Space aquatic chemistry: A roadmap for drinking water treatment in microgravity

  • Baiwen Ma
  • , Yaohui Bai
  • , Chengzhi Hu*
  • , Beizhen Xie
  • , Junya Zhang
  • , Mathias Ulbricht
  • , Libing Zheng
  • *Corresponding author for this work

Research output: Contribution to journalComment/debate

Abstract

Rapid advancement in aerospace technology has successfully enabled long-term life and economic activities in space, particularly in Low Earth Orbit (LEO), extending up to 2000 km from the mean sea level. However, the sustainance of the LEO Economy and its Environmental Control and Life Support System (ECLSS) still relies on a regular cargo supply of essential commodities (e.g., water, food) from Earth, for which there still is a lack of adequate and sustainable technologies. One key challenge in this context is developing water treatment technologies and standards that can perform effectively under microgravity conditions. Solving this technical challenge will be a milestone in providing a scientific basis and the necessary support mechanisms for establishing permanent bases in outer space and beyond. To identify clues towards solving this challenge, we looked back at relevant scientific research exploring novel technologies and standards for deep space exploration, also considering feedback for enhancing these technologies on land. Synthesizing our findings, we share our outlook for the future of drinking water treatment in microgravity. We also bring up a new concept for space aquatic chemistry, considering the closed environment of engineered systems operating in microgravity.

Original languageEnglish
Article number100344
JournalEnvironmental Science and Ecotechnology
Volume19
DOIs
StatePublished - May 2024

Keywords

  • Challenges
  • Drinking water treatment
  • Microgravity
  • Strategies
  • Water quality

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