Getting there and staying there: supporting and enabling persistent human life on Mars using synthetic natural rubber, self-healing materials, and biological batteries.
Nischal AcharyaiD, Natalie Baker, Marilu Krystal Bravo, Katie Gu, Sierra Harken, Michael Howland Herschl, Addie Petersen, Ileana PirozziiD, Dylan Spangle, Gordon L. Sun, Brian B. VuongiD, Nils J. H. AvereschiD, Kosuke FujishimaiD, Trevor J. KalkusiD, Kara J. Helmke Rogers, Lynn J. RothschildiD
Abstract
Planetary exploration requires a balance between preemptive planning and financial feasibility. The risk of mid-mission equipment failure, power shortages, or supply depletion incentivizes precautionary measures, but the financial strain of sending unnecessary mass into space limits this practice.\n\nTo balance the two, our team explored the advantages of biological solutions, namely the self-sustaining abilities of low-mass organisms, to make planetary exploration more self-sufficient and economical. Prioritizing repair over replacement, we are developing self-healing materials embedded with Bacillus subtilis. For longer-lasting energy, we are designing a \"biobactery\" using linearly oriented Escherichia coli to generate power. For renewable materials, we are engineering bacteria to synthesize and degrade rubber. Individually, these projects offer sustainable alternatives for repair, power, and materials. But when combined, these consolidated insights can provide us with the power to get to Mars and resources to sustain us while were there.
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