首页> 外文会议>International astronautical congress >ORBITAL REFUELING, SPACE DEBRIS, AND ADVANCING A SOLAR SYSTEM ECONOMY
【24h】

ORBITAL REFUELING, SPACE DEBRIS, AND ADVANCING A SOLAR SYSTEM ECONOMY

机译:轨道反射,空间碎片和推进太阳能系统经济

获取原文

摘要

Space settlement has been frozen for four decades due in part to a series of dilemmas. While affordable launch seems to finally be resolved, there are limits to vehicle scale without orbital refueling. However, making multi-billion dollar missions depend on fragile stations orbiting in a space debris field is risky. Entry, Descent, and Landing at Mars with current technology is limited by mass and aeroshell diameters. This paper proposes to resolve these issues in a single, affordable, low technology package. Water can be broken down into hydrogen and oxygen for cryopropellants, although the ratio leaves extra oxygen. That oxygen can then be burned more storable fuels. Water can be frozen and reinforced to strengths greater than concrete, and could therefore block orbital debris and cosmic rays from an orbiting crewed base. This paper proposes a small refueling platform able to not only fuel deep space missions, but carry enough fuel to transport itself to orbit around the moon or Mars. An orbiting fuel platform and Mars would allow propulsive entry remove a major limitation on the scale of landing vehicles. Water from the moon and Mars can also be transported to orbit via local shuttles to maintain stock without dependency on Earth. Crews in orbit would have cosmic ray protection much like that on the surface, and the architecture can also be used for surface bases.
机译:部分由于一系列困境,空间解决已冻结了四十年。虽然负担得起的发射似乎终于得到解决,但在不进行轨道加油的情况下,车辆规模仍然受到限制。但是,使数十亿美元的任务依赖于在空间碎片领域中运行的脆弱站点是有风险的。当前技术在火星上的进入,下降和着陆受到质量和机壳直径的限制。本文提出了以单一的,可负担的,低技术的解决方案来解决这些问题。水可分解为氢和氧作为低温推进剂,尽管该比例会留下多余的氧气。然后氧气可以燃烧更多的可储存燃料。水可以被冷冻和增强,使其强度大于混凝土,因此可以阻挡轨道碎片和来自轨道运行的人员基地的宇宙射线。本文提出了一个小型加油平台,该平台不仅可以为深空任务加油,而且还可以携带足够的燃料以将自身运送到月球或火星周围的轨道上。轨道燃料平台和火星将允许推进进入,这消除了对着陆车规模的主要限制。来自月球和火星的水也可以通过当地的航天飞机运送到轨道上,以维持不依赖地球的水量。轨道上的机组人员将具有与表面类似的宇宙射线保护功能,并且该体系结构还可用于表面基底。

著录项

相似文献

  • 外文文献
  • 中文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号