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Full Description
Comprehensive reference on the design, characteristics, performance, and development potential of key components of PEMFC through electrospinning technologies
Electrospinning for Proton Exchange Membrane Fuel Cells discusses the use of electrospun materials in preparing next-generation fuel cell proton-conducting membranes, comprehensively reviewing the essential parts of proton exchange membrane fuel cell (PEMFC) components including the catalyst layer, gas diffusion layer, and proton exchange membrane. The book covers both electrochemical methods and hands-on experimental processes and provides a perspective of hydrogen fuel and PEMFC vehicles in the transformation of low-carbon energy.
Electrospinning for Proton Exchange Membrane Fuel Cells includes information on:
Working principles, current state of research, and existing obstacles of PEMFC components, as well as the role of electrospinning and nanofibers in PEMFC
Physical properties and electrochemical polarization of the nanofiber catalyst layer prepared by electrospinning
Water management ability of fuel cells under high inlet humidity
Cold starting ability and performance aging of PEMFC through the electrospun microporous layer under high current density
Experimental devices for the study of the electrospun proton exchange membrane and composite proton exchange membrane
Electrospinning for Proton Exchange Membrane Fuel Cells is an excellent reference on the subject for materials scientists, catalytic chemists, polymer chemists, electrochemists, and electronics engineers.
Contents
1. INTRODUCTION TO PROTON EXCHANGE MEMBRANE FUEL CELL
1.1 Overview of proton exchange membrane fuel cell
1.2 Working Principle of proton exchange membrane fuel cell
1.3 Key components of proton exchange membrane fuel cell
1.4 Current status of electrospinning nanofiber in proton exchange membrane fuel cell
1.5 Scope
2 NANOFIBER BASED CATALYST LAYERS FOR PEMFC
2.1 Research status of catalyst layer
2.2 Preparation of catalyst layer through electrospinning
2.3 Electrochemical characterization of pre-conditioning process of electrospun nanofiber catalyst layer
2.4 Performance evaluation of electrospun catalyst layer under different temperature and humidity conditions
2.5 Preliminary exploration of electrospun catalyst layer with novel structural arrangements
2.6 Investigation of electrochemical and cold-start characterization of electrospun catalyst layer
3 GAS DIFFUSION LAYER
3.1 Overview of gas diffusion layer
3.2 Fabrication and performances of electrospun microporous layer on PEMFC
3.3 Investigation the performance of electrospun Microporous layer in cold start condition of fuel cell
3.4 Performance of electrospun microporous layer on cold start durability of fuel cell
3.5 References
4 PROTON EXCHANGE MEMBRANE
4.1 Status of proton exchange membrane
4.2 Perfluorosufonic acid proton exchange membrane
4.3 Partially fluorinated proton exchange membrane
4.4 Fluorine free proton exchange membrane
4.5 Preparation of Nafion membrane by solution electrospinning
4.6 Electrospinning of graphene oxide nanohybrid Nafion membrane
4.7 Experimental study on the formation of electrospun fiber membrane by centrifugal electrospinning
4.8 Experimental study on Sulfonated poly(ether ether ketone)/polyacrylonitrile (SPEEK/PAN) composite fiber proton exchange membrane
4.9 Preliminary exploration of Nafion/
Perfluorosufonic acid nanofiber composite membrane
5 ADVANCING GREEN ENERGY SOLUTION THROUGH HYDROGEN and PEMFC
5.1 Introduction
5.2 New normal
5.3 Low carbon energy transition pathways
5.4 Role of hydrogen in the low carbon transition
5.5 Hydrogen production today
5.6 Current status and principle of fuel cell system
5.7 Policy framework
5.8 Post-COVID-19 opportunities with hydrogen and fuel cell technology
5.9 Conclusion
