论文标题
从葡萄牙开发,制造和测试小型发射器结构
Development, manufacturing and testing of small launcher structures from Portugal
论文作者
论文摘要
在过去的几十年中,该行业已经看到了轨道卫星的数量上升,这主要是由于需要监视地球以及建立全球通信网络。 Nano,Micro和小型卫星一直是满足这些需求的主要工具,并计划了大型和大型星座,从而导致潜在的发射鸿沟。一个有效且具有商业上吸引人的解决方案是小型发射器的开发,因为它们可以补充当前可用的启动机会优惠,提供大量不同类型的客户,并提供灵活和自定义的服务,而大型传统发射器无法充分保证。火箭工厂奥格斯堡(Augsburg)与Ceiia合作开发了RFA One Rocket的几种结构。目的是设计低成本,光线和定制的解决方案,应用设计和制造概念以及其他行业(如航空和汽车)的技术,以适用于航空航天。这允许对发射器细分市场实施一种新的空间方法,同时还建立了供应链和一套解决方案,该解决方案能够为该结构和未来的小型发射器进行工业化。正在开发的两个主要系统是一种通用的踢台,用于有效载荷载荷和轨道插入以及坚固的有效负载整流罩。即使在空间行业中使用现成的组件在卫星中已被广泛接受,但这两个系统构成了不同的挑战:在发射施加的最极端条件下,高度可靠,因此可以被认为可以安全地发射所有类型的有效负载。因此,本文深入研究了过去几年中开发的解决方案,在制造和测试这些结构期间还介绍了经验教训。
During the last decades the industry has seen the number of Earth orbiting satellites rise, mostly due to the need to monitor Earth as well as to establish global communication networks. Nano, micro, and small satellites have been a prime tool for answering these needs, with large and mega constellations planned, leading to a potential launch gap. An effective and commercially appealing solution is the development of small launchers, as these can complement the current available launch opportunity offer, serving a large pool of different types of clients, with a flexible and custom service that large conventional launchers cannot adequately assure. Rocket Factory Augsburg has partnered with CEiiA for the development of several structures for the RFA One rocket. The objective has been the design of solutions that are low-cost, light, and custom-made, applying design and manufacturing concepts as well as technologies from other industries, like the aeronautical and automotive, to the aerospace one. This allows for the implementation of a New Space approach to the launcher segment, while also building a supply chain and a set of solutions that enables the industrialisation of such structures for this and future small launchers. The two main systems under development have been a versatile Kick-Stage, for payload carrying and orbit insertion, and a sturdy Payload Fairing. Even though the use of components off-the-shelf have been widely accepted in the space industry for satellites, these two systems pose different challenges as they must be: highly reliable during the most extreme conditions imposed by the launch, so that they can be considered safe to launch all types of payloads. This paper thus dives deep on the solutions developed in the last few years, presenting also lessons learned during the manufacturing and testing of these structures.