--- pretty_name: AutoDriDM license: apache-2.0 language: - en task_categories: - question-answering tags: - autonomous-driving - vision-language-models - vlm - benchmark - explainability size_categories: - 1K # AutoDriDM: An Explainable Benchmark for Decision-Making of Vision-Language Models in Autonomous Driving **Paper (arXiv):** https://arxiv.org/abs/2601.14702 **Hugging Face Dataset:** https://huggingface.co/datasets/ColamentosZJU/AutoDriDM AutoDriDM is a **decision-centric**, progressive benchmark for evaluating the **perception-to-decision** capability boundary of Vision-Language Models (VLMs) in autonomous driving. > **This release provides annotations only.** > Please obtain the original images from the official sources (**nuScenes / KITTI / BDD100K**) and align them locally if you want to run image-based evaluation. --- ## ✨ Overview ### Key Facts - **Protocol:** 3 progressive levels — **Object → Scene → Decision** - **Tasks:** 6 tasks (two per level) - **Scale:** **6,650** QA items built from **1,295** front-facing images - **Risk-aware evaluation:** each item includes a 5-level risk label `danger_score ∈ {1,2,3,4,5}` - **High-risk** can be defined as `average danger_score ≥ 4.0` --- ## 🧩 Benchmark Structure AutoDriDM follows a **progressive evaluation** protocol: - **Object Level:** identify key objects and recognize their states - **Scene Level:** understand global context (weather/illumination, special factors) - **Decision Level:** choose driving actions and assess risk levels --- ## 📦 Task List (6 JSON Files) The dataset contains **six tasks**, each provided as a JSON file: ### Object Level (single-choice) - **Object-1 (`Object-1.json`)**: Identify the **key object** that most influences the driving decision. - **Object-2 (`Object-2.json`)**: Determine the **state** of a designated key object (e.g., traffic light state). ### Scene Level (multiple-choice) - **Scene-1 (`Scene-1.json`)**: Recognize **weather / illumination** (e.g., daytime, nighttime, rain, snow, heavy fog). - **Scene-2 (`Scene-2.json`)**: Identify **special scene factors** that potentially affect driving decisions (e.g., accident scene, construction zone). ### Decision Level (single-choice) - **Decision-1 (`Decision-1.json`)**: Select the **optimal driving action** for the ego vehicle. - **Decision-2 (`Decision-2.json`)**: Evaluate the **risk level** of a specified (potentially suboptimal) action. --- ## 🧾 Data Format (JSON) Each file is a JSON array. Each element is an object with the following fields: - `image_name` (string): image identifier/path - In this release, we provide annotations only; `image_name` is intended to be mapped to your local image storage. - `taskX_q` (string): question text for task X - `taskX_o` (string): option list as a single string (e.g., `"A....; B....; C...."`) - `taskX_a` (string): answer letters - **Single-choice tasks:** one letter (e.g., `"C"`) - **Multiple-choice tasks:** comma-separated letters (e.g., `"A,C"`) - `danger_score` (int or string): scenario risk label on a 5-level scale (**1=minimal**, **5=severe**) ### Example (JSON) ```json { "image_name": "images/xxxx.jpg", "task1_q": "...", "task1_o": "A....; B....; C....", "task1_a": "C", "danger_score": "2" } ``` --- ## 🚀 How to Use ### 1) Download Annotations Download the six JSON files from the Hugging Face dataset page: - https://huggingface.co/datasets/ColamentosZJU/AutoDriDM ### 2) Load Annotations in Python ```python import json with open("Object-1.json", "r", encoding="utf-8") as f: data = json.load(f) print(len(data), list(data[0].keys())) ``` ### 3) Local Image Alignment (for image-based evaluation) To evaluate with images, you must: 1. Download the source datasets from the official providers: - nuScenes - KITTI - BDD100K 2. Prepare a local folder (example): - `./images/` 3. Map each `image_name` in JSON to an existing local file path in your environment. --- ## 📌 Citation If you use AutoDriDM in your research, please cite: ```bibtex @article{tang2026autodridm, title={AutoDriDM: An Explainable Benchmark for Decision-Making of Vision-Language Models in Autonomous Driving}, author={Tang, Zecong and Wang, Zixu and Wang, Yifei and Lian, Weitong and Gao, Tianjian and Li, Haoran and Ru, Tengju and Meng, Lingyi and Cui, Zhejun and Zhu, Yichen and others}, journal={arXiv preprint arXiv:2601.14702}, year={2026} } ``` --- ## ⚖️ License This project is released under the **Apache License 2.0**. Some components or third-party implementations may be distributed under different licenses. --- ## 🙏 Acknowledgments We thank the open-source community and dataset providers (**nuScenes, KITTI, BDD100K**) that make this benchmark possible.