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Bioinspired Drill for Planetary Sampling: Literature Survey, Conceptual Design, and Feasibility Study

机译:用于行星采样的生物启发钻头:文献调查,概念设计和可行性研究

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Growing interest in planetary subsurface exploration has prompted an examination of advanced drilling technologies. One of the major limitations of sampling in low gravity environments (such as Mars, asteroids, etc.) using conventional rotary drills is the need for high axial force, which suffers from big overhead mass, buckling problems, and power hungriness. Though drills using percussive motion may operate in low mass and power, the drilling rate is generally slow. Drawing inspiration from nature for a lighter weight and energy efficient solution, we propose a novel drilling method based on the working mechanism of wood wasp ovipositors. The bioinspired drill requires no reactive external force by applying two-valve-reciprocating motion. The proposed biomimetic system indicates enhanced utility that is critical for space missions where premium is placed on mass, volume, and power. Biological systems are similarly constrained making biomimetic technology uniquely suited and advantageous as a model of miniaturized systems. As a result of the European Space Agency project on bionics and space system design, this paper presents a literature survey of planetary drilling, working principle of the bioinspired drilling mechanism, a conceptual design, and feasibility study of the first prototype within a space system envelope.
机译:人们对行星地下勘探的兴趣日益浓厚,促使人们对先进的钻井技术进行了研究。使用常规旋转钻在低重力环境(例如火星,小行星等)中进行采样的主要限制之一是对轴向力的需求,这会产生较大的头顶重量,屈曲问题和动力饥饿。尽管使用冲击运动的钻头可能以较低的质量和功率运行,但钻孔速度通常较慢。从自然界中汲取灵感,寻求一种更轻便,更节能的解决方案,我们提出了一种基于木蜂产卵器工作机理的新型钻孔方法。受到生物启发的钻头通过施加两个阀门的往复运动不需要反作用力。拟议的仿生系统显示出增强的效用,这对于以质量,体积和功率为重的太空任务至关重要。类似地,生物系统受到限制,使得仿生技术作为小型化系统的模型独特地适用且具有优势。作为欧洲航天局关于仿生学和太空系统设计的项目的结果,本文提出了有关行星钻探的文献调查,生物启发钻探机制的工作原理,概念设计以及在空间系统范围内对第一个原型进行可行性研究的结果。 。

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