--- license: cc-by-4.0 task_categories: - robotics tags: - LeRobot - robotics - bimanual - teleoperation - manipulation - dexterous-hand - guardrails pretty_name: GLIDE Data size_categories: - 100KGLIDE icon GLIDE:
Learning Beyond What Humans Can Demonstrate

Yuchen Song , Aditya Mittal , Unnat Jain

UC Irvine

Paper Website Code License: CC BY 4.0

GLIDE overview

**TL;DR:** GLIDE uses closed-loop, self-refined guardrails to make infeasible robot manipulation tasks demonstrable, learnable, and the trained policies more reliable to deploy. This repository hosts the real-robot demonstration datasets used to train the GLIDE π₀.₅ policies. The robot runtime used to collect the data and evaluate policies is in [glide_code](https://github.com/Yuchen-Song/glide_code). ## Tasks - **🍅 Tomato plate transfer** (`lift_plate_*`): use both grippers to grasp a plate of tomatoes and carry it from the tabletop to an elevated surface without tilting the plate or spilling. - **🖍️ Marker handover & stand** (`stand_marker_*`): grasp a marker with one gripper, transfer it to the other gripper, place it upright on the table, and withdraw without knocking it over. - **🍷 Wine serving** (`pour_wine_*`): use a left parallel-jaw gripper to hold a bottle and a right 15-DoF CRAFT hand to hold a glass while pouring wine from the bottle into the glass. ## Subsets Each task has two subsets, each a self-contained LeRobot dataset: - **`*_mixed`**: every recorded demonstration, successful and failed (mixed quality). - **`*_success`**: only the successful episodes from the matching `*_mixed` subset. | Subset | Robot | Episodes | Frames | FPS | Duration | Size | | --- | --- | ---: | ---: | ---: | ---: | ---: | | `lift_plate_mixed` | `yam_dual_arm` | 30 | 13,170 | 30 | 7.3 min | 144 MB | | `lift_plate_success` | `yam_dual_arm` | 19 | 8,508 | 30 | 4.7 min | 94 MB | | `stand_marker_mixed` | `yam_dual_arm` | 30 | 12,769 | 30 | 7.1 min | 128 MB | | `stand_marker_success` | `yam_dual_arm` | 22 | 9,216 | 30 | 5.1 min | 93 MB | | `pour_wine_mixed` | `yam_dual_arm_craft_hand` | 60 | 162,158 | 45 | 60.1 min | 2.3 GB | | `pour_wine_success` | `yam_dual_arm_craft_hand` | 30 | 83,240 | 45 | 30.8 min | 1.2 GB | Language instructions (one per task): | Task | Instruction | | --- | --- | | 🍅 Tomato plate transfer | "Use both arms to pick up the plate and put it onto the box" | | 🖍️ Marker handover & stand | "Pick up the marker with one gripper, transfer it to the other gripper, and lift it upright on the table." | | 🍷 Wine serving | "Use left gripper to pick up the wine bottle, right hand to pick up the wine cup, and pour wine from bottle to the cup." | ## Data Format All subsets use the [LeRobot](https://github.com/huggingface/lerobot) dataset format, `codebase_version: v2.1`: ``` / ├── meta/ │ ├── info.json # schema, fps, feature names │ ├── tasks.jsonl # language instruction │ ├── episodes.jsonl # per-episode length and task │ └── episodes_stats.jsonl # per-episode feature statistics ├── data/chunk-000/episode_XXXXXX.parquet └── videos/chunk-000/observation.images.{head,left_wrist,right_wrist}/episode_XXXXXX.mp4 ``` Every subset records three RGB cameras (`head`, `left_wrist`, `right_wrist`) at 640×480 as H.264 MP4, along with the robot state, the executed action, and the raw teleoperation signals. ### Two-gripper tasks (`lift_plate_*`, `stand_marker_*`) Two YAM arms, each with a parallel-jaw gripper, teleoperated with Quest controllers. | Feature | Shape | Description | | --- | --- | --- | | `observation.state` | 14 | `left_joint_0..5`, `left_gripper`, `right_joint_0..5`, `right_gripper` | | `action` | 14 | Commanded joints and grippers, same order as the state | | `teleoperation.matrices.{head,left_controller,right_controller}` | 4×4 | Quest head and controller poses | | `teleoperation.buttons` | 8 | Trigger, squeeze, A/B buttons for each controller | ### CRAFT-hand task (`pour_wine_*`) A left YAM arm with a parallel-jaw gripper and a right YAM arm with a 15-DoF CRAFT hand, teleoperated with Quest hand tracking. | Feature | Shape | Description | | --- | --- | --- | | `observation.state` | 28 | `left_joint_0..5`, `left_gripper`, `right_joint_0..5`, `craft_motor_0..14_raw` | | `action` | 28 | Commanded joints, gripper, and CRAFT motors, same order as the state | | `teleoperation.matrices.{head,left_hand,right_hand}` | 4×4 | Quest head and wrist poses | | `teleoperation.landmark_matrices.{left_hand,right_hand}` | 25×4×4 | Quest hand-landmark poses | | `teleoperation.hand_states` | 12 | Pinch, squeeze, and tap flags and values per hand | | `teleoperation.tracking` | 9 | Tracking validity, event counts, and packet ages for head and hands | All subsets also include the standard LeRobot index columns: `timestamp`, `frame_index`, `episode_index`, `index`, and `task_index`. ## Usage Download a single subset: ```bash hf download yuchensong/glide_data \ --repo-type dataset \ --include "stand_marker_success/*" \ --local-dir ./glide_data ``` Load it with a LeRobot release that reads the v2.1 format, such as the version pinned by [OpenPI](https://github.com/Physical-Intelligence/openpi): ```python from lerobot.common.datasets.lerobot_dataset import LeRobotDataset dataset = LeRobotDataset( repo_id="yuchensong/glide_data", root="./glide_data/stand_marker_success", ) frame = dataset[0] print(frame["observation.state"].shape, frame["action"].shape) ``` Or read the tabular data directly: ```python import pandas as pd df = pd.read_parquet( "./glide_data/stand_marker_success/data/chunk-000/episode_000000.parquet" ) ``` To train π₀.₅ policies, follow OpenPI's instructions for computing normalization statistics and fine-tuning on a local LeRobot dataset. ## License This dataset is released under the [Creative Commons Attribution 4.0 International (CC BY 4.0)](https://creativecommons.org/licenses/by/4.0/) license. ## Citation ```bibtex @article{song2026glide, title={Learning Beyond What Humans Can Demonstrate}, author={Song, Yuchen and Mittal, Aditya and Jain, Unnat}, journal={arXiv preprint arXiv:2609.24996}, year={2026} } ```