Kyungeun Cho
Papers
23
Total Citations
198
H-Index
8
About
Kyungeun Cho is a researcher specializing in 3D point cloud processing, LiDAR-based perception, autonomous robotics, and terrain reconstruction. With a body of work spanning over a decade, Cho has made significant contributions to the foundational challenges of enabling robots and autonomous systems to perceive and navigate complex real-world environments. Among Cho's most recognized contributions is research into reflective noise filtering of large-scale point clouds using transformer architectures (2022, 32 citations), addressing a critical limitation in LiDAR data quality for autonomous driving and 3D reconstruction. Equally impactful is Cho's work on ground segmentation methods for LiDAR point clouds (2019, 21 citations), a prerequisite step for object tracking and spatial understanding in human-centric robotic systems. Earlier foundational work on terrain reconstruction and voxel-based mapping (2012–2014) established Cho's expertise in real-time environmental modeling for remote robot operation. Beyond perception, Cho has explored cloud-based multi-robot frameworks, genetic algorithm-driven motion estimation using wearable devices, and collaborative robot programming in virtual environments, demonstrating a broad interdisciplinary vision. With over 100 cumulative citations across these works, Cho's research consistently bridges cutting-edge sensing technology with practical autonomous system applications, making it highly relevant for students and researchers in robotics, computer vision, and intelligent systems.
Research Focus
Key Achievements
Top Papers
- 1Reflective Noise Filtering of Large-Scale Point Cloud Using Transformer32 citations · 2022
- 2
- 3
- 43D Reconstruction Framework for Multiple Remote Robots on Cloud System14 citations · 2017
- 5
- 6
- 7Real-time terrain reconstruction using 3D flag map for point clouds12 citations · 2013
- 8Collaborative programming by demonstration in a virtual environment12 citations · 2012
- 9
- 10Adaptive ground segmentation method for real-time mobile robot control7 citations · 2017