Haoxiang You 尤皓翔

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I’m a final-year Ph.D. candidate in Mechanical Engineering at Yale University. Previously, I earned my master’s degree from the University of Pennsylvania, and my bachelor’s degree from Ningbo University. Outside the lab, I enjoy DIY projects, cooking, and computer games.

I work on robotics, physical agents, reinforcement learning and simulation. Along the way I have worked across much of the robotics stack, including hardware design, control, data collection, simulation, model training and deployment. More recently, my interests lie in agentic robotics: using AI agents to make robots more capable and robot learning more scalable.

I am on the job market and expect to graduate in 2027. My CV is available here. If you think I could be a good fit for your team, please reach out at haoxiang.you@yale.edu.

News

[09/2026] We released “EmbodiedSWE: Coding Agents for Long-Horizon Dexterous Robotics”! Check out the paper, website, and code. 🚀🦾
[09/2026] Our work “Efficient On-policy Visual-RL via Stochastic Decoupled Policy Gradient” has been accepted to CoRL 2026! 🤖🎉
[02/2026] Our collabrative work “Goal-Driven Reward by Video Diffusion Models for Reinforcement Learning” has been accepted to CVPR 2026! 🎬✨
[01/2026] Our work on sample-based hybrid mode control has been accepted to ICRA 2026! 🤖🎉
[09/2025] Our work “D.Va” has been accepted to NeurIPS 2025 as a Spotlight paper! 🎉✨
[07/2025] I will join Genesis-AI as a Research Scientist Intern.
[08/2023] I will strike out my Phd journey at Yale University:sparkles:
[05/2023] I was graduated from University of Pennsylvania with Outstanding Academic Award :smile:

Publications

  1. EmbodiedSWE: Coding Agents for Long-Horizon Dexterous Robotics
    Haoxiang You, Zeyu Shen, Yilang Liu, Zhicheng Zheng, Lihan Zha, Kashu Yamazaki, Mingtong Zhang, Suning Huang, Jiankai Sun, Qianzhong Chen, Lucy He, Haoran Chang, Dhruv Shah, Mac Schwager, Katerina Fragkiadaki, Peter Henderson, Ian Abraham, and Canwen Xu
    under review 2026
    We systematically evaluate frontier coding agents on complex, long-horizon everyday robotics tasks, and propose a data-engine pipeline that distills the agents’ capabilities into a local VLA policy deployable on a real robot.
  2. Efficient On-policy Visual-RL via Stochastic Decoupled Policy Gradient
    Haoxiang You, Yilang Liu, Davis Zong, Qian Wang, Teeratham Vitchutripop, Qi Wang, Daniel Rakita, and Ian Abraham
    CoRL 2026
    A lightweight visual RL method that trains visuomotor policies end-to-end within a few hours on a single GPU, with sim-to-real transfer.
  3. Accelerating Visual-Policy Learning through Parallel Differentiable Simulation
    Haoxiang You, Yilang Liu, and Ian Abraham
    NeurIPS 2025 Spotlight
    Accelerates visual RL training with differentiable simulation by decoupling rendering from the gradient computation; a humanoid learns to run from raw pixels in 4 hours on a single GPU.
  4. Sample-Based Hybrid Mode Control: Asymptotically Optimal Switching of Algorithmic and Non-Differentiable Control Modes
    Yilang Liu, Haoxiang You, and Ian Abraham
    ICRA 2026
    A sample-based search over different control modes and when to switch between them, enabling agile robot control.
  5. Goal-Driven Reward by Video Diffusion Models for Reinforcement Learning
    Qi Wang, Mian Wu, Yuyang Zhang, Mingqi Yuan, Wenyao Zhang, Haoxiang You, Yunbo Wang, Xin Jin, Xiaokang Yang, and Wenjun Zeng
    CVPR 2026
    Replaces hand-designed rewards with pretrained video diffusion models, rewarding agents for following generated goal videos, and even outperforms heavily engineered dense rewards on several manipulation tasks.
  6. Is Bellman Equation Enough for Learning Control?
    Haoxiang You, Lekan Molu, and Ian Abraham
    preprint 2025
    Shows that in continuous state spaces the Bellman equation can have exponentially many solutions, only one of them stable, and proposes a positive-definite network that guarantees converging to it.

Selected Projects

  1. Developed sim-to-real control strategies for the Cassie bipedal robot, focusing on trajectory optimization, feedback control, system identification and state estimation.
  2. End-to-end implementation of motion planning, path search algorithms, and VIO for autonomous UAV navigation
  3. Designed and built a remote-controlled electric car from scratch, covering CAD and mechanical design, custom circuits, and the remote-control system.