Experimental study on vaporization behavior of liquid hydrogen on different substrates

Liquid hydrogen leakage during production, storage, and transportation poses significant safety challenges, yet experimental studies on its vaporization behavior across various substrates remain limited. A specialized experimental setup was developed to investigates the vaporization behavior of liquid hydrogen on concrete, soil, sand, and gravel substrates. Results reveal significant variations in temperature responses and vaporization rates across substrates, with concrete exhibiting the highest vaporization rate (0.0700 characteristic parameter), followed by gravel (0.0478), sand (0.0322), and soil (0.0236). The vaporized mass of liquid hydrogen shows an approximately linear relationship with the square root of time for all substrates. A novel vaporization characteristic parameter model is proposed to quantify the vaporization dynamics, providing critical insights into cryogenic fluid-substrate interactions. These findings enhance understanding of liquid hydrogen vaporization and offer practical implications for improving the safety and design of cryogenic storage and handling systems. • The vaporization behavior of liquid H 2 on different substrates were studied. • Temperature response varies greatly among different substrates. • The vaporized mass of liquid H 2 is linear with the square root of time. • Vaporization parameter: concrete 0.07 > gravel 0.0478 > sand 0.0322 > soil 0.0236.

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Publication Details

Journal
International Journal of Hydrogen Energy
Published
2025-04-27
DOI
https://doi.org/10.1016/j.ijhydene.2025.04.056
Citations
2
Primary Topic
Spacecraft and Cryogenic Technologies
Type
article
Field-Weighted Citation Impact
9.99

Funders

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article

Experimental study on vaporization behavior of liquid hydrogen on different substrates

Shenyin Yang, Mingshu Bi, Songrui Zhao, Zhenhua Xie et al.
2 citations
International Journal of Hydrogen Energy
Spacecraft and Cryogenic Technologies
9.99
article

Experimental study on vaporization behavior of liquid hydrogen on different substrates

Shenyin Yang, Mingshu Bi, Songrui Zhao, Zhenhua Xie, Jingjie Ren
article en
2 citations

Abstract

Liquid hydrogen leakage during production, storage, and transportation poses significant safety challenges, yet experimental studies on its vaporization behavior across various substrates remain limited. A specialized experimental setup was developed to investigates the vaporization behavior of liquid hydrogen on concrete, soil, sand, and gravel substrates. Results reveal significant variations in temperature responses and vaporization rates across substrates, with concrete exhibiting the highest vaporization rate (0.0700 characteristic parameter), followed by gravel (0.0478), sand (0.0322), and soil (0.0236). The vaporized mass of liquid hydrogen shows an approximately linear relationship with the square root of time for all substrates. A novel vaporization characteristic parameter model is proposed to quantify the vaporization dynamics, providing critical insights into cryogenic fluid-substrate interactions. These findings enhance understanding of liquid hydrogen vaporization and offer practical implications for improving the safety and design of cryogenic storage and handling systems. • The vaporization behavior of liquid H 2 on different substrates were studied. • Temperature response varies greatly among different substrates. • The vaporized mass of liquid H 2 is linear with the square root of time. • Vaporization parameter: concrete 0.07 > gravel 0.0478 > sand 0.0322 > soil 0.0236.

International Journal of Hydrogen EnergyVol. 132
Dalian University of Technology (CN), Dalian University (CN), RE Hydrogen (United Kingdom) (GB)
National Natural Science Foundation of China, National Key Research and Development Program of China, Fundamental Research Funds for the Central Universities
Openalex Percentile: Top 3%
Spacecraft and Cryogenic Technologies
9.99
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Experimental study on vaporization behavior of liquid hydrogen on different substrates — Shenyin Yang, Mingshu Bi, et al. · International Journal of Hydrogen Energy (2025) | TGRS Research Map | TGRS