Proton Exchange Membranes Fuel Cells

Proton Exchange Membranes Fuel Cells: Thermodynamics, Electrochemistry, Component Design and Applications

delivers a rigorous integration of thermodynamic and electrochemical principles underpinning Proton Exchange Membrane Fuel Cells (PEMFCs), Direct Methanol Fuel Cells (DMFCs), and PEM electrolyzers.

The reference addresses a critical pedagogical gap by uniting foundational irreversible thermodynamics, electrokinetics, and transport theory with practical materials science for real‑world device design.

It is intended for graduate‑level students, researchers, and engineers who require quantitative frameworks to predict fuel‑cell behavior, design high‑conductivity ion‑exchange membranes, and analyze coupled heat, mass, and charge transport in operational systems.

The book is structured in two parts spanning fourteen chapters.

Part I develops the scientific foundations—thermodynamics, electrochemical kinetics, transport phenomena, membrane thermodynamics, and Nernst–Planck–based formulations of ionic motion and irreversible processes.

Part II transitions to applied technologies, including membrane synthesis and characterization, nanocatalyst design with rotating disk and rotating ring-disk electrode diagnostics, membrane‑electrode assembly (MEA) fabrication, bipolar‑plate flow‑field simulation, single‑cell testing, PEM electrolyzer performance and hydrogen storage, and emerging microbial and plant-based fuel cell systems.

This reference highlights the value of integrating theoretical derivations with experimental methodologies and simulation case studies.

Readers learn to select and characterize ion‑exchange membranes, rationalize catalyst composition and loading for MEAs, and optimize bipolar-plate geometries through finite‑element modeling.

The book provides detailed experimental methods—electrochemical impedance spectroscopy (EIS), conductivity and permeability measurements, scanning electron microscopy (SEM), RDE/RRDE diagnostics—and offers durability‑assessment frameworks that bridge academic training and industrial prototyping.

By combining fundamentals with applied design tools, it supports the global energy transition toward efficient, low‑carbon hydrogen technologies and serves as both a graduate‑level textbook and a practical reference for laboratory instruction and R&D teams worldwide.