A curated list of Robotics + AI resources to learn, build, deploy, and stay current in Physical AI / Embodied AI. 🌟 Star if you like it!
See the codePhysical AI and embodied AI bring large-scale machine learning to robotics — agents that perceive, reason, and act in the physical world. This is a curated, engineering-oriented map of Physical AI resources: robot learning, foundation models for robotics, vision-language-action (VLA) models, world models, simulation and sim-to-real, datasets and benchmarks, generalist policies, and patterns for safe, production-grade systems.
Built for researchers and practitioners across the stack — from foundations to deployment — and for technical leaders weighing how embodied intelligence will reshape products, operations, and infrastructure.
Last updated: 2026-10-07 · 229 entries across 14 canonical categories
New to Physical AI? Start here.
Physical AI sits at the intersection of robotics, machine learning, simulation, and embodied decision-making. The easiest way to begin is to start in simulation, understand the learning loop, then move toward robot policies, foundation models, and real-world systems.
1. Learn the core reinforcement learning loop
Start with Gymnasium CartPole to build intuition for states, actions, rewards, and policies.
2. Explore simulation
Use MuJoCo to understand how control, physics, contacts, and robot dynamics are modelled.
3. Inspect a modern robot-learning workflow
Browse LeRobot to see how robot datasets, policies, training, and evaluation are structured in practice.
4. Explore the frontier of embodied foundation models
Look at OpenVLA to understand how vision-language-action models connect perception, language, and robot control.
5. Move deeper when ready
Once the above feels clear, continue into imitation learning, generalist robot policies, sim-to-real methods, hardware, and evaluation.
Tip: You do not need hardware to begin.
Start with simulation first, then move to real-world systems when you understand the learning and evaluation loop.
Canonical categories
Appendices
Physics engines and high-fidelity simulation environments for robotics and embodied AI.
Large-scale teleoperation, demonstration, and interaction datasets used to train robot policies.
Task suites and standardised evaluations for manipulation, locomotion, and embodied reasoning.
Harnesses, metrics, and methodology for measuring robot policy performance, robustness, and sim-to-real validity.
rliable library and methodology for confidence intervals on RL benchmarks.Generalist policies and vision-language-action (VLA) models for robotic control.
Generative and predictive models of physical dynamics used for planning, simulation, and pretraining.
Methods, models, and tools for grasping, dexterous manipulation, and contact-rich tasks.
Diffusion Policy — Visuomotor policy learning via action diffusion; widely-used baseline for imitation.
ACT (Action Chunking Transformers) — Transformer policy for bimanual fine manipulation from demonstrations.
Mobile ALOHA — Bimanual mobile manipulation system with low-cost teleoperation hardware.
ALOHA Unleashed — Recipe for scaling robot dexterity via large-scale imitation learning.
Dex-Net — Datasets and models for analytic and learned robust grasping.
Contact-GraspNet — Grasp pose generation directly from partial point clouds.
RoboCasa — Large-scale household-scene simulation suite for training generalist manipulation policies.
MIT 6.4210 — Robotic Manipulation — Russ Tedrake's reference text covering perception, planning, and control for manipulation.
PerAct — 3D voxel-action transformer for language-conditioned, long-horizon manipulation.
CLIPort — Language-conditioned manipulation with CLIP-based perception and transport-based action heads.
Transporter Networks — Keypoint-based pick-and-place architecture for data-efficient tabletop manipulation.
GraspNet-1Billion — Large-scale benchmark and dataset for robust 6-DoF grasp planning.
AnyGrasp — Efficient 6-DoF grasp generation framework for real-time deployment.
3D Diffusion Policy (DP3) — Point-cloud-conditioned diffusion policy that improves data efficiency and robustness over image-based variants.
robosuite — Modular simulation framework for manipulation research with reproducible task environments.
DreamZero — Zero-shot dexterous manipulation with diffusion models and vision-language-action policies.
T-Rex — Tactile-reactive vision-language-action model using a variable-rate Mixture-of-Transformers, released with checkpoints and around 50 hours of open tactile manipulation data.
Legged, bipedal, and humanoid locomotion — controllers, learning approaches, and reference platforms.
Techniques and case studies for transferring policies trained in simulation to real hardware.
Tools, benchmarks, and methodology for safe exploration, robustness testing, and failure-mode analysis.
Standards, frameworks, and policy guidance relevant to deploying Physical AI systems.
Middleware, runtime stacks, and reference patterns for shipping robots in production.
University courses and structured learning programs in robot learning and embodied AI.
Organisations advancing Physical AI through foundation models, humanoids, and applied robotics.
Physical Intelligence (π) — Foundation models for general-purpose robots; developer of π0.
Figure — Humanoid robotics company building general-purpose bipedal platforms with VLA-driven control.
1X Technologies — Humanoid robots designed for safe human interaction and home environments.
Boston Dynamics — Pioneers of dynamic legged and humanoid platforms (Spot, Atlas) with active research arm.
Agility Robotics — Maker of Digit, a bipedal logistics robot deployed in commercial warehouses.
Apptronik — Humanoid robotics company building Apollo for industrial applications.
Skild AI — Building scalable, generalist robot intelligence trained across diverse embodiments.
Covariant — Foundation-model-driven AI for robotic picking and warehouse manipulation.
Wayve — Embodied AI for end-to-end autonomous driving using world models and VLAs.
Pollen Robotics (Hugging Face) — Open-source humanoid robotics; maker of Reachy 2 and Reachy Mini.
Sanctuary AI — Developing general-purpose humanoid robots for structured workplace environments.
Unitree Robotics — Commercial legged-robot and humanoid platforms with broad developer adoption.
Intrinsic — Alphabet-backed software platform focused on scalable industrial robotics development.
Dexterity — AI robotics company deploying high-throughput manipulation systems for logistics.
Tesla Optimus — Humanoid robotics program targeting general-purpose physical task automation.
Sunday Robotics — Building generalist robots and foundation models for physical intelligence.
The sections below complement the canonical taxonomy with related learning resources, hardware, community pointers, and practitioner recommendations.
Foundational and advanced textbooks.
Hands-on learning resources.
Influential research papers in Physical AI.
V-JEPA 2 - LeCun et al. Self-supervised video world model enabling zero-shot robot control from Meta FAIR.
Open X-Embodiment - Cross-embodiment robot learning datasets and RT-X models from Google DeepMind.
DROID - Large-scale in-the-wild robot manipulation dataset.
Diffusion Policy - Visuomotor policy learning via action diffusion.
RT-2 - Vision-language-action models transfer web knowledge to robots.
Octo - Open-source generalist robot policy.
Mobile ALOHA - Learning bimanual mobile manipulation with low-cost hardware.
ALOHA Unleashed - Simple recipe for robot dexterity at scale.
I-JEPA - LeCun's image joint-embedding predictive architecture.
Real-World Humanoid Locomotion with RL - Radosavovic et al. Sim-to-real RL controller for blind humanoid walking, deployed on a real Digit-class platform (Science Robotics 2024).
Sim-to-Real Learning of All Common Bipedal Gaits - Siekmann et al. Periodic reward composition that transfers a single bipedal policy across walking, hopping, and skipping gaits (ICRA 2021).
Robust Parameterized Locomotion Control for Bipedal Robots - Li et al. RL controller spanning a parameterised family of velocities and stances on Cassie (ICRA 2021).
Learning Agile Soccer Skills for a Bipedal Robot - Haarnoja et al. Deep RL pipeline producing whole-body soccer behaviours on a small humanoid (Science Robotics 2024).
Humanoid Parkour Learning - Zhuang et al. End-to-end perceptive RL controller enabling humanoid parkour over discontinuous terrain (CoRL 2024).
Expressive Whole-Body Control for Humanoid Robots - Cheng et al. Whole-body controller producing expressive, human-like motion on a real humanoid (RSS 2024).
H2O: Human-to-Humanoid Real-Time Whole-Body Teleoperation - He et al. RL-based real-time teleoperation framework retargeting human motion to a humanoid (IROS 2024).
ASAP: Aligning Simulation and Real-World Physics - He et al. Delta-action correction for closing the sim-to-real gap on agile humanoid whole-body skills (RSS 2025).
HOVER: Versatile Neural Whole-Body Controller - He et al. Single neural controller covering multiple humanoid command modes — joint, root, and end-effector tracking (ICRA 2025).
Attention-Based Map Encoding for Generalized Legged Locomotion - He et al. Attention-based exteroceptive encoder generalising perceptive locomotion across legged platforms (Science Robotics 2025).
Denoising World Model Learning for Humanoid Locomotion - Gu et al. Denoising world-model RL for humanoid traversal of challenging terrain (RSS 2024).
HugWBC: Unified Humanoid Whole-Body Controller - Xue et al. General whole-body controller targeting fine-grained humanoid locomotion across gaits and tasks (RSS 2025).
Dex-UMI: A Benchmark for Generalizable Dexterous Manipulation - Comprehensive benchmark and dataset for dexterous multi-fingered manipulation.
UMI: An Open-Source Underactuated Manipulator for Dexterous Grasping - Open-source hardware and dataset for dexterous manipulation research.
Comprehensive overviews of key areas.
Physical robots for research and development.
Arms & Manipulators
Franka Emika - Research-grade 7-DOF arm with torque sensing and compliant control.
Universal Robots - Collaborative robot arms widely used in research and industry.
Kinova - Lightweight assistive and research robot arms.
xArm - Affordable 6/7-DOF robot arms for research and development.
Kuka iiwa - Industrial arm designed for human collaboration.
UMI Gripper - Open-source underactuated manipulator for dexterous grasping and manipulation.
Dex-UMI - Dexterous manipulation platform and dataset for multi-fingered robotic hands.
DexUMI Code & Data - Code and datasets for the Dex-UMI dexterous manipulation benchmark.
Humanoids
Mobile Robots
Low-Cost & DIY
Major venues for robotics and AI research.
Forums, discussions, and meetups.
Stay updated with the latest developments.
Deep Dives & Analysis
Industry News
Research & Company Blogs
Researchers, engineers, and practitioners shaping Physical AI.
Research Leaders
Robotics & Hardware
Industry Leaders
Other curated lists covering adjacent topics.
Thrilled to have you here.
Whether it's a quick typo fix, a fresh resource,
a doc polish, or a sweeping overhaul — every contribution helps this list grow.
Jump in and join the community — PRs of every size are welcome.
432 followers · starred Jun 2026
712 followers · starred Jun 2026
A curated list of Robotics + AI resources to learn, build, deploy, and stay current in Physical AI / Embodied AI. 🌟 Star if you like it!
See the codePhysical AI and embodied AI bring large-scale machine learning to robotics — agents that perceive, reason, and act in the physical world. This is a curated, engineering-oriented map of Physical AI resources: robot learning, foundation models for robotics, vision-language-action (VLA) models, world models, simulation and sim-to-real, datasets and benchmarks, generalist policies, and patterns for safe, production-grade systems.
Built for researchers and practitioners across the stack — from foundations to deployment — and for technical leaders weighing how embodied intelligence will reshape products, operations, and infrastructure.
Last updated: 2026-10-07 · 229 entries across 14 canonical categories
New to Physical AI? Start here.
Physical AI sits at the intersection of robotics, machine learning, simulation, and embodied decision-making. The easiest way to begin is to start in simulation, understand the learning loop, then move toward robot policies, foundation models, and real-world systems.
1. Learn the core reinforcement learning loop
Start with Gymnasium CartPole to build intuition for states, actions, rewards, and policies.
2. Explore simulation
Use MuJoCo to understand how control, physics, contacts, and robot dynamics are modelled.
3. Inspect a modern robot-learning workflow
Browse LeRobot to see how robot datasets, policies, training, and evaluation are structured in practice.
4. Explore the frontier of embodied foundation models
Look at OpenVLA to understand how vision-language-action models connect perception, language, and robot control.
5. Move deeper when ready
Once the above feels clear, continue into imitation learning, generalist robot policies, sim-to-real methods, hardware, and evaluation.
Tip: You do not need hardware to begin.
Start with simulation first, then move to real-world systems when you understand the learning and evaluation loop.
Canonical categories
Appendices
Physics engines and high-fidelity simulation environments for robotics and embodied AI.
Large-scale teleoperation, demonstration, and interaction datasets used to train robot policies.
Task suites and standardised evaluations for manipulation, locomotion, and embodied reasoning.
Harnesses, metrics, and methodology for measuring robot policy performance, robustness, and sim-to-real validity.
rliable library and methodology for confidence intervals on RL benchmarks.Generalist policies and vision-language-action (VLA) models for robotic control.
Generative and predictive models of physical dynamics used for planning, simulation, and pretraining.
Methods, models, and tools for grasping, dexterous manipulation, and contact-rich tasks.
Diffusion Policy — Visuomotor policy learning via action diffusion; widely-used baseline for imitation.
ACT (Action Chunking Transformers) — Transformer policy for bimanual fine manipulation from demonstrations.
Mobile ALOHA — Bimanual mobile manipulation system with low-cost teleoperation hardware.
ALOHA Unleashed — Recipe for scaling robot dexterity via large-scale imitation learning.
Dex-Net — Datasets and models for analytic and learned robust grasping.
Contact-GraspNet — Grasp pose generation directly from partial point clouds.
RoboCasa — Large-scale household-scene simulation suite for training generalist manipulation policies.
MIT 6.4210 — Robotic Manipulation — Russ Tedrake's reference text covering perception, planning, and control for manipulation.
PerAct — 3D voxel-action transformer for language-conditioned, long-horizon manipulation.
CLIPort — Language-conditioned manipulation with CLIP-based perception and transport-based action heads.
Transporter Networks — Keypoint-based pick-and-place architecture for data-efficient tabletop manipulation.
GraspNet-1Billion — Large-scale benchmark and dataset for robust 6-DoF grasp planning.
AnyGrasp — Efficient 6-DoF grasp generation framework for real-time deployment.
3D Diffusion Policy (DP3) — Point-cloud-conditioned diffusion policy that improves data efficiency and robustness over image-based variants.
robosuite — Modular simulation framework for manipulation research with reproducible task environments.
DreamZero — Zero-shot dexterous manipulation with diffusion models and vision-language-action policies.
T-Rex — Tactile-reactive vision-language-action model using a variable-rate Mixture-of-Transformers, released with checkpoints and around 50 hours of open tactile manipulation data.
Legged, bipedal, and humanoid locomotion — controllers, learning approaches, and reference platforms.
Techniques and case studies for transferring policies trained in simulation to real hardware.
Tools, benchmarks, and methodology for safe exploration, robustness testing, and failure-mode analysis.
Standards, frameworks, and policy guidance relevant to deploying Physical AI systems.
Middleware, runtime stacks, and reference patterns for shipping robots in production.
University courses and structured learning programs in robot learning and embodied AI.
Organisations advancing Physical AI through foundation models, humanoids, and applied robotics.
Physical Intelligence (π) — Foundation models for general-purpose robots; developer of π0.
Figure — Humanoid robotics company building general-purpose bipedal platforms with VLA-driven control.
1X Technologies — Humanoid robots designed for safe human interaction and home environments.
Boston Dynamics — Pioneers of dynamic legged and humanoid platforms (Spot, Atlas) with active research arm.
Agility Robotics — Maker of Digit, a bipedal logistics robot deployed in commercial warehouses.
Apptronik — Humanoid robotics company building Apollo for industrial applications.
Skild AI — Building scalable, generalist robot intelligence trained across diverse embodiments.
Covariant — Foundation-model-driven AI for robotic picking and warehouse manipulation.
Wayve — Embodied AI for end-to-end autonomous driving using world models and VLAs.
Pollen Robotics (Hugging Face) — Open-source humanoid robotics; maker of Reachy 2 and Reachy Mini.
Sanctuary AI — Developing general-purpose humanoid robots for structured workplace environments.
Unitree Robotics — Commercial legged-robot and humanoid platforms with broad developer adoption.
Intrinsic — Alphabet-backed software platform focused on scalable industrial robotics development.
Dexterity — AI robotics company deploying high-throughput manipulation systems for logistics.
Tesla Optimus — Humanoid robotics program targeting general-purpose physical task automation.
Sunday Robotics — Building generalist robots and foundation models for physical intelligence.
The sections below complement the canonical taxonomy with related learning resources, hardware, community pointers, and practitioner recommendations.
Foundational and advanced textbooks.
Hands-on learning resources.
Influential research papers in Physical AI.
V-JEPA 2 - LeCun et al. Self-supervised video world model enabling zero-shot robot control from Meta FAIR.
Open X-Embodiment - Cross-embodiment robot learning datasets and RT-X models from Google DeepMind.
DROID - Large-scale in-the-wild robot manipulation dataset.
Diffusion Policy - Visuomotor policy learning via action diffusion.
RT-2 - Vision-language-action models transfer web knowledge to robots.
Octo - Open-source generalist robot policy.
Mobile ALOHA - Learning bimanual mobile manipulation with low-cost hardware.
ALOHA Unleashed - Simple recipe for robot dexterity at scale.
I-JEPA - LeCun's image joint-embedding predictive architecture.
Real-World Humanoid Locomotion with RL - Radosavovic et al. Sim-to-real RL controller for blind humanoid walking, deployed on a real Digit-class platform (Science Robotics 2024).
Sim-to-Real Learning of All Common Bipedal Gaits - Siekmann et al. Periodic reward composition that transfers a single bipedal policy across walking, hopping, and skipping gaits (ICRA 2021).
Robust Parameterized Locomotion Control for Bipedal Robots - Li et al. RL controller spanning a parameterised family of velocities and stances on Cassie (ICRA 2021).
Learning Agile Soccer Skills for a Bipedal Robot - Haarnoja et al. Deep RL pipeline producing whole-body soccer behaviours on a small humanoid (Science Robotics 2024).
Humanoid Parkour Learning - Zhuang et al. End-to-end perceptive RL controller enabling humanoid parkour over discontinuous terrain (CoRL 2024).
Expressive Whole-Body Control for Humanoid Robots - Cheng et al. Whole-body controller producing expressive, human-like motion on a real humanoid (RSS 2024).
H2O: Human-to-Humanoid Real-Time Whole-Body Teleoperation - He et al. RL-based real-time teleoperation framework retargeting human motion to a humanoid (IROS 2024).
ASAP: Aligning Simulation and Real-World Physics - He et al. Delta-action correction for closing the sim-to-real gap on agile humanoid whole-body skills (RSS 2025).
HOVER: Versatile Neural Whole-Body Controller - He et al. Single neural controller covering multiple humanoid command modes — joint, root, and end-effector tracking (ICRA 2025).
Attention-Based Map Encoding for Generalized Legged Locomotion - He et al. Attention-based exteroceptive encoder generalising perceptive locomotion across legged platforms (Science Robotics 2025).
Denoising World Model Learning for Humanoid Locomotion - Gu et al. Denoising world-model RL for humanoid traversal of challenging terrain (RSS 2024).
HugWBC: Unified Humanoid Whole-Body Controller - Xue et al. General whole-body controller targeting fine-grained humanoid locomotion across gaits and tasks (RSS 2025).
Dex-UMI: A Benchmark for Generalizable Dexterous Manipulation - Comprehensive benchmark and dataset for dexterous multi-fingered manipulation.
UMI: An Open-Source Underactuated Manipulator for Dexterous Grasping - Open-source hardware and dataset for dexterous manipulation research.
Comprehensive overviews of key areas.
Physical robots for research and development.
Arms & Manipulators
Franka Emika - Research-grade 7-DOF arm with torque sensing and compliant control.
Universal Robots - Collaborative robot arms widely used in research and industry.
Kinova - Lightweight assistive and research robot arms.
xArm - Affordable 6/7-DOF robot arms for research and development.
Kuka iiwa - Industrial arm designed for human collaboration.
UMI Gripper - Open-source underactuated manipulator for dexterous grasping and manipulation.
Dex-UMI - Dexterous manipulation platform and dataset for multi-fingered robotic hands.
DexUMI Code & Data - Code and datasets for the Dex-UMI dexterous manipulation benchmark.
Humanoids
Mobile Robots
Low-Cost & DIY
Major venues for robotics and AI research.
Forums, discussions, and meetups.
Stay updated with the latest developments.
Deep Dives & Analysis
Industry News
Research & Company Blogs
Researchers, engineers, and practitioners shaping Physical AI.
Research Leaders
Robotics & Hardware
Industry Leaders
Other curated lists covering adjacent topics.
Thrilled to have you here.
Whether it's a quick typo fix, a fresh resource,
a doc polish, or a sweeping overhaul — every contribution helps this list grow.
Jump in and join the community — PRs of every size are welcome.
432 followers · starred Jun 2026
712 followers · starred Jun 2026