Abstract

Space technology has been developed for frontier exploration not only in low-earth orbit environment but also beyond the earth orbit to the Moon and Mars, where material resources might be strongly restricted and almost impossible to be resupplied from the earth for distant and long-term missions performance toward “long-stays of humans in space”. For performing such long-term space explorations, none would be enough to develop technologies with resources only from the earth; it should be required to utilize resources on other places with different nature of the earth, i.e., in-situ resource utilization. One of important challenges of lunar in-situ resource utilization is thermal control of spacecraft on lunar surface for long-lunar durations. Such thermal control under “long-term field operation” would be solved by “thermal wadis” studied as a part of sustainable researches on overnight survivals such as lunar-night. The resources such as metal oxides that exist on planets or satellites could be refined, and utilized as a supply of heat energy, where combustion synthesis can stand as a hopeful technology for such requirements. The combustion synthesis technology is mainly characterized with generation of high-temperature, spontaneous propagation of reaction, rapid synthesis and high operability under various influences with centrifugal-force, low-gravity and high vacuum. These concepts, technologies and hardware would be applicable to both the Moon and Mars, and these capabilities might achieve the maximum benefits of in-situ resource utilization with the aid of combustion synthesis applications. The present paper mainly concerns the combustion synthesis technologies for sustainable lunar overnight survivals by focusing on “potential precursor synthesis and formation”, “in-situ resource utilization in extreme environments” and “exergy loss minimization with efficient energy conversion”.

Highlights

  • Combustion synthesis has gathered reputations as a unique and effective process for synthesizing high-temperature materials and as a quickly super-heating chemical oven

  • It is expected that the resources such as metal oxides that exist on planets or satellites could be refined, and utilized as useful supplies of heat energy, where combustion synthesis technologies can stand as hopeful ones for such requirements, i.e., in-situ resource utilizations (ISRU)

  • Regarding ISRU, key elements of oxygen and nitrogen from in-situ resources in fields would be able to guarantee the flexibility when scheduling and managing future space missions [2]. The resources such as metal oxides that exist on planets or satellites could be refined, and utilized as a supply of heat energy, where the combustion synthesis process can stand as a hopeful technology for such requirements

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Summary

Introduction

Combustion synthesis has gathered reputations as a unique and effective process for synthesizing high-temperature materials and as a quickly super-heating chemical oven. Regarding ISRU, key elements of oxygen and nitrogen from in-situ resources in fields would be able to guarantee the flexibility when scheduling and managing future space missions [2] The resources such as metal oxides that exist on planets or satellites could be refined, and utilized as a supply of heat energy, where the combustion synthesis process can stand as a hopeful technology for such requirements. Thermal control of spacecraft and material supply on lunar surface for long-lunar durations, which is one of important challenges of lunar ISRU under “long-term field operation”, would be solved by the combustion synthesis technologies carried out as a sustainable lunar overnight survival research with lunar regolith utilization as “thermal wadis” [3] Under such combustion synthesis characteristics in economical and energy saving standing-points, the combustion synthesis technology is recognized as one of typical methods useful in “exergy loss minimization”, which might result in highly promising possibility of combustion synthesis and related processes as advanced and respective technologies. The present paper mainly concerns the applications of combustion synthesis technologies relating with potential precursors formation and exergy loss minimization connecting with the ISRU efficient to sustainable survivals overnight

Potential technology expected in extreme environments
Unique progresses in precursor synthesis and formation
TiB2-AlB12-Al nano-composite synthesis
C-allotropes formation by a combustion flame method
B-C system for B4C formation with a Ti-C chemical oven
ISRU and lunar overnight survival research
Exergy loss minimization with efficient energy conversion
Sustainable process design for improvements of ISRU
Findings
Conclusions
Full Text
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