* fix(model-management): honor an explicit null as a clear on model update
PATCH /model/{model_id}/update merged the patch with exclude_none and then
popped explicit nulls only for the mirrored pricing fields, so a null sent for
max_input_tokens, mode, supports_vision or any other key was dropped and a value
pinned by an earlier save could never be removed.
The route now follows JSON Merge Patch over both blobs: a key absent from the
body is unchanged, a key sent as null is removed from the stored row, and a key
sent with a value is set. Ownership and identity keys keep ignoring a null, as
do the fields the stored models require, since clearing one writes a row no
reload can rebuild. Mirrored pricing keys still clear from both blobs.
Clearing a price also needed the router to stop merging a deployment's cost-map
entry onto its previous registration, which left the old rate in place and kept
billing at a price the deployment no longer carried.
Adds a create, read, partial-update, clear, enforce, delete lifecycle e2e that
reads back on every replica, and a harness helper for that read-back.
* fix(router): keep a deployment id that names a real model from evicting its catalog entry
Deployments are keyed into litellm.model_cost alongside the built-in catalog, so
evicting a deployment's stale entry by id could take a real model's entry with it:
registering a deployment whose model_info.id is "gpt-4o" stripped that model's
pricing, context window and capability flags process-wide, for every other
deployment of it, until the next price-map reload.
Only evict an entry this registration owns. A colliding id keeps the previous
merge, which pollutes the catalog entry rather than emptying it.
Also pins the Admin UI round trip: the model edit form echoes the whole /model/info
row back on save, and that read reports every key the deployment never stored as an
explicit null, so the clear path has to leave those keys alone.
* fix(router): decide cost-map eviction by what this registrar created
The previous guard read a catalog entry off `litellm_provider`, so a deployment
that declares its own provider in model_info was treated as one and kept billing
at a price it no longer carried. It also only held for a single registration: a
second one under a colliding id saw the id the first merge left behind and
evicted the catalog entry anyway.
Track the cost-map keys this registrar creates instead. A key it created is
evicted before re-registration; one it did not is left to merge, which is what a
deployment id colliding with a catalog model name needs.
Also folds the required-fields comment into the docstring that already gives the
reason.
* fix(router): release a deployment's cost-map key when it is deleted
The ownership ledger only grew. A deleted deployment kept its claim, so if a
later catalog refresh started publishing a model under that same name, the next
registration would treat the catalog entry as the deployment's own and evict it.
Deleting a deployment now gives the key back, which also stops the ledger
growing for the life of the process.
* fix(router): hold a cost-map key while another live router still serves it
The claim is process-wide but the release was per-deletion, so with two routers
serving one deployment id, the first deletion put the survivor back on merging
and the price it had just cleared would keep billing.
Release the key only once no live router still serves that id.
* fix(router): register a router in the live set when it gains a deployment
_live_routers was only joined when a router was constructed with a model_list,
but a router built empty is populated through add_deployment, and the empty
branch exists for exactly that. Such a router was invisible to the live-router
scan, so deleting the deployment from another router released the shared
cost-map key while it was still serving that id.
Joining the set where a deployment enters the list covers every path, and it
also lets a price reload rebuild what a dynamically built router serves.
* fix(e2e): read the stored model row from the control plane, not each gateway
The lifecycle suite polled /model/info on every URL in PROXY_REPLICA_URLS. Those
URLs are the stack's gateways, and gateway/routes/allowlist.py trims them to the
LLM data-plane surface, so /model/info answers only on the backend and 404s on
every replica. All five tests failed at their first read-back in CI while passing
against a monolith, where one process serves both planes.
The stored row has one answer behind it, so it is read through the shared
transport, which routes control-plane paths to the backend. What every gateway
must agree on is which models it serves, so the create and delete steps poll
/v1/models per replica instead, a route the gateway does serve.
read_back_everywhere now rejects a control-plane path outright rather than
timing out on it.
Two things surfaced behind that. /public/ was missing from the transport's
control-plane prefixes, so model_cost_map() was routed to a gateway and 404'd,
and the billing steps needed a data-plane wait: a PATCH lands on the backend and
each gateway picks it up on its own config reload, measured here at 12-24s, so
they now drive calls until the new rate reaches the spend row and let the
deadline fail them.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01C1S92J8gSxxKVe1JBzxWBF
* test(models): keep polling outcomes immutable and document shared ownership
* test: validate opaque stream IDs and hide log-reader credentials
* test: isolate auto-router scenarios and clean partial setup
---------
Co-authored-by: Claude Opus 5 <noreply@anthropic.com>
* fix(mcp): honor an explicit null on toolset update, cover MCP lifecycle e2e
PUT /v1/mcp/toolset dumped its payload with exclude_none, so a field sent as
null looked exactly like one the caller left out and the stored value
survived. An admin could not clear a toolset's description: the save reported
success and the old text came straight back. It now dumps with exclude_unset,
so absent keeps and null clears, which is what PUT /v1/mcp/server already did.
A null tools list clears the selection to empty, and a null toolset_name is
ignored because a toolset always has a name.
Adds create, read, partial-update, clear and delete e2e coverage for MCP
servers and toolsets, with every read-back polled on every replica so an edit
that lands on one replica and not another fails the test, plus an enforcement
test proving a key granted a toolset lists exactly that toolset's tools
against the real Datadog upstream.
* fix(e2e): refuse a read-back that no replica serves
A read-back over an empty replica mapping satisfied every predicate and
returned as if it had converged, so it would have asserted nothing and
passed. No wiring can produce that today, since the replica list always
falls back to at least one URL, but a helper whose whole job is proving a
write reached every replica should not have a shape that passes vacuously.
* fix(mcp): keep a null tools list a no-op on toolset update
Treating a null tools list as a clear meant an existing client that sends
tools=null during a partial update, meaning "leave the selection alone",
silently lost every tool the toolset grants. That is a permission surface,
so the quiet version of it is the worst version.
A toolset always has a tool list, the same way it always has a name, so a
null on either is now a no-op. Emptying the selection is an explicit [],
which cannot be confused with a field the caller left out, and which is
what the dashboard already sends.
* fix(e2e): keep MCP admin routes on the data plane
/v1/mcp/* is a lazily mounted feature, so a gateway registers it on the first
matching request, which happens after the startup route trim that drops
management endpoints. Routing it to the control plane therefore sent every MCP
call to the one backend process: the new lifecycle read-backs proved a single
process rather than every replica, and mcp_client's await_registered barrier
waited on a registry that does not serve the tools/list call it guards, so the
existing MCP suites polled a gateway that had not synced yet until poll_timeout
Verified against a two-gateway split stack (backend on 4001, gateways on 4010
and 4011, one postgres): both gateways answer /v1/mcp/server and /v1/mcp/toolset,
and each served 6 server reads and 7 toolset reads over the run
* fix(e2e): grant the toolset by the tool's own name, not the wire name
tools/list serves a tool as <prefix><tool_name>, but a toolset grants by the
tool's own name: resolve_toolset_permissions reads toolset.tools[].tool_name
straight through, and the prefix is added on the way out. The test built the
toolset from the names tools/list reported, so the grant matched nothing, the
scoped key listed no tools, and await_tools ran out its whole poll_timeout
before failing
Measure the prefix off search_datadog_logs, whose own name is known, rather than
guessing it from the alias, since the proxy can be configured to prefix with a
short server id instead. The expectation compared against tools/list stays in
wire names; only what the toolset stores crosses back
* test(mcp): build immutable lifecycle updates and replica results
* test: validate opaque stream IDs and hide log-reader credentials
* test: isolate auto-router scenarios and clean partial setup
* test: honor Datadog search rate-limit reset headers
* test: share the Datadog read-back deadline across retries
* test: preserve captured MCP toolset update fields
* test(e2e): prove the virtual key lifecycle on every replica
Walks one virtual key through create, read, partial update, clear, enforce
and delete against a live proxy and database, reading every write back on
every gateway replica.
The management suite already had single write-then-read tests for keys, but
none of them proved that a partial /key/update leaves the untouched fields
alone, that an explicit null clears a field, or that a write is visible on
more than the one gateway that took it.
Adds read_back_everywhere to the shared ProxyClient: it polls a GET path on
every URL in PROXY_REPLICA_URLS until each replica's parsed body satisfies
the caller's predicate, and fails naming the replica that never converged.
The CLEAR sentinel in the e2e models makes an explicit JSON null expressible
in a body the transport otherwise strips of None fields.
Documents /key/update's merge patch semantics on the endpoint docstring.
* test(e2e): prove key revocation and field preservation on every replica
Applies the findings from an adversarial review of the first commit.
The delete step only checked that chat was refused on the gateway that took
the write, so it would have passed while a sibling gateway kept serving the
deleted key. It now serves one call from every replica first, so each has the
key cached and the delete has something to revoke everywhere, then polls every
replica for the refusal.
The file also carried its own poll loop that tested the deadline before
attempting, so it gave up one attempt early and skipped the attempt landing
exactly on the deadline. It now shares the harness helper, which is generic
over the polled value rather than over a parsed body, so the same loop covers
both the info read-back and the chat refusal.
The model the enforcement step registers now carries a unique marker in its
alias, matching every other deployment this suite creates, so concurrent runs
never share one model group.
The docstring sentence claimed an explicit null clears any field. It does not:
the metadata-backed fields merge into stored metadata, where a null is a silent
no-op, and only the key's own columns clear. Regenerating the dashboard types
picks up the corrected text.
* fix(e2e): delete a deployment that never becomes servable
Registering a model posts /model/new and then waits for every replica to list
it. When that wait timed out the deployment already existed in the database but
its id had never been returned, so no caller could delete it and the row
outlived the run. It is now deleted before the failure propagates.
Found by review on the key lifecycle suite, whose module fixture registers a
deployment this way, but every caller of the shared helper had the same
exposure.
* docs(e2e): drop the duplicated notes from the lifecycle docstrings
The delete method restated what the warm-up helper already explains, and the
module restated the merge patch rule that the endpoint and the request model
both document.
The changed-tests workflow overrode the suite's `--reruns 1` with `--reruns 0`, so a
transport blip failed a pass that pytest.ini already scopes to network errors and
5xx responses. Pass 2 of run 33692484803 also went red 15s after a model write with
"no healthy deployments": the barrier only polled /v1/models through nginx, which
proves one gateway converged, and the next request rolled the other. The stack now
exports LITELLM_PROXY_REPLICA_URLS, the barrier polls every replica with the full
budget before settling, and up.sh refuses to boot without DD_API_KEY, since the
gateway config enables the datadog callback on every run
Both of these are e2e assumptions that PRs #31731 and #39532 invalidated, not
product regressions. They have been red in litellm-e2e builds 119-123.
Wildcard readiness probe (6 errors in test_model_access_group_e2e.py)
#31731 made _get_wildcard_models drop a wildcard route from /v1/models
unconditionally; before it, a wildcard with a matching router deployment stayed
in the list and only the no-router / no-deployment fallbacks removed it. The
shared readiness helper polls /v1/models for an exact id match, so registering
openai/gpt-5.4* now times out at model_servable_timeout every run and every
test in the class errors in setup.
return_wildcard_routes=True still re-adds the route, so the poll asks for it.
The flag is a no-op for a concrete model name -- it only ever adds wildcard
entries -- so it is set unconditionally rather than sniffing the name.
Semantic auto-router spend assertion
#39532 bills the routing embedding to the caller's key on purpose, so the key's
spend logs now legitimately carry an openai/text-embedding-3-small row and
_assert_served_only_by rejects it.
Widening the allowlist would have weakened the assertion this test exists for --
that the request reached the target deployment. Instead the embedding row is
split off and asserted separately, which turns the break into coverage for
#39532. The poll gains a predicate so it waits for the embedding row rather than
racing whichever row is written first.
* test(e2e): send no-cache on every cacheable request body, opt in only where a hit is the assertion
The e2e proxy runs with the response cache on, so any test that re-sends an
identical chat, messages, responses, completions, embeddings or rerank body
reads back a redis copy of an earlier call instead of reaching the provider.
Five tests in the last week failed that way. Default cache: {"no-cache": true}
on those request models and pass cache=None only in the two tests whose
assertion is the cache hit itself.
* test(e2e): give image edits and OCR a 180s client timeout
Both routes wait on providers that can legitimately take longer than the
60s transport-wide request timeout (gpt-image edits, Azure Document
Intelligence), and a client-side read timeout there fails a green request.
post/upload now accept a per-call timeout like get already does; only those
two call sites use it.
* test(e2e): rerun once on network errors and upstream 5xx only
Assertion failures still fail on the first attempt; only an outcome whose
error string carries the e2e_http network kind or a 5xx status gets one
more try. Test Engine records every attempt, so the flake rate stays
visible while a single provider blip no longer reds the rc run.
* test(e2e): let the reseed burst survive one upstream failure and print why
The burst is the precondition, not the property: one 5xx among six
concurrent calls still leaves five workers racing the cold counter, which
is what the reseed assertion measures. Two or more failures still abort,
and the failing bodies are now in the message instead of only the status
codes.
* test(e2e): keep polling Jaeger through a transient query failure
poll_traces_for_call already waits up to POLL_TIMEOUT for spans to land,
but a single refused connection to the query API failed the test on the
spot. Jaeger restarted twice during today's gate runs (19:05 and 19:41
UTC, each under a minute) and took ten and three otel tests with it while
the same tests passed on the rc build minutes later. A network failure
now counts as not-yet inside the same deadline; if Jaeger is still
unreachable when the deadline passes the test fails with that error, and
any non-network failure still fails immediately.
Replaces the test-side fixture transport with an in-process provider-edge
HTTP server the proxy's deployments point their api_base at. Record forwards
provider calls verbatim and writes them to the bundle; replay answers them
from the bundle with zero provider calls while key auth, routing, cost
calculation, and spend-log writes still execute against the live proxy and
database. Drift comes back as HTTP 599 naming the computed and closest
recorded keys. Request headers are never stored and responses are kept
byte-identical between modes from the proxy's side of the socket.
* fix(auth): resolve bare model names against wildcard deployments in model access groups
* test(e2e): cover model access group permission checks on keys and teams
E2E_FIXTURE_MODE selects the transport every e2e client is built on: live
(default, unchanged behavior), record (pass through to the live proxy while
writing every interaction to a fixture bundle), or replay (serve every
interaction from the bundle with no proxy and no provider spend). Both new
transports fulfil the existing Transport protocol, so no test changes shape.
A bundle is a directory with a manifest (record timestamp, harness version,
format version) and one JSON file per interaction, grouped per test in call
order. Replay against a manifest older than seven days hard-fails at
collection time naming the bundle age. Record always wipes and never reads
the previous bundle, refusing to wipe a directory that is not a bundle.
Auth header values are redacted on write; uploads store a sha256 digest.
unique_marker() becomes deterministic per test in record/replay modes so a
replay run regenerates exactly the requests the record run sent.
Content-based match keys, streaming chunk fidelity, and provider-scoping are
follow-ups (LIT-5741, LIT-5742, LIT-5745).
The suite already waits for a new model or agent to become servable before
handing it back, but that wait returns on the first successful read. Every
request opens a fresh connection (e2e_http calls requests.* with no Session), so
a load-balanced Service routes each one independently: one successful read proves
one replica converged, and the caller's next request re-rolls and can land on a
replica that has not reloaded yet.
At replicaCount: 2 this surfaced as 30 failures on a SHA that is green at 1
replica -- 400 "Invalid model name passed", 404 "Guardrail not found", "no
healthy deployments for this model", and a /model/info listing that contained
one of two models created moments apart.
Add PROPAGATION_TIMEOUT (default 15s, override E2E_PROPAGATION_TIMEOUT) and
settle_propagation(), sized off the proxy's proxy_config_reload_interval_seconds
(30s by default, 7s on the e2e stack) plus margin, and settle after every
control-plane create whose object the suite then uses:
- ProxyClient.create_model and A2AClient.register_agent, after their existing
polls -- the poll still fails loudly if the object never appears at all
- GuardrailsClient.register, which had no barrier; create_content_filter_guardrail
and create_bedrock_guardrail now route through it instead of POSTing directly
- the guardrail creates in mcp_client and logging_client
- the vertex passthrough model, whose body cannot go through create_model
Left alone: the /model/new calls that assert a 403 or read back a status code,
since they never use the model.
A poll may start with remaining budget and still return after started+timeout
if the transport overruns its clamp. Recheck the first-listing deadline after
the response so a late listing does not open the continuous DB-sync phase
(cherry picked from commit 7ff2bcbf14)
When less than one full poll interval remained in the first-listing budget,
the pre-sleep check returned NotServable without another /v1/models call.
Sleep only min(interval, time left) so a model that becomes listable in the
last seconds of the timeout still gets a clamped final poll
(cherry picked from commit 8439195922)
create_model returned after the first /v1/models hit that listed the model,
so chat could still land on a cold gateway worker (numWorkers>1 / peer pod)
and 400 Invalid model name. Require continuous listing for the product
default add_deployment interval (30s) after first sight so every worker has
synced from the DB; first listing still bounded at 40s
(cherry picked from commit 7d1ee2ff86)
_await_model_servable used poll_timeout (120s), the spend/log read-back
budget. A stuck model reload therefore stalled every suite that creates a
deployment for two minutes before failing
Give create_model a fixed harness middle ground: model_servable_timeout=40s,
polled every 2s, with each /v1/models call capped at 5s and clamped to the
remaining deadline so one slow GET cannot overrun the wait. Happy path still
returns on the first listing. Not derived from proxy general_settings or env
Transport.get accepts an optional per-call timeout for that clamp. Unit tests
cover the deadline arithmetic and clamp without a live proxy
(cherry picked from commit c082a0e648)
Add a live spend-tracking e2e that drives a streaming anthropic-format
/v1/messages request through litellm's anthropic-messages -> OpenAI Responses
adapter and asserts the consumed stream writes exactly one SpendLogs row with
nonzero cost and token counts, attributed to the calling key under
custom_llm_provider openai and the /v1/messages call_type.
The deployment is a Responses-only OpenAI model (gpt-5.3-codex), so a served,
costed row proves the Responses path was taken; the chat-completions bridge
would have failed at OpenAI on an endpoint the model does not expose. Adds a
streaming /v1/messages method to the shared Gateway and the suite client, the
model to the inline compose config and driver-model registration, a coverage
registry row (quota_management.spend_tracking.messages_bridge.logs_cost), and
the matching variant vocab entry. The _summarize spend-row detail also gains
call_type and custom_llm_provider so a failed assertion prints the fields it
asserts on.
Resolves LIT-4546
* refactor(e2e): fold claude_code HTTP probes onto shared Gateway methods
Migrate tests/e2e/claude_code/http_probe.py off its own httpx client onto the
shared transport, and promote count_tokens and native anthropic messages to
first-class Gateway methods (Gateway.count_tokens / Gateway.messages) with typed
request/response models in the shared models.py so other suites reuse them.
The probes now take an injected Gateway and issue their request through the
shared count_tokens/messages methods, reusing the split control/data-plane
routing, timeout, and typed Result handling the rest of tests/e2e uses. The wire
shape is preserved: the pydantic bodies serialize byte-for-byte to what the old
httpx probes sent, and the anthropic-version header is carried by a small
AnthropicHeaders model. httpx is gone from the module.
* test(e2e): drop unit-level probe harness test
Co-Authored-By: Devin AI <158243242+devin-ai-integration[bot]@users.noreply.github.com>
---------
Co-authored-by: Devin AI <158243242+devin-ai-integration[bot]@users.noreply.github.com>
The shared proxy wrapper in tests/e2e/e2e_gateway.py was misnamed: Gateway is
not a gateway server, it is the client every suite uses to talk to the proxy
(keys, models, chat/embed/ocr, spend read-backs, poll helpers). Rename the
module to proxy_client.py and the class to ProxyClient, with build_gateway
becoming build_proxy_client and the GatewayProvider protocol becoming
ProxyClientProvider. The .gateway attribute suites held is now .proxy. Only
identifiers changed; prose and string literals that use the word gateway for the
proxy-server concept were left alone.
Each suite previously built its own instance through a per-suite build_client()
that called build_gateway() inside, duplicating the proxy wiring across suites.
There is now one session-scoped proxy fixture in tests/e2e/conftest.py; every
suite's client fixture depends on it and injects it, so the wiring lives in one
place. claude_code keeps building its own client directly since it has its own
harness and does not use the shared fixtures.
Behavior is unchanged: shared transport, data-plane/control-plane split routing,
poll budget, typed request/response models, and resource cleanup all go through
the same object.
