The DISTANT Design for Remote Transmission and Steering Systems for Planetary Robotics
Abstract
Planetary exploration missions require robust locomotion systems capable of operating in extreme environments over extended periods. This paper presents the DISTANT (Distant Transmission and Steering Systems) design, a novel approach for relocating rover traction and steering actuators from wheel-mounted positions to a thermally protected warm box within the rover body. The design addresses critical challenges in long-distance traversal missions by protecting sensitive components from thermal cycling, dust contamination, and mechanical wear. A double wishbone suspension configuration with cardan joints and capstan drive steering has been selected as the optimal architecture following comprehensive trade-off analysis. The system enables independent wheel traction, steering control, and suspension management whilst maintaining all motorisation within the protected environment. The design meets a 50 km traverse requirement without performance degradation, with integrated dust protection mechanisms and thermal management solutions. Testing and validation activities are planned for Q1 2026 following breadboard manufacturing at 1:3 scale.
Keywords
Cite
@article{arxiv.2510.05981,
title = {The DISTANT Design for Remote Transmission and Steering Systems for Planetary Robotics},
author = {Cristina Luna and Alba Guerra and Almudena Moreno and Manuel Esquer and Willy Roa and Mateusz Krawczak and Robert Popela and Piotr Osica and Davide Nicolis},
journal= {arXiv preprint arXiv:2510.05981},
year = {2025}
}
Comments
Paper for 18th Symposium on Advanced Space Technologies in Robotics and Automation (ASTRA), presented on October 7th at Leiden, Netherlands