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The Purpose of Human Spaceflight and a Lunar Architecture to Explore the Potential of Resource Utilization

机译:人类空间的目的和月球建筑,探讨资源利用的潜力

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Our current national, government-funded human spaceflight effort lacks clarity of purpose. Despite NASA's obsession with human missions to Mars, a return to the Moon offers more benefits, a larger number of near-term milestones, and prepares us for future missions to the planets. We offer a logical, justifiable alternative to the existing program that identifies a compelling purpose for human spaceflight - to learn how to use the material and energy resources of space to create new spaceflight capabilities. As in our previous plan, robotic surface elements begin harvesting lunar water for use prior to human arrival on the Moon, resulting in the creation of a permanent, space-based cislunar transportation system. However, we continue this effort with two significant updates. We use the SLS Block-1 and Block 1B configuration launch vehicle for outpost buildup, which allows much more mass and volume in a single launch, and craft an architecture that minimizes cost (almost 50% reduction in crew cycle cost compared to our previous architecture) for a crew lunar mission cycle by relying upon Commercial Crew launch services. Employing a reusable in-space cislunar crew stage and a reusable human lunar lander, a crew can be launched commercially by any of several providers and returned 6-months later using the Commercial Crew service. To improve safety, we station an Orion at a Low Lunar Orbit (LLO) fuel depot that can be used as an assured crew return vehicle at any time in case of emergency. As a consequence of this strategy, we develop more capability to harvest lunar water for propellant compared to the previous architecture; at the end of the 16-year first phase of the architecture, we produce more than 300 metric tons of lunar water per year, with a production capacity of 500 metric tons per year. We use aerobraking during Earth return to recover the reusable cislunar crew stage; this non-propulsive maneuver removes excess energy for an insertion to Low Earth Orbit to transfer crew to the Commercial Crew vehicle before returning home. We take advantage of a LEO fuel depot, loaded by commercial or government water deliveries to the depot from Earth, to fuel the cislunar crew stage on its way to the Moon. The use of both commercial crew and commercial water transferred to the LEO fuel depot allows the campaign to better use and stimulate commercial space industry, transferring technology and experience from NASA to the commercial sector regarding the ability of humans to use local (off-planet) resources in an effective way to explore and grow off-planet. The total estimated cost for this new architecture is $ 87.7 billion, about $ 550 million more than our previous plan. In addition, we have examined possible international contributions to the architecture, with specific suggestions for bartered and in-kind contributions. With these possible contributions, we can reduce the peak NASA funding to $ 5.5 billion per year while reducing the total program cost to $ 69 billion, a reduction of roughly one-quarter (25%). At the end of the first phase of the lunar campaign, we will have demonstrated and determined the degree to which humans can effectively use local resources to live and thrive off-planet. At that point, future missions to other deep-space destinations (like Mars) can be undertaken, leveraging the technology gained and lessons learned from the lunar experience as well as utilize the consumables and propellant produced from lunar resources. These new products can be used and exploited by government, commercial, or international entities as we continue to expand our reach in cislunar space and beyond.
机译:我们目前的国家,政府资助的人类航天努力缺乏明确的目的。尽管美国航空航天局对马斯的痴迷于马斯,但回到月球返回了更多的福利,更多的近期里程碑,并为未来的行星任务准备了我们。我们为现有程序提供了一个逻辑,合理的替代方案,该计划识别人类航天飞行的令人信服的目的 - 了解如何使用空间的材料和能源来创建新的空云功能。与之前的计划一样,机器人表面元素开始在人类到达月球之前开始收获月球使用,从而创造了永久性,基于空间的Cislunar运输系统。但是,我们继续使用两项重大更新。我们使用SLS Block-1和Block 1B配置发射车辆进行前端积累,这允许在一次发射中进行更多的质量和体积,并制作一个最小化成本的架构(与我们之前的架构相比,机组人员循环成本的近50%降低了50% )通过依靠商业船员发射服务,为船员失误循环。乘坐可重复使用的空间Cislunar船员和可重复使用的人类月球兰德,可以通过几个提供商中的任何一个商业推出,并使用商业船员服务在6个月后返回。为了提高安全,我们在低迷的月球轨道(LLO)燃料库上的猎户座在紧急情况下随时用作保证的人员返回车辆。由于这一策略,我们与以前的建筑相比,我们制定更多的能力为推进剂进行推进剂;在16年的架构的第一阶段结束时,我们每年生产超过300公吨的月球水,每年生产能力为500公吨。我们在地球期间使用充满气球恢复恢复可重复使用的Cislunar船员阶段;这种不推进的机动在返回家庭之前消除了向低地球轨道插入到低地球轨道上的能量。我们利用Leo燃料仓库,由商业或政府水送到地球上的仓库,在通往月球的途中促进Cislunar船员。使用商用机组并转移到LEO油库商业用水允许的活动,以更好地利用并刺激商业航天工业,从NASA转让技术和经验,商业部门关于人类使用本地的能力(离地球)资源以有效的方式探索和生长行星。这一新架构的总估计成本为877亿美元,比以前的计划超过5.5亿美元。此外,我们已经审查了对该建筑的可能性的国际贡献,具体建议易货和实物贡献。凭借这些可能的贡献,我们可以将峰值NASA资金降低到每年55亿美元,同时将计划总额降至6.9亿美元,减少约四分之一(25%)。在月球运动的第一阶段结束时,我们将证明并确定人类能够有效地利用当地资源生活和茁壮成长的程度。此时,可以开展未来的其他深度目的地(如火星)的任务,利用农历经验中获得的技术和经验教训,并利用了从农历资源生产的消耗品和推进剂。这些新产品可以由政府,商业或国际实体使用和利用,因为我们继续扩大Cislunar Space及以后的覆盖范围。

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