Habot Lunar Crew Size, Skill Mix, and Time Model

Dudley-Rowley, Marilyn; Gangale, Thomas; Lemke, L. G.; Cohen, Marc M.

doi:10.4271/2005-01-2792

Cited by 2 publications

(2 citation statements)

References 5 publications

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“…It uses a modular design, and its morphological structure is tightly integrated with its internal functions. Examples include the LS3 lunar outpost (Kennedy & Toups, 2008) and the Hubbert lunar base conceptual scheme (Dudley-Rowley et al, 2005).…”

Section: Introductionmentioning

confidence: 99%

Robotic 3D printed lunar bionic architecture based on lunar regolith selective laser sintering technology

Yuan

Zhou

et al. 2022

ARIN

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The lunar base is not only an experimental station for extraterrestrial space exploration but also a dwelling for humans performing this exploration. Building a lunar base presents numerous obstacles and requires environmental perception, feedback design, and construction methods. An integrated fabrication process that incorporates design, 3D printing workflow, and construction details to build a bionic, reconfigurable and high-performance lunar base prototype is presented in this paper. The research comprises the study of the lunar regolith 3D printing mechanism, the real-time control of powder laying and compaction procedure, and the development of a 3D printing tool end system. In this paper, many scientific questions regarding in situ fabrication on the lunar surface are raised and addressed with the proposal of a progressive optimization design method, the molding principle, and gradation strategy of lunar soil-polyaryletherketone (PAEK) hybrid powder, and the principle of dual-light field 3D laser printing. The feasibility of the technical strategy proposed in this paper is verified by the presented empirical samples.

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Section: Introductionmentioning

confidence: 99%

Robotic 3D printed lunar bionic architecture based on lunar regolith selective laser sintering technology

Yuan

Zhou

et al. 2022

ARIN

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“…Courtesy of Neville Marzwell, NASA-JPL and John Mankins, NASA HQ. From "Habot Lunar Crew Size, Skill Mix, and Time Model" (Dudley-Rowley, Gangale, Lemke, and Cohen 2005) 16.…”

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confidence: 99%

An Astrosociological Approach to Defining Indigenous Martian Architecture

Wapniak¹,

Dudley-Flores²,

Gangale³

2007

AIAA SPACE 2007 Conference &Amp; Exposition

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This paper takes social scientific structural, evolutionary, and ecological perspectives on the adaptive architectural expressions of colonizing Mars. It is best read as a companion piece to "The Globalization of Space-The Astrosociological Approach" by the secondary and tertiary authors. This treatment assumes that humans are able to begin a Humans-to-Mars effort before the challenges and costs of global warming on Earth shut the door to long-duration space exploration. In fact, it assumes that an evolution of technological and social innovations emerge by meeting the challenges to the human species heralded by the dawning of the next historical geological/environmental epoch of the Earth. The authors review the anticipated milestones of this evolutionary lineage that transforms capital and the technological means of production and that enables the expansion of the human ecology on a greater scale. This evolution is essential and is the design driver of sustainable human settlements on Earth, the Moon, and Mars. Three distinct phases of human architecture on Mars are anticipated. The authors have embedded these over a timeline of exploration featuring a sequence of eight time intervals. The first Mars architectural phase involves responding to various physiological, sociological, and psychological factors expected to affect crew functionality over long durations away from Earth. Constructed from imported technologies, combining some easily processed in situ materials and delivered payload, the shelter is expected to adjust to the explorer's needs, well beyond the capabilities of a rigid habitat launched to a foreign body for a "flags and footprints" expedition. The second phase of Martian architecture meets the needs of the earliest scientific and mining missions to Mars. It is a transitory phase offering a viable shift from the temporary kluge between in situ and delivered payload materials to a more livable human settlement of the Red Planet. This will involve the cannibalization of earlier structures and the higher-level manufacture of other materials from in situ elements. The third phase is the primary use of manufactured materials from native elements in living and working spaces on Mars. Human history provides architectural parallels.

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Habot Lunar Crew Size, Skill Mix, and Time Model

Cited by 2 publications

References 5 publications

Robotic 3D printed lunar bionic architecture based on lunar regolith selective laser sintering technology

Robotic 3D printed lunar bionic architecture based on lunar regolith selective laser sintering technology

An Astrosociological Approach to Defining Indigenous Martian Architecture

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