Study of the explosion load characteristics and structural response law under a cabin water mist environment: Experimental tests and simulations

To investigate the explosion load characteristics and structural response law in a water mist environment in a cabin, explosion experiments are carried out. The weakening rates of the initial peak overpressure, quasistatic pressure and structural residual deflection increase with increasing working pressure of the water mist nozzle. Specifically, the weakening rate of the initial peak overpressure ranges from 7.8% to 31.0%, the quasistatic pressure weakening rate ranges from 29.2% to 41.0%, and the weakening rate of the center of the plate residual deflection ranges from 10.8% to 34.4% under the various working pressures of the nozzles. To further explore the effect of water mist explosion suppression, a method for three-dimensional numerical simulations of water mist weakening the explosion shock wave is established to explore the explosion load characteristics of the compartment and the bulkhead response law. On the basis of the dimension analysis method, empirical formulas are derived to predict the residual deflection thickness in the center of the bulkheads. These findings provide the fundamental basis for the application of water mist in anti-explosive protection.

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Publication Details

Journal
Defence Technology
Published
2025-02-22
DOI
https://doi.org/10.1016/j.dt.2025.02.017
Citations
8
Primary Topic
Combustion and Detonation Processes
Type
article
Field-Weighted Citation Impact
39.95

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article

Study of the explosion load characteristics and structural response law under a cabin water mist environment: Experimental tests and simulations

Xiaobin Li, Yiheng Zhang, Xingxing Wu, Ya Zhang et al.
8 citations
Defence Technology
Combustion and Detonation Processes
39.95
article

Study of the explosion load characteristics and structural response law under a cabin water mist environment: Experimental tests and simulations

Xiaobin Li, Yiheng Zhang, Xingxing Wu, Ya Zhang, Zhiping Wang, Wei Chen, Hai Huang
article en
8 citations

Abstract

To investigate the explosion load characteristics and structural response law in a water mist environment in a cabin, explosion experiments are carried out. The weakening rates of the initial peak overpressure, quasistatic pressure and structural residual deflection increase with increasing working pressure of the water mist nozzle. Specifically, the weakening rate of the initial peak overpressure ranges from 7.8% to 31.0%, the quasistatic pressure weakening rate ranges from 29.2% to 41.0%, and the weakening rate of the center of the plate residual deflection ranges from 10.8% to 34.4% under the various working pressures of the nozzles. To further explore the effect of water mist explosion suppression, a method for three-dimensional numerical simulations of water mist weakening the explosion shock wave is established to explore the explosion load characteristics of the compartment and the bulkhead response law. On the basis of the dimension analysis method, empirical formulas are derived to predict the residual deflection thickness in the center of the bulkheads. These findings provide the fundamental basis for the application of water mist in anti-explosive protection.

Defence TechnologyVol. 49
Wuhan University of Technology (CN), Wuhan Ship Development & Design Institute (CN)
National Natural Science Foundation of China
Clean water and sanitation
Openalex Percentile: Top 0%
Combustion and Detonation Processes
39.95
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