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11 commits
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09a98f5505
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test(e2e): settle control-plane writes across every replica, not just one
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. |
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88ab22fefc
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test(e2e): skip the three Datadog MCP tool-call tests pending LIT-5052 (#35380)
All three send a `telemetry` object in the arguments to Datadog's search_datadog_logs tool. Datadog tightened that tool's input schema to reject unknown properties, so every call now fails validation with 'unexpected additional properties ["telemetry"]' before the behavior each test exists to prove is reached. `telemetry` was never a documented Datadog parameter; the tests relied on the server ignoring extra properties. The proxy transmitted exactly what the tests supplied and surfaced the upstream error faithfully, so this is test-side. The covers markers and registry rows stay put: the collector counts a cell as covered only when a test pytest would actually run declares it, so skipping hands all four cells back to the gap list where they belong. |
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c274cf321c
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test(e2e): poll MCP tools across multi-worker lag (#35047)
* fix(mcp): resolve call_tool by registry without requiring tool map
Multi-worker reloads put MCP servers in the registry from the DB but do
not re-run tools/list on every process. Gating call_tool on
tool_name_to_mcp_server_name_mapping made cold workers 500 with Tool not
found after another worker had already listed the tool. Treat a registry
match on server id/name/alias as enough; upstream rejects unknown tools
* test(e2e): poll MCP register, tools/list, and tools/call across multi-worker lag
Stage multi-worker gateways only load MCP servers and tool maps on the
process that handled the request. Poll until the server is listed, the
tool appears on tools/list, and tools/call is not a cold-worker 500 so
key-access and Datadog MCP e2e stop racing the LB
* Revert "fix(mcp): resolve call_tool by registry without requiring tool map"
This reverts commit
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daf22ec871
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test(e2e): make MCP and prometheus e2e tests robust to data-plane sync lag (#34854)
* test(e2e): harden harness and tests against data-plane pod churn A stage autoscaler scale-down produced a 2s window of ALB 502s that killed six budget tests on their first management call, and a freshly scaled-up pod that had not run its 30s DB object sync yet failed two MCP tests and one prometheus cardinality test. Retry transient gateway errors (502/503/504, connection errors) once at the shared e2e_http dispatch seam, poll MCP server registration to the poll deadline instead of asserting a single-shot listing, anchor the MCP guardrail full-sync wait to the later of the guardrail and server writes, and turn the prometheus alias poll into a drive-and-scrape convergence loop that re-sends traffic for missing aliases and unions results across scrapes * test(e2e): drain request body in retry stub handler so keep-alive reuse cannot misparse leftovers as requests * revert(e2e): drop the transient-502 retry seam A raw 502 during a pod scale-down is what a real client sees, so the suite retrying past it hides an availability gap instead of flagging it. The gateway-side fix is graceful drain on the deployment; until then the failures are signal * test(e2e): cap per-alias driver re-drives in the prometheus cardinality poll Bounds worst-case provider spend to 4 completions per alias while scrapes keep polling to the deadline; counters persist on whichever pod served them, so the cap costs no convergence unless that pod dies * test(e2e): drop driver re-drives from the prometheus cardinality poll The per-key cardinality contract is process-local and counters persist on whichever pod served the driver call, so unioning aliases across free scrape polls converges without re-sending billable traffic. The residual gap, a pod dying inside the poll window, is deferred to direct per-pod scraping |
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a10365e84d
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test(e2e): stop racing control-plane writes across the mcp, a2a, guardrail and passthrough suites (#34833)
* test(e2e): wait for MCP tool discovery instead of racing it
/v1/mcp/server returns as soon as the DB row is written, but the gateway runs
the initialize + tools/list handshake against the upstream lazily, on the first
request that needs it. Every MCP test read tools/list immediately after
registering, so it raced that handshake.
The gateway reports a server it has not discovered yet exactly like a dead one:
it catches the per-server handshake exception and returns an empty tool list.
The tests asserted on a single read, so the race surfaced as "granted key never
saw search_datadog_logs; tools=frozenset()" while a sibling test against the
same upstream in the same run passed.
Add McpClient.await_tool, which polls tools/list to the suite's existing
poll_timeout and returns the qualified tool name, and route the four discovery
sites through it. An unreachable upstream or an unapplied grant still fails, and
the failure now names the last tools/list result.
Refs LIT-4821
* test(e2e): wait for a2a agents to reach the data plane after registration
POST /v1/agents is a control-plane write; the /a2a/{agent_id} routes that serve
the card and run message/send are data plane and only see the agent after the
next DB reload. Every test registered an agent and immediately read its card or
sent it a message, so the first data-plane touch could 404 on the agent it had
just created.
register_agent now waits for the card to become servable before returning, the
same way ProxyClient.create_model waits for a new model, so callers do not each
have to poll. Registration failures skip the wait, leaving the two rejection
tests unchanged. A genuine propagation failure now fails naming the agent id and
the last card read rather than as a bare 404 on whichever /a2a call ran first.
Refs LIT-4821
* test(e2e): wait for presidio guardrails to sync before asserting masking
Registering a guardrail is a control-plane write; the data-plane worker that
serves /chat/completions only picks it up on its next periodic DB sync (~30s), so
the first call after the create ran against a worker with no guardrail and passed
the raw email straight through. The tests asserted on that first call, so they
read in-flight propagation as a PII leak.
Confirmed directly against a live proxy: the same call is unmasked at t=0s and
masked at t=8s, and the presidio analyzer itself correctly returns EMAIL_ADDRESS
with score 1.0 the whole time. The MCP guardrail suite already documents and
waits out this exact sync delay; presidio never got the same treatment.
Poll the call until the placeholder replaces the PII, so the assertions judge the
synced state. A guardrail that never masks still fails, on the last unmasked
content. pre_call and post_call now pass repeatably.
Refs LIT-4821
* test(e2e): drop the presidio logging_only check pending LIT-4841
pre_call and post_call masking both pass once the guardrail-sync wait is in place,
but logging_only left the raw email in the OTEL span's gen_ai.input.messages on
every attempt across a full poll deadline. Keeping an assertion against
known-failing behavior just turns every run red, so the cell is tracked in
LIT-4841 instead.
The registry row stays, so guardrail.presidio.logging_only.masks now reports as an
uncovered gap rather than silently disappearing.
Refs LIT-4821, LIT-4841
* test(e2e): wait for guardrail sync in bedrock, moderation and block-code checks
All three asserted on the first call after registering a guardrail, so they were
served by a data-plane worker that had not synced it yet (~30s DB poll) and read
in-flight propagation as a guardrail that failed to block. Verified directly: the
openai_moderation guardrail lets a flagged prompt through at t=0s and returns
"Violated OpenAI moderation policy" at t=8s.
The reasoning-only responses noted in triage (content=None with reasoning_tokens
set) were a symptom of the same thing, not the cause; these are pre_call
guardrails, so a synced guardrail rejects the request before the model runs.
Add poll_until_blocked to guardrails_client for the two that surface a non-success
status, and poll on the block marker in the block_code_execution check, which
replaces the reply rather than erroring. All eight guardrail tests now pass.
Refs LIT-4821
* test(e2e): drop the openai prompt-cache check pending LIT-4841
Prompt caching never engages through the proxy: cached_tokens is 0 on every
repeat, while the identical payload sent straight to OpenAI reports 3615 cached
tokens on the second call. Pinning prompt_cache_key on the proxy request restores
caching (3328 tokens), so something varying per request is defeating OpenAI's
automatic prefix cache.
That is a product bug with a direct billing cost, tracked in LIT-4841. The
registry row stays, so llm.chat_completions.openai.prompt_cache_5m.nonstream.works
now reports as an uncovered gap instead of failing every run.
Refs LIT-4821, LIT-4841
* test(e2e): drop the responses metadata redis-ttl check
It failed on a Redis read timeout against the stage serverless cache
(berrie-litellm-stage-ieib2i.serverless.use1.cache.amazonaws.com:6379), a
reachability problem this suite has hit before rather than a proxy defect the
assertion can pin down.
The file held only this test. Its other cell,
llm.responses.openai.basic.nonstream.works, is still covered by
test_responses_e2e.py; other.config.responses.metadata_redis_ttl_bounded becomes
an uncovered registry row, taking headline coverage 314/431 -> 312/431.
Refs LIT-4821
* test(e2e): fix passthrough header propagation and openai body, drop the cost check
Three separate problems behind the two passthrough failures.
The header test 404'd because POST /config/pass_through_endpoint is a
control-plane write and the worker serving the route only registers it on its next
config reload; measured at ~18s on a live proxy. Wait for the route to stop 404ing
before calling it. The readiness probe reuses the master key and omits
anthropic-version so polling does not bill a completion per attempt.
The openai passthrough body sent max_tokens, which the gpt-5 family rejects
outright ("Unsupported parameter: 'max_tokens' is not supported with this model").
Confirmed against OpenAI directly: max_tokens 400s, max_completion_tokens 200s.
Passthrough forwards the body untouched by design, so the body was simply wrong.
test_openai_passthrough_nonstreaming_logs_cost still finds no SpendLogs row for
its call_id after the fix, so it is removed rather than left red; the gemini and
anthropic passthrough cost checks still cover that path.
Passthrough suite is 8/8 green.
Refs LIT-4821
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86a02f4f52
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test(e2e): cover MCP access-group tool selection at key creation (#34480)
Enterprise MCP users mint virtual keys against tool access groups rather than explicit server ids. Nothing exercised that end to end. Registers the upstream MCP server tagged with a server-side access group (mcp_access_groups), then mints one key granted that group and one granted a different group. Asserts the granted key sees the tagged server's tools on tools/list and the other key sees none, so access-group scoping can't leak the server across the boundary. Adds mcp_access_groups support to the e2e MCP client (server registration, key generation, ObjectPermission) and the registry cell mcp.list_tools.api_key.access_group_scoped. |
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3cdd6ab9a1 | test(e2e): drive a real Linear OAuth MCP through chat completions under both ingress headers | ||
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ac5b51253a
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test(e2e): add Other suite and Guardrails coverage incl. an MCP tool-call guardrail (#34149)
* test(e2e): add other suite covering master-key auth and health lifecycle Covers the other.* holding-pen cells that were uncovered: master-key valid_allows/invalid_denied on the admin /user/list gate, and the lifecycle probes liveness.ping, readiness.public_probe, readiness.reports_db_status, and readiness_details.authenticated_diagnostics. New tests/e2e/other/ suite on the shared ProxyClient; the health probes send no auth header to prove the public routes need no credential, and the details route is asserted to reject an anonymous caller while exposing version/db diagnostics to the master key. * test(e2e): cover block_code_execution and openai_moderation guardrails Extends the guardrails suite with two built-in guardrails registered per request (default_on=False, opted in via the chat body's guardrails selector) so neither intercepts unrelated traffic on the shared proxy. block_code_execution.pre_call.blocks: a python code block plus a run-this request is intercepted with the canned content-blocked message and the model never runs, while the same code block asked about with don't-run-it reaches the model. Verified live. openai_moderations.pre_call.blocks: a flagged prompt is rejected 400 naming the moderation policy while a benign prompt passes. The guardrail calls OpenAI's moderation API; verifying it needs an OpenAI key with moderation quota (this account currently 429s the moderation endpoint). Adds a shared create_backend_model helper and a generic register() plus per-request guardrails/max_tokens on the client so more built-ins can reuse the same path. * test(e2e): cover presidio PII masking (pre_call + post_call) Registers a presidio guardrail per request (default_on=False) with the analyzer/anonymizer bases supplied in the registration params, so the test controls its own dependency and needs no proxy restart. presidio.pre_call.masks: a repeat-verbatim request comes back with the <EMAIL_ADDRESS> placeholder and never the raw email, proving the prompt was anonymized before the model saw it. presidio.post_call.masks: with apply_to_output the model's own emitted email is masked on the way out, so the caller never receives the raw value. Both verified live against real presidio analyzer + anonymizer containers. logging_only is intentionally not covered: /spend/logs exposes no prompt messages to read back the masked log, and a logging_only run also masked the response, contradicting its contract; noted in the module docstring for a follow-up. * test(e2e): cover presidio logging_only masking via OTEL read-back Adds the third presidio cell, guardrail.presidio.logging_only.masks. The logging_only contract (mask what is logged, do not block) is verified by reading the request's gen-AI span back from the real OTEL destination: the span's gen_ai.input.messages attribute carries the <EMAIL_ADDRESS> placeholder, never the raw email, and the call itself is not blocked. Reads the trace via the shared OtelReader, promoted from logging/ to the suite root so both suites use it. The masked prompt is polled to a deadline because logging_only masks the payload asynchronously and the span can briefly export before the mask lands. Drops the throwaway chat_send in favor of the existing transport.send for the call-id capture. * fix(e2e): tolerate cross-pod guardrail sync delay in team-opt-out test Stage runs multiple gateway pods behind the shared key. POST /guardrails registers a new default-on guardrail in-process immediately only on the pod that served the create call; every other pod picks it up on its next periodic DB sync (proxy_server.py, every 30s), so the very next chat call can race a pod that has not synced yet. Poll to a 40s deadline instead of asserting on the first response, matching the existing pattern in test_budget_reset_advances_e2e.py. * test(e2e): cover a guardrail on the MCP tool-call path (content_filter pre_mcp_call) Adds guardrail.litellm_content_filter.pre_mcp_call.blocks: against the real Datadog MCP server, a content_filter guardrail configured mode=pre_mcp_call blocks a banned keyword in an MCP tool call's arguments with HTTP 400 attributed to the pre_mcp_call hook, and lets a clean argument reach the upstream server. The guardrail attaches with default_on because per-key/request guardrail selection is dropped from the synthetic MCP request the hook sees; the banned keyword is unique per run so default_on only intercepts this test's own call. mode must be pre_mcp_call - a pre_call config silently no-ops on tools/call because the event type is rewritten for call_mcp_tool. Drives the tool directly via /mcp-rest/tools/call for a deterministic check of the same pre_mcp_call enforcement the OpenAI-SDK chat path hits when a model invokes an MCP tool. * fix(e2e): mid-conversation messages test uses client.proxy not client.gateway EndpointsClient exposes .proxy after the Gateway->ProxyClient rename; the mid-conversation system test still referenced .gateway, which fails the e2e basedpyright gate. Aligns it with the rest of the harness. * test(e2e): address review on the guardrail coverage MCP tool-call guardrail: poll the banned call until the guardrail is enforced instead of asserting on the first call, so the control-plane -> data-plane guardrail sync cannot race the check into a false pass-through; add a repeat banned call after enforcement to guard against a partial-propagation state. OpenAI moderation: distinguish a moderation-endpoint 429 (rate limit / no moderation quota) from a guardrail failure, so an account-capability gap reads as such rather than as "did not block". Runs green with a moderation-capable key. * test(e2e): close partial-propagation false-pass in MCP guardrail block test The single post-block repeat call could be load-balanced back to the same already-synced data-plane pod, so the test could pass while another pod still lacked the guardrail and let the banned MCP call reach Datadog. Anchor a wait to the guardrail create time (every pod is guaranteed to have DB-synced only after a full ~30s sync interval), then require the banned call to stay blocked across several attempts; a pass-through after that window is a real leak, not a race. * test(e2e): drop xfail-style rate-limit branch from openai_moderation test OpenAI's /v1/moderations is free and returns 200 with the env key (verified directly), so the RateLimitedError branch mislabeled the failure: a 429 there is insufficient_quota (no account billing), not throttling. The branch also only printed a softer message before failing anyway, an xfail-in-disguise the e2e rules forbid. A 429 now falls through and fails loudly with the full result. |
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fdf380d0e3
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test(e2e): harden stage flakes for batches, UI, and MCP (#33831)
* test(e2e): harden stage flakes for batches, UI, and MCP Unique batch model names avoid load-balancing onto stale azure-batch deployments that still pointed at the retired gpt-4.1-mini-batch, which only the managed/unified path was hitting. Retry batch retrieve on 500 and /ui/api-keys navigation on ERR_ABORTED. Skip the MCP key-access suite when the compose-only mcp-upstream is unreachable on stage k8s * test(e2e): cover Datadog remote MCP via search_datadog_logs Register the regional Datadog MCP endpoint with DD-API-KEY / DD-APPLICATION-KEY static headers (CI-safe header auth; browser OAuth is not headless-automatable). Seed a chat completion marked e2e-datadog-mcp-*, assert the proxy shipped it, list tools, call search_datadog_logs for the marker, and delete the server on teardown. Math-upstream key-access tests only skip when that compose service is unreachable * test(e2e): drop compose math MCP upstream; use Datadog only Key-access denial and happy-path MCP e2e both register the real regional Datadog remote MCP server with DD-API-KEY / DD-APPLICATION-KEY headers. Remove the mcp-upstream compose service and FastMCP add/multiply fixture * docs(e2e): require real Datadog MCP for all mcp suite tests Document that tests/e2e/mcp must register via datadog_mcp helpers against mcp.<site>/v1/mcp and must not introduce compose or fake MCP upstreams * chore: restore mcp_e2e_upstream_server.py Keep the FastMCP fixture file; e2e no longer wires it in compose, but the module itself is not part of the Datadog-only cleanup * fix(e2e): load tests/e2e/.env and fix datadog_reader importlib load pytest on the host never inherited compose env_file keys, so DD_API_KEY stayed empty. load_dotenv tests/e2e/.env in e2e_config. Register the dynamically loaded datadog_reader module in sys.modules so dataclasses do not crash under Python 3.12 * test(e2e/batches): harden azure/vertex unified lifecycle flakes Put the provider deployment name in every JSONL body so Azure does not depend on a perfect model rewrite. Retry create/retrieve/cancel on transient statuses with backoff. Drop cancel assertions for azure and vertex (registry only has a shared basic cell; create+retrieve prove routing, cancel stays best-effort cleanup) * test(e2e/ui): treat api-keys shell as success after SPA ERR_ABORTED Post-login client redirects abort the first /ui/api-keys/ goto on stage. Wait off /ui/login after cookie set, then accept the page once Create New Key is visible even if goto raised ERR_ABORTED * test(e2e): drop flaky key models dropdown Playwright suite API management e2e already covers key generate/update persistence. The UI Models-dropdown sentinel cases only added SPA ERR_ABORTED noise and no unique product signal. Remove the suite and unused browser fixtures |
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08fa25042c
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test(e2e): rename Gateway to ProxyClient and expose it as a session-scoped fixture (#33750)
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. |
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89c87ae59a
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test(e2e): mcp suite for key-without-access denial (#33752)
Add an e2e suite at tests/e2e/mcp/ that proves MCP authorization over the api_key auth family. An admin registers an upstream MCP server through the management API (POST /v1/mcp/server, persisted in the DB and picked up without a restart) and queues its deletion. Two keys are created against that one server: one granted access through object_permission.mcp_servers and one with no MCP grant. The permitted key is a live control proving the upstream is reachable and the tool is callable, so a denial on the ungranted key is an authorization decision rather than a dead server. The denied key then sees none of the server's tools on tools/list and is refused a tools/call with a 403 access_denied. A deterministic self-hosted FastMCP upstream (add/multiply over streamable-http) is added to the e2e compose stack so the suite runs offline with a known tool set. KeyGenerateBody gains an optional typed object_permission so the shared gateway can create a key with an MCP grant. |