行星地下探测用尺蠖钻孔机器人(IBR)研制

Tang Dewei, Z. Weiwei, Jiang Shengyuan, Shen Yi, Chen Hua-zhi
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引用次数: 2

摘要

本文提出了一种新型尺蠖钻孔机器人(IBR),用于探测行星地下地温梯度、风化层化学成分、力学性质等科学目标。IBR由三个模块组成:钻井模块、放电模块和推进模块。钻孔模块和卸料模块分别用于破碎和输送风化层。推进模块可以在钻井模块和卸料模块之间作直线运动。因此,IBR可以根据以上三个模块的定时运动来实现尺蠖运动。本文对钻头和螺旋钻这两种关键工具进行了精心设计和试验,以了解其在未来IBR原型机中的载荷特性。其次,在工具设计的基础上开发了IBR原型,并提出了一种新的传动方案。最后,在试验平台上对IBR进行了镗孔试验。在这些钻孔实验中,IBR在模拟风化层中成功进入510mm深度,这些结果表明IBR钻孔并进行行星地下勘探是可行的。
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Development of an Inchworm Boring Robot(IBR) for planetary subsurface exploration
This paper proposes a novel Inchworm Boring Robot(IBR) for implementing investigations of scientific targets such as geothermal gradient, chemical composition, mechanical properties of regolith in the planetary subsurface. The IBR consists of three modules: a drilling module, a discharging module and a propulsion module. Drilling module and discharging module were respectively used to break and transport the regolith. Propulsion module can make linear motion between drilling module and discharging module. Therefore, IBR can achieve inchworm movement according to the timing motion of above three modules. In this paper, the two key tools, drill and auger, were elaborately designed and tested to figure out its load characteristics for future prototype of IBR. Next, the prototype of IBR was developed based on the tools design and a novel proposed transmission scheme. Finally, boring experiments for IBR were conducted on the test platform. In these boring experiments, IBR successfully access to 510mm depth in the regolith simulant and these results show that it is feasible for IBR to make borehole and carry out the planetary subsurface exploration.
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