Systems engineering approach and design trades for the Lunette geophysical network lander

Melissa A. Jones, J. Elliott, L. Alkalai
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引用次数: 2

Abstract

The concept of the Lunette geophysical network of landers was conceived from a mission concept study to develop small, low cost landers applicable to a variety of lunar exploration activities including site selection and certification for future human lunar outposts. The original design was intended to launch six landers on an EELV (Evolved Expendable Launch Vehicle) as a secondary payload using the EELV Secondary Payload Adapter (ESPA) ring. A follow-on study of the same Lunette mission concept considered individual landers each having a dedicated solid rocket motor allowing for global-scale distribution for the establishment of geophysical network nodes for global network science. The payload for the geophysical network of landers was selected to be responsive to the science objectives outlined in the Scientific Context for Exploration of the Moon report [1] and the International Lunar Network (ILN) Final Report [2] would have the capability to take critical data continuously during the lunar night without requiring radioisotope power systems. This paper will discuss the systems engineering approach and design trades that allow for the current geophysical network lander concept to emerge from the original ESPA-based concept. 1 2
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Lunette地球物理网络着陆器的系统工程方法和设计交易
Lunette地球物理着陆器网络的概念是从一项任务概念研究中构想出来的,该研究旨在开发小型、低成本的着陆器,适用于各种月球探测活动,包括未来人类月球前哨站的选址和认证。最初的设计是打算发射六个着陆器在EELV(演化式一次性运载火箭)上作为二次有效载荷使用EELV二次有效载荷适配器(ESPA)环。对同样的“月亮”号任务概念的后续研究考虑了单独的着陆器,每个着陆器都有一个专用的固体火箭发动机,允许在全球范围内分布,以建立全球网络科学的地球物理网络节点。选择着陆器地球物理网络的有效载荷是为了响应《月球探测科学背景报告[1]》和国际月球网络(ILN)最终报告[2]中概述的科学目标,将有能力在月球夜间连续获取关键数据,而不需要放射性同位素动力系统。本文将讨论系统工程方法和设计交易,使当前的地球物理网络着陆器概念从最初的基于espa的概念中脱颖而出。1 2
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