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Deaho Moon

5 accepted papers

2025

A Tugging Controller that Maximizes Lateral Resistive Force by Mounding Sandy Terrain

ICRA 2025

Sandy environments present challenges for robotic space rovers and systems due to reduced traction, limiting mobility and tugging force. This paper presents an anchoring method that utilizes a winching system to create a sand mound in front of a mobile agent dragged through the media. The proposed c

Cited by 0Source ↗Scholar ↗
2023

Walk-Burrow-Tug: Legged Anchoring Analysis Using RFT-Based Granular Limit Surfaces

RA-L 2023

We develop a new resistive force theory based granular limit surface (RFT-GLS) method to predict and guide behaviors of forceful ground robots. As a case study, we harness a small mobile robotic system – MiniRQuad (296 g) – to ‘walk-burrow-tug;’ it actively exploits ground anchoring by burrowing its

Cited by 6Source ↗Scholar ↗
2020

ModMan: An Advanced Reconfigurable Manipulator System With Genderless Connector and Automatic Kinematic Modeling Algorithm

RA-L 2020

With the current trend of dwindling life cycle of production, necessity of systems with high-adaptability is on the rise. With their high adaptability and easy maintenance, reconfigurable manipulators are strong candidates to replace conventional non-reconfigurable manipulators in such trend. Howeve

Cited by 36Source ↗Scholar ↗
2015

Robust learning of tensegrity robot control for locomotion through form-finding

IROS 2015poster

Robots based on tensegrity structures have the potential to be robust, efficient and adaptable. While traditionally being difficult to control, recent control strategies for ball-shaped tensegrity robots have successfully enabled punctuated rolling, hill-climbing and obstacle climbing. These gains h…

Cited by 51Source ↗Scholar ↗