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Hybrid Heat Pipes for Lunar and Martian Surface and High Heat Flux Space Applications
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Hybrid Heat Pipes for Lunar and Martian Surface and High Heat Flux Space Applications
2016
Overview
Novel hybrid wick heat pipes are developed to operate against gravity on planetary surfaces, operate in space carrying power over long distances and act as thermosyphons on the planetary surface for Lunar and Martian landers and rovers. These hybrid heat pipes will be capable of operating at the higher heat flux requirements expected in NASA's future spacecraft and on the next generation of polar rovers and equatorial landers. In addition, the sintered evaporator wicks mitigate the start-up problems in vertical gravity aided heat pipes because of large number of nucleation sites in wicks which will allow easy boiling initiation. ACT, NASA Marshall Space Flight Center, and NASA Johnson Space Center, are working together on the Advanced Passive Thermal experiment (APTx) to test and validate the operation of a hybrid wick VCHP with warm reservoir and HiK\"TM\" plates in microgravity environment on the ISS.
Publisher
NASA/Langley Research Center
Subject
