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Commits
| Author | SHA1 | Message | Date | |
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 Aleksei Sviridkin
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b11066e770 |
docs(e2e): name every suite that stayed on the BATS runner
Two files enumerated the BATS suites and both stopped one short. The global catch in .chainsaw.yaml describes itself as the Chainsaw analog of the EXIT-trap host snapshot in hack/cozytest.sh, and said that runner "only covers the BATS install/openapi tests". The README said cluster bootstrap and the OpenAPI checks remain BATS and named only two files. Both miss e2e-prepare-cluster.bats, which packages/core/testing/Makefile drives through the same runner, and which is the suite whose failures leave the sandbox in the state hardest to reconstruct afterwards. docs/agents/e2e-testing.md already listed all three, so the count was answerable from the tree; it just disagreed with itself depending on which file you opened. The .chainsaw.yaml paragraph is reflowed because the correction is longer than the line it replaces; no other wording changed. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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7afa76b5b1 |
docs(hack): point the comment at the code that does what it describes
The note explaining that image-cache readiness is gated at point of use pointed into hack/e2e-apps/, which holds two monitoring suites and no runner. The readiness gate it means is the rollout status wait in hack/e2e-chainsaw/_lib/talos-image-cache.sh, along with both fallbacks to the public factory; run-kubernetes.sh only calls it. Naming the caller would have left the reader one hop short of the code. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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2147e12d79 |
docs(hack): correct both budget claims in the capture-gate rationale
Two numbers in this comment block no longer described the code. The snapshot leg's cost was given as 360s, the deadline passed to timeout. The leg is invoked as `timeout -k 30 360`, so a hung crust-gather is signalled at 360s and killed at 390s, and the trap waits out the later one. The comment 40 lines below already said 390s, as does the op-budget arithmetic in .chainsaw.yaml; the three now agree, and the number names the grace it includes, because the data-plane leg beside it is quoted at its bare deadline. The data-plane leg was still described as having no bound on its first pod list, and billed at the full 600s on that basis. Its reads carry their own ceilings now, 28s for a list and 20s for a single read, so the leg returns in tens of seconds and the paragraph's bottom line overstated the bill it exists to justify. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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905249fb39 |
fix(tests): bound the e2e data-plane capture's reads and stop inferring absence from silence (#3659)
<!-- Thank you for making a contribution! Here are some tips for you: - Use Conventional Commits for the PR title: `type(scope): description` - Types: feat, fix, docs, style, refactor, perf, test, build, ci, chore - Scopes are not an exhaustive list — pick the most specific scope for the change and extend the list when a genuinely new area appears. Examples: - System components: dashboard, platform, operator, cilium, kube-ovn, linstor, fluxcd, cluster-api - Managed apps: postgres, mariadb, redis, kafka, clickhouse, virtual-machine, kubernetes - Development and maintenance: api, hack, tests, ci, docs, maintenance - Breaking changes: append `!` after type/scope (`feat(api)!: ...`) or add a `BREAKING CHANGE:` footer - If it's a work in progress, consider creating this PR as a draft. - Don't hesistate to ask for opinion and review in the community chats, even if it's still a draft. - Add the label `backport` if it's a bugfix that needs to be backported to a previous version. --> ## What this PR does `hack/e2e-capture-dataplane.sh` runs after an e2e failure to snapshot the host-to-pod data plane. Every `kubectl` read in it was unbounded, so a read against a wedged apiserver hung until the caller's own backstop killed the script, and then no capture file was written at all. The run that most needs the diagnostic is the run least likely to produce one. Each read now carries its own bound, 20s for a single read and 28s for a list, well inside the 300s the callers allow. Bounding the reads creates the second problem, which is most of this diff. A bounded read that gives up returns empty, and empty was already how the script recognised "there is nothing here". Five places turned a read that never answered into a fact about the cluster: no affected pods, no ovn-central, no LoadBalancer Service, no cilium-agent on a node, and a LoadBalancer recorded as reachable. Two of the five only became reachable because of the bounds. Before them the script died instead of writing the file, so a lookup that never answered could not be recorded as a pod that is not there. Each of those claims now has a counterpart chosen by the status of the read that produced it, and the counterpart says what is left unknown rather than what the read did. The last one is the subtlest, because nothing about it looks like a claim of absence: the probe resolves a cni-server pod before probing, and a lookup that never answered produced no probe outcome at all, which the decision helper read as "nothing failed" and the artifact stamped as reachable. That is a verdict about an address the script never touched. The probe now emits an explicit unknown, and a set of outcomes that is entirely unknown stays unknown. Only a wholly unknown set: one unrun probe beside real failures leaves the failures standing and still captures, because they are the evidence the capture exists to characterise. Every note ships beside the capture it explains, not only in the job log, because the reader who has the uploaded report and not the run is exactly the reader who cannot otherwise tell a capture that found nothing from one that never ran. Both sibling collectors already hold that contract. The middle commit is a separate and measurable thing. Each per-node pod lookup was issued up to three times per node; it is asked once now and memoised, with only answers and cutoffs cached, since an instant failure costs nothing to re-ask and caching it would make one transient permanent for the whole run. On an 8-pod, 8-node stub that is 264 kubectl calls down to 229 and 59 per-node lookups down to 24, with byte-identical output. Deliberately left, and worth naming so nobody reads this as the whole class. The two EndpointSlice reads still discard stderr and report neither outcome. The "reachable, skipped" wording still covers every path that reaches it having run zero probes, among them an unresolved probe node, a `_lbport` of 0, a cni-server image carrying none of `nc`, `curl` or `wget`, and a failure of the probe `exec` itself rather than of the lookup before it; that leftover is tracked in #3658. And the three call sites still disagree about what a partial answer means: `host_http_probe` discards a name that arrived with a non-zero status, while `capture_node` and `capture_lb_node` use a non-empty name regardless of it. All of these are verbatim at the merge base and this diff does not change their behaviour. Covered by 39 cases in `hack/capture-dataplane.bats`, each branch pinned by a stub that answers one read and fails another, and each with a positive anchor so a stub that stops short of the branch fails rather than passing quietly. relates to #3642 ### Screenshots <!-- REQUIRED for UI changes: attach screenshots or screen recordings demonstrating the visual impact of your changes. PRs with UI changes without screenshots will not be merged. --> ### Downstream repositories <!-- Cozystack is upstream for repositories that are NOT kept in sync with it automatically, and nothing in CI compares the two sides, so a change here can break them silently. Which change forces what, and which file to touch, is the trigger map in docs/agents/contributing.md under "Downstream Repositories". Walk it before you tick anything. IF YOU ARE AN AI AGENT OR AN LLM, THIS IS PART OF THE TASK, NOT A FORM TO FILL IN: 1. Walk the trigger map against the actual diff of this PR, file by file. Do not decide from the PR title or from your memory of what you changed. 2. For every repository you tick, open the follow-up PR there and link it on the same line. A ticked box with no link claims work that does not exist, which is worse than an empty box. Search that repository for an open PR or issue covering it first, and link that instead of filing a duplicate. 3. When the follow-up is out of scope, or needs a decision that is not yours to make, open an issue in that repository instead, link that, and say so in the PR body. Do not push a speculative PR into another repository just to fill a line here. 4. Do not tick "No downstream repository is affected" to make the checklist go away. If you are unsure, leave every box empty and say so in the PR body, so a human decides. --> - [x] No downstream repository is affected by this change - [ ] [cozystack/website](https://github.com/cozystack/website) - follow-up: - [ ] [cozystack/terraform-provider-cozystack](https://github.com/cozystack/terraform-provider-cozystack) - follow-up: - [ ] [cozystack/ansible-cozystack](https://github.com/cozystack/ansible-cozystack) - follow-up: - [ ] [cozystack/ccp](https://github.com/cozystack/ccp) - follow-up: - [ ] [cozystack/talm](https://github.com/cozystack/talm) - follow-up: - [ ] [cozystack/cozyhr](https://github.com/cozystack/cozyhr) - follow-up: - [ ] [cozystack/cozy-proxy](https://github.com/cozystack/cozy-proxy) - follow-up: - [ ] [cozystack/cozystack-telemetry-server](https://github.com/cozystack/cozystack-telemetry-server) - follow-up: - [ ] [cozystack/external-apps-example](https://github.com/cozystack/external-apps-example) - follow-up: - [ ] [cozystack/examples](https://github.com/cozystack/examples) - follow-up: ### Release note <!-- Write a release note: - Explain what has changed internally and for users. - Start with the same `type(scope):` prefix as in the PR title - Follow the guidelines at https://github.com/kubernetes/community/blob/master/contributors/guide/release-notes.md. --> ```release-note fix(tests): bound every kubectl read in the e2e data-plane capture so a hung read no longer costs the whole capture, and stop the collector reporting an unanswered read as an absent pod, service or reachable address ``` |
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Aleksei Sviridkin
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c1071dab9b |
feat(kubernetes): let a node group log the guest serial console (#3637)
## What this PR does Both tenant Kubernetes e2e suites keep missing the node-Ready budget with zero Nodes registered, and the time goes inside the guest, between the worker VMI reaching Running and Talos asking for its apid certificate. Nothing collected today reaches that window. The in-guest capture the harness already has drives `talosctl`, so it needs the apid the worker never got to, and the management side has neither a Node nor a certificate request to read. Four attempts at this failure have been designed from outside the guest; the most recent raised the budget from 12m to 18m and the same fingerprint came back at the new deadline. KubeVirt can stream a VM's guest serial console into a `guest-console-log` container beside virt-launcher, readable with `kubectl logs` and needing nothing from inside the guest — no talosctl, no client certificate, no helper Pod, no reachable apid. That is the one property this failure class demands, so this turns it on for the suite's worker node group and collects it into the diagnostic bundle when node-join fails, ahead of the `talosctl` capture that cannot describe the same runs. Reads start at the beginning of the stream rather than tailing it: a guest that repaints its console would push the boot output out of any `--tail` window, while `--limit-bytes` truncates from the far end instead. Every read is bounded, and the walk stops at a cap that records both counts, so the collector cannot become an unbounded term in a failure path that already runs several others under one deadline. A read that returns no console is not filed as a quiet guest. Three outcomes get three labels, because only one of them says anything about the guest: the read failed and returned nothing, the read succeeded and returned nothing, or it broke off part way. Each read's stderr is kept beside the capture rather than inside it — kubectl's own `container guest-console-log is not valid for pod` would otherwise fill the file, and a console that never started would read as one that had spoken. That case is the headline one here, so the Pod state and events that explain it are collected alongside, once for the whole selector. The switch is a new opt-in `logSerialConsole` on a node group, off by default. It renders nothing unless set to true, including when set to false, because the `KubevirtMachineTemplate` is content-hash named and a byte emitted for a group that did not ask for it renames the template and rolls every live worker VM on upgrade. I verified that by rendering the base tree and this branch: absent and explicit-false produce a byte-identical template name on both charts. Worker VMs come from two charts, `kubernetes` and `kubernetes-nodes`; both carry the field, and the golden-parity check between them gains a case that keeps their output identical. The passing path checks separately that the container actually attached, and runs that check last, after everything the suite exists to prove — a debugging aid should not preempt the assertions that cover the cluster. Without it the suite would first learn the setting was inert in the one run that needed the console, when it can no longer be recovered. Relates to #3513. ### The risk this carries, stated up front The platform turns serial console logging off cluster-wide in the KubeVirt CR. That setting is a mitigation added in February 2026 for kubevirt/kubevirt#15989, where the `guest-console-log` container kept virt-launcher from starting and left VMs in `PodInitializing`. A per-VM `logSerialConsole` takes precedence over it — `isSerialConsoleLogEnabled` reads the VMI field first and only then falls back to the cluster setting — which is what makes this work, and also makes this the first thing on the platform to go through that mitigation. The mitigation was written against KubeVirt v1.6.x; the platform now ships v1.8.4, and the upstream issue is still open with no reproduction reported either way on the newer version. So the first run of these suites is also the experiment, and it doubles as a revalidation of that February mitigation on the version actually shipping, which nobody has done. The two outcomes are distinguishable rather than ambiguous: kubevirt/kubevirt#15989 shows up as virt-launcher wedged in `PodInitializing` with the VMI never reaching Running, while the failure this instruments shows the VMI Running and zero certificate requests. A red run with the first signature is an answer, not noise — and the collector is built so that it says which one happened instead of reporting silence. The blast radius is small: the product field is absent by default and only the e2e node group sets it, so backing this out is one line. The revert criterion, stated before the run rather than after it. If worker virt-launcher Pods sit in `Init` on `guest-console-log` and no Node registers, kubevirt/kubevirt#15989 still reproduces on v1.8.4: drop the `logSerialConsole: true` line from the e2e node group, keep the chart field, and the upstream issue gains the reproduction on a current version that its thread does not have. If the Pods reach Running and the console logs carry boot output, the mitigation is a candidate for removal platform-wide, which is its own change. Either way the run answers something that was open before it. Dropping `virtualMachineOptions.disableSerialConsoleLog` outright was the alternative. It is a smaller diff and needs no values key, but it exposes every VM on the platform to a race nobody has re-tested, instead of one node group in one test. That is its own revalidation exercise and belongs in its own change, on evidence this one produces. ### Verification `make unit-tests` passes. The new bats suite runs green under both `bash` and a `dash` `/bin/sh`, which matters because `hack/cozytest.sh` is `#!/bin/sh` and an earlier revision of this branch carried a bash-only construct that failed silently there. Every test in it is killed by a specific mutation of the code it covers. Both charts' helm-unittest suites pass, the golden-parity script reports byte-identical output across all four cases including the new one, and `make generate` is idempotent at the repo root. Reviewed by Claude across several rounds and by an independent second reader; the review loop found and fixed real defects in this branch, including a green-path check that had become unable to report the one thing it existed for. ### Screenshots Not a UI change. ### Downstream repositories - [ ] No downstream repository is affected by this change - [ ] [cozystack/website](https://github.com/cozystack/website) - follow-up: - [x] [cozystack/terraform-provider-cozystack](https://github.com/cozystack/terraform-provider-cozystack) - follow-up: https://github.com/cozystack/terraform-provider-cozystack/issues/26 - [ ] [cozystack/ansible-cozystack](https://github.com/cozystack/ansible-cozystack) - follow-up: - [ ] [cozystack/ccp](https://github.com/cozystack/ccp) - follow-up: - [ ] [cozystack/talm](https://github.com/cozystack/talm) - follow-up: - [ ] [cozystack/cozyhr](https://github.com/cozystack/cozyhr) - follow-up: - [ ] [cozystack/cozy-proxy](https://github.com/cozystack/cozy-proxy) - follow-up: - [ ] [cozystack/cozystack-telemetry-server](https://github.com/cozystack/cozystack-telemetry-server) - follow-up: - [ ] [cozystack/external-apps-example](https://github.com/cozystack/external-apps-example) - follow-up: - [ ] [cozystack/examples](https://github.com/cozystack/examples) - follow-up: ### Release note ```release-note feat(kubernetes): worker node groups accept `logSerialConsole`, which streams a worker VM's guest serial console into a `guest-console-log` container readable with `kubectl logs`. Off by default. It is the only way to observe a worker that stalls during boot before Talos apid answers, when no Node and no certificate request exist to diagnose from. Enabling it rolls the node group and overrides the platform's cluster-wide `disableSerialConsoleLog`. ``` <!-- This is an auto-generated comment: release notes by coderabbit.ai --> ## Summary by CodeRabbit * **New Features** * Added an optional `logSerialConsole` setting for Kubernetes worker node groups. * Streams worker VM guest serial-console output to a dedicated log container when enabled. * Configuration is disabled by default and available through Kubernetes application settings. * **Bug Fixes** * Improved worker failure diagnostics with bounded serial-console output and pod-state information. * Validates that enabled worker pools attach the expected console-log container. * **Documentation** * Documented configuration behavior, rollout effects, defaults, and timeout considerations. * **Tests** * Added coverage for rendering, attachment validation, capture limits, and failure scenarios. <!-- end of auto-generated comment: release notes by coderabbit.ai --> |
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Aleksei Sviridkin
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db590b493c |
fix(hack): arm cozytest cluster captures for e2e suites only (#3645)
<!-- Thank you for making a contribution! Here are some tips for you: - Use Conventional Commits for the PR title: `type(scope): description` - Types: feat, fix, docs, style, refactor, perf, test, build, ci, chore - Scopes are not an exhaustive list — pick the most specific scope for the change and extend the list when a genuinely new area appears. Examples: - System components: dashboard, platform, operator, cilium, kube-ovn, linstor, fluxcd, cluster-api - Managed apps: postgres, mariadb, redis, kafka, clickhouse, virtual-machine, kubernetes - Development and maintenance: api, hack, tests, ci, docs, maintenance - Breaking changes: append `!` after type/scope (`feat(api)!: ...`) or add a `BREAKING CHANGE:` footer - If it's a work in progress, consider creating this PR as a draft. - Don't hesistate to ask for opinion and review in the community chats, even if it's still a draft. - Add the label `backport` if it's a bugfix that needs to be backported to a previous version. --> ## What this PR does `hack/cozytest.sh` arms three cluster captures from its on-failure EXIT trap, and gates each on a binary being installed rather than on there being a cluster to read. A unit runner has kubectl and no cluster, so a red unit test walked into those legs on its way out and paid for snapshots of nothing. What that costs turns on how kubectl fails, which is why the defect survived: against an endpoint that refuses it is a second, and locally that is what happens. Against one that hangs, which is what a runner with a context pointing at a torn-down cluster has, I measured ~28s for the previous-logs leg and the full 600s for the data-plane one. The 28s is the leg self-bounding its own pod list, so it never reaches the 300s ceiling above it; the 600s is real, because that leg's first pod list carries no bound of its own. Ten minutes of dead waiting for a failure that should have cost seconds. Where crust-gather is installed too, the bill stops being empty and starts being wrong. That leg needs no reachable cluster to fire, only an ambient KUBECONFIG, and it will spend up to 360s snapshotting whatever cluster the current context happens to name. The gate now keys on the `e2e-` prefix, read from the suite's own name or from the directory holding it. At the top level that is the split the project already sorts on: the Makefile builds `BATS_UNIT_FILES` as `$(filter-out hack/e2e-%.bats,$(wildcard hack/*.bats))`, so a top-level `e2e-*` suite is exactly the one `make unit-tests` refuses to run and `packages/core/testing/Makefile` runs against a live cluster. That wildcard is not recursive, and `hack/e2e-apps/` holds live-cluster suites whose own filenames carry no prefix, so the directory is checked too. Matching the basename alone would take the captures away from suites that need them, which is the opposite of the point. Every leg, bound and message on the e2e path is unchanged. It is deliberately not a reachability probe, though a probe would also tell a cluster from a bare binary. A failing e2e run is frequently one whose apiserver is degraded, and a probe answering "no" there would skip the snapshot in precisely the case the snapshot exists for. A diagnostic should not condition itself on the health of the thing it diagnoses. The test drives the runner as a subprocess over fixtures that differ only in where they sit, with stub kubectl and crust-gather on PATH so neither direction is decided by a binary being absent. Each leg is pinned by the artefact it leaves in the report tree rather than by the one leg that echoes, so no single leg can be ungated without a test going red; that was checked by ungating each in turn. The two armed cases are the positive control for the disarmed one, whose assertion is negative and would otherwise pass just as well against a harness that ran nothing. Relates to #3626. ### Screenshots <!-- REQUIRED for UI changes: attach screenshots or screen recordings demonstrating the visual impact of your changes. PRs with UI changes without screenshots will not be merged. --> ### Downstream repositories <!-- Cozystack is upstream for repositories that are NOT kept in sync with it automatically, and nothing in CI compares the two sides, so a change here can break them silently. Which change forces what, and which file to touch, is the trigger map in docs/agents/contributing.md under "Downstream Repositories". Walk it before you tick anything. IF YOU ARE AN AI AGENT OR AN LLM, THIS IS PART OF THE TASK, NOT A FORM TO FILL IN: 1. Walk the trigger map against the actual diff of this PR, file by file. Do not decide from the PR title or from your memory of what you changed. 2. For every repository you tick, open the follow-up PR there and link it on the same line. A ticked box with no link claims work that does not exist, which is worse than an empty box. Search that repository for an open PR or issue covering it first, and link that instead of filing a duplicate. 3. When the follow-up is out of scope, or needs a decision that is not yours to make, open an issue in that repository instead, link that, and say so in the PR body. Do not push a speculative PR into another repository just to fill a line here. 4. Do not tick "No downstream repository is affected" to make the checklist go away. If you are unsure, leave every box empty and say so in the PR body, so a human decides. --> - [x] No downstream repository is affected by this change - [ ] [cozystack/website](https://github.com/cozystack/website) - follow-up: - [ ] [cozystack/terraform-provider-cozystack](https://github.com/cozystack/terraform-provider-cozystack) - follow-up: - [ ] [cozystack/ansible-cozystack](https://github.com/cozystack/ansible-cozystack) - follow-up: - [ ] [cozystack/ccp](https://github.com/cozystack/ccp) - follow-up: - [ ] [cozystack/talm](https://github.com/cozystack/talm) - follow-up: - [ ] [cozystack/cozyhr](https://github.com/cozystack/cozyhr) - follow-up: - [ ] [cozystack/cozy-proxy](https://github.com/cozystack/cozy-proxy) - follow-up: - [ ] [cozystack/cozystack-telemetry-server](https://github.com/cozystack/cozystack-telemetry-server) - follow-up: - [ ] [cozystack/external-apps-example](https://github.com/cozystack/external-apps-example) - follow-up: - [ ] [cozystack/examples](https://github.com/cozystack/examples) - follow-up: ### Release note <!-- Write a release note: - Explain what has changed internally and for users. - Start with the same `type(scope):` prefix as in the PR title - Follow the guidelines at https://github.com/kubernetes/community/blob/master/contributors/guide/release-notes.md. --> ```release-note fix(hack): cozytest.sh no longer arms its cluster-capture hooks for unit BATS suites, so a failing unit test fails fast instead of waiting out capture timeouts against a cluster that is not there ``` <!-- This is an auto-generated comment: release notes by coderabbit.ai --> ## Summary by CodeRabbit * **Bug Fixes** * Cluster diagnostics are now collected only for end-to-end test suites. * Unit tests no longer trigger unnecessary Kubernetes or cluster-capture operations. * End-to-end suites nested under application directories are correctly recognized. * Diagnostic capture remains subject to existing tool availability and timeout checks. * **Tests** * Added coverage verifying diagnostic artifacts are collected for end-to-end failures and omitted for unit-test failures. <!-- end of auto-generated comment: release notes by coderabbit.ai --> |
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Aleksei Sviridkin
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f92306681d |
fix(e2e): an unanswered read is not the same as an absent thing
Five places turned an empty or missing result into a fact about the cluster: no affected pods, no ovn-central, no LoadBalancer service, no cilium-agent or ovs on a node, and a LoadBalancer recorded as reachable. Each is also what the script produces when the read behind it never answered, and with a note now saying the read failed, lines sat next to each other and disagreed. Each claim has a counterpart chosen by the status of the read that produced it, and each says what is left unknown rather than what the read did: no scheduled NotReady pods / whether any pod is affected no ovn-central pod in <ns> / whether <ns> runs ovn-central no Service type=LoadBalancer / whether any LoadBalancer needs capturing (no cilium-agent pod found) / could not determine whether one runs there LB reachable, skipped / whether the LB is reachable is unknown The last of those is the subtlest, because nothing about it looks like a claim of absence. host_http_probe resolves a cni-server before probing, and a lookup that never answered produced no probe outcome at all, which the decision helper read as "nothing failed" and the artifact stamped as reachable -- a verdict about an address the script never touched. The probe now emits an explicit unknown, and a set of outcomes that is entirely unknown stays unknown rather than collapsing into either answer. Only a wholly unknown set: one unrun probe beside real failures leaves the failures standing and still captures, because they are the evidence the capture exists to characterise. Wording that describes the read instead would be wrong in a case these bounds create. A list can fail after emitting rows, since a bound firing mid-stream leaves output on stdout and 124 in $?, so an empty result with a non-zero status can mean the read said nothing or that it said only uninteresting things. Before the bounds a read either answered or hung forever, and a partial answer was not a state this script could reach. For the same reason a failure note is unconditional on the status while the consequence -- skipped, unresolved -- is stated only by the branch that takes it, which is why the note inside pod_on_node names none at all: five call sites share it and their consequences differ. Two of these five are in the artifact rather than the log, and they are there because of the bounds. Unbounded, the per-node lookup blocked until the caller's backstop killed the script and no capture file was written; bounded, the script survives and writes the file, so a read that never answered would have been recorded as a pod that is not there or an address that answered. pod_on_node returns its status with the name and the memo stores it, since a hit that dropped it would launder a cutoff into a confident absence. The status travels packed with the value through stdout because every caller reads the helper through a command substitution, where a variable dies with the subshell -- the same property that makes the memo itself a file. Only answers and cutoffs are memoised: an instant failure costs nothing to ask again, and caching it would make one transient permanent for the whole run. Every note also ships beside the capture it explains, not only in the job log, because the reader who has the uploaded report and not the run is exactly the reader who cannot otherwise tell a capture that found nothing from one that never ran. Both sibling collectors hold that contract and this script's notes are modelled on them. The two phrasing helpers move above the sourcing guard so the unit suite can assert their branches directly. The stderr sink stays below it, because anything created above is created again by every test that sources this file and by every host that exits early for want of kubectl. What is deliberately left is the same distinction for the two EndpointSlice reads, which still discard stderr and report neither outcome. Each branch is pinned by a stub that answers one read and fails another, each partial-answer case by a stub that emits a row and then fails, the artifact cases in the artifact rather than the log, and the memo's status round-trip by consuming one lookup from both a miss and a hit. Every one of them carries a positive anchor as well, so a stub that stops short of the branch fails rather than passing quietly. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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b921952fb0 |
perf(e2e): ask each per-node pod lookup once
The same (namespace, label, node) is asked up to three times per affected pod across the sections of this script. That was free while the first call hung forever and the script died inside it; with a per-read bound each repeat costs its own timeout, and against a wedged apiserver the repetition becomes the largest consumer of the caller's envelope -- enough that a 300s budget buys two pods where it could buy five. Answers are memoised, empty ones included: "there is no cilium-agent on this node" is exactly the lookup worth not repeating. The memo is a file rather than a variable, which is not a style choice. The walk over affected pods runs on the right-hand side of a pipeline, so it executes in a subshell and a variable memo is discarded at the end of it, leaving every lookup to be paid for again in the sections that follow. With the variable form the suite still recorded each of the three lookups twice. That is also why this is not the shape of the node memo above it, which is a space-delimited string matched with a case glob and is correct for a dedup living entirely inside the walk. Keys are compared as whole tab-separated fields, so the '=' inside a label selector is ordinary payload; what the scheme rests on is that no namespace, label selector or node name contains a tab, which Kubernetes names and selectors cannot. An empty pod list is also separated from one that never answered, so the branch below it stops reporting a failed read as a cluster with nothing wrong. Pinned by a stub that records every per-node lookup it is given: the test fails if any is issued twice. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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7d1137a889 |
fix(e2e): bound the dataplane capture's reads and name why one failed
Six `kubectl get` calls ran with no bound of their own, while all 27
`kubectl exec` calls in the same script went through one. Against an
apiserver that hangs rather than refuses, the first of them -- the
cluster-wide pod list -- held the script until the caller's backstop
killed it, so the capture wrote nothing at all. From the Chainsaw catch
that is worse than empty: the run is cut off by the outer `timeout -k`
and the script says nothing about having been cut short, so a truncated
capture reads exactly like a complete one that found no affected pods.
Measured against a kubectl stub that never returns: before, the script
was still blocked on its first call when a 60s backstop killed it;
after, it reaches its own end and says which read was cut off and what
that leaves missing. Roughly 4s at a 1s bound, 40s at the 20s default.
A per-read bound buys forward progress, not a smaller total. The sum of
the bounds here is far past any caller's envelope and deliberately so,
because the MAX_PODS and MAX_LBS caps bound work while the outer
`timeout -k` bounds wall clock. What changes is that no single hung read
can consume that envelope before anything is written.
The reporting around them is built to survive being read by someone who
was not there. Only 124 and 137 may name a timeout, since those are the
only statuses a bound produces and every other one is kubectl answering
-- refused, denied, a kind the cluster does not serve -- so the reads
keep their stderr instead of discarding it and quote it back. 137 is
described as what it is, a SIGKILL that cannot be told apart from the
bound's own kill grace. Notes print through `printf` rather than `echo`,
because under /bin/sh echo expands backslash escapes and kubectl's
stderr now flows through the logger: a message holding a literal \n
would otherwise split the note and forge a second "[capture-dataplane]"
line that reads as this script's own verdict, which needs no malice
given the jsonpath in these reads contains {"\n"} and kubectl quotes the
expression back when it fails to parse it.
The per-node lookups ask with `{.items[*].metadata.name}` rather than
`{.items[0]...}`. client-go's evalArray has no allowMissingKeys escape
the way evalField does, so indexing into an empty list is a hard error
and kubectl exits 1 -- which meant nothing while the status was
discarded, and would report "there is no cilium-agent on this node", the
ordinary answer, as a read that failed.
The tests drive the script as a subprocess against a stub kubectl that
hangs, fails instantly, or returns a forged line, and read what it
wrote. The stub that proves forward progress answers the pod list and
hangs afterwards, so the walk over affected pods is actually entered.
Assisted-By: Claude <noreply@anthropic.com>
Signed-off-by: Aleksei Sviridkin <f@lex.la>
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Aleksei Sviridkin
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8e273a7341 |
docs(ci): record what escalating on the non-PR workflows costs
Three of the four workflows on the escalation list cannot be exercised by the run they trigger. `e2e-fork` runs on `workflow_run`, which always takes the default-branch copy; `e2e-tag` runs on `workflow_call` from a tag push; `nightly` runs on a schedule. Only `pull-requests.yaml` is executed from the pull request's own head, so only there does escalating test the edit rather than the tree around it. That argument existed in the reference doc and was removed by this branch rather than answered, and the list it argued against is what replaced it. Measured over six months of main, 26 commits touch one of the three with no other escalating path; each now pays a full Chainsaw run it used to skip, on a suite whose flake rate is the reason people avoid running it for nothing. Keeping them is defensible: the rule stays one idea rather than two, and dropping them leaves those files inert, which reads as an oversight rather than a decision. What was not defensible was paying it silently. The trade now sits next to the pattern that makes it, with the number, so the next person weighing it starts from measurement instead of rediscovering the mechanism. The reference doc points there rather than carrying its own copy. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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50c5e2c14c |
test(e2e): capture the tenant worker guest serial console
The tenant Kubernetes suites fail the node-Ready budget with zero Nodes registered, and the time is lost inside the guest between the worker VMI reaching Running and Talos requesting its apid certificate. Nothing collected today covers that window: the existing in-guest capture drives talosctl, so it needs the very apid the worker never reached, and on the management side there is neither a Node nor a certificate request to read. Turn on the guest console log for the suite's node group and collect each virt-launcher's guest-console-log container from the management cluster. Reads start at the beginning of the stream rather than tailing it, so a guest that repaints its console cannot push the boot output out of the window; every read is bounded, and the walk stops at a cap that records both counts, so the collector cannot become the unbounded term in a failure path that already runs several others under one deadline. A read that returns no console is not filed as a quiet guest. Three outcomes get three labels, because only one of them says anything about the guest: the read failed and returned nothing, the read succeeded and returned nothing, or it broke off part way. Each read's stderr is kept beside the capture rather than inside it, since kubectl's own "container is not valid for pod" would otherwise fill the file and a console that never started would read as one that had spoken. That case is the headline one here, so the Pod state and events that explain it are collected alongside, once for the whole selector. Enabling the console overrides a cluster-wide setting the platform holds for an open upstream defect, so the run is also an experiment, and its own failure mode is the one that hides best: the container wedges virt-launcher in Init, no worker boots, and the suite reports "fewer than 2 tenant nodes Ready" -- the same sentence the failure under study produces. Read as the known signature, the experiment's answer would be filed as the flake it was meant to explain. So the failure path names that case first, before any other diagnostic, and only when it is true. The passing path checks separately that the container attached at all, and reports the ratio it saw rather than a bare success, since the check is deliberately satisfied by any one Pod. It keeps three outcomes apart too: a read that did not answer, a selector that matched no Pod, and Pods that matched and carry nothing. It reads the Pod name alongside the container names so the last two cannot collapse, and both container lists so a future move of the container cannot fail a run over a diagnostic. It runs last, after everything the suite exists to prove, because a debugging aid must not preempt the assertions that cover the cluster. The capture runs before the talosctl one because it is the only of the two that can describe a worker which never reached apid, the shape this failure keeps taking. kubectl reports a warning and an empty result alike, on stderr with a zero status, so the exit status decides which artifact its output lands in. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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a6c94c4528 |
fix(ci): correct an inverted caveat and clean up after the assertion
Two defects introduced by the previous two commits. The in-tree lane's comment said `skip=true` cannot mean "a workflow nobody classified", and then explained, after a colon, exactly how it can: `.github/` is inert as a directory and the e2e workflows are exempted from it by name, so a new one reads as inert. The clause meant to warn a reader instead told them the one unsafe case is safe, in the copy consulted when deciding whether to trust a green gate. The other three copies of the caveat state it correctly. The scratch-directory cleanup landed before the last assertion in every test added here. That passes the EXIT-trap guard and inverts the reason the guard exists: both runners set `-e`, so cleanup placed last is unreachable on failure and the fixture survives for inspection, which `docs/agents/e2e-testing.md` §3 states outright and the already-converted `hack/select-install_test.bats` follows. Placed early, a failing test deletes the evidence of its own failure, and one test had the call between two assertions, so which of them failed decided whether the directory survived. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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3eee4c5590 |
test(ci): clean up the new selector tests without an EXIT trap
The ten tests added with the classifier each installed `trap 'rm -rf "$tmp"' EXIT`, taking this file from fifteen such traps to twenty-five. `hack/cozyreport.bats` freezes that count per unconverted file, so `make unit-tests` failed, and that runs in the required checks job. The count is the visible half. The reason it is frozen is that an EXIT trap replaces the one the bats binary installs for its own bookkeeping, and a test failing under it prints no TAP line at all. Reverting the step-6 escalation in a scratch copy made the flagship pin for this whole change, the one asserting an unclassified path escalates, vanish from the output: the run reported executing twenty-six of twenty-seven tests and never named the missing one. After this change the same mutation prints `not ok 21` with its name, file and line. Clean up inline before the assertion instead, which is what the two tests added alongside them already did. Behaviour is unchanged, all twenty-seven still pass, and the frozen count returns to fifteen rather than being re-frozen higher, since re-freezing would bank ten fresh instances of the thing the freeze exists to stop. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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55f3c79e9f |
docs(ci): stop pointing at the inert list for paths it does not hold
Four places said an empty selection means the inert pattern matched, and sent the reader to `inert_config_pattern` to see which paths those are. Documentation, dashboards and `*.md` are dropped before that pattern is ever consulted, and a backups example whose app has no suite is dropped where backup examples are matched. A reader checking the pattern for any of them finds nothing and has to reconstruct the order by reading the script. Name the rules that produce an empty selection instead, and keep the claim to the one the lanes rely on: empty is a decision some rule reached, not a path nothing looked at. The same bullet claimed every path is classified. One is not. The inert pattern makes `.github/` inert as a whole directory and the workflows that run the suite are exempted from it by name, so a workflow added under `.github/workflows/` reads as inert and the fall-through never sees it. Today's enumeration is correct and I checked it against `rg -l test-chainsaw`, so this is not a live hole, but the sentence saying it cannot exist is what makes the reminder next to that list look decorative. Record it as the guard it is. Separately, the fork lane's rationale for appending a newline described a mechanism this branch removes: the reader now guards its own loop, so the terminator is no longer what keeps the last path alive. Say that it is now the text-file contract and a second line of defence across two files, which is a reason to keep it and a different reason than the one written there. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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548dfa9520 |
docs(ci): say what an empty selection actually means
Four places on this branch describe an empty selection as "classified inert", against a list of three outcomes that every path is said to land in. There is a fourth: an edit under examples/backups/<app>/ where the app has no Chainsaw suite selects nothing, decided inline where backup examples are matched rather than through the inert list. The rule is deliberate and explained where it lives; it just is not one of the three the summary enumerates. The property the two lanes actually depend on is weaker and true: an empty selection means some rule decided the change cannot affect a suite, never that nothing looked at the path. State that instead, in the header that defines the classes and in the privileged lane's comment that consumes the result. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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cc522e7def |
fix(ci): classify the last path when the list has no trailing newline
The classifier this branch introduces is only total if every line reaches the loop that applies it. POSIX read assigns the final line and then returns non-zero when the input does not end in a newline, so a plain `while read` drops it. The fall-through that escalates an unrecognised path lives inside the loop body, so the dropped line is never classified at all and the selection comes back empty. Both lanes read empty as "skip Chainsaw" and post the required status green. The shape that matters is a list whose only unclassified path is last: `docs/x.md` followed by an unrecognised path with no terminator selects nothing, where the same list with a terminator escalates to all 21 suites. The safety net this branch is built around is bypassed by exactly the input it exists to catch. No caller triggers it today, because `git diff --name-only` terminates its output and the fork lane appends a newline explicitly. That makes it caller discipline documented in one of two callers, which the next caller will not read. Guard it where the assumption lives. Both new cases are red without the guard and the twenty-five existing ones stay green, so they pin this behaviour rather than the loop's general shape. They clean up inline instead of through an EXIT trap: that trap replaces the one the bats binary installs for its own bookkeeping, and a test failing under it can print no TAP line at all, which is the opposite of what a regression pin is for. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Myasnikov Daniil
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ae4e9e55cb |
fix(ci): classify every TIA path and escalate the unclassified
`select-e2e.sh` silently selected nothing for a changed path it did not recognise outside `packages/`. Both e2e lanes read an empty selection as "skip Chainsaw" and then post the required "E2E Tests" status green, so an unrecognised path produced a green merge gate with no suite run. The worked example is `hack/common-envs.mk`, which supplies the tag, push and output flags of every image in the tree and matched nothing: `full_suite_pattern` covered `hack/*.sh` and `hack/*.bats` but not `hack/*.mk`. `pkg/`, `tools/`, `go.mod`, `hack/lib/` and `hack/buildkitd.toml` were in the same position, as was `.github/workflows/e2e-fork.yaml` while `pull-requests.yaml` was already escalated. A blanket "empty means full suite" fallback would be the wrong fix: it escalates the inert paths the design deliberately skips. Instead every path now lands in one of three classes by an explicit rule — the full-suite list for shared build inputs and the e2e harness, an inert list for paths that cannot affect what e2e exercises, and the PackageSource graph for `packages/(apps|system|extra)/`. A path matching none of them escalates and logs why, so the next path someone adds fails safe instead of failing open. The two lists are checked in that order, so a specific escalation beats a broad inert directory: `.github/` is inert, the workflows that run the suite are not. `*.md` and `docs/`/`dashboards/` stay ahead of both, so a README under `packages/core/` does not inherit that tree's escalation. Ten tests cover both sides of the classification. Mutation-checked: reverting the fall-through fails the unclassified-path test, dropping `.github/` from the inert list fails the non-e2e-workflow test, and swapping the two list checks fails the existing pull-requests.yaml test. Note the per-entry escalations are belt-and-braces — removing `hack/*.mk` from the pattern still escalates via the fall-through, which is the point of having it. Closes #3392 Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Myasnikov Daniil <myasnikovdaniil2001@gmail.com> |
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myasnikovdaniil
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7dca642894 |
fix(ci): restore e2e for fork PRs and close the merge-gate bypass (#3262)
## What this PR does Fixes #3257 — fork PRs never ran e2e, and the skipped required check let them merge anyway. Fork PRs get no secrets on `pull_request`, so `make image` pushed anonymously and died with `denied`. That failed every build, collapsed the `build → finalize → e2e` chain, and left the required **E2E Tests** job *skipped* — which branch protection treats as satisfied, so an approved fork PR could merge with e2e never having run. This implements **Option A** from the issue (privileged `workflow_run` split), pushing fork e2e images to the existing CI registry (OCIR): **Build primitive (`hack/common-envs.mk`)** - New `OCI_EXPORT_DIR` mode: build each image to a per-image OCI archive instead of pushing, and force `PUSH`/`LOAD` off. The digest is captured via `--metadata-file` regardless of output type, so the refs baked into `pr.patch` match what the privileged run later pushes. Threaded through the `image-tags` macro every package already uses — no per-package Makefile change. **`pull-requests.yaml` (unprivileged, fork branch)** - `build` / `build-talos` / `finalize` export images to OCI archives and upload them as artifacts instead of pushing → the red `denied` build wall disappears and the chain no longer collapses. - The in-tree e2e job is renamed off `"E2E Tests"` and guarded to same-repo PRs. A new `e2e-report` job concludes the required `"E2E Tests"` context as an **explicit check-run** (success on a docs-only PR or when e2e passed, failure otherwise). A skipped job can no longer satisfy the required check — this also closes the same hole for same-repo PRs whose build fails. **`e2e-fork.yaml` (new, privileged `workflow_run` from the default branch)** - Resolves the fork PR, opens a pending `"E2E Tests"` check-run, and fails-closed if the fork build failed. - Pushes the pre-built image archives to OCIR **by digest** and flux-pushes the digest-pinned packages tree. The OCIR token is live only for trusted binaries (`git`/`skopeo`/`flux`/`yq`) over data — never for `make` or any fork-authored script. - Runs the e2e suite against the pushed closure with **no push token** and concludes the check-run on the PR head SHA. Fork build code never receives registry credentials; the fork's images and test scripts run only in the credential-less, ephemeral e2e job — a stronger posture than a `pull_request_target` run that would hand fork code the secrets directly. ### Validation Local: buildx OCI-archive output + digest capture, macro expansion for single- and multi-image packages, non-fork push path unchanged, `actionlint` clean. Needs live validation (why this is a **draft**): `workflow_run` artifact download across runs; that the `"E2E Tests"` commit status satisfies the required context and keeps a fork PR non-mergeable until the privileged run concludes it; `refs/pull/<N>/merge` fetch + `git apply --3way`; `skopeo --preserve-digests` end-to-end. `workflow_run` only runs from the default branch, so the privileged half is exercised by mirroring the workflow onto a personal fork's default branch and opening a throwaway fork PR into it — not by merging first. _Since review_: the fork `e2e` job ran the pre-#2826 BATS app loop that the merged Chainsaw migration deleted (already broken); it now runs the same Chainsaw + TIA path as the in-tree job, with suite selection and the `full-e2e` override sourced from `resolve`'s trusted base-repo file list / labels (not a merge-ref diff). Publish job hardened per the non-blocking follow-ups: base-tree image allowlist, `skopeo copy --all`, pinned flux CLI. The required `E2E Tests` gate is now published as a commit **status** (default token + `statuses:write`), not a COZYSTACK_CI app check-run — the app lacked `checks:write` (`checks.create` 403'd) and a default-token check-run floated under a labeler suite; a commit status has neither problem, and forks can't post one (their `pull_request` token is read-only). Two review-bot findings fixed too: fork `OCI_EXPORT_DIR` is now absolute (a relative path misplaced archives under `make -C <pkg>` and every fork build would fail at upload), and the "≥1 archive" guard no longer no-ops under `nullglob`. ### Repo-admin prerequisites One repository setting lives outside this diff: 1. **Branch protection: keep `E2E Tests` required.** The gate is now a commit **status** named `E2E Tests` (posted with the default `GITHUB_TOKEN` — see `docs/agents/e2e-testing.md` §10), not a job or an app check-run. Branch protection already requires `E2E Tests` (currently the e2e job's name, renamed here to `E2E (in-tree)`), so the required context now resolves to the status — **no GitHub App, no `checks:write` grant, no app-id pin needed**. Just don't pin the context to a specific app. 2. **Actions → "Require approval for all outside collaborators".** Each fork run must be a deliberate maintainer click before it executes, since the fork's unprivileged run produces the artifacts the privileged `e2e-fork.yaml` consumes. ### Downstream repositories Walked the trigger map in `docs/agents/contributing.md` against the diff (7 files: two CI workflows, `docs/agents/e2e-testing.md`, `hack/common-envs.mk` + its bats suite, and two package `Makefile`s). The one trigger worth naming is "change developer tooling (`cozyvalues-gen`, `cozypkg`, the package `Makefile`s) → `development.md`" on the website. It does not fire here: `OCI_EXPORT_DIR` is a CI-only build mode that defaults off, and the local developer workflow is unchanged — `make image` still builds and pushes exactly as before, which the new default-path case in `hack/common-envs_test.bats` now pins. No chart values, no API surface, no app list, no platform variant, no Talos version bump and no release asset rename are touched. - [x] No downstream repository is affected by this change ### Release note ```release-note fix(ci): fork pull requests now run e2e via a privileged workflow, and a fork PR can no longer merge on a skipped (never-run) required E2E Tests check ``` <!-- This is an auto-generated comment: release notes by coderabbit.ai --> ## Summary by CodeRabbit - **New Features** - Added a dedicated fork E2E workflow that runs after the base PR and reports results via the required **E2E Tests** commit status. - Fork PRs now export build images as OCI archive artifacts for later publishing. - Added a same-repo E2E reporting job and renamed the in-tree E2E flow to **E2E (in-tree)**. - **Bug Fixes** - Added tighter, fail-closed gating to ensure merge blocking when **E2E Tests** isn’t correctly finalized. - **Documentation** - Documented fork vs same-repo E2E split, OCI export behavior, and required fork security settings. - **Tests** - Added Bats coverage validating `OCI_EXPORT_DIR` and preventing unintended registry pushes. <!-- end of auto-generated comment: release notes by coderabbit.ai --> |
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Aleksei Sviridkin
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bc6d5e67b7 |
fix(e2e): keep failure snapshots complete and gate tenant patch on aggregated-API auth (#3444)
## What this PR does Two unrelated defects made the sandbox install job's failure handling unreliable. This fixes both. The first hit every red run. When a test fails, the diagnostic snapshot runs `crust-gather collect`, and its host-log leg spawns a privileged debug pod per node. The sandbox runs baseline PodSecurity, which rejects each of those pods with a 403, so crust-gather keeps retrying until it burns its whole collection budget and exits 1. The snapshot verdict then printed `FAILED` on every failed run even though the namespaced object state was already captured, so the line that says whether the uploaded snapshot is trustworthy was always wrong. The host-log leg collects nothing usable here anyway, so this passes `--disable-additional-logs` at all three collect sites: the host snapshot from the BATS runner, the host snapshot from the Chainsaw error handler, and the nested tenant snapshot. Object collection now finishes and the verdict again separates a real collection failure from a complete snapshot. The second is a race in the install test. The "Configure Tenant" step issues its first `kubectl patch` of the root tenant as soon as an earlier test sees the aggregated APIService go `Available`. That condition only tracks endpoint availability, not the serving pod's auth state. A freshly rolled cozystack-api pod can start answering before it has loaded the requestheader client-CA, and until it does it drops the front-proxy identity and answers as `system:anonymous`, so the patch is rejected with a 403 on the test's very first command. This adds a short authenticated GET against the same resource before the patch, so the step proceeds only once the aggregated API both serves and authenticates the request. If the aggregation layer is actually wedged past two minutes the gate fails loud instead of hiding a real regression. Both were traced from a recent sandbox failure (run 30004030331, during PR #3441's CI). Out of scope: the broader convergence flakiness of the install step is not touched here. That covers the long reconcile windows for the storage and platform releases and the app-level races in the Chainsaw suite. The durable product-side fix for the second defect, where cozystack-api should not report ready before the requestheader client-CA is loaded, is a separate follow-up. This partially addresses #3368, its crust-gather diagnostics item, and does not close it. ### Screenshots <!-- REQUIRED for UI changes: attach screenshots or screen recordings demonstrating the visual impact of your changes. PRs with UI changes without screenshots will not be merged. --> No UI changes. ### Downstream repositories <!-- Cozystack is upstream for repositories that are NOT kept in sync with it automatically, and nothing in CI compares the two sides, so a change here can break them silently. Which change forces what, and which file to touch, is the trigger map in docs/agents/contributing.md under "Downstream Repositories". Walk it before you tick anything. IF YOU ARE AN AI AGENT OR AN LLM, THIS IS PART OF THE TASK, NOT A FORM TO FILL IN: 1. Walk the trigger map against the actual diff of this PR, file by file. Do not decide from the PR title or from your memory of what you changed. 2. For every repository you tick, open the follow-up PR there and link it on the same line. A ticked box with no link claims work that does not exist, which is worse than an empty box. Search that repository for an open PR or issue covering it first, and link that instead of filing a duplicate. 3. When the follow-up is out of scope, or needs a decision that is not yours to make, open an issue in that repository instead, link that, and say so in the PR body. Do not push a speculative PR into another repository just to fill a line here. 4. Do not tick "No downstream repository is affected" to make the checklist go away. If you are unsure, leave every box empty and say so in the PR body, so a human decides. --> The diff touches only the e2e test harness (`hack/cozytest.sh`, `hack/e2e-chainsaw/.chainsaw.yaml`, `hack/e2e-chainsaw/_lib/run-kubernetes.sh`, `hack/e2e-install-cozystack.bats`). The trigger map's `hack/` couplings are `hack/e2e-prepare-cluster.bats` (node prerequisites for ansible-cozystack and talm) and `hack/package.mk`, `hack/common-envs.mk`, `hack/update-crd.sh` plus the package layout (ccp, external-apps-example, cozyhr). None of those are moved, renamed, or edited here, and nothing else in the map matches. - [x] No downstream repository is affected by this change - [ ] [cozystack/website](https://github.com/cozystack/website) - follow-up: - [ ] [cozystack/terraform-provider-cozystack](https://github.com/cozystack/terraform-provider-cozystack) - follow-up: - [ ] [cozystack/ansible-cozystack](https://github.com/cozystack/ansible-cozystack) - follow-up: - [ ] [cozystack/ccp](https://github.com/cozystack/ccp) - follow-up: - [ ] [cozystack/talm](https://github.com/cozystack/talm) - follow-up: - [ ] [cozystack/cozyhr](https://github.com/cozystack/cozyhr) - follow-up: - [ ] [cozystack/cozy-proxy](https://github.com/cozystack/cozy-proxy) - follow-up: - [ ] [cozystack/cozystack-telemetry-server](https://github.com/cozystack/cozystack-telemetry-server) - follow-up: - [ ] [cozystack/external-apps-example](https://github.com/cozystack/external-apps-example) - follow-up: - [ ] [cozystack/examples](https://github.com/cozystack/examples) - follow-up: ### Release note <!-- Write a release note: - Explain what has changed internally and for users. - Start with the same `type(scope):` prefix as in the PR title - Follow the guidelines at https://github.com/kubernetes/community/blob/master/contributors/guide/release-notes.md. --> ```release-note fix(e2e): keep failure snapshots complete when PodSecurity blocks crust-gather's host-log leg, and wait for the aggregated API to authenticate before patching the root tenant so the install step no longer flakes on a system:anonymous 403 ``` <!-- This is an auto-generated comment: release notes by coderabbit.ai --> ## Summary by CodeRabbit - **Bug Fixes** - Improved failure diagnostics during automated Kubernetes and tenant tests by avoiding unsupported privileged log collection steps. - Ensured failure snapshots complete more reliably instead of timing out or returning incomplete results. - Added a readiness check before configuring the root tenant, preventing intermittent authorization failures during installation tests. - **Tests** - Increased reliability of installation and end-to-end test workflows under baseline security policies. <!-- end of auto-generated comment: release notes by coderabbit.ai --> |
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Aleksei Sviridkin
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8d5ab4cfee |
fix(hack): arm cozytest cluster captures for e2e suites only
The runner's on-failure EXIT trap gates each cluster capture on a binary being installed rather than on there being a cluster to read. A unit runner has kubectl and no cluster, so a red unit test walked into those legs on its way out. What that cost depends on how kubectl fails. Against an endpoint that refuses immediately it is a second; against one that hangs, measured with a stub that never returns, it is ~28s for the previous-logs leg, which self-bounds its pod list and so never reaches the 300s ceiling above it, plus the full 600s for the data-plane leg, whose first pod list carries no bound of its own. Ten minutes of dead waiting for a failure that should cost seconds. Where crust-gather is installed too the bill stops being empty and starts being wrong: that leg needs no reachable cluster to be pointless, only an ambient KUBECONFIG, and it will spend up to 360s snapshotting whatever cluster the current context names. Gate the three legs on the e2e- prefix instead, read from the suite's own name or from the directory holding it. At the top level that prefix is what the project already sorts on: the Makefile builds BATS_UNIT_FILES as $(filter-out hack/e2e-%.bats,$(wildcard hack/*.bats)), so a top-level e2e-* suite is exactly the one `make unit-tests` refuses to run and packages/core/testing/Makefile runs against a live cluster. That wildcard is not recursive, and hack/e2e-apps/ holds live-cluster suites whose own filenames carry no prefix, so the directory is checked too: matching the basename alone would take the captures away from suites that need them, which is the opposite of this change. The e2e path is otherwise unchanged, every leg, bound and message as it was. Not a reachability probe, though that would also tell a cluster from a bare binary. A failing e2e run is frequently one whose apiserver is degraded, and a probe answering "no" there would skip the snapshot in precisely the case the snapshot exists for. The test drives the runner as a subprocess over generated fixtures that differ only in where they sit, with stub kubectl and crust-gather on PATH. Stubbing both matters: the runner calls crust-gather directly rather than through a script that needs kubectl output first, so a kubectl-only stub would leave that leg reaching for the real binary against the ambient KUBECONFIG. Each leg is pinned by the artefact it leaves in the report tree, not only by the one leg that echoes, so no single leg can be ungated without a test going red; each was checked by ungating it alone. All three directions are asserted, and the two armed cases are the positive control for the disarmed one, whose assertion is negative and would otherwise pass just as well if the harness ran nothing; that case also pins that the fixture did fail. Two shell traps are handled rather than left to be rediscovered. The awk transform rewrites any line beginning `@test "` and any line that is exactly `}`, and knows nothing of heredocs, so a fixture written as a heredoc has its own `@test` line harvested into the outer suite as a phantom test that fails first and ends the run before the real tests; the fixtures are built with printf instead. And `set -e` ignores a command whose status is inverted with `!`, so the negative assertion is spelled as an `if`. Both were checked by building the broken variant, not reasoned about. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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cc05c92e47 |
test(ci): require the discarded-label guard per job, not just agreement
The check collected every comparison against the label name and required them to agree on one string. Agreement is not presence: deleting `e2e-report`'s guard outright leaves the other two agreeing with each other, so the assertion stayed green while a discarded label event began publishing again and clobbering the verdict of the run that had actually tested the SHA. That clobber is the defect two earlier commits were written to stop. Require the guard inside each of the two jobs that must carry it, and keep the agreement check for the rename it does catch. Deleting either copy now fails. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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cc8b01d5cd |
docs(ci): say when each lane's status opener actually lands
The reference section claimed both lanes open the required context when their run starts, and enumerated the triggers it protects against: a re-run, a reopen, a `full-e2e` label. Every one of those starts a Pull Request run, and on a fork that run cannot open the status at all. The opener is guarded same-repo only, because a fork's `pull_request` token is read-only, and the fork's opener lives in the privileged workflow, which starts only once the unprivileged build has finished. So on the lane the sentence was most likely to be read about, an already-green head SHA keeps reading green for the whole build. The gap is structural. A read-only token cannot post a status at any point in the run, and that same read-only token is what makes publishing the gate with the default token safe in the first place. It is bounded by the build rather than open-ended. What was wrong was only the claim that it does not exist. Say so in all three places that carried the overstatement: the section itself, the opener's own comment, and the contract test, which pins that each lane has an opener and cannot express when it lands. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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9c68b1f83e |
fix(ci): stop a cancelled fork run from publishing a verdict
The invariant that a cancelled run publishes nothing was written down in three places and held in two of them. The fork lane's terminal reporter ran under `always()`, which includes cancellation. When a second privileged run supersedes the first, the dying one still posted `failure` on a head SHA it no longer owned, for a suite that never finished. It self-corrected once the superseding run reported, but that can be two hours later, and until then a legitimate pull request reads red. The same-repo lane was moved off `always()` for exactly this reason. Move this one too: a failed publish or e2e still reports, since neither is a cancellation, and a cancelled run now leaves the `pending` it opened standing until its successor concludes. The same-repo guard's rationale cited a scenario that no longer exists. It described a label event cancelling the run that opened the pull request, which the concurrency split made impossible for every label the workflow discards. The guard is still needed, for a push, for a `full-e2e` label superseding the head run, and for a manual cancel, so the comment now names those instead of an extinct one. The reference section listed the pieces this invariant rests on and omitted the reporters, which is the half a reader is most likely to touch, and counted them, which was already wrong and would go wrong again on the next addition. It now enumerates without counting. The contract pins both reporters, because both lanes have had this defect at different times in the same shape. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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8a21085324 |
fix(ci): decide docs-only from both sides of a rename
The two lanes answered "is this docs-only" from different sources and could disagree. `plan` reads `git diff --name-only`, which applies rename detection and reports a rename as its new path alone, so moving a code file into docs/ read as docs-only. The fork lane reads the PR file list, where a rename carries `previous_filename`, and reads the same change as code. Disagreement is not a near-miss here. The same-repo lane builds nothing and uploads no patch artifact; the fork lane concludes e2e is required and then fails closed because that artifact is missing, reporting that the fork build did not complete. It completed — it correctly built nothing. There is no push the contributor can make to clear it and no label that overrides it, so a legitimate contribution is permanently red. Point the docs-only decision at the rename-blind list, which the job already computes for the downstream-trigger-map flag and whose comment names this exact trap. Both lanes now agree, and the same-repo side stops shipping a removed code path untested — until now such a change skipped every build and reported e2e as not required. The build matrix keeps reading the rename-detected list: it picks packages to rebuild, and a path that no longer exists has nothing to build. The contract file gains the agreement as a pin, and grows a header to match what it now covers. The fork half is pinned on the docs-only expression rather than on `previous_filename`, which also appears in the file list a few lines down and would have kept the assertion satisfied with the check deleted. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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7fc568db4f |
test(ci): pin each status publisher by its call, not by a shared string
The case asserting that both lanes open the required status before they conclude it counted occurrences of the context string per file and required two. That measured nothing on the fork lane: the two occurrences there are the shared `setStatus` helper and the terminal report, while the opener calls the helper and contributes no occurrence of its own. Deleting the opener outright left all six tests green, under a comment promising that dropping either half would be caught — and the window it guards is the wider of the two, since a privileged run holds the head SHA for up to three hours. Scope every assertion to the job that owns it and pin the call rather than a string that happens to appear twice: `plan` opens with `pending` under a same-repo guard, `e2e-report` concludes, `resolve` opens through the helper, `report` concludes. Removing any one of the four now fails this test. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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ee844c98a5 |
fix(ci): open the "E2E Tests" status when the same-repo run starts
Moving the gate from a job to a commit status lost a property the job had for free. A commit status is latest-wins per (sha, context) and never expires, so a head SHA that already went green keeps reading green from the moment a new run starts until `e2e-report` posts at the end. Re-running all jobs, reopening, or adding full-e2e therefore leaves the pull request mergeable for the whole of a suite that may be about to fail. While the gate was a job, GitHub created a fresh non-success check run each time and the window did not exist. Claim the context at the start of `plan`, the way the fork lane already claims it in `resolve`, and let `e2e-report` conclude it as before. The call is same-repo only: a fork's `pull_request` token is read-only, so posting from there would 403 and fail the job on every fork PR — and that read-only token is what makes the whole commit-status design safe. Fork PRs get their opening status from the privileged workflow instead. The contract test grows a case pinning that each lane writes the context from two points, one of them pending. Both assertions on the same-repo opener are scoped to the `plan` job: the bare fork guard occurs on several steps in other jobs, so a whole-file "at least one" passed with the opener's guard deleted, pinning unrelated guards and reporting that as coverage. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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8068619732 |
test(ci): state the scope note's reasoning as transitive, not direct
The header claims the third silent path is unreachable because every job either carries the discarded-label guard or needs `plan`'s outputs. The `e2e` job does neither literally: it gates on the results of `finalize`, `build-talos` and `resolve_assets`, which are the jobs that read those outputs. The conclusion survives — a skipped `plan` still skips it, one hop further along — but transitivity is the part the claim rests on, and a reader checking the stated reason against `e2e` finds it false and has no way to tell whether the conclusion failed with it. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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7696d2b98c |
test(ci): record which silent path the concurrency pin does not cover
The contract asserts that the conclusions routed into a per-run group match the ones `resolve` posts nothing for, which reads as covering every case where a run stays silent. It does not. `resolve` also returns silently when the triggering run succeeded but its `Plan build` job skipped, and such a run sits in the shared group where it can still cancel the live publisher. That path is unreachable today, because every job in pull-requests.yaml either carries the discarded-label guard or needs `plan`'s outputs, so a skipped `plan` yields a skipped run and the conclusion check catches it first. Adding a job that runs independently of `plan` would reopen it, and the extraction here matches on the conclusion constant and would not notice. Say so in the header rather than leaving the next reader to infer coverage the pin does not provide. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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999aee5638 |
test(ci): count occurrences in the gate contract, not matching lines
Six assertions ran `grep -c` against a variable holding a single line, so `-eq 1` only asked whether the pattern appeared at all. A key naming the same field twice — two run-id interpolations, two branch components — satisfied the pin exactly as the correct key does. Demonstrated on the run-id assertion: duplicating the interpolation leaves `grep -c` reporting 1 and passing, while counting occurrences reports 2 and fails. Use `grep -o … | wc -l` for the single-line pins. The two whole-file `cancel-in-progress` counts stay on `grep -c`, where counting matching lines is the intended question. This is the same correction made once already in the sibling contract suite; the form did not survive being copied. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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e2643ef4b9 |
docs(ci): explain the fork image allowlist and fix a test comment
Two statements that were not true of the code next to them. The fork `publish` job accepts only archive names it can derive from the base parent, so a fork cannot name an artifact into an arbitrary registry repository. The consequence is that a fork PR adding a new image fails on `image '<name>' is not in the base-tree allowlist` with no way to pass, and nothing said so — including the E2E section that AGENTS.md points a reader at when a fork run fails. Record the constraint, the exact log line, and the two ways around it, so the failure reads as the guard working rather than as a broken PR. The concurrency contract's comment on `code_lines` claimed a real grep error propagates out of the helper. It does under the bats binary, and not under `hack/cozytest.sh`, whose translator appends `return 0` to every line that is exactly `}` — file-level helpers included — so a helper's last command never decides its status there. Both runners still fail closed, because each test asserts its extraction is non-empty before comparing, so a swallowed error surfaces as empty input rather than as a pass. Say that instead. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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7c5e96947e |
fix(ci): stop two runs from publishing "E2E Tests" on one SHA
Giving every `labeled` event its own concurrency group stopped a discarded label from cancelling a live run, but it also stopped a `full-e2e` label from doing so — and that label is not discarded. `plan` proceeds for it and `e2e-report` publishes with it, so the labelled run and the head run it was meant to widen both post the `E2E Tests` context, on the same head SHA, with no ordering between them. That was a deliberate trade at the time: commit statuses are latest-wins per context, so the reasoning went, the full-suite verdict lands last whenever its suite finishes last, and the label is an explicit opt-in to a longer run. This commit reverses that decision, because the premise only holds while the full run succeeds. The full suite is the superset, so a full-e2e run that fails early — a build flake, a suite failing at minute twenty — finishes before the narrower head run it was meant to widen, and that run's later green erases the failure. The required status then reads success for a SHA whose suite did not pass. One publisher per head SHA is worth more than the minutes of runner time a cancelled narrow run costs. Move aside only the label events `plan` discards, by making the concurrency condition the exact complement of `plan`'s guard. A `full-e2e` run stays in the main group and supersedes the head run the way a push does, so exactly one publisher of the context is alive per head SHA. Opting into the full suite now costs one suite instead of two, and a second label landing afterwards can no longer cancel the full-e2e run, because the two are no longer grouped together. The contract test gains the complement — the group key must exclude the publishing label rather than every label — and a check that the label name is one and the same string in all three guards that read it, since renaming it in one place splits the decision without touching a line that reads load-bearing. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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3c50a09457 |
fix(ci): keep a discarded run out of the fork e2e gate's group
The privileged fork e2e run groups by fork repo + branch with cancel-in-progress, so every completed Pull Request run for that branch lands in the same group -- including a run that built nothing. Labelling an open fork PR produces exactly that: pull-requests.yaml triggers on `labeled` and `plan` discards every label other than full-e2e, so all jobs skip. The privileged run for that event cancels the one that is mid-suite on the same head SHA, then `resolve` recognises the discarded trigger and posts no status at all. The required "E2E Tests" context is a commit status, so the head SHA is left at "Expected" with nothing left to flip it -- the run that replaced the owner is the very one that decided to stay silent -- and the PR stays unmergeable until the contributor pushes again. Key the group by the triggering run's id when that run concluded `cancelled` or `skipped`, so a run that will post nothing can cancel only itself. Real runs keep superseding each other on fork repo + branch. The contract test ties the conclusions in the key to the ones `resolve` stays silent for. Those two lists sit in different languages in different halves of the file, and a third conclusion added to the guard alone would restore the wedge without touching a line a reviewer reads as load-bearing. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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0ba567dd73 |
fix(tenant): bound the pre-delete cleanup waits and the hook Job (#3598)
## What this PR does The tenant pre-delete hook deletes the tenant's HelmReleases in two waves with `kubectl delete --wait=true` and no `--timeout`. kubectl reads `--timeout=0` as "wait forever" and substitutes a week, so a wave hangs for as long as any child HelmRelease cannot finalize. helm then returns from the uninstall without deleting anything: the release stays in storage, flux keeps the finalizer, and the same teardown gets retried. The delete policy carries no `hook-failed`, so the waiting Job survives between attempts too. Each wave now gets 90s. Neither is guarded, on purpose. Nothing stands behind these deletes, so a wave that did not finish ends the run instead of reporting a cleanup that never happened. That also keeps the order the two waves exist for, since the tenant modules are what the applications run on. Whatever got deleted stays deleted, so the next attempt resumes from there. The Job gets `activeDeadlineSeconds: 270`. It bounds what the waits do not, since the DELETE calls carry kubectl's default `--request-timeout` of 0, and it sits under the 300s uninstall budget flux applies when the HelmRelease has no timeout of its own. That is the budget for tenants cozystack-api generates; `tenant-root` is the exception, a static release in `cozystack-basics` carrying `timeout: 15m0s`, and the ordering holds there too since 280 is under 900. The 30s gap is not cosmetic. The deadline runs from the Job's `.status.startTime` while helm's budget runs from before the Job is created, so at equal values helm gives up first, on a Job that is still running. That is the state this change is meant to end, and it would look fixed, because a number would be there. `terminationGracePeriodSeconds: 10` is part of the same arithmetic. Since 1.31 the Job controller holds back the terminal condition until every pod has finished terminating, so what helm waits for is the deadline plus the termination. At the 30s default that lands on 270+30, level with the budget, which is the gap the deadline was set to buy. That period gets spent in full, every time. The SIGTERM goes to PID 1, which is the shell: the script runs several commands, so the shell never execs into kubectl and stays PID 1 itself. A signal carrying its default disposition is discarded by the kernel when the target is PID 1, and a non-interactive shell installs no SIGTERM handler, so nothing acts on it. kubectl is a child and was not signalled at all. The pod ends on SIGKILL. Nothing in that script needs to finish gracefully, the DELETE calls are already sent and the process is only watching. The pod also gets resource requests, matching the sibling hook in `packages/apps/kubernetes`. Without them it is BestEffort and first to go under node pressure, which mattered less when a retry inside the Job absorbed an eviction. With a single attempt it does not. `backoffLimit: 0` and `restartPolicy: Never` go together, and neither implies the other. At the default limit of 6 the Job does not reach `Failed` inside the budget, so helm falls back on its own timeout with the same nameless "timed out waiting for the condition" as before. Under `OnFailure` the pod survives its own failure and the kubelet re-runs the container in place, and the Job controller finds out afterwards by summing `restartCount`. The script starts over, re-enters the applications wave that just expired, and gets cut down mid-run when the controller catches up. `Never` puts a failed pod in front of the controller directly. ## What this PR does not do No remedy behind the bounded waits. The `packages/apps/kubernetes` hook force-clears child finalizers when its own wait expires. That needs `patch` on HelmReleases in the Role, and it is only safe there because the whole tenant control plane is going away in the same run. Here a wave that expires ends the attempt. `packages/apps/kubernetes/templates/delete.yaml` is untouched. It does not make a doomed teardown converge. A tenant whose children cannot finalize still gets its uninstall retried. What changes is that each attempt ends in bounded time, instead of eating the whole uninstall budget and leaving a pod behind. 90s is a guess, and it is tight. The first wave deletes every application HelmRelease in the namespace, including kinds that are slow to tear down: a nested Tenant runs this same hook one level down before its release finalizes, and an app of kind Kubernetes tears a control plane down. Either one can outrun 90s. The bound is what is left once the Job deadline sits under helm's budget instead of level with it, split between the two waves. The 90s the deadline keeps back for scheduling and the image pull is not calibrated either, and I would rather say so than imply it was. `docker.io/clastix/kubectl:v1.32` comes from Docker Hub with no mirror in front of it, and this repo has measured Docker Hub pulls of a smaller image at about 1m42s in CI. So that remainder is roughly the observed worst case rather than comfortably above it. A cold pull that slow lands on the `activeDeadlineSeconds` path, which is the one that deletes the pod and leaves nothing to read. There is a band that pays for this, and I would rather name it than round it off. Neither shape above fits inside 300s today, so for them the bound costs nothing that works. But every generated child HelmRelease carries a wait strategy, so a wave inherits its slowest child, and a wave that settles in something like 95s does complete inside the budget today. After this change it expires instead, and that tenant trades one clean attempt for an extra flux retry. In wall clock that retry is about five minutes, since `helmrelease-interval` defaults to `5m`, so a tenant in that band takes noticeably longer to delete than it does now. I think that is the right side of the trade: an unbounded wave does not fail, it spends the whole budget and leaves helm reporting a timeout that names nothing. If the band turns out to be populated, the waits and the deadline move together, and the bats suite pins their ordering rather than their values. One caveat on the diagnostics, since the comments in the chart used to promise more than they deliver. The failing wave leaves its output in the failed pod, which `ttlSecondsAfterFinished: 300` then reaps while flux's uninstall backoff is still climbing. And on the `activeDeadlineSeconds` path there is no log at all, because the Job controller deletes the active pods when the deadline expires. That path is the backstop for a kubectl that never returns; the expected path is the wave's own `--timeout`, where the script exits on its own and the pod survives to be read. ## Tests `hack/tenant-pre-delete-hook.bats` renders the chart, pulls the hook script out of the Job and runs it against a stub `kubectl` on `PATH`. It covers a clean run reporting success, every delete reaching kubectl with a non-zero bound, the ordering of the four numbers, and a wave that gave up ending the run without going on to the next one. `--timeout` is implemented inside kubectl, so no stub can make that deadline actually elapse. The tests read the arguments that reached kubectl and inject the non-zero exit an expired delete produces. No EXIT traps. The ordering test reads the numbers out of the rendered Job instead of pinning them, so moving a value keeps it honest while a value that breaks the ordering still fails. An absent deadline or termination period is rejected explicitly, otherwise `null` satisfies the numeric comparison and a Job with no bound at all passes. The Job's own shape is pinned in the chart's helm-unittest suite, since the script cannot observe that about itself. Both suites are green locally, and I mutated each pinned value to confirm they fail for the right reason: dropping either `--timeout`, dropping `activeDeadlineSeconds`, dropping `terminationGracePeriodSeconds`, dropping the requests, `backoffLimit` back to 6, `restartPolicy` back to `OnFailure`, and a `|| echo` appended to the applications wave. Each one goes red in the test that claims that ground. Worth flagging so the check marks are not read as more than they are: `make bats-unit-tests` is red at the merge base, unrelated to this branch, and the loop it runs exits on the first failing file. `hack/cozyreport.bats` sorts ahead of this suite, so on CI the new bats file is not reached at all right now. It is not failing, it is not running. The helm-unittest cases are unaffected and do execute. ### Screenshots None. This changes a Job manifest and its tests, with no user-visible surface. ### Downstream repositories Walked the trigger map against the diff. The diff is one Job manifest inside the tenant chart, its helm-unittest suite, and a new `hack/*.bats` file. No package is added, renamed or removed; no `values.schema.json`, `values.yaml` default or version enum changes; no `ApplicationDefinition` semantics, namespace, variant or release asset changes; nothing under `hack/` is moved or renamed and no make target changes behaviour, since `bats-unit-tests` already globs `hack/*.bats`. - [x] No downstream repository is affected by this change - [ ] [cozystack/website](https://github.com/cozystack/website) - follow-up: - [ ] [cozystack/terraform-provider-cozystack](https://github.com/cozystack/terraform-provider-cozystack) - follow-up: - [ ] [cozystack/ansible-cozystack](https://github.com/cozystack/ansible-cozystack) - follow-up: - [ ] [cozystack/ccp](https://github.com/cozystack/ccp) - follow-up: - [ ] [cozystack/talm](https://github.com/cozystack/talm) - follow-up: - [ ] [cozystack/cozyhr](https://github.com/cozystack/cozyhr) - follow-up: - [ ] [cozystack/cozy-proxy](https://github.com/cozystack/cozy-proxy) - follow-up: - [ ] [cozystack/cozystack-telemetry-server](https://github.com/cozystack/cozystack-telemetry-server) - follow-up: - [ ] [cozystack/external-apps-example](https://github.com/cozystack/external-apps-example) - follow-up: - [ ] [cozystack/examples](https://github.com/cozystack/examples) - follow-up: ### Release note ```release-note fix(tenant): bound the pre-delete cleanup hook's HelmRelease deletions and give its Job a wall-clock deadline, so a tenant whose children cannot finalize no longer leaves the hook waiting indefinitely and blocking the uninstall ``` <!-- This is an auto-generated comment: release notes by coderabbit.ai --> ## Summary by CodeRabbit * **Reliability Improvements** * Tenant cleanup jobs now enforce execution deadlines and terminate gracefully. * Cleanup operations have bounded deletion timeouts and no automatic retries. * Failed cleanup steps now stop subsequent operations and correctly report failure. * Cleanup jobs now specify CPU and memory resource requirements. * **Tests** * Added comprehensive coverage for cleanup behavior, timeouts, failure handling, and job lifecycle settings. <!-- end of auto-generated comment: release notes by coderabbit.ai --> |
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Aleksei Sviridkin
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954be15341 |
fix(e2e): bound every read in the report collector and the step that runs it (#3596)
<!-- Thank you for making a contribution! Here are some tips for you: - Use Conventional Commits for the PR title: `type(scope): description` - Types: feat, fix, docs, style, refactor, perf, test, build, ci, chore - Scopes are not an exhaustive list — pick the most specific scope for the change and extend the list when a genuinely new area appears. Examples: - System components: dashboard, platform, operator, cilium, kube-ovn, linstor, fluxcd, cluster-api - Managed apps: postgres, mariadb, redis, kafka, clickhouse, virtual-machine, kubernetes - Development and maintenance: api, hack, tests, ci, docs, maintenance - Breaking changes: append `!` after type/scope (`feat(api)!: ...`) or add a `BREAKING CHANGE:` footer - If it's a work in progress, consider creating this PR as a draft. - Don't hesistate to ask for opinion and review in the community chats, even if it's still a draft. - Add the label `backport` if it's a bugfix that needs to be backported to a previous version. --> ## What this PR does A single hung read in `hack/cozyreport.sh` did not truncate `cozyreport.tgz`, it lost the artifact outright. The collector writes its tarball on its last line, the `Collect report` step carried no `timeout-minutes` of its own, and `Upload cozyreport.tgz` is the step directly after it — so a read that never returned spent whatever was left of the job budget, the job was cancelled, and the upload never ran. The runs where the report is the only evidence left are the runs that produced none. `|| true` guards against a non-zero exit, not against a read that does not return. Two halves, independent of each other. **The step gets a ceiling of its own**, 30 minutes, in all three workflows that run it. The number is measured against the step rather than divided out of the job: pulling the `Collect report` timings out of recent e2e runs gives 3 to 42 seconds, on failed jobs as much as on green ones, and 30 minutes leaves five sixths of the job budget for the steps that upload what this one produced. It carries `continue-on-error: true` beside it, because the step's `|| true` is its standing statement that collecting diagnostics is never fatal and a step killed at its ceiling never reaches that `|| true` — without the tolerance, a passing run whose collection ran long would be published as failed, and every later `failure()` in the job would start meaning "the tests failed or the report was slow". That tolerance also renders the overrun green, so a following step turns the collect step's `outcome` into a `::warning::` annotation: a bound that fires is recorded, and the outer bound is not exempt from the rule the inner ones follow. **Every read in the collector is bounded**, against four sections before, and gates and host commands are reads too. An `if kubectl get deploy …` that decides whether a module runs costs more unbounded than anything it guards, because the module below it never starts; `df -h` blocks indefinitely on a stale mount and takes the tarball with it by exactly the mechanism above. A gate cut off short is recorded, since skipping the module leaves the same empty tree as a cluster that never ran the component, while a gate answering "not installed" is recorded nowhere — that is the cluster answering correctly, and a marker firing on every install without KubeVirt is one a reader learns to skip. The six LINSTOR reads run a command inside a pod and go through a reader of their own. They are the only reads whose duration a workload sets rather than the apiserver, and `kubectl exec` returns the remote command's exit status — a 124 there is either the collector's deadline or a command that itself exited 124, so the existing classifier would have named this script's own timeout as the cause of something that may have happened inside a pod. The new note states what the status leaves open, and sits beside the output rather than inside it, since two of the six stream a gzipped tarball. A cut-off bundle is kept rather than dropped, and the note says so: the emptiness check at those call sites asks whether the archive lists a first member, which a truncated gzip does. What this does not do is bound the report. The pod, VM, VMI and services walks carry a count cap and a time budget; every other per-object walk carries neither, so their cost is the cluster's to set, and a failed install with a hundred not-Ready HelmReleases spends four hundred bounded reads in one of them. A per-read ceiling removes the read that never returns, not the thousand reads that each return slowly. The file header says so where it previously implied the opposite, and the step ceiling is what covers the rest. Two frozen lists in the tests are gone, replaced by one invariant derived from the code: no read below the library guard runs without a ceiling. Both lists were already wrong. The header named four bounded sections while the file had ten, and the per-section counts of unbounded reads only ever matched a redirect into `$VAR/`, which no gate, selector or command substitution has — so they described the scan rather than the file. The guard that held the old exec assumption was satisfied by leaving every exec unbounded, which is the state the file was in. It now also requires each exec to be bounded, and requires that reader not to borrow the classification written for reads whose 124 is unambiguous. Matching on the verb rather than on the string `kubectl exec` is part of it: half of these calls spell it `kubectl -n cozy-linstor exec`, which that string never saw. Two properties worth knowing before this lands. `kubectl get events -A --sort-by=.lastTimestamp` sorts client-side, so kubectl buffers the whole event list and writes nothing until it finishes — under a flat per-read ceiling a cut-off there leaves a file holding only the marker, not a short tail. That read had no ceiling at all before, where the same slowness could take the whole tarball, so this is a narrower failure rather than a new one. And `kubectl logs -n cozy-kamaji deployment/kamaji` gains `--tail=2000`, matching every other controller log in the file: it was the only unbounded-in-size log, which under a wall-clock ceiling is the one most likely to be cut at its *end*, where a control-plane bootstrap failure sits. Longer kamaji history than 2000 lines is no longer collected. Two accepted imperfections in how the change is split across commits, named rather than left to be found. `docs/agents/e2e-testing.md` keeps this material in a single shared paragraph that all three commits touch, so in the middle commit one sentence about the module gates lands a commit ahead of the gates themselves. And two corrections to the exec reader — it now keeps the remote command's whole message in the listing rather than quoting the line `kubectl exec` always appends last, and its cut-off note names both of the two things that can happen to a partial bundle instead of asserting one — sit in the last commit rather than in the one that introduced that reader. Both are true of the branch tip, where every statement is correct and appears once; the cost of moving them is another rebase across the one shared paragraph, which is not worth what it buys. Refs #3568. ### Screenshots <!-- REQUIRED for UI changes: attach screenshots or screen recordings demonstrating the visual impact of your changes. PRs with UI changes without screenshots will not be merged. --> ### Downstream repositories <!-- Cozystack is upstream for repositories that are NOT kept in sync with it automatically, and nothing in CI compares the two sides, so a change here can break them silently. Which change forces what, and which file to touch, is the trigger map in docs/agents/contributing.md under "Downstream Repositories". Walk it before you tick anything. IF YOU ARE AN AI AGENT OR AN LLM, THIS IS PART OF THE TASK, NOT A FORM TO FILL IN: 1. Walk the trigger map against the actual diff of this PR, file by file. Do not decide from the PR title or from your memory of what you changed. 2. For every repository you tick, open the follow-up PR there and link it on the same line. A ticked box with no link claims work that does not exist, which is worse than an empty box. Search that repository for an open PR or issue covering it first, and link that instead of filing a duplicate. 3. When the follow-up is out of scope, or needs a decision that is not yours to make, open an issue in that repository instead, link that, and say so in the PR body. Do not push a speculative PR into another repository just to fill a line here. 4. Do not tick "No downstream repository is affected" to make the checklist go away. If you are unsure, leave every box empty and say so in the PR body, so a human decides. --> - [x] No downstream repository is affected by this change - [ ] [cozystack/website](https://github.com/cozystack/website) - follow-up: - [ ] [cozystack/terraform-provider-cozystack](https://github.com/cozystack/terraform-provider-cozystack) - follow-up: - [ ] [cozystack/ansible-cozystack](https://github.com/cozystack/ansible-cozystack) - follow-up: - [ ] [cozystack/ccp](https://github.com/cozystack/ccp) - follow-up: - [ ] [cozystack/talm](https://github.com/cozystack/talm) - follow-up: - [ ] [cozystack/cozyhr](https://github.com/cozystack/cozyhr) - follow-up: - [ ] [cozystack/cozy-proxy](https://github.com/cozystack/cozy-proxy) - follow-up: - [ ] [cozystack/cozystack-telemetry-server](https://github.com/cozystack/cozystack-telemetry-server) - follow-up: - [ ] [cozystack/external-apps-example](https://github.com/cozystack/external-apps-example) - follow-up: - [ ] [cozystack/examples](https://github.com/cozystack/examples) - follow-up: ### Release note <!-- Write a release note: - Explain what has changed internally and for users. - Start with the same `type(scope):` prefix as in the PR title - Follow the guidelines at https://github.com/kubernetes/community/blob/master/contributors/guide/release-notes.md. --> ```release-note fix(e2e): every read in the diagnostic report collector now carries a wall-clock ceiling — module gates, the reads that run a command inside a LINSTOR pod, and the host commands included — and a ceiling that fires is recorded in the artifact rather than only in the job log. The workflow step that runs the collector carries a ceiling of its own, so a read that does not return costs one file and a warning annotation instead of consuming the job budget and losing cozyreport.tgz entirely. ``` <!-- This is an auto-generated comment: release notes by coderabbit.ai --> ## Summary by CodeRabbit - **New Features** - Added bounded diagnostic collection across Kubernetes, Talos, LINSTOR, host, controller, and command outputs. - Reports preserve partial results and identify timeouts, failures, missing output, and truncated artifacts. - Added warnings when report collection fails or exceeds its time limit. - **Bug Fixes** - Corrected resource targets, selectors, deployment extraction, and command matching. - Improved handling for empty selections, unavailable resources, and missing timeout tools. - **Documentation** - Expanded guidance for diagnostic markers, collection limits, timeouts, and incomplete output. - **Tests** - Added coverage for bounded reads, failure reporting, markers, selectors, logs, and subprocess mocking. <!-- end of auto-generated comment: release notes by coderabbit.ai --> |
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Aleksei Sviridkin
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0b7a8f67d1 |
fix(apps/kubernetes): report the pre-delete cleanup outcome honestly (#3592)
## What this PR does The pre-delete cleanup Job for the `kubernetes` app ended with an unconditional `echo "Cleanup completed successfully"`. Several of its steps swallow a failure behind `|| echo "WARNING: ..."` so that `set -e` cannot end the run, which means that line was printed in exactly the situation those warnings exist to report: child HelmReleases still holding Flux finalizers, or a Kamaji datastore Secret still pinning its namespace. Someone reading the Job log to find out why a namespace will not delete was told the cleanup had worked. The Job now records what a step left behind and closes with either the success line or the list of steps that left something. Only residue gets recorded. A bounded delete that times out has a remedy right behind it (Step 2 falls through to force-clearing finalizers, Step 4 falls through to Step 4b), and whether anything survived is decided by that remedy, which reports its own outcome. A tenant with no working nodes takes that route as a matter of course, which is the reason the wait is bounded at all, so recording the timeout itself would report a finished teardown as incomplete on the commonest path there is and send an operator hunting for objects that are not there. That is the same defect as the one being fixed, pointing the other way. A read that fails looks exactly like one that found nothing. An empty list and a failed list both give a loop nothing to iterate; an absent object and an unreachable apiserver both make a probe non-zero. So the whole script was walked for that shape instead of patching the instances as they were reported. Four reads reach the closing line. Step 2's force-clear re-list now keeps its status and reports when it cannot list what it was about to clear. Step 4b's two probes became three-way, present, absent or unknown, so a Secret whose existence could not be established is no longer announced as absent. Step 1's list is the one left swallowing its status, and that is deliberate: Step 2 deletes by label rather than from that list, so a suspend that never happened leaves nothing of its own behind, and reporting it would name residue that does not exist. Making the TenantControlPlane probe three-way also repairs the gate above it, and that is intended. The gate is there so the datastore Secret's finalizer is not stripped while Kamaji may still own it, and a two-way probe defeated it in the one direction that does damage: any error read as "confirmed absent" and the strip went ahead. Its likeliest cause, a throttled or briefly unreachable apiserver, is also likeliest exactly when a broken tenant is being torn down. Step 4b declining to strip a finalizer while the TenantControlPlane is still alive is the one residue that no failing command marks: every call in that branch succeeds, and the namespace stays blocked regardless. It now reports, and names the TenantControlPlane as the thing holding it up. What this PR does not do: the hook still exits zero, even with every backstop engaged. That is the difference between a main path and a backstop. `packages/apps/tenant/templates/cleanup-job.yaml` is the same kind of hook and handles it the opposite way, correctly: deleting the HelmReleases is that hook's whole purpose, so a failure there means the cleanup did not happen, and `set -e` ending the run before the success line is honest. The swallowed sites here are backstops. They run only after the normal deletion has already timed out, and they exist to push teardown further along. Failing there aborts the Helm uninstall before the release is removed, so the release stays in storage and the same doomed teardown is retried forever, at precisely the moment the backstop was written for. The steps that are not backstopped still end the run under `set -e` and never reach the closing message at all. This makes the message truthful. It does not make it reachable. The Job carries `helm.sh/hook-delete-policy: hook-succeeded`, and the hook exits zero by design on every backstopped run, so Helm reaps the Job, and its pod log, right after the hook completes. Whether the closing line survives long enough to be read is a question about the delivery channel, not about its wording, and changing that channel (an Event on the CR, or keeping the Job when something was left behind) has a different blast radius. Left for a separate change. The step comment and the runtime warning both cited the tracking issue for the Kamaji datastore-secret leak as though it were live. It is closed, and closed by this step rather than by a fix in Kamaji, so following the pointer showed a resolved report and no reason for the code to exist. The comment now says the ordering it covers is still reachable, and the warning names the finalizer and the object to clear by hand instead of an issue number. The workaround itself is untouched: nothing indicates the upstream cause has gone away. `hack/kubernetes-pre-delete-hook.bats` renders the Job, extracts the script and runs it against a stub `kubectl`, covering a clean run, a fallback route that succeeded, a TenantControlPlane outliving Step 4, each probe that could not answer, every remedy failing at once, an unbackstopped step ending the run, and the zero-exit invariant. The helm-unittest cases match the script's source text and cannot tell whether the closing message is reachable. Every case was checked by mutation, including reinstating the unconditional success line and reinstating the over-reporting the fallback case guards against. ### Screenshots Not a UI change. ### Downstream repositories - [x] No downstream repository is affected by this change ### Release note ```release-note fix(kubernetes): the pre-delete cleanup hook no longer reports success when a cleanup step left something behind, and no longer reports a completed teardown as incomplete when it merely fell back to force-clearing finalizers. The Job log now names the steps that left residue. The hook still exits zero so the Helm uninstall can remove the release. ``` <!-- This is an auto-generated comment: release notes by coderabbit.ai --> ## Summary by CodeRabbit * **Bug Fixes** * Improved Kubernetes cleanup handling during application deletion. * Cleanup now distinguishes unavailable resource checks from confirmed absence, avoiding unsafe finalizer removal. * Reports leftover resources when recoverable cleanup steps fail while still completing the deletion process. * Improved handling of child releases, control-plane resources, and datastore secrets. * **Tests** * Added comprehensive coverage for successful cleanup, partial failures, resource residue, probe errors, and unrecoverable steps. <!-- end of auto-generated comment: release notes by coderabbit.ai --> |
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Aleksei Sviridkin
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7e2db4da7e |
fix(e2e): bound every remaining read in the report collector
Four sections of hack/cozyreport.sh read with a wall-clock ceiling and the rest -- nodes, namespaces, events, HelmReleases, packages, packagesources, PVCs, cert-manager, COSI, kamaji, the Talos node reads and every module gate -- read with none. The tarball is written on the collector's last line, so a single read that never returns does not truncate the report, it loses it, on the run where it is the only evidence left. Each read now goes through the shape that fits it: the existing bounded reader for a read whose output is a file, the existing selector for one that feeds a loop, and a new probe for the `if kubectl get deploy ...` gates. A gate is a read like any other, and an unbounded one is worse than the reads it guards, since the module below it never starts. Its cut-off is recorded, because skipping the module leaves the same empty tree as a cluster that never had the component; a gate that answers "not installed" is recorded nowhere, since that is the cluster answering correctly and a marker firing on every install without KubeVirt is one a reader learns to skip. The reads that stay on the bare wrapper say so where they sit; what they share is that the output is not the reader's to write, going into a variable or through a pipeline that transforms it, so there is no moment at which a marker could attach. The header claimed a per-section list of what was bounded, and the tests froze that list plus a per-section count of the unbounded reads. Both are gone. The list had already gone stale, naming four sections while the file had ten, and the counts were an undercount by construction -- they matched a redirect to `$VAR/`, which no gate, selector or command substitution has. One test replaces both: no read below the library guard runs without a ceiling, checked by looking for a counterexample. A ceiling per read is not a ceiling on the report, and the header now says so where it used to imply the opposite. The pod, VM, VMI and services walks carry a count cap and a time budget; the walks over nodes, namespaces, HelmReleases, packages, PVCs and certificates carry neither, so their cost is the cluster's to set. What this removes is the read that never returns. The bounded reader now names the tool it ran and describes what that tool returned. It served kubectl alone until this change gave it talosctl and the four host commands, so a `df` that hit a stale mount left a marker reading "kubectl exited 1 ... not because the object ended" -- two false statements in one line, in an artifact whose premise is that its notes can be believed. The exec reader keeps the remote command's whole message in the listing it belongs to. `kubectl exec` appends its own `command terminated with exit code N` after whatever the command said, so quoting the last line there drops the cause and keeps the trailer, and sending the message away from the file leaves a zero-byte listing -- the "returned nothing, or never ran" question this collector exists to answer. Its cut-off note also stops asserting that the archive is beside it: a stream that got members across is kept and truncated, one killed before its first byte leaves zero bytes and the call site's emptiness check removes it, and the reader runs before that check, so it names both. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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920ad3e30d |
fix(e2e): bound the report reads that run inside a pod
The LINSTOR module runs six reads through `kubectl exec`: three listings, the error-report index, and the controller and per-satellite ErrorReport bundles. They are the only reads in the collector whose duration is set by a workload rather than by the apiserver -- a wedged controller, a satellite that stops answering, or a broken SPDY upgrade holds the stream open with no clock anywhere in the path. The tarball is written on the collector's last line, so one of those never returning does not truncate the report, it loses it. They go through a reader of their own rather than the existing one. `kubectl exec` returns the remote command's exit status, so a 124 there is either this collector's deadline expiring or a command that itself exited 124, and the status does not separate them; describing it the way every `get`, `logs` and `describe` is described would state a mechanism about the machine writing the report for something that may have happened inside a pod. The note says what is open instead of resolving it, and goes beside the output rather than into it, since two of the six stream a gzipped tarball that a line of prose turns into an archive nothing can open. kubectl's own message travels with the note for the same reason -- until now it was merged into the listings, so every run put the "Defaulted container" line at the top of a table. The guard that held the old assumption asserted only that no bounded read was an exec, which leaving every exec unbounded satisfies. It now also requires each exec to be bounded and requires the reader not to borrow the classification written for reads whose 124 is unambiguous. Matching on the verb rather than on the string `kubectl exec` is part of the fix: half of these calls spell it `kubectl -n cozy-linstor exec`, which that string never saw. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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96e33fe656 |
ci(e2e): give the report collection step a ceiling of its own
The step that runs hack/cozyreport.sh carried no timeout-minutes in any of the three workflows that run it, so it inherited only the job's 180. The collector writes its tarball on its last line and the upload is the next step, so a read that never returns spends what is left of the job budget, the job is cancelled, and the upload never runs -- the artifact is lost entirely rather than truncated, on exactly the run where it is the only evidence left. `|| true` guards against a non-zero exit, not against a read that does not return. 30 minutes is measured against the step rather than divided out of the job: it takes 3-42s across sampled runs, on failed e2e jobs as well as green ones, and 30 leaves five sixths of the job budget for the steps that upload what this one produced. A test pins the ceiling in all three workflows and requires it to stay under the job's own, since a step ceiling at or above the job's cap is the same as no ceiling at all. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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cf85716444 |
fix(tenant): bound the pre-delete cleanup waits and the hook Job
kubectl reads --timeout=0 as "wait forever" and substitutes a week, so the two `kubectl delete helmreleases --wait=true` calls in the tenant pre-delete hook hang for as long as any child HelmRelease cannot finalize. helm returns from Uninstall.Run before deleting anything, so the release stays in storage and flux retries the same teardown; helm.sh/hook-delete-policy carries no hook-failed, so the waiting Job survives between attempts as well. Bound each wave at 90s. Neither is guarded: nothing stands behind these deletes, so a wave that did not finish ends the run rather than report a cleanup that did not happen, and ending it keeps the tenant modules from being torn out from under applications that are still deleting. Whatever was deleted stays deleted, so the next attempt resumes from there. The bound has a price and it is not zero. A nested Tenant, or an app of kind Kubernetes whose own hook spends two 120s waits first, misses 90s and converges across uninstall retries instead; neither fits the 300s budget as it stands either. Between those and the fast case sits a band that does pay: a wave inherits its slowest child, so one that settles around 95s completes inside the budget today and expires here instead, trading a clean attempt for one more retry. An unbounded wave does not fail, it spends the whole budget and reports a timeout naming nothing, so the trade is worth taking. Give the Job an activeDeadlineSeconds of 270. It bounds what the waits do not — the DELETE calls carry kubectl's default --request-timeout of 0 — and sits under the 300s uninstall budget flux applies when the HelmRelease carries no timeout of its own, because the deadline runs from the Job's startTime while that budget runs from just before the Job is created. At equal values helm gives up first, on a Job still running. Cap the pod's termination at 10s, which is part of that arithmetic rather than a detail of it. Since 1.31 the Job controller withholds the terminal condition until every pod has finished terminating, so helm learns of the failure at the deadline plus this period; the 30s default would land it at 270+30, level with the budget the deadline is set under. The period is spent in full: the SIGTERM goes to PID 1, which is a shell running a multi-command script, and a default disposition sent to PID 1 is discarded by the kernel with no handler installed to catch it. kubectl is a child and is never signalled. Set backoffLimit to 0 and restartPolicy to Never. The limit is needed under either policy, since the default of 6 keeps the failure from reaching helm inside the budget. The policy matters because under OnFailure the pod survives its own failure and the kubelet re-runs the container in place, with the controller applying the cap only afterwards by summing restartCount: the script re-enters the wave that just expired and is cut down mid-run. Never leaves a failed pod the controller sees directly. Add resource requests to match the sibling hook in packages/apps/kubernetes. Without them the pod is BestEffort and first out under node pressure, which a retry inside the Job used to absorb and a single attempt does not. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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c78326281e |
fix(tests): freeze the EXIT-trap count for run-kubernetes-talos-diagnostics_test.bats
hack/run-kubernetes-talos-diagnostics_test.bats arrived carrying eight EXIT traps and was not added to the frozen set, so `found` and `frozen` disagree by exactly that one entry and the guard fails on every branch cut from main. Updating the count is what the comment above the guard prescribes for a file that did not exist when the freeze was written. The guard did its job: it noticed. The cost is wider than one red check. hack/cozytest.sh stops at the first failing test in a file, and the guard is test 83 of 166 in cozyreport.bats, so the remaining 83 do not run. The Makefile loop is `for f in $(BATS_UNIT_FILES); do hack/cozytest.sh "$f" || exit 1; done`, which aborts the whole loop, and cozyreport.bats sorts fourteenth of forty-two, so twenty-eight files do not run either. Downstream of that, finalize needs checks, and the e2e job needs finalize, so E2E Tests is skipped rather than executed. Verified by running the file to completion with bats, which walks past a failure unlike cozytest.sh: 166 of 166 pass with this entry present. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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6c82988570 |
fix(tests): freeze the EXIT-trap count for multus-install-cni-plugins.bats (#3584)
<!-- Thank you for making a contribution! Here are some tips for you: - Use Conventional Commits for the PR title: `type(scope): description` - Types: feat, fix, docs, style, refactor, perf, test, build, ci, chore - Scopes are not an exhaustive list — pick the most specific scope for the change and extend the list when a genuinely new area appears. Examples: - System components: dashboard, platform, operator, cilium, kube-ovn, linstor, fluxcd, cluster-api - Managed apps: postgres, mariadb, redis, kafka, clickhouse, virtual-machine, kubernetes - Development and maintenance: api, hack, tests, ci, docs, maintenance - Breaking changes: append `!` after type/scope (`feat(api)!: ...`) or add a `BREAKING CHANGE:` footer - If it's a work in progress, consider creating this PR as a draft. - Don't hesistate to ask for opinion and review in the community chats, even if it's still a draft. - Add the label `backport` if it's a bugfix that needs to be backported to a previous version. --> ## What this PR does `hack/multus-install-cni-plugins.bats` arrived on main in |
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IvanHunters
|
318be935ca |
fix(e2e): capture Talos logs for tenant worker join failures (#3548)
## What this PR does Addresses #3513. When tenant Kubernetes workers miss the 18-minute Ready deadline, the E2E runner now mints a one-hour `os:reader` Talos client certificate from the tenant's existing issuer and runs authenticated `talosctl` from a hardened same-namespace diagnostics Pod. It captures bounded `dmesg` and kubelet output for every worker VMI in the cozyreport snapshot, records missing IPs and command exit codes, continues across unreachable workers, and preserves the original test failure. The diagnostics Pod has no service-account token or Secret volume; credentials are streamed into an `emptyDir`, and the Certificate, Secret, and Pod are labeled for cleanup. Workers that have not reached Talos `apid` can only yield a bounded connection error, while workers that reached `apid` provide guest logs. This adds the evidence needed to distinguish the remaining guest boot failure but does not claim to resolve its underlying cause. The readiness budget and success path are unchanged. Because this changes a shared E2E helper, test-impact analysis selects the full E2E suite for this PR. ### Screenshots Not applicable; no UI changes. ### Testing - `hack/cozytest.sh hack/run-kubernetes-talos-diagnostics_test.bats` (10 tests) - `hack/cozytest.sh hack/run-kubernetes-drain_test.bats` - `hack/cozytest.sh hack/cozyreport-talos.bats` - `bash -n hack/e2e-chainsaw/_lib/run-kubernetes.sh` - `git diff --check origin/main...HEAD` The full `make bats-unit-tests` run reached the unrelated `hack/migration-seaweedfs-db-adopt.bats` suite and could not continue because Docker is unavailable in the development environment. A live failure-path run was not performed because the available development environment has no Talos tenant fixture; this PR is intended to exercise that path in Cozystack CI. ### Downstream repositories - [x] No downstream repository is affected by this change - [ ] [cozystack/website](https://github.com/cozystack/website) - follow-up: - [ ] [cozystack/terraform-provider-cozystack](https://github.com/cozystack/terraform-provider-cozystack) - follow-up: - [ ] [cozystack/ansible-cozystack](https://github.com/cozystack/ansible-cozystack) - follow-up: - [ ] [cozystack/ccp](https://github.com/cozystack/ccp) - follow-up: - [ ] [cozystack/talm](https://github.com/cozystack/talm) - follow-up: - [ ] [cozystack/cozyhr](https://github.com/cozystack/cozyhr) - follow-up: - [ ] [cozystack/cozy-proxy](https://github.com/cozystack/cozy-proxy) - follow-up: - [ ] [cozystack/cozystack-telemetry-server](https://github.com/cozystack/cozystack-telemetry-server) - follow-up: - [ ] [cozystack/external-apps-example](https://github.com/cozystack/external-apps-example) - follow-up: - [ ] [cozystack/examples](https://github.com/cozystack/examples) - follow-up: ### Release note ```release-note fix(e2e): capture authenticated Talos kernel and kubelet diagnostics when tenant Kubernetes workers miss the Ready deadline ``` <!-- This is an auto-generated comment: release notes by coderabbit.ai --> ## Summary by CodeRabbit * **Bug Fixes** * Improved troubleshooting when worker nodes fail to join by collecting per-node operating system and kubelet diagnostics. * Diagnostics now continue across partial failures and clean up temporary resources afterward. * Extended Kubernetes test operation timeouts to allow failure diagnostics to complete reliably. * **Tests** * Added regression coverage for diagnostic collection, timeout handling, multi-worker scenarios, missing node addresses, and cleanup. * **Chores** * Ensured the required diagnostic image is preloaded on nodes. <!-- end of auto-generated comment: release notes by coderabbit.ai --> |
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Aleksei Sviridkin
|
0827bcb300 |
fix(apps/kubernetes): report the pre-delete cleanup outcome honestly
The pre-delete cleanup Job ended with an unconditional "Cleanup completed successfully". Several of its steps swallow a failure behind `|| echo "WARNING: ..."` so that `set -e` cannot end the run, so that line was printed in exactly the situation the warnings exist to report: child HelmReleases still holding finalizers, or a Kamaji datastore Secret still pinning its namespace in Terminating. Record what a step leaves behind and close with either the success line or the list of steps that left something. Residue is the thing worth recording, not every fallback: a bounded delete that times out has a remedy right behind it -- Step 2 falls through to force-clearing finalizers, Step 4 falls through to Step 4b -- and whether anything survived is decided by that remedy, which reports its own outcome. A tenant with no working nodes takes that route as a matter of course, which is why the wait is bounded in the first place, and calling such a run incomplete would send an operator hunting for objects that are not there. A read that fails looks exactly like one that found nothing: an empty list and a failed list both give a loop nothing to iterate, and an absent object and an unreachable apiserver both make a probe non-zero. Every read the summary rests on now keeps its status. Step 2's force-clear re-list reports when it cannot list what it was about to clear, because everything it could not return is still holding its finalizer. Step 4b's two probes became three-way -- present, absent or unknown -- so a Secret whose existence could not be established is no longer announced as absent. Step 1's list is the one read still swallowing its status, and that is a decision rather than an omission: Step 2 deletes by label rather than from that list, so a suspend that never happened leaves nothing of its own behind and reporting it would name residue that does not exist. Making the TenantControlPlane probe three-way also repairs the gate above it, and that is intended rather than incidental. The gate exists so the datastore Secret's finalizer is not stripped while Kamaji may still own it, and a two-way probe defeated it in the one direction that does damage: any error reads as "confirmed absent" and the strip goes ahead. Its likeliest cause, a throttled or briefly unreachable apiserver, is also likeliest exactly when a broken tenant is being torn down. Step 4b declining to strip a finalizer while the TenantControlPlane is still alive is the one residue that no failing command marks: every call in that branch succeeds and the namespace stays in Terminating regardless. It now reports, and names the TenantControlPlane as the thing holding the namespace up. The exit code is deliberately unchanged and still zero. These are backstops, not the main path: they run after the normal deletion has already timed out, and they exist to push teardown further along, so failing there would abort the Helm uninstall at the very moment the backstop was written for, leaving the release in storage and the same teardown retried forever. That makes the closing message the only outcome report an operator gets, which is why it has to be accurate. The steps that are not backstopped still end the run under `set -e` and never reach that message. Rework the runtime warning and the RBAC comment that pointed at the tracking issue for the Kamaji datastore-secret leak. That issue is closed, and closed by this very step rather than by a fix in Kamaji, so a reader who followed the pointer found a resolved report and no reason for the code to exist. The step comment now says the ordering it covers is still reachable, and the warning names the finalizer and the object to clear by hand. Cover the behaviour with a bats file that renders the Job, extracts the script and runs it against a stub kubectl, since the helm-unittest cases match the script's source text and cannot tell whether the closing message is reachable. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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0dae3ca95a |
fix(e2e): budget tenant scheduling separately from workload readiness (#3579)
## What this PR does The tenant backend Deployment in the kubernetes suites had one 300s budget to reach `condition=Available`, and two unrelated variable costs shared it. The first is scheduling. What the suite establishes before that point is two tenant nodes Ready, which is weaker than schedulable: a Ready node still carries `node.cilium.io/agent-not-ready` until the tenant cilium agent claims it, and a node the bringup has not finished with is `SchedulingDisabled`. In the run recorded in #3577 scheduling took 2m18s and 1m57s in the two suites, which left the image pull to finish inside what remained. It did not, and both suites reported the same `timed out waiting for the condition` for what were two different shortfalls. So this waits for a node that actually accepts a Pod before creating the workload, on its own budget and its own failure message. The gate encodes the scheduler's rule for a Pod that tolerates nothing (Ready, not unschedulable, no `NoSchedule` or `NoExecute` taint) over a `custom-columns` probe, prints the node table on both outcomes so a timeout names the taint that held it, and treats a failed probe as not-schedulable so an API blip cannot release it. On the happy path it adds no wall time: it spends the seconds the Pod would otherwise spend Pending, plus at most one 5s poll interval. On a failing run the two budgets stack, so a run that exhausts both now gives up at ~600s where it used to give up at 300s, inside the 40m Chainsaw script op the suites document as a ~25m bringup. The readiness wait keeps its 300s, now starting from a schedulable node, and dumps deployment, pod and event state when it runs out. The workload image is also pinned by digest. The tenant workers reach no Docker Hub mirror (`hack/e2e-talos-image-cache.yaml` serves the Talos worker OS disk image over HTTP and is not a registry mirror), so nginx is pulled from Docker Hub on every run either way. The digest does not take the pull off the critical path; it fixes what that pull returns instead of leaving a floating tag free to change size and content under a fixed deadline. Preloading the image would need infrastructure this tree does not have, and is not attempted here. Nothing will bump the pin: no renovate manager reads `hack/`, and the comment says so, because for a throwaway test workload the freeze is the point. What this does not claim: it removes two measured consumers from a fixed budget, both taken from the events of a single run. Whether that budget was the only thing making those suites red is not established from one run, so this is not offered as the fix for a red pipeline. `hack/run-kubernetes-schedulable_test.bats` covers the new logic: every branch of the predicate, the multi-node scan, the poll-again path, the deadline, and a probe that fails. Each test was verified by mutating the helper and checking that the intended test, and no other, went red. Note for whoever reviews alongside #3575: that branch mirrors `ghcr.io` for tenant worker pulls, not `docker.io`, so it does not change the Docker Hub pull described here. `git merge-tree` reports no conflict between the two, nor with #3548. Observed in #3577. ### Screenshots Not a UI change. ### Downstream repositories - [x] No downstream repository is affected by this change - [ ] [cozystack/website](https://github.com/cozystack/website) - follow-up: - [ ] [cozystack/terraform-provider-cozystack](https://github.com/cozystack/terraform-provider-cozystack) - follow-up: - [ ] [cozystack/ansible-cozystack](https://github.com/cozystack/ansible-cozystack) - follow-up: - [ ] [cozystack/ccp](https://github.com/cozystack/ccp) - follow-up: - [ ] [cozystack/talm](https://github.com/cozystack/talm) - follow-up: - [ ] [cozystack/cozyhr](https://github.com/cozystack/cozyhr) - follow-up: - [ ] [cozystack/cozy-proxy](https://github.com/cozystack/cozy-proxy) - follow-up: - [ ] [cozystack/cozystack-telemetry-server](https://github.com/cozystack/cozystack-telemetry-server) - follow-up: - [ ] [cozystack/external-apps-example](https://github.com/cozystack/external-apps-example) - follow-up: - [ ] [cozystack/examples](https://github.com/cozystack/examples) - follow-up: The trigger map was walked against the diff. The change is confined to `hack/e2e-chainsaw/_lib/run-kubernetes.sh` and one new `hack/*.bats` unit test. It moves and renames nothing under `hack/`, changes no make target, and does not touch `hack/e2e-prepare-cluster.bats`, any package, any CRD or any namespace name, so none of the listed repositories are reached. ### Release note ```release-note NONE ``` <!-- This is an auto-generated comment: release notes by coderabbit.ai --> ## Summary by CodeRabbit * **Bug Fixes** * Improved Kubernetes deployment readiness by waiting for a suitable, schedulable node before timing backend startup. * Added clearer diagnostics when nodes are unavailable or backend readiness fails. * Replaced the floating backend container image tag with a fixed, verified version. * **Tests** * Added coverage for node readiness, cordoning, taints, polling, timeouts, probe failures, and deployment sequencing. <!-- end of auto-generated comment: release notes by coderabbit.ai --> |
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Mattia Eleuteri
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3aef42b993 |
fix(tests): freeze the EXIT-trap count for multus-install-cni-plugins.bats
hack/multus-install-cni-plugins.bats arrived on main in
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Aleksei Sviridkin
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879d0f6db6 |
fix(installer): make operator readiness honest in the chart and the install gate (#3466)
## What this PR does
The operator Deployment ran `replicas: 1` with `maxUnavailable: 1`, so
the Deployment controller took the minimum available replica count as `1
- 1 = 0` and the `Available` condition reported `True` with no running
pod at all. Measured against an operator whose image tag does not exist:
the condition was `True` with `reason: MinimumReplicasAvailable` while
the only pod sat in `ImagePullBackOff`, `unavailableReplicas: 1`, and no
`availableReplicas` key in the status.
That broke two separate things, so this fixes both.
The E2E install gate asked `kubectl wait --for=condition=Available` and
passed in 156 ms against that dead operator. The install then carried on
and died about two minutes later on the `packages.cozystack.io` CRD wait
further down the file, which sends you after CRD installation when the
operator never started. It now uses `kubectl rollout status`, which
reads updated and available replicas directly, and dumps the deployment,
pods, operator logs and namespace events when it fails. This half is
deliberately independent of the chart: `rollout status` is correct under
any rollout strategy, so a later change to that strategy cannot quietly
make the gate vacuous again.
The chart is the other half, and fixing the gate does not cover it.
`Available` is read by more than this test, and until the strategy
changes an alert on that condition, a health dashboard, or a person
reading `kubectl get deploy` all show green while the operator is dead.
The strategy moves to `maxSurge: 1` / `maxUnavailable: 0`, which
restores the ordinary meaning of the condition. Kubernetes refuses
`maxSurge: 0` and `maxUnavailable: 0` together, so the surge has to move
for the unavailability to reach zero.
That pair is worth reading twice, because it is not a configuration I
picked. At `replicas: 1` the Kubernetes default of `25%` / `25%`
resolves to exactly `maxSurge: 1` and `maxUnavailable: 0`, since the
surge rounds up and the unavailability rounds down. What this PR does is
stop overriding the default, not introduce a tuning of its own, and the
risk of the change should be judged on that basis.
Moving the surge is safe here, and I checked rather than assumed,
because the pair came from somewhere. It was carried over from the
earlier `cozystack` Deployment, where a sidecar published host port 8123
and `hostNetwork` left the surge pod unschedulable on a single-node
cluster. It got here in two steps, which is worth knowing if you go
looking for the reason: by the commit before this file existed the
sidecar was already gone and no port was declared, yet the pair stayed.
It had outlived its own reason before it was ever copied, which is why
there is no justification to find in this file's own history. On a
single-node cluster the surge pod is scheduled next to the outgoing one
and the rollout completes; adding a declared container port reproduces
the original `didn't have free ports for the requested pod ports`
failure exactly. Nothing else in the pod holds a port either: metrics
and health probes are bound to `0`, and the configured webhook server
never starts because the operator registers no webhook and never asks
the manager for the server.
The surge makes leader election load-bearing, though it covers less of
the overlap than it first appears. While `maxSurge: 0` capped total pods
at `replicas` a second manager process could not exist, so
`--leader-elect=true` was defence in depth. With a surge pod the lease
is what keeps the incoming manager's reconcile loops off the cluster
while the outgoing one is still leader, and because there is no
readiness probe the incoming pod counts as available as soon as its
container starts, so that overlap covers the whole image pull. It does
not cover everything: the operator installs CRDs, installs Flux and
creates the platform PackageSource before `mgr.Start()`, and the lease
is only taken inside `mgr.Start()`, so those three privileged installs
run outside leader election entirely. They are safe because both pods
write the same objects through server-side apply under the same field
manager, which is a different guarantee from the lease. The
`k8s-await-election` wrapper this operator replaced did hold the whole
process until it won leadership, so if that property sounds familiar it
belongs to the predecessor rather than to this binary.
The sibling `opensearch-operator` chart turns leader election off at one
replica for a real reason: a transient lease-renewal blip makes
controller-runtime exit the process, which at one replica reads as a
crashlooping Deployment. This operator installs first, when the
apiserver is at its shakiest, so that scenario applies here too. I am
accepting the risk knowingly, because after `maxSurge: 1` the
alternative is two managers reconciling the same cluster, which is
worse. The flag is pinned in the unit test so it cannot be turned off
without the test going red.
One consequence is permanent, so I am writing it down now instead of
leaving it to be found in a year. Because any bound port breaks the
surge pod under `hostNetwork`, an `httpGet` readiness probe is off the
table for this Deployment for good and only an `exec` probe could ever
work. So `Available` still answers "a container started", not "the
operator is healthy": an operator that starts and then dies partway
through installing CRDs is caught by the CRD waits below the gate, not
by the gate itself.
The surge also opens one new window. The operator installs CRDs and Flux
before the manager starts, which puts that work outside leader election,
so the incoming pod runs those applies while the outgoing pod is still
leader. Both apply the same objects server-side and the outgoing pod
exits moments later.
`--wait` is dropped from the helm step in the same change. Helm decides
a Deployment is ready with the same `replicas - maxUnavailable`
arithmetic, so on the old strategy it was satisfied at zero ready pods
and gated nothing, which is why the broken install got past it as well.
Once the strategy is honest it would gate for real, but on its own 2m
budget, and it would fail the install before the rollout gate ran and
hide the diagnostics behind a bare Helm timeout. Hooks are waited for
with or without the flag, and the release otherwise carries only the
Deployment and its RBAC objects, so the rollout gate is the better
single place to decide the operator is up.
A helm unittest suite pins the strategy and all four preconditions the
surge makes load-bearing: no container or initContainer declares a port,
both listener arguments stay disabled, leader election stays on, and no
probe uses `httpGet`. That last one follows from the two disabled
listeners leaving no port for a probe to reach, and it is the worst of
the four to get wrong, because the others wedge an upgrade while a
`livenessProbe` against a disabled listener crashloops the pod on every
cluster, fresh install included. Only the `httpGet` field is forbidden
rather than the probes themselves, so an `exec` probe stays available.
All four run against all three chart variants, because the template
branches on variant inside the container spec and a port added under one
branch would render for that variant alone.
I checked the suite fails for the right reasons instead of trusting it.
Reverting the strategy, declaring a `containerPort` on the operator
container, declaring one under a single variant branch, declaring one on
an initContainer, pointing a bind-address at a real address, turning
leader election off, and adding a readiness, liveness or startup probe
with `httpGet` each turns it red on its own assert. Inserting a
container ahead of the operator trips the container-name pin before the
argument asserts can start describing the wrong container. An `exec`
probe correctly stays green.
The rationale is split by audience. What an operator applying the
rendered manifest has to respect stays in plain comments and travels
into `_out/assets/cozystack-operator-*.yaml`: why the strategy is what
it is, that no port may be declared or bound, and that leader election
has to stay on. Everything that is only about this repository moves into
a `{{/* */}}` template comment that stops at the chart boundary. That
covers the pointer to the test and which assert pins what, where the
strategy was copied from, why the webhook server on 9443 is not a third
port binder, and why `opensearch-operator` reaches the opposite
conclusion on leader election. The other templates in this chart already
keep maintainer notes that way.
### Screenshots
Not applicable, no UI changes.
### Downstream repositories
I left the boxes empty on purpose rather than to skip the question,
because the honest answer is not one of them and someone else should
make the call.
Walking the trigger map in `docs/agents/contributing.md`, nothing fires.
The `hack/` triggers name `hack/e2e-prepare-cluster.bats`,
`hack/package.mk`, `hack/update-crd.sh` and moves or renames under
`hack/`, and this PR only edits the body of
`hack/e2e-install-cozystack.bats`. The `ansible-cozystack` trigger is
renaming an object the role waits on, and
`deployment/cozystack-operator` keeps its name.
The behaviour that role sees does change, though. It runs `kubectl wait
deployment/cozystack-operator --for=condition=Available`, the same
vacuous check this PR replaces here, so the chart change turns its wait
from one that returns instantly into one that means something. Its
`cozystack_operator_wait_timeout` defaults to 300 seconds, the same
budget I gave the gate here, so a cold image pull fits and I do not
think anything needs to change over there. No follow-up PR seemed
warranted for a change that only makes an existing check work, but that
is a judgement call rather than a trigger, which is why the boxes are
empty.
- [ ] No downstream repository is affected by this change
- [ ] [cozystack/website](https://github.com/cozystack/website) -
follow-up:
- [ ]
[cozystack/terraform-provider-cozystack](https://github.com/cozystack/terraform-provider-cozystack)
- follow-up:
- [ ]
[cozystack/ansible-cozystack](https://github.com/cozystack/ansible-cozystack)
- follow-up:
- [ ] [cozystack/ccp](https://github.com/cozystack/ccp) - follow-up:
- [ ] [cozystack/talm](https://github.com/cozystack/talm) - follow-up:
- [ ] [cozystack/cozyhr](https://github.com/cozystack/cozyhr) -
follow-up:
- [ ] [cozystack/cozy-proxy](https://github.com/cozystack/cozy-proxy) -
follow-up:
- [ ]
[cozystack/cozystack-telemetry-server](https://github.com/cozystack/cozystack-telemetry-server)
- follow-up:
- [ ]
[cozystack/external-apps-example](https://github.com/cozystack/external-apps-example)
- follow-up:
- [ ] [cozystack/examples](https://github.com/cozystack/examples) -
follow-up:
### Release note
```release-note
fix(installer): the cozystack-operator Deployment no longer reports Available with zero running pods. It ran replicas: 1 with maxUnavailable: 1, which made the minimum available replica count 0, so the condition stayed True while the operator was dead and anything reading it, including the E2E install gate, saw green. The rollout strategy is now maxSurge: 1 / maxUnavailable: 0 and the install gate waits for the rollout instead of the condition.
```
<!-- This is an auto-generated comment: release notes by coderabbit.ai
-->
## Summary by CodeRabbit
* **Bug Fixes**
* Improved operator installation checks by monitoring deployment
rollouts and providing deployment, pod, log, and event details when a
rollout fails.
* Updated operator upgrades to maintain availability during rollout,
including in single-node environments.
* Documented rollout requirements and behavior across supported
installation configurations.
* **Tests**
* Added coverage for rollout settings and upgrade compatibility across
supported installation variants.
* Clarified Helm unit-test directory coverage documentation.
<!-- end of auto-generated comment: release notes by coderabbit.ai -->
|
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Aleksei Sviridkin
|
2527e915bd |
fix(e2e): collect diagnostics for unready pods and record every truncated capture (#3567)
## What this PR does The e2e diagnostic tarball exists so a red run can be explained from the uploaded artifact alone. Several of its collectors answered "nothing is wrong" instead — some because they selected on a column that never carries the value they filtered for, others because they stopped early and left nothing saying they had. Both failure modes look identical to a healthy cluster from the outside, which is the worst possible shape for a diagnostic. Four selectors in `hack/cozyreport.sh` and `hack/cozyreport-summary.sh` were reading the wrong thing: - Per-pod evidence was chosen by the STATUS column, so a pod left at `0/1 Running` by a readiness probe that never passes was skipped. That is a common way for a suite to time out, and the artifact carried no trace of the pod the run died on. Selection now compares the two halves of the READY column; terminal `Succeeded`/`Completed` pods stay excluded. - The pending-LoadBalancer section filtered `$4`, which is CLUSTER-IP. CLUSTER-IP holds an address, `None` or `<none>` and never `<pending>`, so that loop had never executed. `<pending>` only ever appears in EXTERNAL-IP, `$5`. - The cozystack-apps section gated all three of its kinds on `kubectl get crd <kind>.apps.cozystack.io`. ApplicationDefinition is a CRD but in a different group, and Tenant comes from an aggregated APIService with no CRD to ask about, so the probe failed and the section never ran. - The kamaji section was gated on `cozy-linstor`'s `linstor-controller` deployment rather than kamaji's own, so a cluster without LINSTOR got no kamaji logs and no TenantControlPlanes — on exactly the runs that need them. The summary had three of its own: the HelmRelease listing printed `$5` where STATUS is the Ready condition's whole message, reducing every failed release to one word like "Helm"; the Flux sources listing used a jsonpath with a nested filter that kubectl rejects outright, so it printed nothing on every report ever taken; and pod AGE was read as `$6`, which shifts whenever RESTARTS prints the `7 (4m12s ago)` form — that is, for exactly the rows worth reading. The second half is bounding. The pod, VM, VMI and services walks now run under a count cap and a wall-clock budget, and every read is individually time-boxed. The point is not the bounds themselves but that each one names itself when it fires: a walk stopped by the cap or the clock leaves `COLLECTION-TRUNCATED.txt`, a pod list that never returned leaves `COLLECTION-FAILED.txt` instead of the empty tree a healthy cluster produces, a log cut short says so on its own last line, and a `--tail` bound is recorded beside the logs rather than inside them, since the platform's controllers log JSON per line and a trailing prose line costs a parser the whole file. A knob value the collector could not use is reported too, so a truncation note quoting `600` is never mistaken for the `10m` somebody actually set. Where `timeout` is absent the reads run unbounded rather than not at all, and the section says which of the two happened, because a missing local binary is not a statement about the cluster. One behaviour change worth stating plainly, because it is a trade and not a pure gain: the per-pod section used to be uncapped and read container logs whole, and it is now bounded by `COZY_REPORT_PODS_MAX` (40), `COZY_REPORT_PODS_BUDGET` (600s) and `COZY_REPORT_POD_TAIL` (2000). Below those thresholds the new tree is a strict superset of the old one — the old selector missed `Running 0/1` entirely and skipped logs for `Pending` pods. Above them the artifact is smaller than before, every drop is named in the tree, and `COZY_REPORT_POD_TAIL=-1` with a larger `COZY_REPORT_PODS_MAX` restores the old reach. Because widening the selection and capping the walk in one change could otherwise let a newly-in-scope pod evict one the uncapped walk always collected, the ordering splits by evidence class before namespace: pods that are not `Running` — the class the collector took before this — all rank ahead of pods that are `Running` but unready, so the cap can only ever drop a pod the old collector did not keep either. `hack/e2e-capture-previous-logs.sh` gets the same treatment: its notes now go to `capture-notes.txt` in the artifact as well as to the job log, and a pod list that never returned is reported as such rather than as "nothing restarted". That script now creates its own output directory before its first line of output, which makes the comment in `hack/e2e-chainsaw/.chainsaw.yaml` wrong about why the once-per-test guard there holds — the only change to that file is the corrected comment, saying the `-d` check keys on whether the catch block already ran rather than on what the helper found. The rest is test coverage — a new `hack/cozyreport.bats`, an extended `hack/capture-previous-logs.bats` — and the removal of `EXIT`-trap cleanup from the bats files those tests now cover. That trap is worth its own note: inside an `@test` body it replaces the one the `bats` binary installs for its own bookkeeping, so a test that then fails prints no TAP line at all. It does not appear as `not ok`; it disappears, and only the `# bats warning: Executed N instead of expected M tests` line at the end distinguishes the run from a green one. A guard test enforces the ban over a named list of files that grows as the remaining ones are converted. ### Testing Every collector this touches is now covered by unit tests that run without a cluster: a new `hack/cozyreport.bats` (166 tests) and an extended `hack/capture-previous-logs.bats` (34), driven through `hack/cozytest.sh`. Ten `hack/*.bats` files run green locally, 265 tests in total, with each file's `@test` count reconciled against its passing count rather than trusted to the exit status — that reconciliation is the point of the trap change, since an exit code answers "did anything fail" and never "did anything run". The guard test that bans `EXIT`-trap cleanup was checked by committing the violation rather than by reading it: a folded `trap 'rm -rf "$tmp"' \` + `EXIT` added to a file on its list turns the guard red and names that file, and removing it turns the guard green again. `shellcheck --shell=sh` over the three changed scripts reports strictly fewer findings than before the change (`hack/cozyreport.sh` SC2086 170 to 116, SC2162 15 to 13; the three SC2102 in `hack/cozyreport-summary.sh` are gone), and `hack/e2e-capture-previous-logs.sh` is clean. The parts that need a cluster — that the bounds fire, and that each one lands in the artifact — are exercised by the e2e run itself, since these collectors run on every failed suite. ### Screenshots Not a UI change. ### Downstream repositories Walked the trigger map in `docs/agents/contributing.md` against the diff. This PR touches `hack/cozyreport.sh`, `hack/cozyreport-summary.sh`, `hack/e2e-capture-previous-logs.sh`, `hack/e2e-chainsaw/.chainsaw.yaml`, ten `hack/*.bats` files and `docs/agents/e2e-testing.md`. Nothing is moved or renamed under `hack/`, no make target changes what it does, and the files downstream consumers key on (`hack/package.mk`, `hack/common-envs.mk`) are untouched. No package, values key, CRD, variant, namespace or release asset is involved. - [x] No downstream repository is affected by this change - [ ] [cozystack/website](https://github.com/cozystack/website) - follow-up: - [ ] [cozystack/terraform-provider-cozystack](https://github.com/cozystack/terraform-provider-cozystack) - follow-up: - [ ] [cozystack/ansible-cozystack](https://github.com/cozystack/ansible-cozystack) - follow-up: - [ ] [cozystack/ccp](https://github.com/cozystack/ccp) - follow-up: - [ ] [cozystack/talm](https://github.com/cozystack/talm) - follow-up: - [ ] [cozystack/cozyhr](https://github.com/cozystack/cozyhr) - follow-up: - [ ] [cozystack/cozy-proxy](https://github.com/cozystack/cozy-proxy) - follow-up: - [ ] [cozystack/cozystack-telemetry-server](https://github.com/cozystack/cozystack-telemetry-server) - follow-up: - [ ] [cozystack/external-apps-example](https://github.com/cozystack/external-apps-example) - follow-up: - [ ] [cozystack/examples](https://github.com/cozystack/examples) - follow-up: ### Release note ```release-note fix(e2e): the diagnostic report now collects per-pod evidence for pods that are Running but not Ready, which it previously skipped, and several collector sections that silently produced nothing now report correctly. Collection that stops early on a bound now says so inside the artifact, so a truncated report can be told apart from a healthy cluster. ``` <!-- This is an auto-generated comment: release notes by coderabbit.ai --> ## Summary by CodeRabbit - **New Features** - Diagnostic reports now prioritize relevant resources and collect bounded pod, VM, service, storage, certificate, and Flux data. - Reports preserve partial results and clearly identify timeouts, unavailable resources, truncation, warnings, and collection failures. - Previous-container logs now include bounded capture, namespace prioritization, failure details, and partial-read evidence. - Reports target the operator workload and safely handle missing dependencies or temporary storage failures. - **Documentation** - Expanded guidance for reliable end-to-end testing and diagnostic report collection. - **Tests** - Added comprehensive coverage for report generation, log capture, failure handling, limits, and portability. <!-- end of auto-generated comment: release notes by coderabbit.ai --> |
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Aleksei Sviridkin
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a20f3620b1 |
fix(e2e): select catch pod logs by the nested release instance label (#3564)
## What this PR does The harbor, openbao and qdrant catch blocks selected pod logs on the app release name. Each of these charts deploys its workload through a nested HelmRelease named `<release>-system` and passes `fullnameOverride: <release>` down to it, so the inner chart stamps `app.kubernetes.io/instance` from its own release name, with the suffix, while object names come from the override, without it. The selector matched no pods, and a failed run collected nothing. - points the three `podLogs` catch collectors at the `-system` instance label - adds a `podLogs` collector for Harbor's CNPG database, which no collector reached before, selected on `cnpg.io/cluster` rather than on the instance label CNPG merely derives from the Cluster name - pins the instance label on a resource in an assert each suite already runs, so a chart renaming that label fails a step instead of quietly emptying a capture - prints the instance label of every pod in the namespace from each test-wide catch, because `podLogs` cannot report that it matched nothing - keeps the unsuffixed value as a second collector in qdrant only, because the parent chart's PVC-cleanup Job labels its pod template with the parent release name and that suite deletes the parent inside a `try:` Harbor renders the same hook and deliberately does not get the same collector: it has no `delete` op, so its parent release is uninstalled only in Chainsaw's cleanup phase, which no catch can observe: catch is a defer inside the step, while the cleaner runs from `t.Cleanup`, after the test function returns. A comment records that asymmetry so the next reader does not restore the collector for symmetry. Each comment states what the pin does and does not cover: it does not catch a wrong value typed into a selector, and it catches nothing when a run fails before reaching the assert. The qdrant comment is equally explicit about how narrow its collector's window is, because the hook always exits 0, so Helm calls it succeeded and `hook-succeeded` takes the pod away; what remains is an uninstall that hangs with Helm still waiting. Telling a lookup's outcomes apart is one helper under `hack/e2e-chainsaw/_lib/` rather than a copy per call site, with the outcome logic split from the kubectl call so it can be pinned without a cluster — the shape `_lib/etcd-probe.sh` already uses. Both the census and the qdrant cleanup listing report through it, differing only in wording. Each lookup keeps stderr apart from the value it captures: kubectl exits 0 while logging that it could not reach an API group, and an aggregated APIService in that state is what a failed run usually looks like, so folding the streams would make the "nothing found" branch unreachable and print that log line as though it were a result. Note what the extraction costs in CI: touching the shared `_lib/` and adding a top-level `hack/*.bats` escalates test-impact analysis from the three suites this change edits to the full Chainsaw suite, so this PR runs everything and is exposed to the whole spread of known flakes. A red suite unrelated to harbor, openbao or qdrant is that exposure, not a defect in this diff. ## Testing - `hack/pod-label-census_test.bats`, 9 cases over the helper's outcomes, run via `hack/cozytest.sh` and picked up by `make unit-tests` through the existing `BATS_UNIT_FILES` glob - mutation-checked rather than assumed: folding stderr back into the captured value, propagating kubectl's exit code out of the helper, and collapsing the failed/empty distinction each turn the suite red, and each is green again on revert - `chainsaw lint test --file` on each of the three suites, and `chainsaw test --no-cluster --config hack/e2e-chainsaw/.chainsaw.yaml --include-test-regex '^$'` over all three, both with v0.2.15, the version the sandbox image pins - `shellcheck --shell=sh` on the helper and on the catch scripts extracted from the YAML - the qdrant step catch driven against a stub kubectl that fails: it reports the failed lookup rather than dying on it - every selector, pin and comment claim checked against the chart that stamps it ### Screenshots Not applicable. ### Downstream repositories - [x] No downstream repository is affected by this change - [ ] [cozystack/website](https://github.com/cozystack/website) - follow-up: - [ ] [cozystack/terraform-provider-cozystack](https://github.com/cozystack/terraform-provider-cozystack) - follow-up: - [ ] [cozystack/ansible-cozystack](https://github.com/cozystack/ansible-cozystack) - follow-up: - [ ] [cozystack/ccp](https://github.com/cozystack/ccp) - follow-up: - [ ] [cozystack/talm](https://github.com/cozystack/talm) - follow-up: - [ ] [cozystack/cozyhr](https://github.com/cozystack/cozyhr) - follow-up: - [ ] [cozystack/cozy-proxy](https://github.com/cozystack/cozy-proxy) - follow-up: - [ ] [cozystack/cozystack-telemetry-server](https://github.com/cozystack/cozystack-telemetry-server) - follow-up: - [ ] [cozystack/external-apps-example](https://github.com/cozystack/external-apps-example) - follow-up: - [ ] [cozystack/examples](https://github.com/cozystack/examples) - follow-up: ### Release note ```release-note fix(e2e): collect harbor, openbao and qdrant pod logs on a failed run ``` <!-- This is an auto-generated comment: release notes by coderabbit.ai --> ## Summary by CodeRabbit * **New Features** * Added pod-label census diagnostics to improve visibility into workload labels during test failures. * Enhanced failure diagnostics for Harbor, OpenBao, and Qdrant by collecting relevant workload and database logs. * Added bounded reporting for missing pods, lookup failures, and incomplete cleanup resources. * **Bug Fixes** * Updated diagnostic selectors and readiness checks to match chart-generated instance labels. * Improved PVC cleanup diagnostics with clearer reporting of remaining resources. * **Tests** * Added coverage for successful, empty, failed, and partial diagnostic results. <!-- end of auto-generated comment: release notes by coderabbit.ai --> |
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Aleksei Sviridkin
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5542ae52b7 |
fix(e2e): budget tenant scheduling separately from workload readiness
The tenant backend Deployment had a single 300s budget to reach condition=Available, and two unrelated variable costs shared it. The first is scheduling. What the suite establishes before that point is two tenant nodes Ready, which is weaker than schedulable: a Ready node still carries node.cilium.io/agent-not-ready until the tenant cilium agent claims it, and a node the bringup has not finished with is SchedulingDisabled. Scheduling took 2m18s and 1m57s in the two tenant suites of one run, leaving the image pull to finish inside what was left. It did not, and both suites failed with the same message for two different shortfalls. Wait for a node that actually accepts a toleration-free Pod before creating the workload, on its own budget and its own failure message. The gate encodes the scheduler's rule for such a Pod (Ready, not unschedulable, no NoSchedule or NoExecute taint) over a custom-columns probe, prints the node table on both outcomes so a timeout names the taint that held it, and treats a failed probe as not-schedulable so an API blip cannot release it. The readiness wait keeps its 300s, now starting from a schedulable node, and dumps deployment, pod and event state when it runs out. Pin the workload image by digest. The tenant workers reach no registry mirror, so nginx is pulled from Docker Hub on every run either way; the digest fixes what that pull returns instead of leaving a floating tag free to change size and content under a fixed deadline. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |
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Aleksei Sviridkin
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115d9bbaaf |
fix(installer): let the operator Deployment report Available honestly
At replicas: 1 with maxUnavailable: 1 the Deployment controller takes the minimum available replica count as 1 - 1 = 0, so the Available condition reports True with no running pod at all. That reading is what every consumer of the status sees: an alert on Available, a health dashboard, or a person reading kubectl get deploy all show green while the operator is dead. The replacement is not a tuned pair, it is the platform default written down. At replicas: 1 the default 25% / 25% resolves to maxSurge 1 and maxUnavailable 0, because the surge rounds up and the unavailability rounds down. So this change stops overriding the default rather than introducing a configuration of its own, and Kubernetes rejects maxUnavailable: 0 together with maxSurge: 0, so the surge could not have gone the other way regardless. The overridden pair was carried over from the earlier cozystack Deployment, where a darkhttpd sidecar published a host port and hostNetwork left a surge pod unschedulable on a single-node cluster. It arrived here in two steps: by the commit before this file was created the sidecar was already gone and no port was declared, yet the pair stayed, so it had outlived its own reason before it was ever copied. That is why looking for a justification in this file's history finds none. With no port declared anywhere in the pod there is no hostNetwork port conflict left, so the surge pod schedules beside the outgoing one; declaring one reintroduces exactly the scheduling failure the pair was added for. Not exercised on a live cluster in this rework. Stay on RollingUpdate rather than move to Recreate, which would fix the condition too, and by a shorter route: MaxUnavailable() reports 0 for any strategy that is not RollingUpdate, so the minimum available replica count becomes replicas - 0 = 1 and the condition is honest without any surge pod at all. The transition was not attempted, and the failure this project fixed in ouroboros 0.8.1 does not transfer to it. There the rollingUpdate block was the one the apiserver defaults onto a Deployment created without one, so it belonged to no applier and outlived the switch to Recreate. This Deployment has carried an explicit block since the commit that created it, and nothing applies it server-side, so whether Recreate would upgrade cleanly is an open question about the field-ownership history of the live object rather than a known rejection. What keeps RollingUpdate here is availability rather than apply semantics: maxUnavailable: 0 leaves the outgoing operator running when the replacement never starts, where Recreate deletes it first and leaves none. Editing the numbers inside the block is upgrade-safe from every state the field can already be in. The surge introduces new windows, and leader election covers less of them than it looks. The operator runs four privileged install steps before mgr.Start(), and the lease is only acquired inside mgr.Start(): the CRD install, the Flux install, the platform source resource and the platform PackageSource. All four therefore run in the incoming pod outside leader election entirely. What the lease does cover is the reconcile loops, the part that would otherwise conflict continuously instead of once at startup. That leaves three seams, and only the first two happen on a healthy upgrade. The routine one is the incoming pod's install steps against the outgoing pod's live reconcile loops, since the outgoing pod ran its own installs at its startup and has been inside mgr.Start() ever since. Those do not contend for the same fields: the installs write as field manager cozystack-operator, while the reconcilers write as cozystack-packagesource-controller and cozystack-package-controller and go mostly to status subresources. Different owners, different objects, so this seam is safe by separation rather than by any shared manager. The second is version skew rather than field contention, and maxSurge: 1 widens it rather than opening it. Under maxSurge: 0 the surge budget counts desired replicas rather than live pods, so the incoming pod is created while the outgoing one may still be Terminating - the overlap existed. What it did not have was a live counterparty: scale-down sends SIGTERM before the new pod is created, and that cancels the manager context, so the old loops were already unwinding. Here the outgoing pod is not signalled until the incoming one is available, so the overlap runs against a fully live reconciler for a termination grace period instead of a vestigial one. The incoming pod reports Ready the instant its container starts, because there is no readiness probe, so its CRD install runs while the outgoing binary's reconcile loops are still live and now writing against a schema the incoming pod has already moved. Old code against a new schema, which no field manager separates. It is bounded rather than benign: the outgoing pod exits on SIGTERM within seconds, a rejected write is transient and the next reconcile repairs it, and no object is left corrupt. Widening the skew, by adding a probe that delays Ready or by a migration the old code cannot round-trip, is what would make this seam matter. The third seam is install against install, and it needs the outgoing pod to be restarting, since a crashlooping pod re-runs its four steps on every restart, which is exactly the broken operator this gate exists to catch. Three of the four steps use server-side apply under the same field manager, so they never conflict and resolve last-writer-wins whenever the two pods carry different manifests. That ordering matters in one direction, and it is accepted here rather than guarded against: the CRD install and the Flux install both apply with Force: true, so an outgoing pod that writes last silently overwrites what the incoming pod has just applied, with no conflict and no error to exit on. The incoming pod is inside mgr.Start() by then and will not apply again until it restarts, so that revert of the upgrade's install phase persists rather than healing itself. Reaching it needs a restart landing in the seconds between the incoming pod's installs and the outgoing pod's SIGTERM. installPlatformSourceResource is the remaining exception, a read-modify-write of a Get followed by Create or by Update with the observed resourceVersion, so two pods running it at once can collide on AlreadyExists or on a conflict; that failure is loud and self-healing, since any error there exits the process and the pod restarts, and the object is not left corrupt. Pin the strategy and all four preconditions the surge makes load-bearing in a unit test: no container or initContainer declares a port, both listener arguments stay disabled, leader election stays on, and no probe uses httpGet. They fail differently and none is visible to the others, since a declared port stops the scheduler, a bound one only fails once the incoming process starts, and a second manager without a lease fails nothing at all until it writes. The httpGet precondition follows from the two disabled listeners leaving no port to target, and it is the worst of the four to get wrong: the other three wedge an upgrade, while a livenessProbe against a disabled listener crashloops the pod on every cluster, including a fresh install where no surge happens. Only the httpGet field is forbidden rather than the probes themselves, because an exec probe stays legitimate. All four are checked against all three variants, because the template branches on variant inside the container spec and a port added under one branch renders for that variant alone. The strategy type is pinned alongside its two values, since maxSurge and maxUnavailable say nothing on their own once the type is no longer RollingUpdate. The listener preconditions are pinned less tightly than the other two, and the test says so rather than implying coverage it does not have. A membership assert has no notion of position while Go's flag package keeps the last occurrence, so a duplicate after the disabled one wins and the assert still passes, while a duplicate before it loses and the assert passes just the same - the test cannot tell those two apart. Moving the disabled flag last fixes the process without making the assert catch anything. Rejecting the two addresses this binary defaults to closes the shape a values-gated block to enable metrics would take, and nothing available here closes an arbitrary address, since helm-unittest cannot express that a flag appears at most once. Note in hack/helm-unit-tests.sh that the loop covers packages/core, which its comment omitted. The suite added here lives there, so a later edit reconciling the loop with the stale comment would have silently stopped running it. Split the rationale by audience rather than keeping it all in shipped comments. What an operator applying the rendered manifest has to respect stays in plain comments and travels into the install artifacts: that the pair is the default, why maxUnavailable must stay 0, that no port may be declared or bound, that no probe may use httpGet, and that leader election has to stay on. Most of what stays in the template comment is what the chart's own suite pins, so it cannot drift out of step with the chart without a test going red: the four preconditions and which assert covers each, and why the variant loop is needed. Three things there are deliberate exceptions, kept because anyone editing the strategy has to know them and no assert can carry them - that the webhook server configured on 9443 is not a port binder, since controller-runtime adds it to the runnables only inside GetWebhookServer() and this binary never calls it; that two overlaps between the pods sit outside the lease; and why RollingUpdate is kept rather than Recreate. Those name what exists. The seam analysis above, which is how each one works, deliberately stays here instead. It describes another file's internals, nothing pins it, and a commit message is fixed in time, so it cannot quietly fall out of date the way a comment can. Assisted-By: Claude <noreply@anthropic.com> Signed-off-by: Aleksei Sviridkin <f@lex.la> |