ACE-F is finally open sourced, with a hardware assembly tutorial and teleoperation code for Franka and Xarm7 robots. Check out our website and more below!Hardware: https://t.co/2GGWuJAa52
Software: https://t.co/JWFKKxYu3e
Webpage: https://t.co/gZJkNxsfg1
Arxiv: https://t.co/3naBgeb4xp
Meet ACE-F — a novel, foldable teleoperation platform for collecting high-quality robot demonstration data across robot embodiments.
Using a specialized soft-controller pipeline, we interpret end-effector positional deviations as virtual force signals to provide the user with force feedback, without requiring expensive sensors! ACE-F simplifies control for a diverse array of robot platforms, making complex tasks that require dexterous manipulation highly intuitive.
Check out the project website here!
https://t.co/gZJkNxsfg1
VLA/VAs are doing well on short skills like pick-and-place. But real tasks rarely stop after one action, they require 1) many interdependent steps, 2) progress tracking, and 3) recovery from mistakes.
In our paper LoHo-Manip, we address long-horizon manipulation with trace-conditioned VLA planning: a task manager tracks what’s done, plans what remains, and guides execution with visual traces.
Cross-embodiment learning for diverse dexterous hands is an exciting direction.
Looking forward to seeing how shared latent representations enable generalization across embodiments.
Ever want to have a single policy to control diverse robots as well as different dexterous hands, or to observe the emergent behavior under cross embodiment training?
Introducing our #CVPR2026 paper XL-VLA, Cross-Hand Latent Representation for Vision-Language-Action Models.
Ever want to have a single policy to control diverse robots as well as different dexterous hands, or to observe the emergent behavior under cross embodiment training?
Introducing our #CVPR2026 paper XL-VLA, Cross-Hand Latent Representation for Vision-Language-Action Models.
Can we bridge the Sim-to-Real gap in complex manipulation without explicit system ID? 🤖
Presenting Contact-Aware Neural Dynamics — a diffusion-based framework that grounds simulation with real-world touch.
Implicit Alignment: No tedious parameter tuning.
Tactile-Driven: Captures non-smooth contact events.
Consistent: Stable predictions in contact-rich tasks.
I will join Tsinghua University, College of AI, as an Assistant Professor in the coming month. I am actively looking for 2026 spring interns and future PhDs (ping me if you are in #NeurIPS).
It has been an incredible journey of 10 years since I attended an activity organized by Tsinghua University and decided to change my undergraduate major from Economics to Computer Science, inspired by one of the teammates. During the 10 years, I met with appreciation of many wonderful researchers/professors who led me to continued growth. 🐿️
My research focus will continue to be AI & Robotics, with a specific emphasis on Interactive Embodied Intelligence. You can check my homepage to learn more: https://t.co/6hHsc62x0A.
I am currently local to San Diego and will be attending #NeurIPS. Please ping me over WeChat or Email if any old or new friends are interested in having a coffee chat! (Really looking forward to meeting as many friends as possible at #NeurIPS)
[The photo is one of the places that I will miss a lot in the US]
Meet ACE-F — a novel, foldable teleoperation platform for collecting high-quality robot demonstration data across robot embodiments.
Using a specialized soft-controller pipeline, we interpret end-effector positional deviations as virtual force signals to provide the user with force feedback, without requiring expensive sensors! ACE-F simplifies control for a diverse array of robot platforms, making complex tasks that require dexterous manipulation highly intuitive.
Check out the project website here!
https://t.co/gZJkNxsfg1
By combining many interchangeable end-effectors, a novel control structure, and choosing inverse kinematics over joint-copy, ACE-F is highly customizable and can be used with a wide-array of follower arms!
ACE-F's basic control structure uses inverse kinematics to determine the end-effector error. Then, the error magnitude is used to scale the forces that the user can feel. For more, see below!
A large human behavior model.
Introducing In-N-On, our latest findings in scaling egocentric data for humanoids.
1. Pre-training and post-training with human data
2. 1,000+ hours of in-the-wild data and 20+ hours of on-task data with accurate action labels
Website: https://t.co/QOUcwiLsSJ
Arxiv: https://t.co/SML0YFBMQu
By simply scaling data, our robot can follow novel language instruction. Check out the 🧵
Most robot learning has focused on simple position control. But think about how a human uses a wrench 🔧: you’re not just rotating in one direction—you’re continuously shaping the forces, pushing and pulling differently as you move. Our robot can do exactly that now.
How do we make dexterous hands handle both power and precision tasks with ease? 🫳👌🫰
We introduce Power to Precision (💪➡️🎯), our new paper that optimizes both control and fingertip geometry to unlock robust manipulation from power grasp to fine-grained manipulations.
With simplified finger motions and augmented fingertips, the hand can perform diverse motions from pinching a nut🔩 to handling a pan🍳. Check the demos below🎥.
Ever want to enjoy all the privileged information in sim while seamlessly transferring to the real world? How can we correct policy mistakes after deployment?
👉Introducing GSWorld, a real2sim2real photo-realistic simulator with interaction physics with fully open-sourced code.
How can we leverage diverse human videos to improve robot manipulation?
Excited to introduce EgoVLA — a Vision-Language-Action model trained on egocentric human videos by explicitly modeling wrist & hand motion. We build a shared action space between humans and robots, enabling seamless transfer. With some robot demos, EgoVLA becomes a powerful, generalizable robot policy.
🚀 Meet ACE-F — a next-gen teleop system merging human and robot precision.
Foldable, portable, cross-platform — it enables 6-DoF haptic control for force-aware manipulation.
🦾 See our demo & talk at the Robot Hardware-Aware Intelligence workshop this Wed @RoboticsSciSys!