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
- 2026Received CoRL 2026 Travel Award!
- 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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Preprint
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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.Oral Presentation
Projects
Obstacle Avoidance Using Control Barrier Functions
Control barrier functions filter motion commands for a Unitree Go2 quadruped to avoid obstacles detected using AprilTags.
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-Based Obstacle Estimation from Human Demonstrations
Learning obstacle geometry from expert demonstrations through CLF-CBF constraints and probabilistic regression.
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.