EEmbodied AI Hub

Learning path

A “zero to working pipeline” route for beginners. We do not rewrite full tutorials — we chain high-quality resources and mark checkpoints and pitfalls.

  1. 1

    1. Foundations

    Goal: Build a shared vocabulary: embodied AI, imitation, RL, and VLA.

    Core concepts

    • Embodied AI vs pure vision/language models
    • Observation, action, policy, proprioception
    • Sim-to-real gap

    Recommended resources

    ProjectFeatured

    MuJoCo

    ★ 14.3k

    Classic physics engine widely used in robot RL and control research — lightweight and accurate.

    C++ / PythonIntermediateUpdated 2026-07-22

    Checkpoint

    Explain in your own words what a VLA is and why robot data matters.

    Common pitfalls

    • Do not chase the largest model first — clarify task and data.
    • When jargon piles up, align on 1–2 surveys or tutorials first.
  2. 2

    2. Simulation intro

    Goal: Run an env end-to-end: random policy → a simple training loop.

    Core concepts

    • Physics engines and rendering
    • Parallel / GPU simulation
    • Task definitions and metrics

    Recommended resources

    ProjectFeatured

    MuJoCo

    ★ 14.3k

    Classic physics engine widely used in robot RL and control research — lightweight and accurate.

    C++ / PythonIntermediateUpdated 2026-07-22

    Checkpoint

    Launch at least one simulator locally or in the cloud and collect a few trajectories.

    Common pitfalls

    • Isaac is hardware-heavy; start with MuJoCo / ManiSkill if needed.
    • Make the env reproducible before algorithms.
  3. 3

    3. Imitation learning

    Goal: Train a visuomotor policy from demos; respect data quality.

    Core concepts

    • Behavior cloning / ACT / Diffusion Policy
    • Data formats and normalization
    • Success rate vs training loss

    Recommended resources

    DatasetFeatured

    LIBERO

    Simulation benchmark for lifelong learning and VLA eval with many manipulation tasks.

    ~130 tasksMITBest for evalSingle-armUpdated 2025-03-01

    Checkpoint

    Finish one imitation train+eval loop in sim or on a low-cost platform.

    Common pitfalls

    • Lower loss ≠ task success — always roll out.
    • Action rate, latency, and camera extrinsics matter a lot.
  4. 4

    4. VLA finetuning

    Goal: Understand pretrained VLAs and adapt on modest data.

    Core concepts

    • Open X-Embodiment and pretraining
    • Frozen backbone vs full finetune
    • Language conditioning and cross-task transfer

    Recommended resources

    DatasetFeatured

    DROID

    Highly diverse real Franka manipulation data (~76K trajectories / 350h) for real-world finetune.

    ~76K trajectoriesCC-BY-4.0 / MITBest for finetuneSingle-armUpdated 2025-06-01

    Checkpoint

    Name a VLA’s training data, I/O interface, and finetune entrypoint.

    Common pitfalls

    • Limited GPU: prefer small models / LoRA / official configs.
    • Check data and weight licenses separately.
  5. 5

    5. Simple real robot

    Goal: Close the loop: collect → train → deploy on low-cost or lab hardware.

    Core concepts

    • Teleop and data collection
    • Safety limits and e-stop
    • Domain randomization (optional)

    Recommended resources

    DatasetFeatured

    DROID

    Highly diverse real Franka manipulation data (~76K trajectories / 350h) for real-world finetune.

    ~76K trajectoriesCC-BY-4.0 / MITBest for finetuneSingle-armUpdated 2025-06-01

    Checkpoint

    Collect real demos and deploy a usable policy (even for a tiny task).

    Common pitfalls

    • Safety first: joint limits, collision checks, human-in-the-loop.
    • Fix cameras and calibration before tuning algorithms.

This path evolves with the community. Submit better resources or read About for how to contribute. Submit · About