A Sample Repetitive Manipulation Mechanism (SRMM) for Lunar Regolith In-Situ Analysis: Design and Validation

Yi Liu, Junyue Tang, Yafang Liu, Gongbo Ma, Feng Sun, Ye Li, Shengyuan Jiang
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Abstract

To exactly detect the water ice of the South Pole of the moon, a lunar regolith in-situ analysis payload deploying a mass spectrometer is proposed for China future lunar exploration missions. In order to receive the lunar regolith sample from a robotic arm with a soil sampler and transfer it into a furnace for further analysis, a sample manipulation mechanism is required during the above work flow. To solve the problems of adapting the sampler’s docking accuracy, receiving and transferring two different types of lunar soil sample under times of in-situ analysis, etc., a sample repetitive manipulation mechanism (SRMM) is proposed in this paper. By using a floating adjustable docking components and a flexible hopper, two types of encapsulated regolith sample and bulk material sample can be received with minimal sample loss, respectively. In order to receive and transfer two types of samples multiple times, two sample receiving methods have been designed that can be repeatedly transferred. A worm and worm wheel combined with a ball screw is designed in SRMM. To verify the above mechanism design, validation experiments were conducted. It indicates that this novel SRMM can be deployed in the future mission after further environmental tests.
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用于月球岩石原位分析的样品重复操纵装置(SRMM):设计与验证
为了准确探测月球南极的水冰,建议为中国未来的月球探测任务配备一个装有质谱仪的月球残积岩原位分析有效载荷。为了从带有土壤采样器的机械臂上接收月球岩石样品并将其转移到熔炉中进行进一步分析,在上述工作流程中需要一个样品操纵机构。为了解决采样器对接精度的调整、原位分析时两种不同类型月壤样品的接收和转移等问题,本文提出了一种样品重复操作机构(SRMM)。通过使用浮动可调对接组件和柔性料斗,可分别接收两种类型的封装碎屑样品和散装材料样品,且样品损失最小。为了多次接收和转移两种类型的样品,设计了两种可重复转移的样品接收方法。在 SRMM 中设计了一个蜗杆、蜗轮与滚珠丝杠相结合的机构。为了验证上述机构设计,我们进行了验证实验。这表明,经过进一步的环境测试后,这种新型 SRMM 可以部署在未来的任务中。
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