the connector side (depends on this).
EXPERIMENTAL: relay auth scheme may change until >=2 Class-1 platforms validate.
* feat(relay): authenticate the connector⇄gateway WS channel
The relay gateway may be customer-managed and internet-exposed, so the
connector⇄gateway channel is itself authenticated (distinct from the
platform crypto the relay path sheds). Add gateway/relay/auth.py — a
Python port of the connector's HMAC token + delivery-signature schemes
(relayAuthToken.ts / deliverySigning.ts), verified byte-for-byte against
the connector's compiled TypeScript via cross-language test vectors.
Present an Authorization bearer on the /relay WS upgrade keyed by the
per-gateway secret (resolved from GATEWAY_RELAY_ID / GATEWAY_RELAY_SECRET
in env or config). The connector rejects an unauthenticated/invalid/
revoked upgrade with close 4401.
* feat(relay): signed-HTTP inbound delivery receiver
The connector delivers normalized inbound events to a tenant's gateway
over a signed HTTP POST, not the outbound /relay WS: the connector
instance owning a platform socket is generally not the instance a given
gateway dialed out to, so inbound targets a tenant endpoint that may
load-balance across gateway instances.
Add gateway/relay/inbound_receiver.py — verifies x-relay-signature /
x-relay-timestamp over the EXACT raw request bytes (re-serializing would
break the HMAC: JS JSON.stringify is compact, Python json.dumps spaces)
against the per-tenant delivery key verify list within a 300s replay
window, then dispatches messages to handle_message and interrupts to the
interrupt handler. Wire it into the adapter lifecycle (start in connect()
when a delivery key + bind port are configured, tear down in disconnect();
a purely-outbound dev gateway runs without it).
Refine test_relay_sheds_crypto to distinguish PLATFORM crypto (Discord
ed25519, Twilio/WeCom HMAC — still shed) from the connector⇄gateway
CHANNEL auth (intended): auth.py / inbound_receiver.py are exempt from
the platform-symbol scan but still banned from importing platform-crypto
modules, plus a positive guard that auth.py uses only stdlib hmac/hashlib.
* feat(relay): hermes gateway enroll CLI
Add the gateway half of zero-touch enrollment. `hermes gateway enroll`
resolves a fresh Nous Portal access token (the tenant-proving identity),
POSTs {enrollmentToken, gatewayId} to the connector's /relay/enroll, and
persists GATEWAY_RELAY_ID / GATEWAY_RELAY_SECRET / GATEWAY_RELAY_DELIVERY_KEY
to ~/.hermes/.env. The per-gateway secret authenticates the WS upgrade;
the per-tenant delivery key verifies signed inbound deliveries.
Refuses under is_managed() (hosted installs get the secret stamped in by
the orchestrator). Added as an 'enroll' subcommand on the existing
gateway subparser — not a new top-level command.
* docs(relay): inbound is signed HTTP, not WS; document channel auth
Fix the stale contract: §3/§5 said inbound rode the WS socket (single-
instance only, predates the multi-instance socket-ownership + channel-auth
model). Inbound + connector→gateway interrupt are signed HTTP POSTs to the
tenant endpoint. Add §6.1 documenting the two channel-auth schemes (per-
gateway WS-upgrade secret, per-tenant inbound delivery key) and how they
differ from the platform crypto the relay path sheds.
* test(relay): update build_gateway_parser callers for cmd_gateway_enroll
The enroll subcommand added cmd_gateway_enroll as a required keyword-only
arg to build_gateway_parser, but two existing parser-extraction tests still
called it with only cmd_gateway/cmd_proxy — failing CI with TypeError.
Thread the new handler through both call sites and add a test asserting
`gateway enroll` dispatches to cmd_gateway_enroll with its flags parsed.
Wire the relay adapter into gateway startup and make activation config-driven
instead of a dark-launch flag.
- gateway/relay/__init__.py: replace relay_enabled()/HERMES_GATEWAY_RELAY with
relay_url() (GATEWAY_RELAY_URL env or gateway.relay_url in config.yaml) — the
same shape as gateway.proxy_url. register_relay_adapter() registers when a URL
is configured and builds a live WebSocketRelayTransport; with no URL it's a
no-op (direct/single-tenant deployments unaffected). force=True keeps the
transport-less adapter for unit tests. relay_platform_identity() reads the
hello platform/botId from GATEWAY_RELAY_PLATFORM/GATEWAY_RELAY_BOT_ID.
- gateway/run.py: call register_relay_adapter() during GatewayRunner.start(),
right after plugin discovery, so a configured connector relay is registered
on every boot. Failures are logged, never block startup.
This removes the dark-launch posture: the relay is on whenever it's configured,
shipping the production end state rather than hiding it behind a flag.
Adds the concrete transport behind the RelayTransport Protocol — the missing
'later-phase work' the relay scaffold deferred. The gateway dials OUT to the
connector over a WebSocket and speaks the newline-delimited JSON frame protocol
(docs/relay-connector-contract.md; connector src/relay/protocol.ts):
- connect(): opens the ws, sends hello{platform,botId}, starts a background
read loop, and resolves handshake() when the connector's descriptor frame
arrives.
- inbound frames -> the registered InboundHandler (rebuilt into a MessageEvent
via _event_from_wire, mapping the snake_case SessionSource wire form back
onto the gateway dataclasses).
- send_outbound / send_follow_up / get_chat_info: request/response correlated
by a uuid requestId against a per-request future, with a timeout so a caller
never hangs; send_interrupt is fire-and-forget.
- disconnect(): cancels the reader, closes the ws, and fails any in-flight
outbound waiters with a structured error.
RelayAdapter.connect() now negotiates the real CapabilityDescriptor from the
transport and adopts it (_apply_descriptor updates MAX_MESSAGE_LENGTH +
markdown surface), replacing the construction-time placeholder. Lazy
'import websockets' mirrors gateway/platforms/feishu.py; WEBSOCKETS_AVAILABLE
gates construction.
The relay outbound surface had send/edit/typing but no way to act on a
SHARED-identity capability (e.g. a Discord interaction follow-up token,
~15min) that the connector captured + stripped at the edge. Under A2 that
credential never reaches the gateway, so the gateway can't just 'send with
the token' — it needs a semantic op naming the session it's already in.
Adds the follow_up op end to end on the gateway side:
- RelayTransport.send_follow_up(action): protocol method. Action carries
op='follow_up' + session_key + kind + content (+ metadata) and NO token.
- RelayAdapter.send_follow_up(session_key, kind, content, metadata): builds
that action and returns a SendResult. The connector resolves the real
capability (its resolveOutboundCapability), enforces the tenant match so
tenant B can't wield tenant A's capability, and egresses; success=False
when the capability is absent/expired/mismatched (nothing to retry — a
leaked gateway holds zero capability material).
- StubConnector records follow_ups + a canned next_follow_up_result.
Tests: round-trips without a token; the wire action carries only session
refs (no credential value field — the 'kind' string is a type ref, not the
secret); failure surfaces when the connector can't resolve; no-transport
fails cleanly. 55 passed. §4 doc entry follows in the contract-rewrite commit.
RelayAdapter.on_interrupt(session_key, chat_id) bridges a connector-delivered
mid-turn /stop into the existing interrupt_session_activity path, setting the
per-session _active_sessions Event and clearing typing — cancelling exactly the
targeted session's turn without touching siblings (mirrors test_stop_thread_
sibling isolation). Transport.send_interrupt carries the gateway-side egress to
the connector for socket-owner routing.
Phase 1, Task 1.4 of the gateway-relay plan.
register_relay_adapter() registers the generic 'relay' platform via the same
PlatformRegistry path as plugin adapters — no core dispatch changes. OFF by
default (dark-launch): only registers when HERMES_GATEWAY_RELAY is truthy (or
force=True for tests), so existing single-tenant/direct deployments are
unaffected. Factory builds a transport-less RelayAdapter with a placeholder
descriptor; the real descriptor is negotiated at handshake.
Phase 1, Task 1.3 of the gateway-relay plan.
Defines RelayTransport (lifecycle/handshake/inbound/outbound/interrupt) as the
gateway<->connector wire contract; RelayAdapter.connect now registers an inbound
handler that bridges connector-delivered MessageEvents into handle_message.
Adds an in-memory StubConnector under tests/ and an E2E round-trip proving:
connect registers the handler, inbound events reach the adapter, guild_id drives
build_session_key isolation (two guilds -> two keys; same guild/channel/user ->
one), outbound send round-trips, get_chat_info is proxied.
Phase 1, Task 1.2 of the gateway-relay plan.
One BasePlatformAdapter subclass that reads its capability profile from a
CapabilityDescriptor: MAX_MESSAGE_LENGTH attribute, message_len_fn (table-driven
by len_unit: chars=len, utf16=Telegram-style code units), supports_draft_streaming.
Implements the four abstract methods (connect/disconnect/send/get_chat_info) by
delegating to an injected RelayTransport (full protocol lands in Task 1.2). Adds
Platform.RELAY enum member. No per-platform gateway code.
Phase 1, Task 1.1 of the gateway-relay plan.
CapabilityDescriptor.from_platform_entry() projects an existing PlatformEntry
(label, max_message_length, emoji, platform_hint, pii_safe, name) into a
descriptor, proving the descriptor is a projection of existing config rather
than a parallel concept. Runtime-only capabilities (len_unit, draft/edit/
thread/markdown) are caller-supplied. max_message_length==0 ('no limit') maps
to the stream_consumer 4096 default.
Phase 0 complete. Task 0.3 of the gateway-relay plan.
