Hyunseo Kim

I am a PhD student in Interdisciplinary program in Neuroscience at Seoul National University, and a member of the biointelligence laboratory led by Byoung-Tak Zhang.

My research interests lie in the area of robotics, vision, imitation learning and representation learning.

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Research

I'm interested in computer vision, robotics, self-supervised learning, imitation learning, and representation learning. Much of my research is about inferring the object representation from related actions. Representative papers are highlighted.

EXOT: Exit-aware Object Tracker for Safe Robotic Manipulation of Moving Object
Hyunseo Kim, Hye Jung Yoon, Minji Kim, Dong-Sig Han, Byoung-Tak Zhang
ICRA, 2023
arXiv

EXOT is applied to the robot hand camera (wrist camera) and successfully detects the target object absence during object manipulation. EXOT is a single object tracker with an out-of-distribution classifier. It makes safe robotic manipulation possible even when the target moves.

Robust Imitation via Mirror Descent Inverse Reinforcement Learning
Dong-Sig Han, Hyunseo Kim, Hyundo Lee, Je-Hwan Ryu, Byoung-Tak Zhang
NeurIPS, 2022
official paper / arXiv

MD-AIRL predicts a sequence of reward functions, which are iterative solutions for a constrained convex problem.

Message Passing Adaptive Resonance Theory for Online Active Semi-supervised Learning
Taehyeong Kim, Injune Hwang, Hyundo Lee, Hyunseo Kim, Won-Seok Choi, Joseph J Lim, Byoung-Tak Zhang
ICML, 2021
official paper / arXiv

MPART suggests successful active online learning that selects representative queries and proceeds efficient model update that does not forget important info as soon as a new data sample is observed.

Label Propagation Adaptive Resonance Theory for Semi-Supervised Continuous Learning
Taehyeong Kim, Injune Hwang, Gi-Cheon Kang, Won-Seok Choi, Hyunseo Kim, Byoung-Tak Zhang
ICASSP, 2020
Official paper / arXiv

LPART suggests semi-supervised online learning for real-world problems where labels are rarely given and the opportunity to access the same data is limited.

A neural circuit mechanism for mechanosensory feedback control of ingestion
Dong-Yoon Kim, Gyuryang Heo, Minyoo Kim, Hyunseo Kim, Ju Ae Jin, Hyun-Kyung Kim, Sieun Jung, Myungmo An, Benjamin H Ahn, Jong Hwi Park, Han-Eol Park, Myungsun Lee, Jung Weon Lee, Gary J Schwartz, Sung-Yon Kim
Nature, 2020
official paper

We revealed a neural circuit that relay mechanosensory feedback from the digestive tract to the brain. Neurons in parabrachial nucleus that express the prodynorphin gene monitor the intake of both fluids and solids.


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