QUEST THERMAL GROUP, LLC — National Aeronautics and Space Administration SBIR Phase I: S1

QUEST THERMAL GROUP, LLC — SBIR Phase I award from National Aeronautics and Space Administration.

Amount
$124,946
Agency
National Aeronautics and Space Administration
Program / Phase
SBIR · Phase I
Topic
S1
Solicitation
SBIR_19_P1
NAICS
Place of performance
CO
Period
2019-08-19 → 2020-02-18

Description

High precision observations of the cosmic microwave background (CMB) may enable astronomers to test new theories of dark matter amp; dark energy and currently unexplained events such as cosmic inflation amp; cosmic acceleration. Detecting CMB polarization would provide evidence for inflationary theory and open a new window on physics in the very early universe. Cost effective balloon experiments can probe the CMB, and develop technology for future space missions. NASA desires technology for low mass, high thermal performance LHe insulated dewars for future balloon-borne instruments. Light Weight Dewar (LWD) is a novel lightweight dewar concept, using a thin, lightweight vacuum shell supported by underlying IMLI layers and integrated with a lightweight dewar wall, that could achieve heat flux as low as 0.3 W/m2 and up to 79% mass reduction over current LHe dewars.LWD uses discrete load-supporting spacers to form a structural insulation system able to support thin metal vacuum shells at balloon observatory atmospheric loads while minimizing heat flux through the spacers and layers.nbsp; Questrsquo;s expertise in engineering high performance insulation systems that support external loads, along with experience gained from designing lightweight vacuum shell and insulation layers with load supporting spacers for two NASA programs, should enable the Quest team to successfully design, build and test a lightweight dewar that provides good thermal performance for LHe storage for high altitude balloon cryogenic sensors.The Quest team believes a novel system integrating a ventable/sealable lightweight Vacuum Shell, supported by IMLI, can be engineered for high performance at float altitude and provide good thermal performance and lower mass than current state-of-the-art dewars, enabling future 5m optics.