Supplementing Closed Ecological Life Support Systems with In-Situ Resources on the Moon

In this review, I explore a broad-based view of technologies for supporting human activities on the Moon and, where appropriate, Mars. Primarily, I assess the state of life support systems technology beginning with physicochemical processes, waste processing, bioregenerative methods, food production...

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Main Author: Alex Ellery
Format: Article
Language:English
Published: MDPI AG 2021-07-01
Series:Life
Subjects:
Online Access:https://www.mdpi.com/2075-1729/11/8/770
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spelling doaj-43c4ba1ecf8b43f8ba5e4cb42e5fc6162021-08-26T13:59:04ZengMDPI AGLife2075-17292021-07-011177077010.3390/life11080770Supplementing Closed Ecological Life Support Systems with In-Situ Resources on the MoonAlex Ellery0Department of Mechanical & Aerospace Engineering, Carleton University, 1125 Colonel By Drive, Ottawa, ON K1S 5B6, CanadaIn this review, I explore a broad-based view of technologies for supporting human activities on the Moon and, where appropriate, Mars. Primarily, I assess the state of life support systems technology beginning with physicochemical processes, waste processing, bioregenerative methods, food production systems and the robotics and advanced biological technologies that support the latter. We observe that the Moon possesses in-situ resources but that these resources are of limited value in closed ecological life support systems (CELSS)—indeed, CELSS technology is most mature in recycling water and oxygen, the two resources that are abundant on the Moon. This places a premium on developing CELSS that recycle other elements that are rarified on the Moon including C and N in particular but also other elements such as P, S and K which might be challenging to extract from local resources. Although we focus on closed loop ecological life support systems, we also consider related technologies that involve the application of biological organisms to bioregenerative medical technologies and bioregenerative approaches to industrial activity on the Moon as potential future developments.https://www.mdpi.com/2075-1729/11/8/770bioregenerative life supportclosed ecological life supportin-situ resource utilizationlunar industrial ecology
collection DOAJ
language English
format Article
sources DOAJ
author Alex Ellery
spellingShingle Alex Ellery
Supplementing Closed Ecological Life Support Systems with In-Situ Resources on the Moon
Life
bioregenerative life support
closed ecological life support
in-situ resource utilization
lunar industrial ecology
author_facet Alex Ellery
author_sort Alex Ellery
title Supplementing Closed Ecological Life Support Systems with In-Situ Resources on the Moon
title_short Supplementing Closed Ecological Life Support Systems with In-Situ Resources on the Moon
title_full Supplementing Closed Ecological Life Support Systems with In-Situ Resources on the Moon
title_fullStr Supplementing Closed Ecological Life Support Systems with In-Situ Resources on the Moon
title_full_unstemmed Supplementing Closed Ecological Life Support Systems with In-Situ Resources on the Moon
title_sort supplementing closed ecological life support systems with in-situ resources on the moon
publisher MDPI AG
series Life
issn 2075-1729
publishDate 2021-07-01
description In this review, I explore a broad-based view of technologies for supporting human activities on the Moon and, where appropriate, Mars. Primarily, I assess the state of life support systems technology beginning with physicochemical processes, waste processing, bioregenerative methods, food production systems and the robotics and advanced biological technologies that support the latter. We observe that the Moon possesses in-situ resources but that these resources are of limited value in closed ecological life support systems (CELSS)—indeed, CELSS technology is most mature in recycling water and oxygen, the two resources that are abundant on the Moon. This places a premium on developing CELSS that recycle other elements that are rarified on the Moon including C and N in particular but also other elements such as P, S and K which might be challenging to extract from local resources. Although we focus on closed loop ecological life support systems, we also consider related technologies that involve the application of biological organisms to bioregenerative medical technologies and bioregenerative approaches to industrial activity on the Moon as potential future developments.
topic bioregenerative life support
closed ecological life support
in-situ resource utilization
lunar industrial ecology
url https://www.mdpi.com/2075-1729/11/8/770
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