Add paper, project and code links; add license and robotics metadata

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by nielsr HF Staff - opened
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  1. README.md +81 -43
README.md CHANGED
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  ---
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  language:
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- - en
 
 
 
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  task_categories:
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- - robotics
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- - reinforcement-learning
 
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  tags:
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- - robotics
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- - manipulation
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- - imitation-learning
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- - world-model
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- - robot-learning
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- - tabletop
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- pretty_name: "World Model Robot Manipulation Dataset (Our-50)"
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- size_categories:
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- - n<1K
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  ---
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  # World Model Robot Manipulation Dataset
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- A dataset of real-robot tabletop manipulation trajectories collected for world model training and imitation learning research. The setup follows DROID Dataset. Each trajectory pairs multi-camera video, proprioceptive state/action sequences, natural language task descriptions, and dense reward annotations with pre-extracted visual latents.
 
 
 
 
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  ## Dataset Summary
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@@ -42,6 +47,60 @@ Five tabletop manipulation tasks, 50 train / 20 val trajectories per task.
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  Each task has multiple natural-language paraphrases (e.g. *"put the marker in the cup"*, *"put the marker in the mug"*, *"pick up the marker and place it in the cup"*).
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  ## Data Structure
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  ```
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  ### Annotation JSON Schema
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- Each `.json` file contains one trajectory with the following fields:
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-
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  | Field | Type | Description |
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  |-------|------|-------------|
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  | `episode_id` | int | Sequential trajectory index within the split |
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  └─ cameras
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  ```
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- ### Normalization Statistics
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-
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- `norm_stats_recorded.json` and `norm_stats_relabel.json` provide mean/std statistics for the `state` and `actions` modalities, suitable for normalizing inputs during training.
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-
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  ## Robot Setup
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  - **Robot**: Franka Emika Robot arm with parallel-jaw gripper (Robotiq Gripper)
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  - **Cameras**: 3 fixed cameras providing left, right, and wrist views
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  - **Control frequency**: 5 Hz (matches video frame rate)
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- ## Usage Example
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- ```python
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- import json
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- import numpy as np
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-
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- # Load a trajectory
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- with open("annotations/train/0.json") as f:
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- traj = json.load(f)
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-
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- print(traj["texts"]) # ['pick up the bag of chips and place it on the green plate']
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- print(traj["success"]) # 1
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- print(traj["video_length"]) # e.g. 112
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-
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- # Joint positions: shape (T, 7)
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- joint_pos = np.array(traj["observation.state.joint_position"])
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-
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- # Actions: shape (T, 7)
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- actions = np.array(traj["action.joint_position"])
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-
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- # Visual latents: shape (3, T, 60, 256)
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- lat = np.load(traj["latent_path"].replace("latents/", "latents/"))["latents"]
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-
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- # Rewards: shape (T,)
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- rewards = np.array(traj["reward_progress"])
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  ```
 
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  ---
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  language:
3
+ - en
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+ license: mit
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+ size_categories:
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+ - n<1K
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  task_categories:
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+ - robotics
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+ - reinforcement-learning
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+ pretty_name: World Model Robot Manipulation Dataset (Our-50)
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  tags:
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+ - robotics
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+ - manipulation
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+ - imitation-learning
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+ - world-model
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+ - robot-learning
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+ - tabletop
 
 
 
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  ---
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  # World Model Robot Manipulation Dataset
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+ [**Project Page**](https://arnavkj1995.github.io/WEAVER/) | [**Paper**](https://huggingface.co/papers/2606.13672) | [**Code**](https://github.com/arnavkj1995/WEAVER)
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+
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+ A dataset of real-robot tabletop manipulation trajectories collected for world model training and imitation learning research. The setup follows the DROID Dataset. Each trajectory pairs multi-camera video, proprioceptive state/action sequences, natural language task descriptions, and dense reward annotations with pre-extracted visual latents.
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+
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+ This dataset was introduced in the paper: **WEAVER, Better, Faster, Longer: An Effective World Model for Robotic Manipulation**.
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  ## Dataset Summary
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  Each task has multiple natural-language paraphrases (e.g. *"put the marker in the cup"*, *"put the marker in the mug"*, *"pick up the marker and place it in the cup"*).
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+ ## Usage Example
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+
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+ ### Download Dataset
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+
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+ You can download the dataset using the `huggingface_hub` library:
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+
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+ ```python
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+ from huggingface_hub import snapshot_download
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+
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+ local_dir = snapshot_download(
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+ repo_id="yilin-wu/droid_ood_data",
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+ repo_type="dataset",
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+ )
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+ ```
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+
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+ To download only annotations and metadata (without videos/latents):
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+
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+ ```python
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+ from huggingface_hub import snapshot_download
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+
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+ local_dir = snapshot_download(
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+ repo_id="yilin-wu/droid_ood_data",
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+ repo_type="dataset",
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+ allow_patterns=["annotations/**", "annotation_rewards/**", "norm_stats*.json"],
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+ )
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+ ```
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+
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+ ### Loading Trajectories
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+
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+ ```python
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+ import json
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+ import numpy as np
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+
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+ # Load a trajectory
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+ with open("annotations/train/0.json") as f:
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+ traj = json.load(f)
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+
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+ print(traj["texts"]) # ['pick up the bag of chips and place it on the green plate']
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+ print(traj["success"]) # 1
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+ print(traj["video_length"]) # e.g. 112
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+
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+ # Joint positions: shape (T, 7)
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+ joint_pos = np.array(traj["observation.state.joint_position"])
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+
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+ # Actions: shape (T, 7)
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+ actions = np.array(traj["action.joint_position"])
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+
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+ # Visual latents: shape (3, T, 60, 256)
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+ lat = np.load(traj["latent_path"].replace("latents/", "latents/"))["latents"]
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+
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+ # Rewards: shape (T,)
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+ rewards = np.array(traj["reward_progress"])
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+ ```
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+
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  ## Data Structure
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  ```
 
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  ### Annotation JSON Schema
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  | Field | Type | Description |
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  |-------|------|-------------|
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  | `episode_id` | int | Sequential trajectory index within the split |
 
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  └─ cameras
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  ```
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  ## Robot Setup
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  - **Robot**: Franka Emika Robot arm with parallel-jaw gripper (Robotiq Gripper)
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  - **Cameras**: 3 fixed cameras providing left, right, and wrist views
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  - **Control frequency**: 5 Hz (matches video frame rate)
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+ ## Citation
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+ ```bibtex
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+ @article{jain2026weaver,
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+ title={WEAVER: Efficient World Models for Robot Video Prediction},
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+ author={Arnav Kumar Jain and Yilin Wu and Jesse Farebrother and Gokul Swamy and Andrea Bajcsy},
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+ journal={CoRR},
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+ volume={abs/2606.13672},
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+ year={2026}
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+ }
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
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  ```