Quantitative simulation and risk analysis method and device for hazardous working conditions of fluid-related components
A technology of fluid components and simulation methods, which is applied in the field of safety analysis, can solve the problems of cumbersome process and low accuracy of risk analysis methods, and achieve the goals of reducing the workload of simulation analysis, accurate quantitative simulation, and improving comprehensiveness and accuracy Effect
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Embodiment 1
[0037] This embodiment provides a quantitative simulation method for dangerous working conditions of fluid-related components, such as Figure 1A shown, including the following steps:
[0038] S11: Modeling a fluid-related system including fluid-related components to obtain a target model of the fluid-related system.
[0039] Specifically, the fluid-involving system can be a fuel cell system, and the fluid-involving components can be the fuel cell stack in the fuel cell system. For example, the fuel cell system can be geometrically modeled by fluid dynamic simulation software such as GASFLOW, and can be Establishing a two-dimensional model or a three-dimensional model can mainly model the fluid source, factors affecting fluid flow, object temperature, etc. For example, the two-dimensional model of the fuel cell system can be established as the target model.
[0040] S12: Quantify and segment the target model to obtain multiple measurement domains. If a three-dimensional model is...
Embodiment 2
[0046] This embodiment provides a method for risk analysis of fluid-related components, such as figure 2 shown, including the following steps:
[0047] S21: Screen the dangerous working conditions of the fluid-related components to screen out the target working conditions of the fluid-related components that need to be quantitatively simulated, where the fluid-related components are one of the components of the fluid-related system, specifically, from multiple Select the fluid-related parts to be analyzed from the component parts according to the needs, and then select the target working conditions from various working conditions of the fluid-related components, so that the subsequent simulation process is targeted and avoid the need to simulate all potentially dangerous working conditions one by one. blindness. For example, the fluid-related system can be a fuel cell system, and the fluid-related components can be the fuel cell stack in the fuel cell system. By screening th...
Embodiment 3
[0051] This embodiment provides a further detailed description of the risk analysis method for fluid-related components provided in Embodiment 2, as image 3 As shown, the analysis method includes the following steps:
[0052] S31: Analyze multiple potentially dangerous working conditions of fluid-related components and the degree of danger of each potentially dangerous working condition. Here, the fluid-related component is one of the components of the fluid-related system. For example, the fluid-involving system can be a fuel cell system, and the fluid-involving components can be a fuel cell stack in the fuel cell system. Firstly, analyze various potential dangerous working conditions of the fuel cell stack. The operability analysis method, that is, HAZOP (Hazard, Operability, hazard and operability) analyzes the fuel cell stack to obtain possible failures of the fuel cell stack (that is, a variety of potentially dangerous conditions). In addition, it can also Analyze the ...
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