Time-Efficient Mars Exploration of Simultaneous Coverage and Charging with Multiple Drones
Yuan Chang, Chao Yan, Xingyu Liu, Xiangke Wang, Han Zhou, Xiaojia, Xiang, Dengqing Tang

TL;DR
This paper introduces TIME-SC2, a comprehensive framework utilizing deep reinforcement learning and optimized scheduling to enhance the time-efficient exploration and charging of multiple drones and a rover on Mars.
Contribution
The paper presents a novel integrated approach combining multi-drone coverage control with a near-optimal charging scheduling algorithm for Mars exploration.
Findings
Demonstrates significant improvements in exploration time efficiency.
Shows high autonomy reduces non-exploring time.
Validates framework's effectiveness through extensive simulations.
Abstract
This paper presents a time-efficient scheme for Mars exploration by the cooperation of multiple drones and a rover. To maximize effective coverage of the Mars surface in the long run, a comprehensive framework has been developed with joint consideration for limited energy, sensor model, communication range and safety radius, which we call TIME-SC2 (TIme-efficient Mars Exploration of Simultaneous Coverage and Charging). First, we propose a multi-drone coverage control algorithm by leveraging emerging deep reinforcement learning and design a novel information map to represent dynamic system states. Second, we propose a near-optimal charging scheduling algorithm to navigate each drone to an individual charging slot, and we have proven that there always exists feasible solutions. The attractiveness of this framework not only resides on its ability to maximize exploration efficiency, but…
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Taxonomy
TopicsDistributed Control Multi-Agent Systems · UAV Applications and Optimization · Robotic Path Planning Algorithms
