昼夜发电站:月球和火星太空探索的新型发电方式

Thomas F. Arciuolo, M. Faezipour, Xingguo Xiong
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引用次数: 0

摘要

在不远的将来,人类将重返月球,并首次踏上火星。最终,人类将成为这些天体的殖民地,在那里生活和工作将变得司空见惯。能源是一切生命的根本。在地球上,特别是在这些其他世界上,人类赖以生存的能源是日夜不停地综合、安全地生产电力。本文针对这一问题提出了一个全新的解决方案:白天使用太阳能跟踪装置,晚上使用太阳能可充电氧化钙化学热电反应堆。这种热电发电形式被称为 "月球和火星空间地质勘探机器人末端执行器"(REEGES)昼夜发电站,本文对其进行了数学建模、模拟,并展示了概念模型设计。仿真结果表明,通过可扩展设计,系统的最大总输出能力为 9.89 V、6.66 A 和 65.9 W,工作时间可达 12 h。这项研究为空间研究界提供了一套完整而新颖的开发方法,用于创建完全定制的、可配置的、安全可靠的太阳能/热电昼/夜发电机,专门用于月球和火星,使用比例-积分-派生++ (PID++)仿人运动控制算法在计算轻量级微控制器上运行。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Day/Night Power Generator Station: A New Power Generation Approach for Lunar and Martian Space Exploration
In the not-too-distant future, humans will return to the Moon and step foot for the first time on Mars. Eventually, humanity will colonize these celestial bodies, where living and working will be commonplace. Energy is fundamental to all life. The energy that people use to sustain themselves on Earth, and in particular on these other worlds, is the integrated, safe production of electrical power, day and night. This paper proposes a radically new solution to this problem: Solar Tracking by day and a Solar Rechargeable Calcium Oxide Chemical Thermoelectric Reactor by night. Called the “Robotic End Effector for Lunar and Martian Geological Exploration of Space” (REEGES) Day/Night Power Generator Station, this form of thermoelectric power generation is mathematically modeled, simulation is performed, and a concept model design is demonstrated in this paper. The results of the presented simulation show the maximum total system output capability is 9.89 V, 6.66 A, and 65.9 W, with an operating time of up to 12 h, through a scalable design. This research provides instructions to the Space Research Community on a complete and novel development methodology for creating fully customized, configurable, safe, and reliable solar/thermoelectric day/night power generators, specifically meant for use on the Moon and Mars, using the Proportional-Integral-Derivative++ (PID++) Humanoid Motion Control Algorithm for its operation on a computationally lightweight microcontroller.
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