I'm Yuzhou Chen (陈禹舟), a dual-degree Master’s student in Electrical & Computer Engineering and Mechanical Engineering at the University of Michigan. I specialize in robotics, machine learning, and perception-driven control systems. I’ve led research in robot dynamics learning, deformable object modeling, and motion planning using transformer-based architectures and RL.
Python, C++, HTML/CSS, C, SQL, MATLAB, JavaScript, Arduino
Deep Learning: PyTorch, GPyTorch, TensorFlow
Data Science: NumPy, Pandas, OpenCV, matplotlib, scikit-learn
Robotics/Simulation: ROS, IsaacLab
RL Libraries: Gym, Stable-Baselines3
Cloud & DevOps: Docker, AWS EC2/S3, Git
NLP: LLM, Transformer, BERT, GPT
Generative Models: GANs, VAE, Diffusion Models
Probabilistic Models: GMM, GP
Computer Vision SoTA: SAM, DUST3R, Mask3D
ANSYS / Workbench, Abaqus, SolidWorks, UG NX, CATIA, AutoCAD, Mathematica, LaTeX
Encoded state images into a latent space using a Variational Autoencoder (VAE), then applied Model Predictive Path Integral (MPPI) control in the latent space to drive the robot arm toward the desired state.
Implemented Gaussian Process to model uncertain dynamics and applied Model Predictive Path Integral (MPPI) control for obstacle-aware object pushing.
Building autonomy for a 5-DOF robotic arm using computer vision, forward and inverse kinematics, and path planning to manipulate various objects.
Differential-drive robot with 2D LiDAR for autonomous block transport and navigation, integrating SLAM and A-star planning.
Reasoning with pushing and grasping actions to build towers from objects in simulation using programmable primitives.
Control strategies for high-speed racing with embedded obstacle avoidance mechanisms.