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Experimental study on transient thermal–hydraulic characteristics of an open natural circulation for the passive containment cooling system

•The flow instability in the NC loop with the start-up stage of PCCS was observed.•Transient thermal-hydraulic characteristic vs operating parameters were discussed.•The empirical correlation proposed can accurately predict duration of pressure drop. Nuclear safety has attracted increasing global at...

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Published in:International journal of heat and mass transfer 2021-11, Vol.179, p.121680, Article 121680
Main Authors: Hui, Kai, Chen, Weixiong, Li, Shaodan, Zhao, Quanbin, Yan, Junjie
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Language:English
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container_title International journal of heat and mass transfer
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creator Hui, Kai
Chen, Weixiong
Li, Shaodan
Zhao, Quanbin
Yan, Junjie
description •The flow instability in the NC loop with the start-up stage of PCCS was observed.•Transient thermal-hydraulic characteristic vs operating parameters were discussed.•The empirical correlation proposed can accurately predict duration of pressure drop. Nuclear safety has attracted increasing global attention. Passive Containment Cooling System (PCCS) is one of the several passive safety systems designed to ensure the safety of nuclear power plants (NPPs). A large-scale test facility was built to simulate the PCCS for understanding the thermal–hydraulic characteristics with operating conditions in the start-up process. Parameter analysis is carried out to reveal the influences of various parameters on the thermal–hydraulic characteristics. Results show that the transient-state performance of the PCCS strongly depends on the initial containment pressure and air mass fraction. The air mass fraction has a greater effect on the transient heat transfer process. Meanwhile, the effect of cooling water temperature on the transient characteristics can be ignored. The response time, which is defined to characteristic the heat transfer ability of PCCS, is proposed. In addition, a non-dimensional empirical correlation for response time is developed to reveal the relationship between the heat transfer capacity of the natural circulation and forced circulation, while the deviation mostly within ±20%. Studies on the relevant physical processes or phenomena are helpful for the safety analysis or accident study related with PCCS.
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subjects Air masses
Bundle tube heat exchanger
Containment
Cooling effects
Cooling systems
Cooling water
Empirical analysis
Heat transfer
Hydraulics
Nuclear power plants
Nuclear safety
Passive containment cooling system
Process parameters
Response time
Test facilities
Transient heat transfer
Transient performance
Water temperature
title Experimental study on transient thermal–hydraulic characteristics of an open natural circulation for the passive containment cooling system
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