About Me
Hi, I'm Minku Kim, a Ph.D. candidate in Robotics at Oregon State University and a member of the Dynamic Robotics and Artificial Intelligence Laboratory, advised by Professor Alan Fern.
Previously, I earned an M.S. in Mechanical Engineering and Applied Mechanics from the University of Pennsylvania. In the Dynamic Autonomy and Intelligent Robotics Lab, advised by Professor Michael Posa and co-advised by Professor Pratik Chaudhari.
I am always happy to discuss robotics research and potential collaborations. Feel free to get in touch.
Research Interests
- Legged & Humanoid Robots: reinforcement learning, whole-body control, skill learning, and sim-to-real transfer
- Robot Perception: 6D pose and shape estimation, multi-view vision, and sensor-rich feedback
News
- 2026Humanoid Hanoi was accepted to CoRL 2026. See you in Austin, Texas!
- 2025Learning a Vision-Based Footstep Planner for Hierarchical Walking Control was accepted to IEEE-RAS Humanoids as an oral presentation. See you in Seoul, Korea!
- 2025Received the Oregon State College of Engineering Scholarship.
- 2025Received the Penn Engineering Outstanding Research Award.
Research
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PreprintSAGE: Semantic And Geometric Estimation of 6D Object Pose from Multi-View ObservationsUnder Review
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PreprintASM-6D: Generative Correspondences for Fast Object Pose-Shape FittingUnder Review
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CoRLConference on Robot Learning, 2026.
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RSSWDynamic-ASM6D: Real-Time 6D Object Pose and Shape Estimation via Active Shape Models and ADMMEquivariant Systems Workshop at RSS and IEEE-RAS TC Virtual Poster Session, 2025.
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HumanoidsIEEE-RAS International Conference on Humanoid Robots, 2025.
Projects
Quadruped Control
Obstacle Avoidance Using Control Barrier Functions
Using control barrier functions.
Legged Locomotion
Comparative Analysis of MPC, LQR, and RL Footstep Planners on Uneven Terrain
A Drake-based comparison of model-predictive, LQR, and reinforcement-learning footstep planners for Cassie.
Optimization and Control
Optimization-Based Obstacle Estimation from Human Demonstrations
Learning obstacle geometry from expert demonstrations through CLF-CBF constraints and probabilistic regression.
Robot Manipulation
Vision-Aided Pick-and-Stack with a 7-DOF Manipulator
AprilTag perception, gradient-based inverse kinematics, and collision-aware waypoint planning for a Franka Panda.