The case for Mars terraforming research

IF 12.9 1区 物理与天体物理 Q1 ASTRONOMY & ASTROPHYSICS
Erika Alden DeBenedictis, Edwin S. Kite, Robin D. Wordsworth, Nina L. Lanza, Charles S. Cockell, Pamela A. Silver, Ramses M. Ramirez, John Cumbers, Hooman Mohseni, Christopher E. Mason, Woodward W. Fischer, Christopher P. McKay
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Abstract

Terraforming Mars has long captured the imagination but has received surprisingly little rigorous study. Progress in Mars science, climate science, launch capabilities and bioscience motivates a fresh look at Mars terraforming research. Since Sagan’s time, it has been understood that terraforming Mars would involve warming to enable oxygenic photosynthesis by engineered microbes, followed by slow oxygen build-up enabling more complex life. Before we can assess whether warming Mars is worthwhile, relative to the alternative of leaving Mars as a pristine wilderness, we must confront the practical requirements, cost and possible risks. Here we discuss what we know about Mars’s volatile inventories and soil composition, and possible approaches to warm Mars and increase atmospheric O2. New techniques have emerged that could raise Mars’s average global temperature by tens of degrees within a few decades. Research priorities include focusing on understanding fundamental physical, chemical and biological constraints that will shape any future decisions about Mars. Such research would drive advances in Mars exploration, bioscience and climate modelling.

Abstract Image

火星地球化研究的案例
长期以来,火星地球化一直激发着人们的想象力,但令人惊讶的是,很少有严谨的研究。火星科学、气候科学、发射能力和生物科学的进步促使人们重新审视火星地球化研究。从萨根的时代开始,人们就认识到,改造火星需要变暖,使工程微生物能够进行含氧光合作用,然后缓慢地积累氧气,使更复杂的生命得以存在。在我们评估变暖火星是否值得之前,相对于让火星成为原始荒野的选择,我们必须面对实际的要求、成本和可能的风险。在这里,我们将讨论我们对火星的挥发性库存和土壤成分的了解,以及使火星变暖和增加大气O2的可能方法。新技术已经出现,可以在几十年内将火星的全球平均温度提高几十度。研究重点包括了解基本的物理、化学和生物限制,这些限制将影响未来有关火星的任何决定。这样的研究将推动火星探测、生物科学和气候模型的发展。
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来源期刊
Nature Astronomy
Nature Astronomy Physics and Astronomy-Astronomy and Astrophysics
CiteScore
19.50
自引率
2.80%
发文量
252
期刊介绍: Nature Astronomy, the oldest science, has played a significant role in the history of Nature. Throughout the years, pioneering discoveries such as the first quasar, exoplanet, and understanding of spiral nebulae have been reported in the journal. With the introduction of Nature Astronomy, the field now receives expanded coverage, welcoming research in astronomy, astrophysics, and planetary science. The primary objective is to encourage closer collaboration among researchers in these related areas. Similar to other journals under the Nature brand, Nature Astronomy boasts a devoted team of professional editors, ensuring fairness and rigorous peer-review processes. The journal maintains high standards in copy-editing and production, ensuring timely publication and editorial independence. In addition to original research, Nature Astronomy publishes a wide range of content, including Comments, Reviews, News and Views, Features, and Correspondence. This diverse collection covers various disciplines within astronomy and includes contributions from a diverse range of voices.
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