z-logo
open-access-imgOpen Access
Properties and Performance of Gas Diffusion Layer PEMFC Derived from Coconut Coir
Author(s) -
Fredina Destyorini,
Yuyun Irmawati,
Henry Widodo,
Deni Shidqi Khaerudini,
Nanik Indayaningsih
Publication year - 2018
Publication title -
journal of engineering and technological sciences
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.202
H-Index - 14
eISSN - 2338-5502
pISSN - 2337-5779
DOI - 10.5614/j.eng.technol.sci.2018.50.3.7
Subject(s) - materials science , proton exchange membrane fuel cell , porosity , composite material , carbon fibers , microstructure , composite number , ethylene glycol , coir , contact angle , polyethylene glycol , diffusion , fiber , peg ratio , gaseous diffusion , conductivity , membrane , chemical engineering , chemistry , fuel cells , physics , engineering , thermodynamics , biochemistry , finance , economics
In this work, carbon composite papers (CCP) were successfully produced by mixing 80 wt% carbon derived from coconut coir and 20 wt% binder (ethylene vinyl acetate and polyethylene glycol). The CCPs were prepared with two different forms of carbon material, i.e. powder (particle size: ± 74 µm) and fiber (length: ± 2 mm, diameter: 100-500 µm). Two types of papers were developed based on their composition. The first type, called CCP-1, was made from carbon in powder form (80 wt%), while the second one, CCP-2, was based on a combination of fiber (70 wt%) and powder (10 wt%). The influence of the carbon form on CCP properties were investigated, including electrical conductivity, porosity, hydrophobicity, microstructure, and its performance as a gas diffusion layer (GDL) in a stack of proton exchange membrane fuel cell (PEMFC) system. Based on the results, CCP-1 showed a slightly better fuel cell performance than CCP-2, which was also confirmed by its lower porosity, electrical conductivity, and water contact angle. The effect of carbon composite paper’s properties, including its morphology and performance, are disscused in this paper in detail and compared with a commercially based GDL material (TGP-H-120).

The content you want is available to Zendy users.

Already have an account? Click here to sign in.
Having issues? You can contact us here
Accelerating Research

Address

John Eccles House
Robert Robinson Avenue,
Oxford Science Park, Oxford
OX4 4GP, United Kingdom