The staleness check's bespoke mtime memo keyed only on the user
config.yaml, but load_config() merges the managed-scope config
(HERMES_MANAGED_DIR/config.yaml, /etc/hermes) whose leaf keys win. A
managed honcho.timeout with no user config.yaml made the memo cache
'no timeout' while _build resolved the managed value — the same
perpetual-rebuild mismatch this PR fixes for honcho.json. A managed
timeout edit was likewise invisible while the user file's mtime stayed
put.
load_config_readonly() is already cached on both files' signatures plus
the env-ref snapshot, so use it instead of duplicating that
invalidation logic; the defensive deepcopy the old memo existed to
avoid is skipped by the readonly variant. Drive the rebuild test
through a real config.yaml and add a HERMES_MANAGED_DIR regression
test covering stable reuse and managed-timeout edits.
The staleness check added in #66052 resolved the timeout from env,
config.yaml, and the default only, while the build path also reads the
honcho.json host block (timeout/requestTimeout). With a timeout
configured in honcho.json, the two permanently disagreed: every
no-config get_honcho_client() call — i.e. every HonchoSessionManager
.honcho property access — interpreted the mismatch as a config change
and tore down and rebuilt the client, defeating the singleton on the
hot path it was meant to protect.
Teach the check to read honcho.json through the same host-aware chain
as from_global_config, memoized on the file's mtime_ns so the per-call
cost stays one stat(). A genuine honcho.json timeout change is now also
detected, extending #57437 to that config surface.
Follow-ups for the consolidated salvage:
- Memoize the config.yaml-derived timeout on the file's mtime_ns so the
rebuild-on-timeout-change check from PR #57437 costs one stat() per
get_honcho_client() call instead of a full YAML load on the hot path.
- hermes honcho status now displays the host-block-resolved
dialecticCadence (remnant from PR #63776, whose runtime fix landed
in #62290).
- AUTHOR_MAP entries for the salvaged contributor emails.
The Honcho client singleton cached the HTTP timeout at first build.
In long-lived processes (gateway, dashboard), changing the timeout
via config.yaml or HONCHO_TIMEOUT had no effect until restart.
Track the resolved timeout alongside the cached client and compare
on each get_honcho_client() call. When the timeout differs, reset
the singleton so the next call rebuilds with the new value.
Fixes#57347
Fixes Honcho client initialization for setup-generated configs that store
connection details in a named host block (e.g. "local"). Previously:
- base_url was only read from flat config root, not from host_block.
- resolve_active_host() ignored defaultHost and always used the Hermes
profile key ("hermes"), so the host block lookup returned {} and the
api_key was also lost.
FixesNousResearch/hermes-agent#61661
honcho_reasoning's minimal tier hard-caps Honcho's dialectic output at 250
tokens combined with the model's own hidden reasoning tokens. Confirmed via
direct honcho-api server logs that a multi-fact query ("summarize known
facts about this peer and communication preferences") run at
reasoning_level=minimal gets cut off mid chain-of-thought at exactly
output_tokens=250, before the model ever reaches a synthesized answer.
low/medium/high/max fall back to Honcho's much larger global dialectic
default and don't hit this cap. Since dialecticDynamic is on by default and
the calling model picks reasoning_level itself via this tool parameter, the
fix is to make the tradeoff explicit in the parameter description so the
model defaults to low unless the query is genuinely a single-fact lookup.
Schema-description-only change; the shared dialectic_max_chars truncation
cap in session.py's dialectic_query() is a separate fix (its own PR).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
_fetch_session_context was using user_peer_id directly as observer
when calling _fetch_peer_context, bypassing _resolve_observer_target.
This caused honcho_context to return empty data because the observer
perspective was wrong (user instead of hermes/assistant).
Fixed by resolving observer via _resolve_observer_target(session, 'user'),
consistent with all other call sites (get_peer_card, honcho_search, etc.).
queryRewrite (default off) gates the latest-message rewrite so the
extra auxiliary LLM call is opt-in. firstTurnBaseWait and
firstTurnDialecticWait expose the turn-1 bounded waits in seconds
(0 disables). All three resolve host-block-first like every other
field. Also pins per-host timeout resolution with tests.
Move query_rewrite from the honcho plugin to plugins/memory/ and
rename the auxiliary task key honcho_query_rewrite ->
memory_query_rewrite so any memory provider can use the same
rewrite path and model/timeout config block. No behavior change.
dialecticMaxChars (default 600) is documented as the budget for the dialectic
supplement auto-injected into the system prompt every turn — a small recurring
cost that is correct to bound tightly. But dialectic_query() applied that cap
unconditionally, so explicit honcho_reasoning tool calls — where the model
deliberately spends a turn asking for a synthesized answer — were silently
truncated mid-word to 600 chars with a trailing " …", no error surfaced. The
full answer is returned by Honcho server-side; the clip happens client-side.
The auto-injection path already has its own token-based budget (contextTokens,
enforced in prefetch() via _truncate_to_budget), so the char cap's real job is a
cheap always-on guardrail for that recurring injection. Explicit tool results
are already bounded server-side by Honcho's dialectic MAX_OUTPUT_TOKENS and don't
need the injection cap — sibling tools (honcho_search, honcho_context) don't
post-clip their results either.
Add apply_injection_cap (default True, preserving current behavior) to
dialectic_query(); the honcho_reasoning tool handler passes False so it returns
Honcho's full synthesized answer. Auto-injection is unchanged. Tests cover both
the capped injection path and the uncapped tool path.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
honcho_conclude's delete action was unreachable in practice: no tool ever
surfaced a real conclusion id for the model to pass as delete_id.
honcho_search only searches the separate Message resource space, and the
SDK's ConclusionScope.list()/.query() (which do return real Conclusion.id
values) were never wired into any tool.
Adds an optional list mode to honcho_conclude (query to search, omit to
browse recent conclusions), backed by a new
HonchoSessionManager.list_conclusions(). No new tool, no changes to the
create/delete signatures or their conclusions_of() routing.
injectionFrequency='first-turn' returned empty for the entire
prefetch_context() method on turns 2+, which blocked the dialectic
supplement from being consumed and injected. The dialectic has its
own cadence (dialecticCadence) and must continue to fire and inject
independently of the base context layer.
Now first-turn mode gates only Layer 1 (base context: representation
+ card), letting Layer 2 (dialectic supplement) flow through its
normal consumption path on every turn.
Also fixes all remaining tests that passed dialecticCadence via
cfg_extra={'raw': {...}} to use the typed dialectic_cadence field.
injectionFrequency, contextCadence, and dialecticCadence were read
only via raw.get() which checks root-level keys in honcho.json.
Settings placed inside hosts.<name> (the normal per-host location)
were silently ignored, falling back to defaults.
- Add typed dataclass fields: injection_frequency, context_cadence,
dialectic_cadence with host-block-first resolution chains matching
the pattern used by all other config fields.
- Update HonchoMemoryProvider.initialize() to read from typed cfg
fields instead of cfg.raw directly.
- Fix search_context tests that mocked _honcho directly — the
.honcho property getter calls get_honcho_client() which overwrites
the backing field, so use patch.object on the property instead.
- Add injection_frequency and context_cadence config override tests.
HonchoClientConfig timeout/requestTimeout resolution skipped the per-host config
block, silently dropping a host-scoped timeout and falling through to the global
config.yaml value (or the default). Add the host block at the front of the
resolution chain, consistent with every other field (base_url, api_key, etc.).
Symptom: Honcho logs show a dialectic answer was generated, but Hermes never
injects it — intermittently.
Root cause: the dialectic supplement that queue_prefetch() fires at the end of
turn N is stored pending (fired_at=N) for consumption by turn N+1's prefetch().
But prefetch()'s trivial-prompt guard returned early BEFORE the consumption
block. So when turn N+1's prompt was trivial ('ok', 'yes', 'continue', a slash
command), the ready result was never consumed, and a few turns later the
stale-discard guard dropped it. Generated by Honcho, never seen by the model.
The dependence on 'is the consuming turn trivial?' is why the loss looked random.
Fix: trivial turns now consume and inject a ready, non-stale pending result while
still spending no new work (no base-context fetch, no new dialectic fire). A
trivial ack shouldn't generate context, but it shouldn't destroy an answer
already computed for that exact turn. Extracted the pop+stale-check into a shared
_consume_pending_dialectic() used by both the trivial path and the normal path so
they age-check identically.
Preserved (covered by new tests): genuinely stale results are still discarded on
trivial turns; trivial turns still fire no new work; a trivial turn with nothing
pending still injects nothing.
Adds regression tests for inject-on-trivial and discard-stale-on-trivial.
A brand-new session injected no Honcho context on the user's first message —
the peer card/representation only showed up from turn 2 onward. The base-context
fetch was fired asynchronously and popped in the same synchronous pass, so it
always lost the race on turn 1 (a background thread can't finish inside one
pass), leaving the first response with zero recalled context.
Fetch the base layer (representation + card + summary) synchronously with a
bounded timeout on turn 1 so the peer card is injected immediately; subsequent
turns still consume the background-refreshed result primed by queue_prefetch().
The wait is bounded by _FIRST_TURN_BASE_TIMEOUT and tightened further by a small
configured request timeout (fail-fast deployments / tests).
Two related first-turn/dialectic reliability fixes ride along:
- first-turn dialectic no longer double-fires: if a prewarm .chat() thread is
already in flight from session init, turn 1 waits briefly for it instead of
firing a second (duplicate) call that also blocked the first response. The
first-turn wait is decoupled from a large host timeout (a 60s host timeout
must not block the first response for 60s) via _FIRST_TURN_DIALECTIC_CAP,
while still honoring a tight configured timeout.
- empty-pass propagation guard in multi-pass dialectic: at depth > 1 each pass
feeds the prior pass's output into the next prompt. If a pass returned empty
(e.g. a reasoning model that spent its whole budget thinking), the next prompt
carried a blank assessment (the "empty spot" seen in Honcho request logs). Now
only non-empty prior results feed dependent passes; if all priors are empty,
re-issue the base prompt instead of referencing nothing.
The five Honcho tool schemas had overlapping/misleading descriptions, making it
hard for the model to pick the right one, plus two concrete correctness bugs:
- honcho_context advertised an 'Optional focus query' parameter that the dispatch
never read. The model could pass query= expecting filtering that never happened.
Remove the dead parameter; honcho_context is an honest no-query snapshot. Focused
retrieval now lives in honcho_search (see prior commit).
- honcho_conclude's peer param was described as 'Peer to query' — wrong; it's the
peer the conclusion is ABOUT. Corrected.
Rewrite all five descriptions to give each tool a distinct mental model and
cross-reference siblings:
profile = read/write the compact card (cheapest, no query, no LLM)
search = find what was actually said, ranked, cross-session (cheap, no LLM)
reasoning= ask a question, get a synthesized answer (the only LLM tool; expensive)
context = a fixed session snapshot (no query, no LLM)
conclude = write a durable fact to the profile
Addresses the honcho_context query param half of #29402 (see PR notes for the
divergence from that issue's proposed wire-through approach).
honcho_search routed through search_context() -> peer.context(search_query=),
which returns the peer's standing representation + card. The search_query arg
does not turn that endpoint into a search, so results were effectively
query-independent: the same representation blob regardless of the query. Factual
lookups ('what medication', 'which value did we pick') returned noise.
Rewire search_context() to call the workspace message-search endpoint
(Honcho.search) with a peer_perspective filter: RRF-ranked (hybrid semantic +
full-text) raw message excerpts spanning every session the peer was a member of,
across all authors, membership-time-scoped. This is the cross-session factual
recall primitive.
peer_perspective is chosen over the alternatives because it is the only scope
that is simultaneously (a) cross-session, (b) inclusive of assistant-authored
facts about the peer (peer-author search drops these, and they are a large part
of what you want to recall about yourself), and (c) privacy-scoped to the peer's
own sessions (plain workspace search leaks other peers' sessions).
- snippets are labeled by author so the model can tell user-stated facts from
assistant-derived ones
- max_tokens is now an enforced budget (was accepted but meaningless)
- graceful fallback to peer-authored search if peer_perspective is unsupported
- query length clamped under the embedding input cap
Replaces 3 change-detector tests that asserted the old representation-dump
behavior with 4 that assert the message-search contract + fallback path.
Replace the hand-rolled ensurepip bootstrap (and five other one-off
pip-install code paths) with hermes_cli.tools_config._pip_install, which
prefers the bundled uv (fast, needs no pip in the venv), falls back to
python -m pip, and bootstraps pip via ensurepip only when missing.
Sites unified:
- hermes_cli/setup.py: _install_neutts_deps, _install_kittentts_deps,
modal SDK install, daytona SDK install
- hermes_cli/memory_setup.py: memory-plugin pip deps (previously dead-ended
when uv AND pip binaries were both absent)
- hermes_cli/dingtalk_auth.py: qrcode auto-install (previously invoked
'python -m uv' which is not how uv ships)
- agent/lsp/install.py: --target LSP server installs
- plugins/google_meet/cli.py, plugins/platforms/matrix/adapter.py,
plugins/platforms/google_chat/oauth.py, plugins/memory/honcho/cli.py
Tests updated to assert the ladder behavior (uv-first, pip fallback,
ensurepip bootstrap) instead of the removed bespoke branches.
ruff check --fix --select F541 . on current main. Pure prefix removals;
adjacent-string concatenations keep the f only on interpolating fragments.
No string content or live placeholder altered.
Follow-up to #53791 addressing review feedback: the footgun checker treated
capture_output=/stdout=/stderr=/check_output as proof a subprocess can't pop a
Windows console. That invariant is false — stream redirection controls where a
child's output goes, not whether a console is allocated. From a console-less
parent (Desktop/Electron, pythonw.exe, detached gateway/cron) a console-subsystem
child still flashes a window even when fully captured.
- check-windows-footguns.py: capture/redirect/check_output is no longer a blanket
safe-pass. Added _WINDOWS_FLASHING_PROGRAMS (git/gh/npm/node/python/uv/ffmpeg/
docker/powershell/…); calls to those are flagged even when captured. Non-flashing
programs keep the capture exemption (no 271-site noise). _subprocess_compat.run/
popen calls are inherently safe (wrapper injects CREATE_NO_WINDOW).
- Routed the 35 genuine flashing git/gh/npm/uv/ffmpeg/docker spawns through the
_subprocess_compat.run/popen chokepoint (Brooklyn's wrapper from #53810) — the
durable fix, not per-site annotations. cmd.exe /c start stays # ok (intentional).
- Updated tests + CONTRIBUTING.md rule #17 to the corrected invariant.
* feat(memory): OAuth token storage and refresh for the Honcho provider
* feat(memory): refresh the Honcho OAuth token in the client and session
* feat(memory): zero-CLI loopback OAuth authorization flow
* feat(memory): generic memory-provider OAuth connect endpoints
* feat(desktop): memory-provider OAuth connect link
* feat(memory): CLI OAuth sign-in with source-tagged authorize links
* fix(memory): IP-literal loopback redirect and consent config_path on the authorize link
* fix(memory): profile-scope the memory-provider OAuth endpoints
* refactor(desktop): generic memory-provider OAuth client functions
* docs(memory): trim OAuth module docstrings to the invariants
* docs(memory): document OAuth connect as an optional auth method
* fix(memory): send home-relative display path to consent, not the absolute path
* perf(memory): cache OAuth token expiry in memory to skip the hot-path disk read
* fix(memory): log OAuth refresh failures at warning, not debug
* feat(memory): fall back to an OS-assigned loopback port when 8765 is taken
* test(memory): cover the desktop Connect launcher, status, and provider dispatch
* fix(desktop): keep the memory-provider dropdown one size regardless of connect state
* fix(desktop): move the memory connect link to the description line, leaving the dropdown untouched
* refactor(memory): move OAuth connect routes out of web_server into a memory-layer router
* refactor(desktop): import MemoryConnect directly, drop the single-export barrel
* fix(memory): launch CLI OAuth sign-in right after the auth choice, not after the wizard
* fix(desktop): auto-clear the OAuth error state instead of leaving it sticky
* test(honcho): isolate auth-method prompt from deployment-shape wizard tests
main's wizard suite scripts the cloud prompts without the OAuth auth-method step; auto-answer it in the shared helper so the answer lists stay shape-only.
* docs(honcho): document query-adaptive reasoning level (reasoningHeuristic)
README never mentioned reasoningHeuristic and listed reasoningLevelCap as an orphaned cap with the wrong default (— vs "high"). Add the query-adaptive scaling note + the reasoningHeuristic/reasoningLevelCap rows (grouped under Dialectic & Reasoning), matching the wording already on the hosted honcho.md page, and add a pointer from the memory-providers overview.
* fix(honcho): default the CLI peer prompt to the OAuth consent name
The CLI runs the grant with apply_config=False, so the peerName the user just entered at consent was dropped and the wizard's 'Your name' prompt fell back to $USER. Surface it as a transient OAuthCredential.consent_peer_name (set even when config isn't merged) and seed the prompt default from it.
* feat(honcho): split OAuth client_id by surface (cli=hermes-agent, desktop=hermes-desktop)
resolve_endpoints now picks the client_id from the initiating surface and
threads it through authorize -> token exchange -> persisted grant -> refresh,
so the CLI and desktop register as distinct OAuth clients. Surface-specific
env overrides (HONCHO_OAUTH_CLIENT_ID_CLI/_DESKTOP) win over the generic
HONCHO_OAUTH_CLIENT_ID, which still overrides every surface.
* feat(honcho): show OAuth vs API key in status; detect existing OAuth in setup
status now prints 'Auth: OAuth (clientId, token valid Xm/expired)' instead of
masking the OAuth access token as a generic API key; setup notes an existing
OAuth grant when re-run.
* docs(honcho): drop 'shared pool' wording from unified observation mode help
* fix(honcho): cross-process lock around OAuth refresh to prevent grant revocation
The in-process threading lock can't stop a sibling process (another profile or
the desktop app sharing honcho.json) from replaying the single-use refresh
token and tripping reuse-detection, which revokes the whole grant. Guard the
read-refresh-persist section with an OS file lock on <config>.lock so only one
process rotates at a time; the others re-read the freshly-persisted token.
Best-effort: platforms without flock degrade to in-process serialization.
* refactor(honcho): one OAuth client (hermes-agent) for all surfaces
Collapse the per-surface client_id split. CLI and desktop now use a single
client_id (hermes-agent); consent branding/UI still adapt via the source query
param. One grant identity means no clientId-vs-refresh-token desync that could
get the grant revoked. HONCHO_OAUTH_CLIENT_ID still overrides for self-hosting.
* fix(honcho): per-session resolves to session_id, never remapped by title
Reorder resolve_session_name so stable identifiers win over labels: gateway
per-chat key first, then the per-session session_id, then the cwd map / title.
A (possibly auto-generated) title can no longer remap a live per-session
conversation onto a second Honcho session mid-stream — fixes the desktop, which
is per-conversation via session_id. Consequence: a gateway's per-chat key now
also wins over a title (titles never remap a stable id).
hermes backup only walks HERMES_HOME, so memory providers that keep
config/credentials in home-anchored dotdirs (honcho -> ~/.honcho,
hindsight -> ~/.hindsight, openviking -> ~/.openviking) lost that data
across a backup/import cycle — the peer IDs, session pairings, and API
keys never made it into the archive.
Add an optional MemoryProvider.backup_paths() hook (default []). The
active provider declares its external paths; backup resolves them from
config only (no init, no network), archives the ones under the home dir
into a reserved _external/ subtree encoded relative to home, and import
restores them to their original location with a home-anchored traversal
guard and 0600 on credential-shaped files. Paths outside home are
skipped as non-portable.
honcho, hindsight, and openviking override the hook. E2E-validated full
backup->import cycle plus 7 new tests.
'everyone collapses to your peer' read as a promise about all traffic.
pinUserPeer pins the user-side peer and is checked before userPeerAliases
(session.py:335), so a pin overrides every alias — including agent peers.
For a multi-agent operator that silently pools distinct agents onto one
peer, the opposite of intent.
Scopes the wording to 'every non-agent gateway user', notes the pin
overrides aliases, and points agent-mesh operators at pinUserPeer:false +
userPeerAliases instead. Same correction in the wizard menu/echo text,
the plugin README, and the website Honcho page.
Drop pinPeerName from the key table (now a deprecated-alias note), and replace
the single/multi/hybrid 'deployment shapes' section with the gateway-gated
intent tree the wizard actually presents, including the [e] raw-edit hatch and
the un-pin pooling steer.
The single/multi/hybrid 'deployment shape' was a misnomer: these keys only
affect the gateway (the one entrypoint supplying a runtime user ID), and the
three preset names stamped a lossy taxonomy onto three orthogonal knobs while
hiding which keys got written.
Replace it with an intent-led tree gated on gateway detection:
- _gateway_platforms() lazily inspects the gateway config (best-effort, no
hard dependency); the step auto-skips when no platform is connected.
- 'who talks to this?' → just me / me+others (pooled?) / only others, deriving
pinUserPeer + userPeerAliases + runtimePeerPrefix and echoing the result.
- [e] drops to a raw-knob editor for power users.
- The single→multi orphan guard survives as a pooling steer.
The setup wizard wrote the legacy pinPeerName even though pinUserPeer is
the canonical key that outranks it in the resolver — so it had to scrub
the canonical key afterward to stop it winning. Write pinUserPeer directly
and migrate any legacy pinPeerName onto it on touch (setup load + clone),
which removes the precedence-fighting entirely.
Resolver still reads pinPeerName as a back-compat alias; that's deferred.
When Hermes runs in TUI mode, the gateway child process communicates with
the Node.js parent over a JSON-RPC protocol on stdin. Subprocess calls that
inherit this stdin fd can trigger a race condition where the child's stdin
read returns EOF, causing the gateway to exit cleanly (exit code 0) mid-tool-
execution.
This is the same root cause as issue #14036 (byterover plugin) and PR #39257
(SSH environment backend). This commit applies the fix — stdin=subprocess.DEVNULL
— to all 85 subprocess.run() and subprocess.Popen() calls that execute inside
the TUI gateway child process.
Scope: TUI-context code only (agent/, tools/, plugins/, tui_gateway/server.py).
CLI code (cli.py, hermes_cli/), tests, scripts, and gateway process management
are excluded — they don't run inside the TUI child and inherit the terminal's
stdin, not the JSON-RPC pipe.
85 call sites across 28 files. All files pass syntax check.
* fix(plugins): add thread-safe lazy-singleton helpers, fix honcho TOCTOU (#24759)
get_honcho_client() and fal's _load_fal_client() used unlocked
check-then-init: racing threads both ran the expensive build and the
loser's client (open connection) leaked.
Rather than one-off locks, add plugins/plugin_utils.py with two
reusable primitives every plugin author can drop in:
- lazy_singleton: decorator for zero-arg accessors
- SingletonSlot: manual slot for config-keyed accessors (first wins)
Both use double-checked locking; factory runs at most once; failed
builds aren't cached. honcho is the reference consumer; fal's sibling
TOCTOU gets a matching double-checked lock. Plugin dev guide documents
the pattern so future plugins don't reintroduce the race.
Closes#24759
* test(honcho): update reset test for SingletonSlot internals
test_reset_clears_singleton poked the removed _honcho_client module
global directly. Assert through the slot's public peek() surface
instead, matching the #24759 refactor.
hermes doctor and hermes honcho status warned 'Honcho config not found'
whenever ~/.honcho/config.json was absent, even though HONCHO_API_KEY in
.env resolves a working config via HonchoClientConfig.from_global_config()
-> from_env(). Both now check hcfg.api_key/base_url before warning.
Co-authored-by: oxngon <98992931+oxngon@users.noreply.github.com>
Self-hosted Honcho setup had four sharp edges:
- local/cloud URLs ending in /vN double-prefixed by the SDK (/v3/v3/... 404)
- authenticated local servers had no setup prompt for a JWT/bearer token
- profile-derived host keys could be dot-containing workspace IDs Honcho rejects
- memory-provider config files with API keys written world-readable per umask
This keeps existing behavior but makes those paths safer:
- strip a trailing /vN version segment from any configured baseUrl before SDK
init (the SDK's route builders always prepend their own version prefix);
auth-skipping stays loopback-only
- add an optional local JWT/bearer prompt in honcho setup, stored under
hosts.<host>.apiKey
- derive new profile host keys with underscores, still reading legacy
hermes.<profile> blocks
- write memory-provider config files atomically with 0600 via a shared
utils.atomic_json_write(mode=) arg (honcho/hindsight/mem0/supermemory)
- skip honcho.json parsing in gateway cache-busting unless Honcho is the active
memory provider; memoize by honcho.json mtime when active
- bust the gateway agent cache on memory.provider change
- add a hermes memory setup <provider> one-liner so fresh installs can configure
a named provider without the picker (the per-provider hermes <provider>
subcommand only registers once that provider is active)
Closes#20688, #29885, #26459, #30246, #33382, #32244.
Co-authored-by: BROCCOLO1D
Use the shared observer/target resolver for session context so peer='user' and explicit configured peer IDs query Honcho from the same assistant-observed perspective when allowed. Add regression coverage for user alias, explicit peer, and self-observer fallback.
honcho_profile(peer="user") returned an empty card even when Honcho
held a populated peer card for the user. Two independent bugs combined
to produce the symptom:
1. Read path: get_peer_card() called _fetch_peer_card(observer, target=user),
which hits GET /peers/{observer}/card?target={user} — the observer's local
card of the user. On self-hosted Honcho v3 this slot is empty unless writes
also use it. The peer card lives on the user peer itself
(GET /peers/{user}/card). Add a fallback: when the observer-target slot is
empty and a target exists, retry against the target peer's own card.
2. Write path: set_peer_card() resolved only the target peer and called
user_peer.set_card(card). The read path uses the assistant peer as
observer, so writes and reads addressed different Honcho card scopes.
Align set_peer_card() with _resolve_observer_target() so writes go to
assistant_peer.set_card(card, target=user_peer_id), matching the read.
Both paths now use the same observer/target resolution, and the read
path additionally falls back to the target's own card for compatibility
with deployments where cards were written directly to the peer.
Closes: related to #13375, #17124, #20729
Three related regressions stemming from the pinUserPeer alias landing:
- Setup wizard read host-only fields when detecting current shape but the
parser supports root-level config and gives host pinUserPeer higher
precedence than pinPeerName. Re-running setup could mis-detect shape
and silently flip routing. Detection now uses the same resolver order
as HonchoClientConfig, and each shape branch scrubs every peer-mapping
key before writing so a stale pinUserPeer=false can't outrank a freshly
written pinPeerName=true. Multi no longer auto-writes
userPeerAliases={} (was silently masking root-level baselines).
- clone_honcho_for_profile inherited pinPeerName but not pinUserPeer, so
a default profile configured with the newer key produced cloned
profiles without the pin.
- Gateway cache-busting signature fingerprinted Honcho user-peer fields
but not ai_peer. Since HonchoSessionManager freezes cfg.ai_peer at
init, mid-flight aiPeer edits kept assistant writes on the old peer
until an unrelated cache eviction. ai_peer is now part of the
signature.
Remove "PR #14984 / #27371 / #1969" references and "the original key /
legacy / backwards-compatible / Port #N" narration from the honcho
plugin README, tests, and one stale code comment. These artefacts age
poorly: they describe how a change happened rather than what the code
does today, and they tax readers who weren't around for the original
work.
Also drop a dangling reference to scratch/memory-plugin-ux-specs.md in
__init__.py — the file isn't in the repo or git history.
No behaviour change.
Three correctness gaps when honcho.json's identity-mapping config changes
mid-flight:
1. The gateway's agent cache signature ignored honcho identity keys, so
editing peerName / pinPeerName / userPeerAliases / runtimePeerPrefix
was silently dropped until an unrelated cache eviction. Extend
_extract_cache_busting_config to fingerprint the resolved honcho
config so the AIAgent rebuilds on the next message.
2. cmd_setup let single → multi flips orphan the pinned-pool history
under peerName without warning. Detect the transition, warn that
runtime users will resolve to fresh empty peers, and auto-steer to
hybrid (alias the operator's runtime IDs back to peerName) so the
operator's own continuity survives. yes / no overrides available.
3. README didn't document the orphaning behaviour. Add a "Migrating
single → multi" callout under Deployment shapes.
Tests:
- TestPinTransition (test_pin_peer_name.py): fresh-manager flip resolves
to runtime, in-process flip is gated by the per-key session cache
(documents the gateway-cache-must-bust contract), 3 cache-bust
signature tests for pin / aliases / prefix.
- TestProfilePeerUniqueness: two profiles pinned to distinct peerNames
resolve to distinct peers; host-level peerName overrides root when
pinned.
- test_single_to_multi_steers_to_hybrid_by_default and
test_single_to_multi_yes_override_keeps_multi (test_cli.py): wizard
guard end-to-end coverage.
PR #27371 introduced three new identity-mapping config keys
(pinPeerName, userPeerAliases, runtimePeerPrefix), but the README's
'Full Configuration Reference' didn't mention them. Operators had
to read the source to understand the resolver, leading to predictable
support questions ("why is my user split across two peers?", "what
does pinPeerName actually pin?").
Add a new 'Identity Mapping' subsection that covers:
* The four config keys (pinUserPeer + alias, userPeerAliases,
runtimePeerPrefix) with concrete examples.
* The 7-step resolver ladder so operators can predict which peer a
given runtime ID will land on.
* Why there's no symmetric pinAiPeer (the AI peer is already pinned
by construction; the asymmetry is intentional).
* Host vs root semantics (host-level replaces root for maps, wipes
with empty value).
* The three deployment shapes ('hermes honcho setup' uses these same
shape names) with one-line guidance per shape.
