Closed Environment Module – Modularization and extension of the Virtual Habitat

Plötner, Peter; Czupalla, Markus; Жуков, О. В.

doi:10.1016/j.asr.2013.09.016

Cited by 3 publications

(1 citation statement)

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“…HERITAGE shares more comparative points with virtual habitat models. In particular, the V-HAB model developed by the Exploration Group in Munich [70,71,72] includes a dynamic representation of the crew to be integrated in any LSS. The human model includes a much more sophisticated representation of the human body (lungs, heart, kidneys, fluids ...) and very precise estimations of the water, food and breathable gases intake can be achieved.…”

Section: Life Support Systems Virtual Habitat Models and Heritagementioning

confidence: 99%

Water and air consumption aboard interstellar arks

Marin,

Beluffi

2020

Preprint

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The architecture of a large interstellar spaceship, which is capable of serving as a living environment for a population over many generations, is mainly dictated by the needs of said population in terms of food, water and breathable gases. These resources cannot be stored for the entire duration of a journey that goes on for several centuries, so they must be produced in situ. In order to determine the quantities necessary for the survival of the population, it is imperative to precisely estimate their needs. In this article, we focus on accurate simulations of the water and air (oxygen) requirements for any type of population in order to be able to provide precise constraints on the overall architecture of an interstellar ark (the requirements in terms of food having already been studied in a previous publication). We upgrade our agent-based, numerical, Monte Carlo code HERITAGE to include human physiological needs. Our simulations show that, for a crew of about 1 100 crew members (each characterized with individual anthropometric and biological data), 1.8 × 10 8 litres of oxygen are annually required, together with 1.1 × 10 6 litres of water. Those results do not account for oxygen and water used in growing plants, but they give us an insight of how much resources are needed in the spaceship. We also review the best methods for generating water from waste gases (namely carbon dioxide and dihydrogen) and how such system could complement the oxygen-supplying biospheres inside multi-generational spaceship to form a closed and controlled environment.

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Section: Life Support Systems Virtual Habitat Models and Heritagementioning

confidence: 99%