Additive Manufacturing applied to Origami Deployment Mechanisms for Small Satellites

增材制造应用于小型卫星折纸展开机构

• 批准号: 2442880
• 金额: --
• 依托单位: University of Nottingham
• 依托单位国家: 英国
• 项目类别: Studentship
• 财政年份: 2020
• 资助国家: 英国
• 起止时间: 2020 至 无数据
• 项目状态: 已结题
• 来源: https://gtr.ukri.org/projects?ref=studentship-2442880
• 关键词: Additive; Manufacturing; applied; Origami; Deployment

Small satellites, particularly CubeSats, are characterised by reduced weight and size. On the one hand, these characteristics are essential to reducing mission costs, as they significantly reduce the launch mass; on the other hand, they impose significant constraints in the mechanical design of crucial systems (e.g. solar panels, antennas, deorbiting mechanisms, and attitude and orbital system actuators) and thereby limit the performance of the satellite. One way to overcome these constraints is to use deployable mechanisms using origami techniques, which have been demonstrated to be one of the best solutions to optimise the use of the space available. However, traditional manufacturing does not allow one to fully exploit the capabilities of origami-inspired structures.This project would entail the development and fabrication of novel origami-inspired deployment mechanisms for small satellites using additive manufacturing as the key enabling technology. The key challenges of the project are related to the design approach, to the requirements of the materials used (adopted materials must be able to withstand launch stresses and survive within the space environment), and the versatility of the solutions adopted. The results achieved would be of great interest to the growing small satellite market, in particular for future CubeSat missions and applications.

小型卫星，特别是立方体卫星，其特点是重量和尺寸都变小了。一方面，这些特性对于降低飞行任务成本至关重要，因为它们大大降低了发射质量；另一方面，它们对关键系统(如太阳能电池板、天线、脱轨机构以及姿态和轨道系统致动器)的机械设计造成了很大的限制，从而限制了卫星的性能。克服这些限制的一种方法是使用折纸技术的可展开机制，这已被证明是优化利用可用空间的最佳解决方案之一。然而，传统的制造不允许人们充分利用折纸启发的结构的能力。该项目将需要开发和制造新型的折纸启发的小卫星展开机构，使用添加制造作为关键的使能技术。该项目的主要挑战涉及设计方法、所用材料的要求(所采用的材料必须能够承受发射压力并在空间环境中生存)以及所采用的解决方案的多功能性。所取得的成果将引起不断增长的小卫星市场的极大兴趣，特别是对于未来的立方体卫星任务和应用。