Implementation of multi-component dusty-gas model for species transport in quasi-three-dimensional numerical analysis of solid oxide fuel cell. Part I: Hydrogen fuel

1Citations
Citations of this article
18Readers
Mendeley users who have this article in their library.

This article is free to access.

Abstract

Quasi-three-dimensional numerical model of solid oxide fuel cell, which assumes constant physicochemical properties within the cell components in the thickness direction, typically employs a simple gas diffusion model for species transport in the porous electrodes, such as the Fick's model. In this study, a three-dimensional grid system is introduced in the anode layer and coupled with the quasi-three-dimensional solid oxide fuel cell model. The multi-component dusty-gas model is implemented to solve the conservation of species on this three-dimensional grid system. The results with the developed model are compared with experimental data obtained under hydrogen fuel. The obtained results show that the dusty-gas model can accurately predict the transport of gas species in the porous anode.

References Powered by Scopus

Thermophysical properties of high porosity metal foams

1162Citations
N/AReaders
Get full text

Forced convection in high porosity metal foams

1090Citations
N/AReaders
Get full text

Performance comparison of Fick's, dusty-gas and Stefan-Maxwell models to predict the concentration overpotential of a SOFC anode

413Citations
N/AReaders
Get full text

Cited by Powered by Scopus

Implementation of multi-component dusty-gas model for species transport in quasi-three-dimensional numerical analysis of solid oxide fuel cell. Part II: Direct ammonia fuel

1Citations
N/AReaders
Get full text

Register to see more suggestions

Mendeley helps you to discover research relevant for your work.

Already have an account?

Cite

CITATION STYLE

APA

Tan, W. C., Iwai, H., Kishimoto, M., & Yoshida, H. (2019). Implementation of multi-component dusty-gas model for species transport in quasi-three-dimensional numerical analysis of solid oxide fuel cell. Part I: Hydrogen fuel. In IOP Conference Series: Materials Science and Engineering (Vol. 670). IOP Publishing Ltd. https://doi.org/10.1088/1757-899X/670/1/012021

Readers' Seniority

Tooltip

PhD / Post grad / Masters / Doc 6

60%

Researcher 2

20%

Professor / Associate Prof. 1

10%

Lecturer / Post doc 1

10%

Readers' Discipline

Tooltip

Engineering 8

80%

Computer Science 1

10%

Materials Science 1

10%

Save time finding and organizing research with Mendeley

Sign up for free