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19 Commits
| Author | SHA1 | Message | Date | |
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 Michał Pierzchała
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5cf6414fd2 |
fix(contracts): state the scroll keyboard clip once for every platform (#2537)
* fix(contracts): state the scroll keyboard clip once for every platform * fix(apple): surface the scroll keyboard clip as evidence and a typed reason * refactor(contracts): state the scroll keyboard refusal details once and keep the runner's message The Apple scroll owner rebuilt the refusal per command, discarding the runner's measured message and carrying an unmeasured variant of the error builder for it. The shared reason and hint are now one frozen object in scroll-gesture; the Apple owner adds it to the runner's own error (matched on the typed runner code, transport details kept), and the error builder takes a plain measured occlusion, which only Android produces in-process. The help text names the behaviour in one clause; the hint carries the recovery at the moment it matters. |
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Michał Pierzchała
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0feb4e26a0 |
feat(ios): drive ASWebAuthenticationSession sign-in sheets in place (#2438) (#2448)
* 0.21.1 * feat(ios): drive ASWebAuthenticationSession sign-in sheets in place (#2438) iOS apps that sign in via ASWebAuthenticationSession present the identity provider in com.apple.SafariViewService, out of the app's process. Two facts, both verified live on the iOS 26.2 Simulator, made these flows unautomatable: activating or launching the host cancels the auth session, and the host AX bridge cannot see the sheet because the app stays the AX primaryApp. Serve and drive the sheet in place. A closed registry names the host (shared by the TypeScript and Swift sides under a parity test); the runner reads and drives it without activation and never adopts it as the session target; and the Simulator route detects a running host with a cheap device-scoped ps probe and takes the runner path, since the bridge would serve the occluded app tree as if healthy. open refuses to launch a registered host, and captures carry a system-surface disclosure. Presence is foreground state, not tree content: a torn-down host serves a richer tree than a live one, so content heuristics cannot tell them apart. The never-activate guard is what keeps the foreground predicate sound, which also makes the stale-tree failure mode unrepresentable for this flow. Closes #2438 * chore(gates): register contracts/ios-system-surface in the export snapshot * fix(ios): close the system-surface correctness gaps from review Presence probe: absence and probe failure are no longer reported as "no surface". The probe returns present/absent/unknown and the route takes the runner for anything but a proven absent, so a sheet opened between two captures, or a probe that cannot answer, can no longer fall through to a bridge capture that would answer confidently from the occluded app tree. Only a positive observation is memoized. The probe now matches with pgrep and reads only a matched pid's environment, which is ~3x cheaper than the previous full process-environment dump and stops copying every process's environment. Open guard: the refusal moved to every resolved-host launch and terminate, so the URL, deep-link and launch-args branches that returned before the old check can no longer launch the host. Terminating a host is refused too, since that cancels the presented session just as launching it does. Comparison: the surface identity now reaches SnapshotState, and tap-failure corroboration refuses outright when a baseline and a post-action capture disagree about it, instead of letting app and sheet captures meet in legacy same-presentation matching. Selector routes disclose an iOS system surface through the shared disclosure seam rather than reading only the Android field. The contracts import in the launch path is deferred so the app-lifecycle facade's eager closure stays flat, and the runner's comment prose is trimmed because apple/runner ships to npm as uncompiled source. * fix(ios): route the system-surface probe through the Apple tool provider The probe shelled out with runCmd, so every eligible capture spawned a real process even in provider-backed tests that stub the Apple tool seam — 17 real spawns in one scenario file, which is both wasted work and added latency on timing-sensitive settle paths. It now goes through runAppleToolCommand like the sibling ps probe, so a stubbed provider answers instead of spawning. * fix(ios): disclose a skipped bridge when the surface probe cannot answer Routing an unprovable probe to the runner is right, but the early return also skipped runFallback, so the response lost its warning and kept an identity that could still be compared against a bridge publication. An unknown probe now falls back through the same disclosed path as a bridge failure, with its own reason. * fix(ios): keep surface identity through comparison, find, and probe scope A ps read that carries no SIMULATOR_UDID at all was reported as absence, so an unreadable or truncated environment could route a live sheet to the occluded app tree. Only a scope naming a different device is a real negative now; a missing one stays unknown. The shared post-gesture comparison token used comparisonKey or the backend alone, so an app capture and a sheet capture — both XCTest — compared equal and a sheet appearing or dismissing read as a stable surface. The token now carries the surface, which covers stabilization, verify and settle through the one path they share. Mutating find rebuilt its capture without iosSystemSurfaceBundleId, so the shared disclosure helper could not report the sheet on either outcome. It is preserved now. Each fix has a regression that fails without it. * fix(ios): keep surface identity in verify and settle comparisons `--verify` compared node digests and `--settle` diffed node-only baselines, so an app baseline and an in-place system-surface capture (a web sign-in sheet) were treated as one presentation: a meaningless changed verdict, and a whole-surface replacement presented as an in-surface diff with refs. The pre-action baseline now travels with the surface its capture described, from the resolution and the session frame through to the settled capture, and one module owns the comparison for both routes. Across a surface change no same-surface claim is made: evidence reports the transition instead of a digest comparison, the settled diff and its refs are withheld, and both payloads disclose the transition. * refactor(test): move the cross-surface settle tests onto their source mirror The #2438 cross-surface cases were appended to `settle.test.ts`, taking it over the test-file size ratchet (2528 lines, 2359 at the merge-base). They assert the comparison `post-action-surface.ts` owns, so they move to that module's mirror test file, and the device double plus the trees both files drive move to a sibling fixtures module under `__tests__/` rather than being duplicated. Pure move: every test and every assertion is unchanged, and `settle.test.ts` is back under its merge-base length. * test(daemon): cover the cross-surface settle refusal on the generic route `scroll --settle` and `back --settle` plumb the baseline's surface identity through `baselineSurfaceBundleId`, but nothing asserted it: the generic route had zero coverage of the #2438 refusal, so a regression there would have been silent while the element-targeted route stayed green. Assert the same contract the targeted route guarantees, in both directions and for both commands: no diff is attached across an app/sheet boundary — therefore no tail and no `refsGeneration` — the transition is disclosed, and the settle observation still reports its own verdict alongside that disclosure. Each direction falsifies a different half of the plumbing, so both are needed: dropping the baseline's surface identity fails only the sheet-to-app tests (an app baseline has no surface id to lose), and dropping the settled capture's fails only the app-to-sheet tests. No production change: the plumbing was correct, only untested. * refactor(ios): inline the single-caller surface disclosure wrapper iosSystemSurfaceDisclosure() only mapped provenance-or-nothing onto the shared constant for one caller, so the caller now reads the constant directly and the wrapper is gone. Its test becomes a test of the transition disclosure, which is the function that still earns its place (the "sheet is gone" sentence). readAppleSnapshotResult also called readSystemSurfaceProvenance twice inside one spread; it is bound to a local and read once. * docs(adr): state that a presented surface outranks a requested bundle id prepareActiveCommandContext checks for a presented system surface before it resolves or activates command.appBundleId, so a command naming a different app is still served the sheet. That is intended, but the code does not read that way; the amendment now says it plainly. * refactor(ios): carry the system surface in the capture's comparison lineage A capture of an in-place system surface (a web sign-in sheet) describes a different presentation than a capture of the app, so it must never compare equal to one. The `present` branch of the iOS snapshot route returned a bare fallback, so that capture carried no comparison identity at all, and two comparison sites hand-rolled the distinction from `iosSystemSurfaceBundleId` instead. The probe now reports which host it matched, and the `present` branch goes through `runFallback` like the `unknown` branch beside it, lineaged to `<device>:<host bundle>`. The comparison key then differs from an app capture's by construction, so the surface branch in `hasMatchingPresentation` and the surface concatenation in `snapshotComparisonKey` are gone: both sites are plain key equality again, and neither knows that system surfaces exist. Two captures of the same surface still share a lineage, so they stay comparable with each other. A presented surface is not a bridge failure, so it gets its own warning wording: the bridge is inapplicable here, not unavailable. * refactor(interaction): carry the pre-action baseline as one surface-scoped value The same pre-action tree travelled as a flattened nodes/surface pair at every boundary, and each boundary rebuilt it with a conditional spread. Carry SurfaceScopedNodes itself instead: - ResolvedInteractionTarget gets preAction?: SurfaceScopedNodes, replacing the preActionNodes/preActionSurfaceBundleId pair and the PreActionBaselineFields intersection on all three arms of the union. - SettleObservationCommandOptions gets baseline: SurfaceScopedNodes, replacing baselineNodes/baselineSurfaceBundleId. - RefResolution carries tree: SurfaceScopedNodes instead of nodes plus a loose surfaceBundleId. That retires preActionBaselineFields(), preActionBaseline(), evidenceBaseline(), the local SettleBaseline type, the split-then-reassemble in settleObservationCommand, and the 'preActionNodes' in resolved narrowing tests. SurfaceScopedNodes moves to contracts, where ResolvedInteractionTarget can name it; only two sites now mint one from a SnapshotState. Behaviour is unchanged: the cross-surface guarantees keep their existing tests. * fix(ios): identify a surface capture by what the runner served The `present` path stamped the capture's comparison lineage from the host-side presence probe. That probe answers about a host PROCESS and deliberately stays positive while a dismissed host lingers, so during that window the runner truthfully returned APP content while the route lineaged it to the HOST: the sheet capture before the dismissal and the app capture after it compared equal, and a post-gesture poll could read the transition as a stable surface. Derive the identity from the returned capture's `systemSurface` instead - the runner stamps the surface it actually served - and say which of the two the capture holds in the warning. The probe's host is now evidence only: it names the matched host in a route diagnostic so a lingering window is legible in the daemon log. Other reasons keep their lineage and wording byte for byte. Captures that bypass the route's planning (a pinned backend, a custom-actions read) also reach the runner, and the runner serves the sheet there too. They carried no comparison key at all, so a sheet and app content fell through to legacy presentation matching as one presentation and could corroborate a tap across the two. The capture owner now gives those a surface-scoped identity as well, with no fallback-source residue: nothing fell back. An app capture off the route is untouched. * fix(ios): derive a served surface identity at the one stamping point A runner fallback's comparison identity was decided per call site. The `present` path and the off-route path read the runner's `systemSurface` stamp, but the plain `runFallback` path did not: it stamped the app lineage the route had planned, whatever the runner returned. The probe and the capture are separate observations, so a sheet can appear in the gap between them. With the bridge circuit already disabled for the generation, an app capture and a later sheet capture both received the same app-generation key, so tap corroboration could treat two different surfaces as comparable. `stampFallback` now owns the decision for every runner fallback: the surface the runner served outranks the app lineage the route planned. The reason the bridge was skipped survives either way, and app-generation evidence leaves with the app lineage it describes, so two captures of the same sheet still compare equal. `runSurfaceFallback` keeps only the reason, which is the one thing that path decides. |
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Michał Pierzchała
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bd42b2602f |
fix(ios): serve regular --depth from every snapshot backend (#2431)
* fix(ios): serve regular --depth from every snapshot backend A regular depth-capped request was refused on every runner backend but the recursive tree: the query sweep past depth 1 and private AX at any depth returned no capture, so a plan pinned or deferred to private AX (custom actions, a private AX verdict on the session, the XCTest channel penalty) fell through to the synthetic sparse root, which the daemon then rejected as "regular iOS snapshot presentation requires a valid viewport". Presentation already applies the presented-depth cut to whatever hierarchy a backend acquired, and a depth-capped regular capture is a subset of the unscoped one from the same backend, so the refusal protected nothing the unscoped answer did not already disclose through truncated/effectiveDepth. Delete the gate, declare private AX as regular-depth=presentation-cut, and record the rule in ADR 0004. Closes #2403 * test(ios): prove a private-AX-pinned plan serves regular --depth through acquisition The presentation-package test passes with the old backend depth gate restored, because it calls presentation directly. This runner-bundle test pins private AX, asks for regular depth 1 against the launched host app, and requires the plan to reach acquisition and presentation: a private-ax verdict that is not sparse, more than one node, a real root rect, and a payload no larger than the unscoped capture from the same backend. With the gate restored the plan logs SNAPSHOT_BACKEND_DEPTH_UNSUPPORTED and returns the zero-rect sparse root, and the test fails. |
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Michał Pierzchała
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52420d77e0 |
perf(ios): learn generation-scoped native depth hints in the host AX source (#2427)
The host source remembers the native levels a finished recovery accepted, keyed by resolved target id, app generation, and producer, and sends them as nativeLevelsHint so the guest's first request skips the known rejection. The hint changes request strategy only: delivered depth, node bounds, and completeness rules are unchanged. It is learned only after the delivered tree validated, expires after eight hinted captures, is never renewed by a hinted success, and never crosses apps, generations, or producers; explicit raw-depth requests neither use nor teach it. The route's generation circuit stays the only lifecycle owner. The guest reports its request accounting (requests, rejected, continuations, accepted levels) as recovery, which the host emits as the ios_snapshot_source_recovery diagnostic; the source version moves to v1.5.5. The shared recovery fixture gains the host column of every hint case and the hinted recovery cases, replayed through the source adapter itself. The test app gains a deep-tree screen that reproduces the native depth rejection for paired benchmarks. |
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Michał Pierzchała
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75c3185a02 |
test(ios): run the shared AX recovery fixture through the runner and characterize its depth memory (#2428)
Replay every recovery case of contracts/fixtures/ios-ax-recovery-conformance.json through the runner's real private AX bridge, depth ladder, frontier extension, and completeness verdict, asserting the delivered tree's canonical signature and node count alongside outcome and request accounting. To make that possible RunnerAXSnapshotBridge gains a resolved client/target capture seam and the ladder loop becomes a platform-neutral function; behaviour is unchanged. Add the fixture's hint cases as the runner's accepted-depth memory characterization: each step is a real ladder capture against a client that rejects above the accepted rung, bounded by node budget when the step is not complete and rejected at every depth when it fails, whose observed rejections, accepted rung, and boundedness are asserted before the runner's own learning step records or skips it. |
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Michał Pierzchała
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4d9e7ffe8f |
test(ios): add a shared AX recovery conformance fixture with a host adapter (#2425)
Add contracts/fixtures/ios-ax-recovery-conformance.json, a shared executable recovery contract for the host AX bridge and the XCTest runner's private AX bridge. Every expectation names the outcome, the native request accounting, and the delivered tree as a canonical preorder signature with its retained node count, so a producer that drops, duplicates, reorders, or re-parents nodes cannot pass as complete. The fixture records per-producer expectations and documents the intentional differences (depth vocabulary, ladders, frontier evidence, budgets, ownership and deadlines, hint lifetime). The host adapter is an Objective-C driver over captureSnapshotTree, compiled and run per case by native-runtime.test.ts. The runner adapter and the accepted-depth memory characterization follow in a stacked PR. |
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Bills Booth
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c4dc5621a3 |
fix(ios): avoid replaying alert mutations (#2323)
* fix(ios): avoid replaying alert mutations * docs(alert): state the single-send rule once, without a backend qualifier --------- Co-authored-by: Michał Pierzchała <thymikee@gmail.com> |
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Michał Pierzchała
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172ee149cf |
feat(screenshot): add --crop-on to crop captures to a selector frame (#2276)
* feat(screenshot): add crop-on geometry core and cropTarget selector rows
* feat(screenshot): declare crop-on flag, script round-trip, and snapshot runtime plan
* feat(screenshot): run the crop leaf after the platform write and before scale
* feat(screenshot): expose --crop-on in the CLI and surface crop warnings
* chore(gates): declare crop-on capture-kit subpaths and scope the crop scenario exemption
* refactor(screenshot): split crop target/policy module and trim redundant coverage
Address review comments at
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Michał Pierzchała
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a8ee397168 |
test(ios): add snapshot engine conformance gates (#2213)
* test(ios): add snapshot engine conformance gates * test(ios): align differential acquisition inputs * fix(ios): gate Swift differential on macOS * test(ios): keep differential coverage host-aware * test(ios): own snapshot differential on macOS |
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Michał Pierzchała
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fd4ab84166 |
refactor(ios): define snapshot acquisition and presentation contracts (#2203)
* refactor(ios): define snapshot acquisition and presentation contracts * refactor(ios): isolate snapshot planning exports |
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Michał Pierzchała
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e0cd06e567 |
test(snapshot): add cross-runtime presentation conformance (#1973)
* test(snapshot): add cross-runtime presentation conformance * fix(ios): preserve acquired snapshot actionability * chore(ios): retain existing XCTest selection name * test(snapshot): cover nested cumulative clipping |
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Michał Pierzchała
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7f3e355426 |
fix(ios): preserve regular snapshot depth through structural wrappers (#1947)
* fix(ios): complete regular snapshot depth frontier * fix(ios): align depth frontier with visibility fold * fix(ios): exercise regular depth frontier in CI * fix(ios): cover visible-depth frontier through public snapshot * fix(ios): tolerate absent deep-link confirmation * test(ios): expose visible-depth fixture hierarchy * test(ios): wait for visible-depth fixture subtree * fix(ios): keep visible-depth fixture minimal * fix(ios): update snapshot hint fixtures * test(ios): avoid fixture label aggregation * test(ios): match fixture raw hierarchy * test(ios): prove visible-depth raw ancestry * test(ios): align depth smoke with AX hierarchy |
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Michał Pierzchała
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17da776350 |
feat(ios): add snapshot backend conformance (#1930)
* feat(ios): add snapshot backend conformance * fix(ios): load built SDK at live runtime * test(client): isolate snapshot forwarding regression * refactor(snapshot): keep backend capability metadata internal * fix(test): merge backend conformance imports * fix(snapshot): keep backend forcing internal * refactor(snapshot): isolate backend capability fixtures * refactor(snapshot): keep capability governance internal * fix(ios): align snapshot actionability contract |
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Michał Pierzchała
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be51870118 |
fix: make iOS scroll release controlled (#1906)
* fix: reduce iOS scroll overshoot * fix: make iOS scroll release controlled * fix: make controlled iOS scrolls deterministic * fix: preserve continuous drag sampling |
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Michał Pierzchała
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fed7251336 | fix: calibrate iOS scroll execution (#1905) | ||
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Michał Pierzchała
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9ce1ef7587 |
feat(snapshot): move scope into presentation (#1855)
* feat(snapshot): move scope into presentation Use one preorder label/identifier/value policy across Swift and TypeScript, keep scoped iOS acquisition conservative, and remove the daemon's second scope pass. Non-vacuity: label-only matching failed identifier/value parity fixtures; Android pass-through failed its boundary test; disconnecting Swift applyScope produced eight scope/depth/projection failures. * fix(snapshot): select scopes with presented content * docs(snapshot): describe presentation-owned scope * docs(snapshot): record contribution-aware scope * refactor(snapshot): drop unrelated provider churn * fix(snapshot): accept healthy empty scoped capture * refactor(snapshot): isolate empty-scope admission * fix(snapshot): align scope ownership across runtimes * test(snapshot): pin post-wire scope owner * test(snapshot): retain find test shrink |
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Michał Pierzchała
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294654a3a5 |
fix(android): resolve snapshot scope once and disclose the API 23 occlusion-scan gap (#1832 C1/C2) (#1846)
* fix(android): resolve snapshot scope once and disclose the API 23 occlusion-scan gap (#1832 C1/C2) - Android resolves --scope inside its projection only, under the shared scope specification (matchesSnapshotScope in @agent-device/contracts/snapshot: first document-order match over label/value/identifier, empty on no match). The daemon post-wire scopeSnapshotNodes pass skips the android backend, so scope has one owner and one no-match semantics instead of BFS+fallback followed by document-order+empty. - Golden table contracts/fixtures/snapshot-scope-policy.json is asserted against the predicate, the Android projection, and the daemon pass; the Swift runner twin (#1797) consumes the same table. - androidSnapshot.occlusionScanUnavailable discloses helper trees without drawing-order (API 23), where the covered-sibling pruner cannot run. Disclosure only; C1 stays open until occlusion moves to the daemon annotator. * fix(android): resolve scope over the presented tree and stop dropping it on interaction captures Adversarial review findings on the first commit: - BLOCKER: captureSnapshotData spread `snapshotScope: undefined` over flags, so an interaction capture (press/click/fill/longpress/hover --scope, --settle observation) reached the Android platform unscoped while buildSnapshotState still saw the scope. The post-wire pass used to rescue it; after skipping android it returned the unscoped tree. One effective scope now feeds both. - Scope resolves over the PRESENTED nodes of the requested projection, not the acquired tree, so an acquired match that membership drops no longer empties the snapshot, and Android matches the domain iOS's pass uses. - Slicing after the walk keeps ancestor context (hittable/collection/chrome) above the scope root, so scoped -i is a subset of unscoped -i; --depth stays scope-relative. - Shared findSnapshotScopeRange/reindexSnapshotNodes so the daemon pass and the Android projection run one implementation; scope slice extracted to ui-hierarchy-scope.ts (mirrors its test). - parseUiHierarchy moved to a test fixture module (it had no production caller left). - Golden rows sharpened (value row no longer matches via label on Android); the Android leg runs raw AND regular. CHANGELOG entry; docs wording corrected for iOS/@ref. * fix(layering): keep the contracts snapshot façade exhaustive over snapshot-scope * fix(android): scope to the first match whose subtree still has presented content Review P1 on #1846: with scope resolved strictly over presented nodes, `snapshot -i --scope panel` answered "no nodes" whenever the matched container was a structural view membership drops — even though the button inside it was exactly what was asked for — and `--depth 0` then hid a node the response prints at depth 0. The scope root is now the first document-order match whose subtree contributes at least one node to the requested projection, and the result is that subtree's presented nodes re-rooted at depth 0. Both failure modes die: a decorative match membership drops no longer empties the snapshot, and a dropped container still scopes to its content. `--depth` under scope filters the depths the response emits, so a node shown at depth 0 survives `--depth 0`. Tests: the golden legs stay raw+regular (bare TextViews cannot survive -i, so an -i leg would measure membership, not scope) with the projection interplay pinned by two dedicated tests on actionable shapes; the 'not re-scoped after the wire' case now runs a real parsed scoped tree instead of fabricated depth-0 siblings. |
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Michał Pierzchała
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f843dc2df1 |
fix(scroll): keep saturated scroll gestures out of the status bar; gate Android replays from android/emulator (#1781 A1) (#1820)
* fix(scroll): keep saturated scroll gestures out of the status bar; gate Android replays from android/emulator (#1781 A1) `pnpm gate replay-android` failed 4/8 whenever it ran after the full-tier Android E2E (replays-nightly run 32107665052, job 95620294899): 05-app-lifecycle, 06-swipe-gestures and both fixture replays diverged under "A system surface covers the app". The E2E was not the cause. Reproduced on a pixel_7 / API 36 AVD with the same cutout geometry CI's `avdmanager --device pixel_7` produces (status bar 136px, not the 63px of a plain 1080x2400 skin): - `03-scroll-discovery.ad` runs `scroll up 3`. The scroll planner clamps travel to the viewport minus a 5% band, so the touch-down landed at y=120 — inside the 136px status bar — and pulled the notification shade instead of scrolling. On API 36 the app window is edge-to-edge, so the reported viewport starts at y=0 and includes that bar. - The shade then covered every replay until `04`'s `back` closed it. Native readdir order on the runner (03, 05, 06, fixture/02, fixture/01, 04, 01, 02) put four files in that window; the last green run (2026-07-30) had 04 right after 03, so the pull was masked. Fix in the product, not the lane: DEFAULT_EDGE_PADDING_FRACTION 0.05 -> 0.1 in the TS scroll planner and its Swift port. Every real Pixel has a cutout (5.7% of a Pixel 7's height) and an iPhone's Dynamic Island status bar is 6.9%, so any saturated `scroll up` opened the shade / Notification Center for real agents too. Parity vectors updated in both suites plus a Pixel 7 regression vector (1080x2400, amount 3 -> touch-down y=240 > 136). Second contamination the same order exposed once the shade was gone: `fixture/02-selector-routes-covered-diagnosis.ad` is a #1715 reproduction recipe that FAILS BY DESIGN at step 9 (covered-target refusal) and leaves the device in landscape, yet the gate enumerated `test/integration/replays/android` recursively. iOS keeps gate replays in `replays/ios/simulator` and fixture recipes in `replays/ios/fixture`; Android now mirrors that: the six Settings replays move to `replays/android/emulator`, `test:replay:android` points there, and `fixture/` stays E2E-owned (`full:fixture-replays` already runs 01 by path). android.yml and the workflow-evidence fixture follow the path; the replay-compat manifest keeps the historical paths it pins at released tags. Verified live (Pixel 7 geometry, API 36, --retries 0): control run at main head in CI order reproduces exactly CI's 4/8; with the fix, `pnpm gate replay-android` 6/6 in both native and CI order, and `03` leaves Settings on screen (scroll up 3 now touches down at y=240). * test(scroll): drive the TS and Swift scroll-plan parity vectors from one table (#1820 review) The two suites hand-mirrored the same vectors and #1820 had to edit both by hand — the drift class the repo already closes for the tap-point rule via contracts/fixtures/tap-point-policy.json. The scroll vectors (plus both planner constants, pinned behaviourally on a 1000px axis) now live in contracts/fixtures/scroll-gesture.json; scroll-gesture.test.ts and RunnerTests+ScrollGesture.swift iterate it. Verified: vitest 10/10; the four XCTests run on an iOS 26.2 simulator with the unit flag on (Executed 4 tests, 0 failures). Also: test/ci/android-workflow-evidence.json says what it guards. Follow-up for content-safe viewport bounds + discovery order: #1821. |
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Michał Pierzchała
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415f599c3b |
feat: golden tap-point parity table for TS and the iOS runner (ADR 0011) (#1086)
ADR 0011 Layer 2: the offscreen tap-point rule now has exactly one home per side of the wire, proven equivalent by a shared golden fixture table. - contracts/fixtures/tap-point-policy.json: 12 cases including this week's real bug shapes (closed drawer fully left, 0.07pt edge-grazing container) plus edge-inclusive and empty-frame fail-open semantics. - Swift: pure TapPointPolicy.isAllowed(elementFrame:windowFrame:) extracted; the ELEMENT_OFFSCREEN guard (onScreenWindowFrame stays the frame getter) and hasTappableFrame (Maestro fallback) both delegate the decision to it. Gated XCTest asserts every table case (runs in the existing AGENT_DEVICE_RUNNER_UNIT_TESTS surface CI already compiles). - TS: isTapPointInsideViewport extracted from isNodeVisibleOnScreen (no duplicated math); vitest parity test asserts the same table. - Registry: parityTable wired on direct-ios-selector/offscreen and maestro-non-hittable-fallback/offscreen. |