火星手持透镜成像仪:透镜机械设计

D. Dibiase, J. Laramee
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引用次数: 10

摘要

2011年,美国宇航局将启动火星科学实验室(MSL),作为其火星探测计划的一部分,以更多地了解这颗红色星球的环境和地质历史。为了实现这一目标,由美国宇航局喷气推进实验室(JPL)建造的MSL探测车配备了有史以来登陆火星表面的最广泛的科学仪器。火星手镜头成像仪(MAHLI)安装在火星探测器机械臂的末端,是火星科学实验室的主要科学相机之一。与以前的火星任务中使用的相机相比,这种相机有许多改进,特别是在大空间范围内对焦的能力。一种新颖的机构使用一个电机来驱动内部透镜组,实现对焦能力,并操纵保护性防尘罩。该机制设计用于在MSL任务的恶劣热环境(- 120°C至+40°C)中运行,并使用非标准材料和技术,以满足质量和光学要求,以3倍的余量(约2000地球日)存活一个火星年。在开发该仪器时遇到了几个涉及润滑和磨损的问题;每个问题都可以通过完善的工程和/或系统级的重新设计来解决。鉴定模型在整个工作范围内的温度下通过了全水平寿命测试,性能的降低可以忽略不计。联盟空间系统有限责任公司向马林空间科学系统公司(MSSS)提供了飞行模型机构,在那里它与电子设备集成,并于2008年10月交付给喷气推进实验室。
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Mars hand lens imager: Lens mechanical design
In 2011 NASA will launch the Mars Science Laboratory (MSL) as part of its Mars Exploration Program to learn more about the red planet's environment and geological history. To fulfill that goal, the MSL rover, built by NASA's Jet Propulsion Laboratory (JPL), is outfitted with the most extensive array of scientific instruments ever landed on the Martian surface. The Mars Hand Lens Imager (MAHLI), mounted on the end of the rover's robotic arm, is one of the primary science cameras for MSL. This camera affords many improvements over those used on previous Mars missions, particularly the ability to focus throughout a wide spatial range. A novel mechanism uses one motor to actuate an internal lens group, enabling focus capability, and manipulate a protective dust cover. This mechanism is designed to operate in the severe thermal environment of the MSL mission (−120° C to +40° C) and to survive for one Martian year with 3x margin (about 2000 Earth days) using non-standard materials and techniques in order to meet mass and optical requirements. Several issues involving lubrication and wear were encountered in developing this instrument; each solved through sound engineering and/or system level redesign. The qualification model passed full level life testing at temperatures throughout the operating range with negligible reduction in performance. Alliance Spacesystems, LLC supplied the flight model mechanism to Malin Space Science Systems (MSSS) where it was integrated with electronics and in turn delivered to JPL in October 2008.
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