Proton exchange membrane (PEM) based technologies (fuel cells and electrolysers) offer
promising sustainable power generation and storage solutions for a diverse range of …

In order to improve the mass transfer and the energy performance of a Proton Exchange
Membrane Fuel Cell (PEMFC), five different kind of block shapes in the flow channel are …

In proton exchange membrane fuel cells, baffled flow channels can enhance the reactant
transfer and improve the cell performance. Many different baffled flow channels have been …

Metal foam flow field is applied on a polymer electrolyte membrane fuel cell (PEMFC) to
improve its performance by enhancing mass transfer property. Generally, the metal foam is …

Better mass transfer, more uniform temperature distribution, small pressure drop, and
improved electrochemical performance can be achieved by designing better flow field in …

Most recent publications on PEMFC modelling describe the electrode kinetics of the catalytic
reactions with a mechanistically simple equation usually called the" Butler-Volmer equation" …

A three-dimensional, non-isothermal and two-phase flow model for proton exchange
membrane (PEM) fuel cells is developed. In the cathode catalyst layer, a spherical …

Two kinds of innovative 3‐dimensional (3D) proton exchange membrane fuel cell (PEMFC)
cathode flow channel designs were proposed to improve the water removal on the surface of …

Due to the internal fiber structure and extrusion in the assembly process of fuel cell, the gas
diffusion layer presents various characteristics in different directions, which makes …

In this study, a three-dimensional, non-isothermal, two-phase flow mathematical model is
developed and applied to investigate the effect of the GDL deformation on transport …