Email: xuanbin.peng[at]gmail.com
Office: Jacobs 4511
I am currently a research assistant at University of California, San Diego (UCSD) advised by Prof. Xiaolong Wang.
My research interest lies in the intersection of robotics, perception, planning, reasoning, and decision-making, with their application in complex, real-world environments.
While immersed in the academic field, I also appreciate letting loose by playing basketball and table tennis during my spare time. Furthermore, philosophy and poetry also interest me a lot.
I remain open and eager to collaborate with like-minded individuals to discover the potential and possibilities of robotics across various fields.
My current research interest lies in the intersection of deep reinforcement learning, computer vision and robotics. My long-term goal is to develop intelligent robots that can infer and interact with the dynamic and open world in long-horizon tasks.
Qiwei Wu, Xuanbin Peng, Zhouran Sun, Xiaogang Xiong and Yunjiang Lou
Our framework achieves robust tactile servo control through semi-supervised sim2real transfer and end-to-end privileged learning, enabling improved data efficiency and rapid adaptation across diverse tasks.
IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS) 2024.
Accepted, Oral Presentation
Tianlin Zhang, Xuanbin Peng, Fenghao Lin, Xiaogang Xiong, and Yunjiang Lou
Deploying Model Predictive Control and Whole Body Control (MPC-WBC) for compliance and robustness in whole-body control of a quadruped manipulator.
IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS) 2024.
Accepted, Oral Presentation
This project explores using dynamic programming within a Markov Decision Process framework to navigate an autonomous agent efficiently towards a goal in a Door-Key environment. The system optimally handles doors that may require unlocking with keys located within the environment.
[Code]
This project implements a Visual-Inertial SLAM system using stereo-camera and IMU data to estimate both the environment layout and the robot's position. It leverages Extended Kalman Filter (EKF) to fuse IMU-based odometry with visual cues, and uses a Lie-Group manifold for robot pose and landmark joint-updates. A recall buffer optimizes Jacobians matrix computation, achieving accurate, near real-time mapping and localization.
[Code]
The robot won the National Frist Prize in RoboMaster 2022 Robotics Contest.