tangzx2024/CoLT-Drive

Dataset

CoLT-Drive

0

10 commits

2 linked in READMEs

updated Sep 23, 2026

See the code

README

CoLT-Drive

A counterfactual long-tail benchmark for driving decisions. The driving context (road geometry, ego pose, navigation command, motion history) is held fixed and only the object in the scene changes. The benchmark asks whether a model's decision updates when it should and holds when it should not.

Task

Given a front-camera image and the driving context, output one longitudinal and one lateral action:

AxisActions
Longitudinalkeep_speed, slow_down, yield, creep, stop, speed_up
Lateralkeep_lane, nudge_left, nudge_right

Each sample has an accepted set of action pairs (1 to 14 pairs, 3.5 on average). A prediction is correct if it is in the set.

Splits and composition

Both splits share identical target objects and road geometry and differ only in background traffic.

SplitSamplesBackground traffic
vfull1,768naturalistic
vclean1,768background vehicles removed

50 obstacle types in five categories, grouped by the response they require:

CategorySamples per splitExpected behaviour
false_positive435preserve the nominal action
entity_living348yield or stop
road_hazard348adapt to the hazard
entity_nonliving347slow down or steer around
full_block290stop

Object position is controlled separately: center (1,159), full_lane_blockage (290), left_biased (145), right_biased (145), airborne (29).

Files

vfull/
├── manifest.json          sample ids in order
└── <sample_id>/
    ├── front_camera.jpg
    ├── prompt.txt         driving context shown to the model
    ├── gt.json            accepted action pairs
    └── meta.json          obstacle type, category, position

gt.json is the only ground truth needed for scoring:

{"acceptable_pairs": [{"lon_action": "slow_down", "lat_action": "nudge_left"}]}

meta.json, abridged:

{"sample_id": "NP01_O10_center_v_full", "obstacle_type": "Pothole",
 "obstacle_category": "road_hazard", "position": "center", "navigation": "GO STRAIGHT"}

Usage

hf download tangzx2024/CoLT-Drive --repo-type dataset --local-dir data

Inference and scoring instructions are in the code repository. Scoring uses an LLM judge; fix one judge model across every system you compare.

Limitations

This is an image-level, meta-action benchmark: no physical rollout, no trajectory, no closed-loop feedback. Accepted-set sizes vary by category, so compare within a category rather than across.

License

Apache License 2.0. The evaluation code is released under the same license.

Citation

@inproceedings{tang2026coltdrive,
  title     = {CoLT-Drive: Counterfactual Long-Tail Benchmarking and Knowledge-Preserving Adaptation for Driving Affordance Prediction},
  author    = {Tang, Zhengxu and Cui, Guofeng and Gong, Ziyu and Zhang, Xiaozhou and Deng, Ruifeng and Qi, Chengzhi and Chen, Ke and Patil, Sachin and Xiao, Tianjun and Liu, Langechuan and Wang, Pichao},
  booktitle = {Findings of the Association for Computational Linguistics: EMNLP 2026},
  year      = {2026},
  url       = {https://arxiv.org/abs/2609.00242}
}
autonomous-driving
counterfactual
decision-making
long-tail
vision-language-model

tangzx2024/CoLT-Drive

Dataset

CoLT-Drive

0

10 commits

2 linked in READMEs

updated Sep 23, 2026

See the code

README

CoLT-Drive

A counterfactual long-tail benchmark for driving decisions. The driving context (road geometry, ego pose, navigation command, motion history) is held fixed and only the object in the scene changes. The benchmark asks whether a model's decision updates when it should and holds when it should not.

Task

Given a front-camera image and the driving context, output one longitudinal and one lateral action:

AxisActions
Longitudinalkeep_speed, slow_down, yield, creep, stop, speed_up
Lateralkeep_lane, nudge_left, nudge_right

Each sample has an accepted set of action pairs (1 to 14 pairs, 3.5 on average). A prediction is correct if it is in the set.

Splits and composition

Both splits share identical target objects and road geometry and differ only in background traffic.

SplitSamplesBackground traffic
vfull1,768naturalistic
vclean1,768background vehicles removed

50 obstacle types in five categories, grouped by the response they require:

CategorySamples per splitExpected behaviour
false_positive435preserve the nominal action
entity_living348yield or stop
road_hazard348adapt to the hazard
entity_nonliving347slow down or steer around
full_block290stop

Object position is controlled separately: center (1,159), full_lane_blockage (290), left_biased (145), right_biased (145), airborne (29).

Files

vfull/
├── manifest.json          sample ids in order
└── <sample_id>/
    ├── front_camera.jpg
    ├── prompt.txt         driving context shown to the model
    ├── gt.json            accepted action pairs
    └── meta.json          obstacle type, category, position

gt.json is the only ground truth needed for scoring:

{"acceptable_pairs": [{"lon_action": "slow_down", "lat_action": "nudge_left"}]}

meta.json, abridged:

{"sample_id": "NP01_O10_center_v_full", "obstacle_type": "Pothole",
 "obstacle_category": "road_hazard", "position": "center", "navigation": "GO STRAIGHT"}

Usage

hf download tangzx2024/CoLT-Drive --repo-type dataset --local-dir data

Inference and scoring instructions are in the code repository. Scoring uses an LLM judge; fix one judge model across every system you compare.

Limitations

This is an image-level, meta-action benchmark: no physical rollout, no trajectory, no closed-loop feedback. Accepted-set sizes vary by category, so compare within a category rather than across.

License

Apache License 2.0. The evaluation code is released under the same license.

Citation

@inproceedings{tang2026coltdrive,
  title     = {CoLT-Drive: Counterfactual Long-Tail Benchmarking and Knowledge-Preserving Adaptation for Driving Affordance Prediction},
  author    = {Tang, Zhengxu and Cui, Guofeng and Gong, Ziyu and Zhang, Xiaozhou and Deng, Ruifeng and Qi, Chengzhi and Chen, Ke and Patil, Sachin and Xiao, Tianjun and Liu, Langechuan and Wang, Pichao},
  booktitle = {Findings of the Association for Computational Linguistics: EMNLP 2026},
  year      = {2026},
  url       = {https://arxiv.org/abs/2609.00242}
}
autonomous-driving
counterfactual
decision-making
long-tail
vision-language-model