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Increasing levels of pollution and climate change are pushing the scientific community towards more sustainable solutions for the conversion and storage of energy. This book is dedicated to ionic conductive polymers, fundamental components of devices such as fuel cells (FCs), redox flow batteries (RFBs), and electrolyzers that can help to significantly decrease the amount of greenhouse gases emission. The book focuses on commercial polymers such as Nafion, a benchmark for proton-conducting membranes, acid doped polybenzimidazole (PBI), or blended membranes containing hyperbranched poly(arylene ether sulfone (PAES))/Linear poly(phenylene oxide) (PPO) as anion exchange membranes (AEMs). Promising and low-cost sulfonated aromatic polymers (SAP), or solid polymer blend electrolytes (SPBEs) based on natural chitosan (CS) and methylcellulose (MC). This book is also reports some strategies to enhance mechanical stability, such as cross-linking (XL), or several techniques, including classical casting methods or electrospinning (ES). I am confident that this book will serve to further stimulate advances in this research area, in both the sectors of membranes and catalysts, the first is essential for the long-term functioning of the system, and the second for a drastic reduction in costs, especially in fuel cells.
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This book, titled “Ionic Conductive Membranes for Fuel Cells”, from the journal Membranes, discusses the state of the art and future developments in the field of polymer electrolyte membranes for fuel cells, an efficient and clean system for converting fuel into energy.
proton exchange membranes --- PEMFC --- PFSA annealing --- hydration --- nc index --- PPSU --- High IEC, CSPPSU --- activation --- PEMFCs --- PVA:CS polymer blend --- NH4I salt --- XRD and FESEM --- impedance --- dielectric properties --- TNM and LSV study --- fuel cell technology --- energy --- polymer electrolyte membrane fuel cells (PEMFCs) --- solid oxide fuel cells (SOFCs) --- direct methanol fuel cells (DMFCs) --- reverse electrodialysis --- Nafion --- brine --- semi-crystalline polymers --- small-angle neutron scattering --- bioremediation --- renewable energy --- organic pollutants --- electrogens --- wastewater --- proton exchange membrane fuel cells --- radical scavengers --- halloysite --- cerium oxide --- PEM --- PEFC --- ionomer --- polymer electrolyte membrane --- polymer electrolyte membrane fuel cell --- proton exchange membrane --- proton exchange membrane fuel cell --- n/a
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Increasing levels of pollution and climate change are pushing the scientific community towards more sustainable solutions for the conversion and storage of energy. This book is dedicated to ionic conductive polymers, fundamental components of devices such as fuel cells (FCs), redox flow batteries (RFBs), and electrolyzers that can help to significantly decrease the amount of greenhouse gases emission. The book focuses on commercial polymers such as Nafion, a benchmark for proton-conducting membranes, acid doped polybenzimidazole (PBI), or blended membranes containing hyperbranched poly(arylene ether sulfone (PAES))/Linear poly(phenylene oxide) (PPO) as anion exchange membranes (AEMs). Promising and low-cost sulfonated aromatic polymers (SAP), or solid polymer blend electrolytes (SPBEs) based on natural chitosan (CS) and methylcellulose (MC). This book is also reports some strategies to enhance mechanical stability, such as cross-linking (XL), or several techniques, including classical casting methods or electrospinning (ES). I am confident that this book will serve to further stimulate advances in this research area, in both the sectors of membranes and catalysts, the first is essential for the long-term functioning of the system, and the second for a drastic reduction in costs, especially in fuel cells.
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This book, titled “Ionic Conductive Membranes for Fuel Cells”, from the journal Membranes, discusses the state of the art and future developments in the field of polymer electrolyte membranes for fuel cells, an efficient and clean system for converting fuel into energy.
Research & information: general --- Technology: general issues --- proton exchange membranes --- PEMFC --- PFSA annealing --- hydration --- nc index --- PPSU --- High IEC, CSPPSU --- activation --- PEMFCs --- PVA:CS polymer blend --- NH4I salt --- XRD and FESEM --- impedance --- dielectric properties --- TNM and LSV study --- fuel cell technology --- energy --- polymer electrolyte membrane fuel cells (PEMFCs) --- solid oxide fuel cells (SOFCs) --- direct methanol fuel cells (DMFCs) --- reverse electrodialysis --- Nafion --- brine --- semi-crystalline polymers --- small-angle neutron scattering --- bioremediation --- renewable energy --- organic pollutants --- electrogens --- wastewater --- proton exchange membrane fuel cells --- radical scavengers --- halloysite --- cerium oxide --- PEM --- PEFC --- ionomer --- polymer electrolyte membrane --- polymer electrolyte membrane fuel cell --- proton exchange membrane --- proton exchange membrane fuel cell --- proton exchange membranes --- PEMFC --- PFSA annealing --- hydration --- nc index --- PPSU --- High IEC, CSPPSU --- activation --- PEMFCs --- PVA:CS polymer blend --- NH4I salt --- XRD and FESEM --- impedance --- dielectric properties --- TNM and LSV study --- fuel cell technology --- energy --- polymer electrolyte membrane fuel cells (PEMFCs) --- solid oxide fuel cells (SOFCs) --- direct methanol fuel cells (DMFCs) --- reverse electrodialysis --- Nafion --- brine --- semi-crystalline polymers --- small-angle neutron scattering --- bioremediation --- renewable energy --- organic pollutants --- electrogens --- wastewater --- proton exchange membrane fuel cells --- radical scavengers --- halloysite --- cerium oxide --- PEM --- PEFC --- ionomer --- polymer electrolyte membrane --- polymer electrolyte membrane fuel cell --- proton exchange membrane --- proton exchange membrane fuel cell
Choose an application
Increasing levels of pollution and climate change are pushing the scientific community towards more sustainable solutions for the conversion and storage of energy. This book is dedicated to ionic conductive polymers, fundamental components of devices such as fuel cells (FCs), redox flow batteries (RFBs), and electrolyzers that can help to significantly decrease the amount of greenhouse gases emission. The book focuses on commercial polymers such as Nafion, a benchmark for proton-conducting membranes, acid doped polybenzimidazole (PBI), or blended membranes containing hyperbranched poly(arylene ether sulfone (PAES))/Linear poly(phenylene oxide) (PPO) as anion exchange membranes (AEMs). Promising and low-cost sulfonated aromatic polymers (SAP), or solid polymer blend electrolytes (SPBEs) based on natural chitosan (CS) and methylcellulose (MC). This book is also reports some strategies to enhance mechanical stability, such as cross-linking (XL), or several techniques, including classical casting methods or electrospinning (ES). I am confident that this book will serve to further stimulate advances in this research area, in both the sectors of membranes and catalysts, the first is essential for the long-term functioning of the system, and the second for a drastic reduction in costs, especially in fuel cells.
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