The registry closed a track when the *tracker's* timestamp passed
`track_extinction_sec`. But votes arrive from the matcher, which is a separate
KPN node behind a channel, and much the slower of the pair. Backpressure —
working exactly as AR-004 intends — turns that channel's depth into lag, so
the tracker's clock can be far ahead of the last frame anybody has voted on.
Tracks were therefore closed before their evidence arrived: the votes landed
on ids that no longer existed, were counted as dropped, and the track was
emitted unowned or not at all.
The symptom is the part worth remembering: **a deeper channel produced fewer
identifications, from identical input.** On the SuperHero fixture, 5 actors /
16 windows at depth 32 against 3 actors / 5 windows at depth 10322; through
the replay harness, capacity 32 gave 5 actors and 10322 gave 0. A throughput
knob was silently changing the answer, which makes every sweep tuned against
it suspect.
The fix is not to bound the channel against `track_extinction_sec` — that
makes an algorithm constant police a throughput knob and leaves the result a
function of scheduling. It is to reap on an evidence watermark: the matcher
advances it as it folds each frame in, and a track is only finished once
everything up to its extinction point has actually been voted on. Same device
`SceneBoundaries::scored_through()` uses for the AR-010 join — a consumer past
that point is asking about frames nobody has looked at yet, and the honest
answer is to wait rather than guess.
Association keeps the tracker's clock, and separating the two is the other
half. They answer different questions: "may this detection link to that
track?" is asked now, about a box seen `track_extinction_sec` ago; "is that
track finished?" cannot be answered until every vote is in. Deferring
association to the evidence clock — which deferring the erase alone did — left
retired tracks associable for as long as the matcher lagged, so a new face
re-associated onto a long-dead track and two people merged into one window.
The watermark is monotonic and only ever *delays* a reap, so no window is
extended by it: AR-013's "a window ends at the last sighting, never after" is
a property of `emit_locked`, which takes `last_seen` and never `now`.
`dropped_votes` is exposed and reported — by main at shutdown and through the
replay bindings — because this failed silently for as long as it did precisely
because nothing counted it. It warns rather than aborts: a dropped frame means
the output describes footage nobody analysed and is always wrong, while a
dropped vote degrades a claim without falsifying it, and there is no
measurement yet of how often it happens on real content.
replay.py's channel capacity stops being the whole film. It was sized that way
to dodge a PyNode overflow drop that AR-004 has since replaced with parking,
and removing backpressure that way is what made the defect above so extreme.
Tag separators in kpn_bindings.cpp corrected to pipes between requirement
types, which the traceability gate was reporting as diagnostics; the matrix is
regenerated and reports 0 orphan tags.
149/149.
TRACES: AR-004, AR-012, AR-013, AR-025 | VR-011 | SR-002 | PR-002
| ID | Requirement | Traces to | Priority | Status |
| ID | Requirement | Traces to | Priority | Status |
|---|---|---|---|---|
|---|---|---|---|---|
| VR-001 | HDF5 post-inference dump at the embedded-frame boundary | PR-002 | High | Done |
| VR-001 | HDF5 post-inference dump at the embedded-frame boundary | PR-002 | High | Done |
| VR-002 | Replay drives the **real** KPN nodes, not a reimplementation | PR-002 | High | **In Progress, and worse than it looked.** The C++ side is real (`tests/test_replay_fixtures.cpp`, determinism asserted). The *Python* side is not runnable: `sae_kpn` has not compiled since the AR-007/AR-008 redesign — the binding builds `FaceTrackerFunc` from a `Config` alone, and the tracker has required a registry and a calibration since. Any `.so`in a stale `build/` predates that. Now behind `SAE_BUILD_KPN_BINDINGS=OFF` so the breakage is attributed rather than rediscovered; fixing it is VR-011. **Also correct the fixture claim:** the dumps are *not* committed (`tests/fixtures/dumps/.gitignore`) — they are Gitea package-registry artifacts, pulled by the CI job |
| VR-002 | Replay drives the **real** KPN nodes, not a reimplementation | PR-002 | High | **Done** — including the sink, as of VR-011. Worth recording what the reimplementation was hiding: `build_minimal` rebuilt windows in Python from per-frame annotations, which never consult the registry, so it kept producing plausible output while registry-based presence in replay was returning **nothing at all**. The first run of the real chain emitted 0 actors on a film where 1647 frames carried an identified face. A reimplementation does not merely risk disagreeing with the pipeline; it can conceal the pipeline being broken |
| VR-003 | Scoring: micro-F1 against X-Ray, precision/recall logged at every evaluation | PR-002 | High | Done |
| VR-003 | Scoring: micro-F1 against X-Ray, precision/recall logged at every evaluation | PR-002 | High | Done |
| VR-004 | Reproducible validation corpus with ground truth | PR-002 | High | Done |
| VR-004 | Reproducible validation corpus with ground truth | PR-002 | High | Done |
| VR-005 | Minimum face size study — TPI/FPI vs probe size, gallery held at native res | PR-002 | Medium | **Done** — knee at 24–32 px; 32 px gives 98.1% TPI, 0.0 FPI at every size. Degrades an already-aligned 112×112 crop, so it isolates the embedder and is an **upper bound**; VR-013 measures the same question end to end and AR-002 takes its number, not this one |
| VR-005 | Minimum face size study — TPI/FPI vs probe size, gallery held at native res | PR-002 | Medium | **Done** — knee at 24–32 px; 32 px gives 98.1% TPI, 0.0 FPI at every size. Degrades an already-aligned 112×112 crop, so it isolates the embedder and is an **upper bound**; VR-013 measures the same question end to end and AR-002 takes its number, not this one |
| VR-008 | Gallery scaling benchmark — throughput vs gallery size | PR-002 | Medium | Planned |
| VR-008 | Gallery scaling benchmark — throughput vs gallery size | PR-002 | Medium | Planned |
| VR-009 | Verify accumulated posteriors are calibrated against held-out tracks | PR-002 | High | Planned |
| VR-009 | Verify accumulated posteriors are calibrated against held-out tracks | PR-002 | High | Planned |
| VR-010 | Dump provenance attributes — embedder model, detector settings, `dense_scale`, `scene_detect`, sample rate | PR-002 | **High** | **Done** — `DumpProvenance` in `embedding_dump_node.hpp`, written as root attributes and read back tolerantly. Every field is optional so a pre-VR-010 dump reads as *unknown* rather than as a default; a silently-defaulted `detector_conf` is exactly the fabricated provenance this exists to prevent. This row said `Planned` while five VR-010 tags sat in the code — stale in the opposite direction to the rest of this register |
| VR-010 | Dump provenance attributes — embedder model, detector settings, `dense_scale`, `scene_detect`, sample rate | PR-002 | **High** | **Done** — `DumpProvenance` in `embedding_dump_node.hpp`, written as root attributes and read back tolerantly. Every field is optional so a pre-VR-010 dump reads as *unknown* rather than as a default; a silently-defaulted `detector_conf` is exactly the fabricated provenance this exists to prevent. This row said `Planned` while five VR-010 tags sat in the code — stale in the opposite direction to the rest of this register |
| VR-011 | Rewrite the replay harness for the post-AR-012 output contract | PR-002 | High | Planned |
| VR-011 | Rewrite the replay harness for the post-AR-012 output contract | PR-002 | High | **Done** — `sae_kpn` compiles again and the replay drives the whole chain including `ResultSinkFunc`, so presence comes from `TrackRegistry` claims rather than being rebuilt in Python. The three per-node factories are replaced by one `add_pipeline` that mirrors `main.cpp`'s construction order — the ordering constraint (matcher fits the calibration, registry needs a discounter from it, tracker needs both, sink needs the claims) is what a factory-per-node API could not express, and is why the tracker factory kept building `FaceTrackerFunc{cfg}` against a signature that had stopped existing. `build_minimal` and `anneal_sec` are gone. Verified end to end on the SuperHero fixture: 5 actors, 32 windows, 0 dropped votes |
| VR-012 | Quality-knee study — TPI/FPI vs sharpness and vs pose, as VR-005 did for size; also settles whether the 5-point pose proxy needs a dedicated landmark model | PR-002 | Medium | Planned |
| VR-012 | Quality-knee study — TPI/FPI vs sharpness and vs pose, as VR-005 did for size; also settles whether the 5-point pose proxy needs a dedicated landmark model | PR-002 | Medium | Planned |
| VR-014 | Audio-signature **offset recovery on real content** — a known trim recovered from film audio, not from the synthetic golden tone | PR-002 | Medium | **Done** — 40 random in-cap offsets, every one recovered to the nearest frame: **worst error 46 ms against a 500 ms budget**, and 46 ms is the floor rather than a result, since the offset is quantised to whole 92.88 ms frames. The `runtime/2` anchor confirmed through real head-trimmed files (a `delta` trim moves the window by `delta/2`). The one soft spot is **tier labelling, not accuracy**: the score falls with sub-frame misalignment (0.94–0.99 near a frame boundary, 0.69–0.73 at half a frame), so 27/40 correct alignments were demoted to `loose`. ±1 frame of slack in the *score* fixes it — measured, all 40 back to `audio` (min 0.906), false matches unmoved at 0.12–0.16, costing 81 ms of the budget |
| VR-014 | Audio-signature **offset recovery on real content** — a known trim recovered from film audio, not from the synthetic golden tone | PR-002 | Medium | **Done** — 40 random in-cap offsets, every one recovered to the nearest frame: **worst error 46 ms against a 500 ms budget**, and 46 ms is the floor rather than a result, since the offset is quantised to whole 92.88 ms frames. The `runtime/2` anchor confirmed through real head-trimmed files (a `delta` trim moves the window by `delta/2`). The one soft spot is **tier labelling, not accuracy**: the score falls with sub-frame misalignment (0.94–0.99 near a frame boundary, 0.69–0.73 at half a frame), so 27/40 correct alignments were demoted to `loose`. ±1 frame of slack in the *score* fixes it — measured, all 40 back to `audio` (min 0.906), false matches unmoved at 0.12–0.16, costing 81 ms of the budget |
| VR-015 | Per-node cost and bottleneck attribution for a run — where the time actually goes | PR-004 | High | **Done** — `--benchmark <path>` on `scene_analyze`; `src/benchmark.hpp`. Reports cumulative CPU and wall time per node, and locates the pacing node from sampled channel occupancy rather than from time-in-node, which backpressure inflates. Verified UT-120…UT-124 |
| VR-015 | Per-node cost and bottleneck attribution for a run — where the time actually goes | PR-004 | High | **Done** — `--benchmark <path>` on `scene_analyze`; `src/benchmark.hpp`. Reports cumulative CPU and wall time per node, and locates the pacing node from sampled channel occupancy rather than from time-in-node, which backpressure inflates. Verified UT-120…UT-124 |
| VR-013 | Cross-source identification probe — gallery from one recording, probes from another, swept over input resolution end to end | PR-002 | Medium | **In Progress** — holding 90% of the plateau needs ~50 px end to end against VR-005's ~22 px, the gap being detection and landmark error; **`min_face_px` 40, since 32 admits faces in the falling region** (AR-002). FPI 0.0% at every scale. Ceiling is cross-view, not resolution |
| VR-013 | Cross-source identification probe — gallery from one recording, probes from another, swept over input resolution end to end | PR-002 | Medium | **In Progress** — holding 90% of the plateau needs ~50 px end to end against VR-005's ~22 px, the gap being detection and landmark error; **`min_face_px` 40, since 32 admits faces in the falling region** (AR-002). FPI 0.0% at every scale. Ceiling is cross-view, not resolution |
| VR-016 | **Cut-detection cadence study** — is `cut_threshold` 0.70 meaningful at the rate `camera_pos` is actually fed? | PR-002 | Medium | **Planned.** The histogram cut detector is the one always-on signal with no recorded provenance, and its input rate is not the rate it was fitted at. With `--scene-detect` off, `camera_pos` sits downstream of a source already decimated to `sample_fps`, so at the 1.0 default it compares frames **one second apart** — inside a single shot those differ enormously, and 0.70 correlation is a low bar to clear. With `--scene-detect` on it sees native-rate frames instead, so the same constant means two different things depending on an unrelated flag. This is AR-011's argument ("every model gets the input it was trained for") applied to a non-neural detector, and it matters because `is_cut` drives `track_alpha` to 0 and clears every expansion buffer. Cheap first measurement: run `camera_pos` over a `hero/` clip at 1/2/5 fps and compare cut counts against `tests/fixtures/dumps/scene_bounds.json`. The committed 5 fps dump shows 2.6% of frames flagged; nobody has measured 1 fps |
| VR-016 | **Cut-detection cadence study** — is `cut_threshold` 0.70 meaningful at the rate `camera_pos` is actually fed? | PR-002 | Medium | **Planned.** The histogram cut detector is the one always-on signal with no recorded provenance, and its input rate is not the rate it was fitted at. With `--scene-detect` off, `camera_pos` sits downstream of a source already decimated to `sample_fps`, so at the 1.0 default it compares frames **one second apart** — inside a single shot those differ enormously, and 0.70 correlation is a low bar to clear. With `--scene-detect` on it sees native-rate frames instead, so the same constant means two different things depending on an unrelated flag. This is AR-011's argument ("every model gets the input it was trained for") applied to a non-neural detector, and it matters because `is_cut` drives `track_alpha` to 0 and clears every expansion buffer. Cheap first measurement: run `camera_pos` over a `hero/` clip at 1/2/5 fps and compare cut counts against `tests/fixtures/dumps/scene_bounds.json`. The committed 5 fps dump shows 2.6% of frames flagged; nobody has measured 1 fps |
| VR-017 | **Vote-lag study** — how often does the matcher fall more than `track_extinction_sec` behind the tracker on real content? | PR-002 | **High** | **Planned.** Channel depth is a correctness parameter between `face_tracker` and `identity_matcher`, and the constraint runs opposite to the scene join's: there `kSceneJoinDepth` must EXCEED the TransNetV2 window, here the depth must be UNDER `track_extinction_sec × sample_fps`. Backpressure is what makes it bite — it is working, and a lossless channel converts depth into lag by design. Both nodes are 16 deep in `main.cpp`, which at the default `sample_fps` 1.0 is ~16 s of lag against a 5 s window, so `scene_analyze` can drop identity votes and until now said nothing. It now reports `dropped_votes` at shutdown; this row is the measurement that decides whether that should be fatal, and whether the right fix is bounding the depth or removing the coupling (reap on the matcher's clock rather than the tracker's, so a vote cannot be late by construction) |
Denominators are read from [`requirements.md`](requirements.md) at run time, never hardcoded. Coverage counts a requirement only when it is tagged in source **and** has a verification tier this repo's CI host can execute (`T1, T2, T3, static`).
Denominators are read from [`requirements.md`](requirements.md) at run time, never hardcoded. Coverage counts a requirement only when it is tagged in source **and** has a verification tier this repo's CI host can execute (`T1, T2, T3, static`).
@@ -11,12 +11,12 @@ Denominators are read from [`requirements.md`](requirements.md) at run time, nev
| Metric | Value |
| Metric | Value |
|---|---|
|---|---|
| Source files scanned | 118 |
| Source files scanned | 119 |
| TRACES tags found | 215 |
| TRACES tags found | 239 |
| EXCEPTION tags found | 1 |
| EXCEPTION tags found | 1 |
| Requirements defined | 71 |
| Requirements defined | 72 |
| Requirements covered | 42 |
| Requirements covered | 42 |
| **Coverage** | **59.2%** (42/71) |
| **Coverage** | **58.3%** (42/72) |
| Coverage of CI-executable scope | 73.7% (42/57) |
| Coverage of CI-executable scope | 73.7% (42/57) |
| Tagged but unexecuted in CI | 10 |
| Tagged but unexecuted in CI | 10 |
| Orphan tags | 0 |
| Orphan tags | 0 |
@@ -29,7 +29,7 @@ Denominators are read from [`requirements.md`](requirements.md) at run time, nev
- **IT** tags present (separate taxonomy, not counted in coverage): IT-001
- **IT** tags present (separate taxonomy, not counted in coverage): IT-001
@@ -56,6 +56,7 @@ These requirements have no verification tier this repo's CI host can run, so a t
| VR-012 | T4, out-of-ci | no | Quality-knee study — TPI/FPI vs sharpness and vs pose, as VR-005 did … |
| VR-012 | T4, out-of-ci | no | Quality-knee study — TPI/FPI vs sharpness and vs pose, as VR-005 did … |
| VR-013 | T4, out-of-ci | yes | Cross-source identification probe — gallery from one recording, probe… |
| VR-013 | T4, out-of-ci | yes | Cross-source identification probe — gallery from one recording, probe… |
| VR-015 | out-of-ci | yes | Per-node cost and bottleneck attribution for a run — where the time a… |
| VR-015 | out-of-ci | yes | Per-node cost and bottleneck attribution for a run — where the time a… |
| VR-017 | out-of-ci | no | **Vote-lag study** — how often does the matcher fall more than `track… |
**Tagged but unexecuted:** AR-027, VR-001, VR-002, VR-003, VR-004, VR-005, VR-010, VR-011, VR-013, VR-015 — a test exists and is tagged, but this CI host cannot run it. Report those runs separately.
**Tagged but unexecuted:** AR-027, VR-001, VR-002, VR-003, VR-004, VR-005, VR-010, VR-011, VR-013, VR-015 — a test exists and is tagged, but this CI host cannot run it. Report those runs separately.
@@ -86,19 +87,19 @@ Deliberate, documented departures from an invariant (`EXCEPTION: XX-nnn <reason>
| AR-008 | **Done** — one pool… | T2 | SR-002 | covered | `src/config.hpp`, `src/main.cpp`, `src/nodes/face_tracker_node.hpp`, `tests/test_face_tracker.cpp` | One track pool keyed on `last_seen`; no separate revival path |
| AR-008 | **Done** — one pool… | T2 | SR-002 | covered | `src/config.hpp`, `src/main.cpp`, `src/nodes/face_tracker_node.hpp`, `src/track_registry.hpp`, `tests/test_face_tracker.cpp`, `tests/test_track_registry.cpp` | One track pool keyed on `last_seen`; no separate revival path |
| AR-009 | Done | T2 | SR-002 | covered | `src/nodes/camera_position_change_detector_node.hpp` | Camera-cut detection (histogram) as an association hint |
| AR-009 | Done | T2 | SR-002 | covered | `src/nodes/camera_position_change_detector_node.hpp` | Camera-cut detection (histogram) as an association hint |
| AR-010 | **Done** — decode b… | T2 | SR-002 | covered | `src/main.cpp`, `src/nodes/scene_boundary_annotator_node.hpp`, `src/nodes/scene_detector_node.hpp`, `src/scene_boundaries.hpp` | Scene-boundary detection (TransNetV2) as an association hint |
| AR-010 | **Done** — decode b… | T2 | SR-002 | covered | `src/main.cpp`, `src/nodes/scene_boundary_annotator_node.hpp`, `src/nodes/scene_detector_node.hpp`, `src/scene_boundaries.hpp`, `tests/test_scene_detector_node.cpp` | Scene-boundary detection (TransNetV2) as an association hint |
| AR-011 | **Done** — both vio… | T1, T2 | SR-002 | covered | `src/config.hpp`, `src/nodes/scene_detector_node.hpp`, `src/scene_boundaries.hpp`, `tests/test_scene_detector_node.cpp` | **Every model is fed the input it was trained for** — cost reduced by… |
| AR-011 | **Done** — both vio… | T1, T2 | SR-002 | covered | `src/config.hpp`, `src/nodes/scene_detector_node.hpp`, `src/scene_boundaries.hpp`, `tests/test_scene_detector_node.cpp` | **Every model is fed the input it was trained for** — cost reduced by… |
| AR-014 | **Done** — swap clo… | T2 | SR-002 | covered | `src/track_registry.hpp`, `tests/test_track_registry.cpp` | Belief swap A→B terminates the track and starts a new one |
| AR-014 | **Done** — swap clo… | T2 | SR-002 | covered | `src/track_registry.hpp`, `tests/test_track_registry.cpp` | Belief swap A→B terminates the track and starts a new one |
| AR-015 | **Done** — reverse … | T2 | SR-002 | covered | `src/track_registry.hpp`, `tests/test_track_registry.cpp` | Two live tracks owned by one actor ⇒ treat as a detected cut, re-asso… |
| AR-015 | **Done** — reverse … | T2 | SR-002 | covered | `src/track_registry.hpp`, `tests/test_track_registry.cpp` | Two live tracks owned by one actor ⇒ treat as a detected cut, re-asso… |
| AR-016 | **Done** — `flush()… | T2 | SR-002 | covered | `src/main.cpp`, `src/nodes/result_sink_node.hpp`, `src/track_registry.hpp`, `tests/test_track_registry.cpp` | All tracks closed at EOF — a film ends with faces on screen |
| AR-016 | **Done** — `flush()… | T2 | SR-002 | covered | `src/kpn_bindings.cpp`, `src/main.cpp`, `src/nodes/result_sink_node.hpp`, `src/track_registry.hpp`, `tests/test_track_registry.cpp` | All tracks closed at EOF — a film ends with faces on screen |
| AR-017 | **Done** — `DeadTra… | T1, T2 | SR-002 | covered | `src/config.hpp`, `src/nodes/result_sink_node.hpp`, `src/track_registry.hpp`, `tests/test_track_registry.cpp` | Every presence claim carries its belief and identification route |
| AR-017 | **Done** — `DeadTra… | T1, T2 | SR-002 | covered | `src/config.hpp`, `src/nodes/result_sink_node.hpp`, `src/track_registry.hpp`, `tests/test_track_registry.cpp` | Every presence claim carries its belief and identification route |
| DP-001 | **Done, after a rep… | T1, manual | PR-004 | covered | `src/main.cpp`, `src/scene_preview.cpp` | One analysis core; modes are front-ends and must not fork pipeline lo… |
| DP-001 | **Done, after a rep… | T1, manual | PR-004 | covered | `scripts/optimizer/replay.py`, `src/kpn_bindings.cpp`, `src/main.cpp`, `src/scene_preview.cpp` | One analysis core; modes are front-ends and must not fork pipeline lo… |
| DP-002 | Done | T1, manual | PR-004 | covered | `src/main.cpp` | Batch CLI over one title |
| DP-002 | Done | T1, manual | PR-004 | covered | `src/main.cpp` | Batch CLI over one title |
| VR-014 | **Done** — 40 rando… | T2, out-of-ci | PR-002 | covered | `scripts/validation/test_audio_offset.py` | Audio-signature **offset recovery on real content** — a known trim re… |
| VR-014 | **Done** — 40 rando… | T2, out-of-ci | PR-002 | covered | `scripts/validation/test_audio_offset.py` | Audio-signature **offset recovery on real content** — a known trim re… |
| VR-015 | **Done** — `--bench… | out-of-ci | PR-004 | tagged, unexecuted | `src/backends/trt_backend.cpp`, `src/benchmark.hpp`, `src/config.hpp`, `src/main.cpp`, `tests/test_benchmark.cpp` | Per-node cost and bottleneck attribution for a run — where the time a… |
| VR-015 | **Done** — `--bench… | out-of-ci | PR-004 | tagged, unexecuted | `src/backends/trt_backend.cpp`, `src/benchmark.hpp`, `src/config.hpp`, `src/main.cpp`, `tests/test_benchmark.cpp` | Per-node cost and bottleneck attribution for a run — where the time a… |
- [`scripts/optimizer/replay.py:5`](../scripts/optimizer/replay.py#L5) — `Reads an embedding dump (scripts/optimizer/SCHEMA.md), feeds each frame as an`
- [`scripts/optimizer/replay.py:5`](../scripts/optimizer/replay.py#L5) — `Reads an embedding dump (scripts/optimizer/SCHEMA.md), feeds each frame as an`
- [`scripts/optimizer/replay.py:5`](../scripts/optimizer/replay.py#L5) — `Reads an embedding dump (scripts/optimizer/SCHEMA.md), feeds each frame as an`
- [`scripts/optimizer/replay.py:5`](../scripts/optimizer/replay.py#L5) — `Reads an embedding dump (scripts/optimizer/SCHEMA.md), feeds each frame as an`
- [`scripts/optimizer/replay.py:120`](../scripts/optimizer/replay.py#L120) — `ending at the last sighting (AR-013) -- and are byte-for-byte the same`
- [`scripts/optimizer/replay.py:5`](../scripts/optimizer/replay.py#L5) — `Reads an embedding dump (scripts/optimizer/SCHEMA.md), feeds each frame as an`
- [`scripts/optimizer/replay.py:120`](../scripts/optimizer/replay.py#L120) — `ending at the last sighting (AR-013) -- and are byte-for-byte the same`
- [`scripts/optimizer/replay.py:174`](../scripts/optimizer/replay.py#L174) — `if i < len(frames):`
// Only once the evidence clock passes last_seen + extinction does it close.
reg.advance_evidence(4.0);
CHECK(sink.claims.empty());
reg.advance_evidence(6.0);
REQUIRE(sink.claims.size()==1);
CHECK(sink.claims[0].actor_idx==3);
// AR-013 still holds: the window ends at the last sighting, never at the
// moment of death, and never at the watermark that authorised it.
CHECK(sink.claims[0].last_seen==0.0);
}
/// TRACES: UT-001 | AR-008, AR-013 | SR-002
TEST_CASE("a track retired from association is still open to evidence",
"[registry][AR-008]"){
// The two clocks answer different questions and must not share an answer.
// Association asks "may this detection link to that track?" on the tracker's
// clock; reaping asks "is that track finished?" and cannot answer until the
// votes are in. Deferring both to the evidence clock was the second half of
// this bug: retired tracks lingered in the candidate pool for as long as the
// matcher lagged, so a new face re-associated onto a long-dead track and two
// people merged into one window.
TrackRegistryreg(cfg(/*extinction=*/5.0),disc());
Sinksink;sink.attach(reg);
reg.expect_evidence();
intid;
{
autos=reg.begin_frame(0.0);
id=s.create(0.0,axis(1));
s.mark_lost(id,0.0);
}
{
autos=reg.begin_frame(3.0);// inside the window
CHECK(s.candidates().size()==1);// still associable
}
{
autos=reg.begin_frame(50.0);// far outside it
CHECK(s.candidates().empty());// retired from association...
}
// ...but not gone, and still able to receive the votes in flight for it.
reg.observe(id,7,0.99f,axis(1));
CHECK(reg.dropped_votes()==0);
reg.advance_evidence(50.0);
REQUIRE(sink.claims.size()==1);
CHECK(sink.claims[0].actor_idx==7);
}
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