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Numerical study of a MIMO-shaped cooling plate in PEMFC stack for heat transfer enhancement

Xi Chen, Qinxiao Liu, Fang Ye, Lingxuan He, Taiming Huang, Yan Zhang, Zhongmin Wan, Xiaodong Wang

2021Energy Reports48 citationsDOIOpen Access PDF

Abstract

During the operation of high-power proton exchange membrane (PEM) fuel cell, huge heat is generated in the chemical reaction, which need be removed by efficient cooling design. To solve the problem of local overheating during PEMFC, a novel multi-input and multi-output (MIMO) cooling flow field is proposed. The maximum temperature, temperature uniformity and pressure drop characteristics of the U-shaped and Z-shaped cooling flow fields with different MIMO channels configurations are researched by computational fluid dynamics (CFD) method. The results demonstrate that comparing with U-shaped cooling flow field, Z-shaped design can provide better temperature distribution with the same MIMO channel configuration. Moreover, the serpentine cooling flow field provides better cooling performance than parallel cooling flow field, but leads to higher pressure loss. Compared to other cases, Z-shaped serpentine MIMO channel presents the best cooling performance, reducing the maximum temperature value to 322.7 K.

Topics & Concepts

Pressure dropComputational fluid dynamicsOverheating (electricity)Proton exchange membrane fuel cellHeat transferMechanicsNuclear engineeringMaterials scienceStack (abstract data type)Water coolingFluid dynamicsMIMOFlow (mathematics)Mechanical engineeringThermodynamicsChannel (broadcasting)Computer scienceEngineeringElectrical engineeringPhysicsFuel cellsChemical engineeringProgramming languageFuel Cells and Related MaterialsElectrocatalysts for Energy ConversionMembrane-based Ion Separation Techniques
Numerical study of a MIMO-shaped cooling plate in PEMFC stack for heat transfer enhancement | Litcius