id large_string | tier int64 | category large_string | length int64 | n_channels int64 | n_channels_a float64 | n_channels_b float64 | question large_string | options list | answer large_string | semantic_class large_string | coupling_kind float64 | coupling_lag float64 | injection_kinds list | injection_channels list | injection_starts list | injection_ends list | channel_names list | channel_values list | seed int64 |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
523a52c125b1e9ad | 2 | classify_with_evidence | 30,377 | 2 | null | null | "Determine whether the time series contains an anomaly and, if so, identify it and its window. Respo(...TRUNCATED) | [] | "classify_with_evidence:{\"_L\": 30377, \"end\": 10596, \"kind\": \"Premature Ventricular Contractio(...TRUNCATED) | classify_pvc_L30377 | null | null | [
"pvc"
] | [
"ECG_0",
"ECG_1"
] | [
10397
] | [
10596
] | [
"ECG_0",
"ECG_1"
] | [[-0.05771057307720184,0.006384850014001131,0.006384850014001131,0.3268619477748871,0.32686194777488(...TRUNCATED) | 1,829,689,390 |
bf2ba44adf2a4f74 | 2 | classify_with_evidence | 7,828 | 2 | null | null | "Determine whether the time series contains an anomaly and, if so, identify it and its window. Respo(...TRUNCATED) | [] | "classify_with_evidence:{\"_L\": 7828, \"end\": 6948, \"kind\": \"Premature Atrial Contraction (APC)(...TRUNCATED) | classify_apc_L7828 | null | null | [
"apc"
] | [
"ECG_0",
"ECG_1"
] | [
6795
] | [
6948
] | [
"ECG_0",
"ECG_1"
] | [[1.028122901916504,1.6703912019729614,0.723890483379364,-0.7634676694869995,-1.6592628955841064,-2.(...TRUNCATED) | 1,716,297,970 |
97278d72c29d5181 | 2 | classify_with_evidence | 16,300 | 2 | null | null | "Determine whether the time series contains an anomaly and, if so, identify it and its window. Respo(...TRUNCATED) | [] | "classify_with_evidence:{\"_L\": 16300, \"end\": 7363, \"kind\": \"Premature Ventricular Contraction(...TRUNCATED) | classify_pvc_L16300 | null | null | [
"pvc"
] | [
"ECG_0",
"ECG_1"
] | [
7095
] | [
7363
] | [
"ECG_0",
"ECG_1"
] | [[-0.19319987297058105,-0.22148174047470093,-0.13663612306118011,-0.051790520548820496,-0.4760185778(...TRUNCATED) | 717,538,798 |
3c94a8d59678da7f | 2 | classify_with_evidence | 8,146 | 2 | null | null | "Determine whether the time series contains an anomaly and, if so, identify it and its window. Respo(...TRUNCATED) | [] | "classify_with_evidence:{\"_L\": 8146, \"end\": 5785, \"kind\": \"Premature Atrial Contraction (APC)(...TRUNCATED) | classify_apc_L8146 | null | null | [
"apc"
] | [
"ECG_0",
"ECG_1"
] | [
5638
] | [
5785
] | [
"ECG_0",
"ECG_1"
] | [[-0.014576652087271214,0.05590348318219185,0.05590348318219185,0.07352351397275925,-0.0145766520872(...TRUNCATED) | 1,442,277,524 |
afc5f35e9b030343 | 2 | classify_with_evidence | 9,630 | 2 | null | null | "Determine whether the time series contains an anomaly and, if so, identify it and its window. Respo(...TRUNCATED) | [] | classify_with_evidence:{"_L": 9630, "kind": "No anomaly"} | classify_none_L9630 | null | null | [] | [] | [] | [] | [
"ECG_0",
"ECG_1"
] | [[0.3640986680984497,0.5186144113540649,0.6731300950050354,0.9821614623069763,1.291192889213562,1.44(...TRUNCATED) | 1,767,646,640 |
e80065de766da2d3 | 2 | classify_with_evidence | 8,942 | 2 | null | null | "Determine whether the time series contains an anomaly and, if so, identify it and its window. Respo(...TRUNCATED) | [] | "classify_with_evidence:{\"_L\": 8942, \"end\": 8430, \"kind\": \"Premature Ventricular Contraction (...TRUNCATED) | classify_pvc_L8942 | null | null | [
"pvc"
] | [
"ECG_0",
"ECG_1"
] | [
8197
] | [
8430
] | [
"ECG_0",
"ECG_1"
] | [[0.4152753949165344,0.4152753949165344,0.6094735264778137,0.5447408556938171,0.6742063164710999,0.7(...TRUNCATED) | 528,424,024 |
d6c755fc2fa91d57 | 2 | classify_with_evidence | 15,818 | 2 | null | null | "Determine whether the time series contains an anomaly and, if so, identify it and its window. Respo(...TRUNCATED) | [] | "classify_with_evidence:{\"_L\": 15818, \"end\": 11556, \"kind\": \"Premature Ventricular Contractio(...TRUNCATED) | classify_pvc_L15818 | null | null | [
"pvc"
] | [
"ECG_0",
"ECG_1"
] | [
11385
] | [
11556
] | [
"ECG_0",
"ECG_1"
] | [[0.05252179130911827,0.08615700155496597,0.11979220807552338,0.2879682779312134,0.18706263601779938(...TRUNCATED) | 611,046,876 |
a9e49ffb34168c63 | 2 | classify_with_evidence | 8,654 | 2 | null | null | "Determine whether the time series contains an anomaly and, if so, identify it and its window. Respo(...TRUNCATED) | [] | "classify_with_evidence:{\"_L\": 8654, \"end\": 8050, \"kind\": \"Premature Ventricular Contraction (...TRUNCATED) | classify_pvc_L8654 | null | null | [
"pvc"
] | [
"ECG_0",
"ECG_1"
] | [
7867
] | [
8050
] | [
"ECG_0",
"ECG_1"
] | [[2.4676454067230225,2.3523778915405273,2.0065760612487793,1.5839290618896484,1.2765495777130127,1.0(...TRUNCATED) | 1,259,381,419 |
f30e5e21d9aa683d | 2 | classify_with_evidence | 11,414 | 2 | null | null | "Determine whether the time series contains an anomaly and, if so, identify it and its window. Respo(...TRUNCATED) | [] | classify_with_evidence:{"_L": 11414, "kind": "No anomaly"} | classify_none_L11414 | null | null | [] | [] | [] | [] | [
"ECG_0",
"ECG_1"
] | [[-0.8801363706588745,-0.6047742962837219,-0.8407989144325256,-0.6047742962837219,-0.840798914432525(...TRUNCATED) | 206,362,941 |
8e4cdebbb844dbf4 | 2 | classify_with_evidence | 7,924 | 2 | null | null | "Determine whether the time series contains an anomaly and, if so, identify it and its window. Respo(...TRUNCATED) | [] | "classify_with_evidence:{\"_L\": 7924, \"end\": 825, \"kind\": \"Premature Atrial Contraction (APC)\(...TRUNCATED) | classify_apc_L7924 | null | null | [
"apc"
] | [
"ECG_0",
"ECG_1"
] | [
627
] | [
825
] | [
"ECG_0",
"ECG_1"
] | [[-0.45735183358192444,-0.5015320181846619,-0.5015320181846619,-0.6782526969909668,-0.23645094037055(...TRUNCATED) | 411,464,330 |
AnomalyXL Generalization
Real-data, out-of-distribution generalization sets for the AnomalyXL time-series anomaly task, from the paper TimeRLM: Recursive Language Models Are General Temporal Reasoners.
Each row is a single, isolated anomaly (or a clean negative) spliced from a real
clinical recording and cast into the exact anomalyxl-precise classify_with_evidence
schema, so the timeseries_qa environment scores it unchanged. Because no synthetic
signal appears here, performance on these sets measures zero-shot transfer of a
recipe trained on AnomalyXL to genuine physiological domains.
The gold span is small relative to its window — a median of 1.7 s of ECG and 17.7 s of sleep signal — so localization is a genuine needle-in-a-haystack task.
Subsets
ltaf-anomaly/ — LTAF ECG (128 Hz)
- Env name:
ltaf_anomaly| channels:ECG_0,ECG_1 - Rows: 250 (200 anomaly / 50 no-anomaly)
- Anomaly: a single premature beat (PVC / APC) in normal sinus rhythm. Gold window: the RR bracket (previous → next beat) around the ectopic beat.
- Kind balance: No anomaly 50 · Premature Atrial Contraction (APC) 99 · Premature Ventricular Contraction (PVC) 101
- Window length: 60–1017 s (median 332 s), i.e. 7,691–130,228 samples.
sleep-anomaly/ — Sleep-PSG (200 Hz)
- Env name:
sleep_anomaly| channels:AIRFLOW,CHEST,ABD,SaO2 - Rows: 250 (200 anomaly / 50 no-anomaly)
- Anomaly: a single respiratory arousal bout (Central Apnea / Obstructive Apnea /
Hypopnea / RERA). Gold window: the bout's native
[start, end)range. - Kind balance: Central Apnea 50 · Hypopnea 50 · No anomaly 50 · Obstructive Apnea 50 · RERA 50
- Window length: 60–640 s (median 313 s), i.e. 12,028–128,003 samples.
Construction
Every positive window is drawn so that it contains exactly one anomaly: the window is
sampled inside a corridor clipped at the nearest neighbouring event, which guarantees no
other event intrudes. 80% of rows are positives (carrying the anomaly kind and a
[start, end) gold window); 20% are negatives (kind No anomaly, no window). Channels
are per-channel z-normalized, and a single unified detect-and-classify prompt is used
for both positives and negatives.
Windows span two length regimes — short (60–300 s) and long (≥ 300 s, stratified so every
anomaly kind is equally represented, capped at ~131k samples to fit a reasoning model's
context budget). Draws are seeded (42 for the short windows, 43 for the long ones), so the set is
reproducible from the raw PhysioNet recordings with the builders released alongside
the benchmark (anomalyXL/generalization_set/).
Schema
Columns follow anomalyxl-precise. Key fields:
answer—"classify_with_evidence:" + json({"kind": <label>, "start": <int>, "end": <int>, "_L": <int>}); for negatives the payload is{"kind": "No anomaly", "_L": <int>}(no window).channel_names/channel_values— the z-normalized series (list of channels).length,n_channels,question,injection_kinds/channels/starts/ends,seed.
Scoring: kind_x_iou = (kind matches) × IoU of the predicted vs gold [start, end);
a correct No anomaly prediction is credited on negatives.
Usage
The timeseries_qa environment takes either a local directory or a Hub shard as
repo_or_path, where a #fragment selects the subset:
vf-eval timeseries_qa -m <model> \
-a '{"dataset":"ltaf_anomaly","repo_or_path":"nz00shuuuu/anomalyxl-generalization#ltaf-anomaly","mode":"rlm"}'
vf-eval timeseries_qa -m <model> \
-a '{"dataset":"sleep_anomaly","repo_or_path":"nz00shuuuu/anomalyxl-generalization#sleep-anomaly","mode":"rlm"}'
Related
Part of the TimeRLM / AnomalyXL collection:
anomalyxl-precise, anomalyxl-coarse, and this generalization set.
Provenance & licensing
Windows are spliced from real clinical recordings (long-term AF ECG; overnight polysomnography). The underlying source recordings retain their original licenses and data-use agreements — consult those before any redistribution or non-research use. This repository is a derived, re-windowed research artifact.
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