Cheng-Lin (Stanley) Hsieh

Cheng-Lin (Stanley) Hsieh謝承霖

I’m a Ph.D. candidate in Computer Science and Engineering at the University of Michigan, advised by Stella X. Yu. I study robot learning and visual perception for real-world applications.

Robot learning. I am interested in scalable learning from diverse data and experience, with human motion as one example of a useful prior. My current work focuses on contact-rich interaction and humanoid whole-body control.

Perception. I study spatial and dynamic understanding from partial observations, semantic localization, and fine-grained understanding of embodied video.

clhsieh@umich.edu

Portrait of Cheng-Lin Hsieh

Seeking summer 2027 research internships in robotics and computer vision.

Selected research

* Equal contribution

Figure 2a compares coarse, fine, and adaptive matching units. Adaptive units preserve motion boundaries while remaining robust when matches are missing.

NeurIPS 2026

Dense Flow from Adaptive Correspondence

Cheng-Lin Hsieh and Stella X. Yu

We show that learning what to match is as important as learning how to match. Our adaptive units follow coherent motion and preserve fine boundaries, making optical flow both precise and robust—even where a match is hidden or outside the image.

Under review

Test-Time Motion Steering for Perceptive Humanoid Fall Recovery

Osher Azulay*, Cheng-Lin Hsieh*, and Stella X. Yu

We turn getting back up into a behavior the robot can adapt and steer. A visual diffusion model lets us guide heading, timing, and route at test time, while a depth-aware controller carries out the recovery on a real Unitree G1.

Other publications

  1. Where to Hitch? Finding Small, Rare Parts Across Long Spatiotemporal Contexts

    C.-L. Hsieh*, Z. Wang*, S. X. Yu, E. Corona, S. Sasidharan, and E. D. Sumer.

    NeurIPS Workshop on Long-Context Foundation Models (LCFM), 2026.

    Finding a tiny part in a long video can be surprisingly difficult. HitchIt chooses useful views and tracks visual examples to locate parts such as trailer hitches without task-specific training.

  2. EECS: Efficient End-Cloud Collaborative System with On-Demand Offloading Mechanism for Convolutional Neural Network ↗

    Y.-C. Lo, C.-L. Hsieh, H.-W. Chiang, and A.-Y. A. Wu.

    IEEE Internet of Things Journal, 12(8):11081–11095, 2025.

  3. Trainable Policy for the On-Demand Offloading on Edge-Cloud Collaborative System

    C.-L. Hsieh, Y.-C. Lo, and A.-Y. A. Wu.

    IEEE International Workshop on Machine Learning for Signal Processing (MLSP), 2023.

  4. Constraints-Aware Trainable Pruning with System Optimization for the On-Demand Offloading Edge-Cloud Collaborative System

    Y.-C. Lo, C.-L. Hsieh, and A.-Y. A. Wu.

    IEEE International Workshop on Machine Learning for Signal Processing (MLSP), 2023.

Teaching

Graduate Student Instructor · University of Michigan