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Hyeongjun Kim

5 accepted papers

2026

Learning Dynamic Pick-and-Place for a Legged Manipulator

RA-L 2026

Legged manipulators extend robotic capabilities beyond static manipulation by integrating agile locomotion with versatile arm control. However, achieving precise manipulation while maintaining coordinated locomotion remains a major challenge. This work presents a hierarchical reinforcement learning

Cited by 0Source ↗Scholar ↗
2025

Legged Robot State Estimation with Invariant Extended Kalman Filter Using Neural Measurement Network

ICRA 2025

This paper introduces a novel proprioceptive state estimator for legged robots that combines model-based filters with deep neural networks. In environments where vision systems are not reliable, proprioceptive state estimators become indispensable. Traditionally, proprioceptive state estimators are

Cited by 16Source ↗Scholar ↗
2024

Design of a Front-enveloping Powered Exoskeleton Considering Optimal Distribution of Actuating Torques and Center of Mass

ICRA 2024poster

Traditionally, powered exoskeletons have predominantly featured a back-enveloping design due to its simplicity in both implementation and user donning. However, this design results in a backward shift of the center of mass (CoM) in the sagittal plane. This paper identifies the limitations of existin…

Cited by 2Source ↗Scholar ↗
2023

Imitating and Finetuning Model Predictive Control for Robust and Symmetric Quadrupedal Locomotion

RA-L 2023

Control of legged robots is a challenging problem that has been investigated by different approaches, such as model-based control and learning algorithms. This work proposes a novel Imitating and Finetuning Model Predictive Control (IFM) framework to take the strengths of both approaches. Our framew

Cited by 28Source ↗Scholar ↗
2022

Concurrent Training of a Control Policy and a State Estimator for Dynamic and Robust Legged Locomotion

RA-L 2022

In this letter, we propose a locomotion training framework where a control policy and a state estimator are trained concurrently. The framework consists of a policy network which outputs the desired joint positions and a state estimation network which outputs estimates of the robot’s states such as

Cited by 232Source ↗code ↗Scholar ↗