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GLASS BUBBLES INSULATION FOR LIQUID HYDROGEN STORAGE TANKS
Author(s) -
J. P. Sass,
W. W. St. Cyr,
T. M. Barrett,
R. G. Baumgartner,
J. W. Lott,
James E. Fesmire,
J. G. Weisend
Publication year - 2010
Publication title -
aip conference proceedings
Language(s) - English
Resource type - Conference proceedings
SCImago Journal Rank - 0.177
H-Index - 75
eISSN - 1551-7616
pISSN - 0094-243X
DOI - 10.1063/1.3422430
Subject(s) - storage tank , liquid hydrogen , annulus (botany) , materials science , perlite , propellant , pipe insulation , nuclear engineering , environmental science , hydrogen , thermal insulation , vacuum insulated panel , mechanical engineering , composite material , aerospace engineering , engineering , chemistry , organic chemistry , layer (electronics)
A full‐scale field application of glass bubbles insulation has been demonstrated in a 218,000 L liquid hydrogen storage tank. This work is the evolution of extensive materials testing, laboratory scale testing, and system studies leading to the use of glass bubbles insulation as a cost efficient and high performance alternative in cryogenic storage tanks of any size. The tank utilized is part of a rocket propulsion test complex at the NASA Stennis Space Center and is a 1960’s vintage spherical double wall tank with an evacuated annulus. The original perlite that was removed from the annulus was in pristine condition and showed no signs of deterioration or compaction. Test results show a significant reduction in liquid hydrogen boiloff when compared to recent baseline data prior to removal of the perlite insulation. The data also validates the previous laboratory scale testing (1000 L) and full‐scale numerical modeling (3,200,000 L) of boiloff in spherical cryogenic storage tanks. The performance of the tank will continue to be monitored during operation of the tank over the coming years.

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