Self-Introduction

My name is Jiawei Fang (方家卫).

I am currently a Ph.D student in CMU, advised by Prof. Kris Kitani and Prof. Andrew Spielberg. I had my bachelor’s degree in Xiamen University. I am fortunate to work with Prof. Shihui Guo and Prof. Yipeng Qin for four years during my undergraduate. Previously, I was a research intern at Carnegie Mellon University in the Computer Science Department and a visiting scholar at UC Berkeley in the Mechanical Engineering Department, mentored by Prof. Lining Yao and CSAIL, MIT, mentored by Prof. Wojciech Matusik. I was happy to work in Alibaba Damo Academics with Dr. Deli Zhao.

If you are interested in any aspect of me, I am always open to discussions and collaborations. Feel free to reach out to me at jiaweif[at]stu.xmu.edu.cn, jiaweif@andrew.cmu.edu.

Research Experience

Massachusetts Institute of Technology
CDFG, CSAIL (2025.5 – 2025.10)
Visiting Scholar | Advisor: Prof. Wojciech Matusik

Xiamen University
Humanplus (2022.9 – 2023.5)
Research Assistant | Advisor: Prof. Shihui Guo

University of California, Berkeley
Morphing Matter Lab, ME (2024.1 – 2025.5)
Visiting Scholar | Advisor: Prof. Lining Yao

Carnegie Mellon University
Morphing Matter Lab, HCII (2023.5 – 2024.1)
Research Intern | Advisor: Prof. Lining Yao

Garment Inertial Denoiser (GID)

Jiawei Fang, Ruonan Zheng, Xiaoxia Gao, Shifan Jiang, Anjun Chen, Qi Ye, Shihui Guo, Garment Inertial Denoiser (GID): Endowing Accurate Motion Capture via Loose IMU Denoiser,

Wearable inertial motion capture (MoCap) provides a portable, occlusion-free, and privacy-preserving alternative to camera-based systems, but its accuracy depends on tightly attached sensors—an intrusive and uncomfortable requirement for daily use. Embedding IMUs into loose-fitting garments is a desirable alternative, yet sensor–body displacement introduces severe, structured, and location-dependent corruption that breaks standard inertial pipelines. We propose GID (Garment Inertial Denoiser), a lightweight, plug-and-play Transformer that factorizes loose-wear MoCap into three stages: (i) location-specific denoising, (ii) adaptive cross-wear fusion, and (iii) general pose prediction. GID uses a location-aware expert architecture, where a shared spatio-temporal backbone models global motion while per-IMU expert heads specialize in local garment dynamics, and a lightweight fusion module ensures cross-part consistency. This inductive bias enables stable training and effective learning from limited paired loose–tight IMU data. We also introduce GarMoCap, a combined public and newly collected dataset covering diverse users, motions, and garments. Experiments show that GID enables accurate, real-time denoising from single-user training and generalizes across unseen users, motions, and garment types—consistently improving state-of-the-art inertial MoCap methods when used as a drop-in module.


Posted

in

by

Tags:

Comments

Leave a Reply