> ## Documentation Index > Fetch the complete documentation index at: https://openclaw.ai2me.io/llms.txt > Use this file to discover all available pages before exploring further. # Manual dispatches Manual CI dispatch behavior, release-gate fallbacks, and the Windows Testbox Probe. Part of the [CI scope and routing](/ci/scope-and-routing) index. ## Manual dispatches Ordinary manual CI dispatches run the same job graph as normal CI but force every non-Android scoped lane on: Linux Node shards, bundled-plugin shards, plugin and channel contract shards, Node 24 minimum compatibility, `check-*`, `check-additional-*`, built-artifact smoke checks, docs checks, Python skills, Windows, macOS, full iOS build/test and screenshot qualification, and Control UI/native app i18n. Their logical runner profile is always `github`, independent of the physical fallback selected by `runs-on`. Node 24 minimum compatibility runs in Full Release Validation and manual dispatches only; push and pull request CI skip it. The exact-head `release_gate` fallback instead keeps the pull request's macOS, iOS smoke, and generated-native-locale scope without selecting iOS screenshots or native tests. Automatic source PRs and release gates verify native extraction inventory and Android/Apple localization safety without requiring translated or platform-generated output in the same PR. The serialized Native App Locale Refresh workflow rebuilds those artifacts in one isolated PR and enables exact-head auto-merge after required checks pass. Full native parity remains blocking for generated-artifact PRs, generated-scope release gates, ordinary manual CI, full-scope release validation, and release prep. Control UI locale parity remains advisory on automatic PR and `main` runs and blocking on manual/release CI. Standalone manual CI dispatches run Android only with `include_android=true` (the `release_gate` input also forces Android); full-scope release validation enables Android by passing `include_android=true` without setting `release_gate`; npm qualification scopes defer Android. Plugin prerelease static checks, the full `agentic-plugins` sweep, the full extension batch sweep, and plugin prerelease Docker lanes are excluded from CI. The Docker prerelease suite runs only when `Full Release Validation` dispatches the separate `Plugin Prerelease` workflow with the release-validation gate enabled. PR baseline ratchets derive their comparison state from the checked-out synthetic merge tree and verify its head parent against the event head. The max-lines entry chains the environment-variable budget with the same fork-point ref before the assertion-safety check, so production source growth cannot first surface on `main`. Manual runs use a unique concurrency group so a release-candidate full suite is not cancelled by another push or PR run on the same ref. The optional `target_ref` input lets a trusted caller run that graph against a branch, tag, or full commit SHA while using the workflow file from the selected dispatch ref; ratchet baselines are compared with the target's merge base against the default-branch head resolved for that run. The `release_gate` input is an exact-SHA maintainer fallback for capacity-stalled PR CI: it requires `target_ref` to be a full commit SHA that matches the dispatched branch head and `pull_request_number` to identify the open PR whose merge tree is validated. Release-gate merge-tree lint uses the same five core stripes as hosted PR CI plus one extension stripe, so no single hosted runner owns the full type-aware lint workload. Ordinary canonical manual CI also retains QA Smoke's full profile and Control UI performance without owner-path filtering. It selects `published-upgrade-survivor` when the target declares `docker-seed-e2e-contract-v1`, preserving the exact `legacy-operator-state` plus `auto-auth` proof used by affected main runs. Pull requests and exact-head `release_gate` fallbacks omit Docker seed and QA Smoke. Full Release Validation reaches these lanes through its normal CI child without setting `release_gate`; frozen targets retain their existing capability checks. ```bash theme={"theme":{"light":"min-light","dark":"min-dark"}} gh workflow run ci.yml --ref release/YYYY.M.PATCH gh workflow run ci.yml --ref main -f target_ref= -f include_android=true VALIDATION_SHA="" gh workflow run full-release-validation.yml --ref main \ -f trusted_workflow_json='{"trustedWorkflow":null,"validationPurpose":"diagnostic","publicationSelection":null}' \ -f ref="$VALIDATION_SHA" \ -f expected_sha="$VALIDATION_SHA" ``` Gateway extended-stable shared publication requires complete exact-target Full Release Validation from the trusted main-pinned `release-ci/*` harness targeting the frozen `extended-stable/YYYY.M.33` tip. Direct canonical-branch and `main` producers do not satisfy the protected publisher. Current manifests also supply qualified npm preflight artifacts. The shared `OpenClaw Release Publish` parent dispatches from a protected lightweight `release-publish/-` tag at the frozen trusted-main Tooling SHA and uses `npm_dist_tag=extended-stable` to publish official npm plugins and core, attach evidence, publish Docker, and finalize a non-Latest GitHub Release. Only `extended-stable*` container aliases advance; ClawHub, native-app, website, regular npm `latest`, and private dist-tag surfaces are excluded. Core-resume recovery verifies existing registry bytes before resuming evidence and finalization; Docker-only recovery leaves GitHub finalization untouched. See [Monthly Gateway extended-stable publication](/reference/RELEASING#monthly-gateway-extended-stable-publication) for commands and recovery. ### Windows Testbox Probe The manual `windows-testbox-probe.yml` workflow keeps Windows/WSL probing and headless Windows CI on the selected `runner_label`. The `run_windows_ci` input (default `false`) requests both headless CI and a separate native Scheduled Task proof job on GitHub-hosted `windows-2025`. Neither job depends on the other, so their results remain independently visible; either requested proof failing fails the workflow. For both proofs, set `target_ref` to an exact 40-character commit SHA. Both jobs check out that target, and native proof verifies checkout equality before running the lifecycle test. Native preflight runs before setup and requires an interactive Windows session. A noninteractive runner fails qualification rather than silently skipping proof. Selecting `windows-2025` does not establish native qualification: the unchanged lifecycle assertions and cleanup must pass on the actual runner. Cleanup and diagnostic upload still run after failure, and retained evidence is removed only after cleanup and upload succeed. #### Installed Gateway startup measurements The same workflow can measure one immutable npm package on the selected Windows runner. Set `target_ref` to the full tooling commit, `run_windows_ci=false`, `keepalive_minutes=0`, and `startup_node_version` to an exact Node version (default `26.8.2`). Leave WSL and Defender inputs at their defaults. The optional `installed_startup_package` input is a JSON object with `runId`, `runAttempt`, `workflowSha`, `artifactId`, `artifactDigest`, `packageSha256`, and `sourceSha`. Use the immutable `package-under-test--` artifact from a successful Package Acceptance run. The workflow verifies its producer and artifact metadata, resolves it through the package-candidate owner, and installs and rebuilds with normal npm lifecycle scripts. After the benchmark's lifecycle fixtures pass on Windows, the installed `openclaw.mjs` runs once with new synthetic state, then eight more times with that same state. Each sample records HTTP readiness, first status and health RPC responses, and acknowledged graceful shutdown. An outer managed Windows Job contains the controller and all descendants; final success requires both clean Gateway shutdown and observed descendant settlement before forced Job cleanup. No synchronous process sampler or startup profiler runs during measurement. The `windows-installed-startup--` artifact retains all nine sample slots, errors, package/runtime/helper hashes, source and tooling commits, runner hardware, the raw installed npm lockfile, and cleanup evidence. A streamed `cohort.log` retains the active PID, phase, child output, and completed probe/RPC observations even if cancellation prevents the final sample checkpoint. Synthetic databases and compile caches stay in the runner's temporary directory. A failed or interrupted cohort has no established summary. “Fresh” means new state, not a cold filesystem; dedicated runner results establish a new baseline and do not establish a speedup relative to a different desktop. Health RPC success is separate from recorded plugin availability and degraded diagnostics. For a matched comparison, pass `installed_startup_package` as `{"baseline": , "candidate": }`. Both bindings use the same fields above. The workflow resolves and normally installs both packages on one runner before measurement. Their complete npm lock records must match, except the independently verified OpenClaw tarball references and integrity. Any dependency drift stops the comparison before a Gateway starts; both raw locks remain evidence. The packages must have the same version and dependency graph. Each package has its own immutable install and synthetic state/cache directory. The cohort plans 18 slots: fresh baseline then fresh candidate, followed by eight restart pairs alternating baseline/candidate and candidate/baseline order. Both arms retain their own state across restarts. There are no discarded warmups or replacement samples. A failure stops the cohort, retains the remaining unrun slots, and invalidates the comparison summary. The per-sample deadlines stay the same; the outer lifecycle budget scales from 30 to 60 minutes for two arms. After all samples and descendants settle, the comparison reports each arm's established readiness and absolute first status/health completion, plus paired candidate-minus-baseline differences. Negative differences favor the candidate. Fresh samples remain separate. Alternating order reduces time-order bias; it does not make the filesystem cold or establish performance on other machines. For CPU attribution, set `installed_startup_cpu_diagnostic=true` with one package binding. This separate mode runs one unprofiled fresh prime, then one native CPU profile of an established launch using the same synthetic state. Both launches still require readiness, first status/health requests, acknowledged shutdown, and descendant settlement. It produces no timing summary or paired comparison. The artifact retains raw `.cpuprofile` files, the main process/thread identity, preload clock observations, startup trace metrics, config hashes, and backup-existence facts. The preload's monotonic and performance-clock observations remain available for calibration within the Gateway process. Controller, Gateway, and native-profile timestamps have separately identified clock domains; their alignment is not established. Do not compare absolute values across those domains or assume that a profile's last sampled timestamp includes the preload's exit observation. Console and stream trace output share the diagnostic observer, including under Bun. Profiling and trace observation add overhead; main-isolate samples do not account for unprofiled child or Worker CPU. Ordinary timing cohorts remain uninstrumented. This documentation is built and hosted on [Mintlify](https://mintlify.com), a developer documentation platform.