The demand for advanced energy devices such as high-performance batteries, supercapacitors, fuel cells, electrolyzers, and flexible/wearable devices is increasing rapidly. To meet such demand, high-performance and stable materials that could be used as active materials in these devices are much needed. This book focuses on the use of hydrogels in such emerging applications.

The main objective of this book is to provide current, state-of-the-art development in hydrogel-based materials, their applications in energy, and their future challenges. This book covers the entire spectrum of hydrogels for their applications in a range of energy devices in terms of materials, various synthetic approaches, architectural aspects, design and technology of energy devices, and challenges. This book covers the fundamentals of hydrogels, various composites of hydrogels, design concepts, different technologies, and applications in the diverse energy area. All chapters are written by experts in these areas around the world, making this a suitable textbook for students and providing new guidelines to researchers and industries working in these areas.

This book includes topics such as various approaches to synthesizing hydrogels, their characterizations, and emerging applications in the energy area. Fundamentals of energy devices, working principles, and their challenges are also covered. This book will provide new directions to scientists, researchers, and students to better understand hydrogel-based materials and their emerging applications in energy.

The demand for advanced energy devices such as high-performance batteries, supercapacitors, fuel cells, electrolyzers, and flexible/wearable devices is increasing rapidly. To meet such demand, high-performance and stable materials that could be used as active materials in these devices are much needed. This book focuses on the use of hydrogels in such emerging applications.

The main objective of this book is to provide current, state-of-the-art development in hydrogel-based materials, their applications in energy, and their future challenges. This book covers the entire spectrum of hydrogels for their applications in a range of energy devices in terms of materials, various synthetic approaches, architectural aspects, design and technology of energy devices, and challenges. This book covers the fundamentals of hydrogels, various composites of hydrogels, design concepts, different technologies, and applications in the diverse energy area. All chapters are written by experts in these areas around the world, making this a suitable textbook for students and providing new guidelines to researchers and industries working in these areas.

This book includes topics such as various approaches to synthesizing hydrogels, their characterizations, and emerging applications in the energy area. Fundamentals of energy devices, working principles, and their challenges are also covered. This book will provide new directions to scientists, researchers, and students to better understand hydrogel-based materials and their emerging applications in energy.

2D Metals: Fundamentals, Emerging Applications, and Challenges delves into the state-of- the-art advancements in utilizing 2D metals for emerging applications, encompassing a comprehensive overview of synthetic methodologies and characterization techniques provided by leading experts in the field.

2D nanomaterials have emerged as highly promising candidates for a diverse array of cutting-edge applications, spanning energy and biomedicine, owing to their adjustable electrochemical properties, versatility, and exceptional mechanical resilience. Notably, carbon-based 2D materials have already demonstrated extensive utility across various domains. Meanwhile, 2D metals, often referred to as Metallenes, represent a burgeoning class of materials with broad reaching potential. In contrast to alternative 2D materials like graphene and transition metal chalcogenides, as well as bulk metals, 2D metals exhibit remarkable conductivity, expansive surface area, and customizable electronic and optoelectronic characteristics.

This book explores the influence of structural modifications on the properties of 2D metals and addresses the myriad challenges associated with their burgeoning applications. Each chapter, authored by esteemed specialists from across the globe, offers invaluable insights, rendering this book an indispensable resource for students while furnishing researchers and industry professionals with novel guidance and perspectives.

2D Metals: Fundamentals, Emerging Applications, and Challenges delves into the state-of- the-art advancements in utilizing 2D metals for emerging applications, encompassing a comprehensive overview of synthetic methodologies and characterization techniques provided by leading experts in the field.

2D nanomaterials have emerged as highly promising candidates for a diverse array of cutting-edge applications, spanning energy and biomedicine, owing to their adjustable electrochemical properties, versatility, and exceptional mechanical resilience. Notably, carbon-based 2D materials have already demonstrated extensive utility across various domains. Meanwhile, 2D metals, often referred to as Metallenes, represent a burgeoning class of materials with broad reaching potential. In contrast to alternative 2D materials like graphene and transition metal chalcogenides, as well as bulk metals, 2D metals exhibit remarkable conductivity, expansive surface area, and customizable electronic and optoelectronic characteristics.

This book explores the influence of structural modifications on the properties of 2D metals and addresses the myriad challenges associated with their burgeoning applications. Each chapter, authored by esteemed specialists from across the globe, offers invaluable insights, rendering this book an indispensable resource for students while furnishing researchers and industry professionals with novel guidance and perspectives.

The demand for advanced energy devices such as high-performance batteries, supercapacitors, fuel cells, electrolyzers, and flexible/wearable devices is increasing rapidly. To meet such demand, high-performance and stable materials that could be used as active materials in these devices are much needed. This book focuses on the use of hydrogels in such emerging applications.

The main objective of this book is to provide current, state-of-the-art development in hydrogel-based materials, their applications in energy, and their future challenges. This book covers the entire spectrum of hydrogels for their applications in a range of energy devices in terms of materials, various synthetic approaches, architectural aspects, design and technology of energy devices, and challenges. This book covers the fundamentals of hydrogels, various composites of hydrogels, design concepts, different technologies, and applications in the diverse energy area. All chapters are written by experts in these areas around the world, making this a suitable textbook for students and providing new guidelines to researchers and industries working in these areas.

This book includes topics such as various approaches to synthesizing hydrogels, their characterizations, and emerging applications in the energy area. Fundamentals of energy devices, working principles, and their challenges are also covered. This book will provide new directions to scientists, researchers, and students to better understand hydrogel-based materials and their emerging applications in energy.

The demand for advanced energy devices such as high-performance batteries, supercapacitors, fuel cells, electrolyzers, and flexible/wearable devices is increasing rapidly. To meet such demand, high-performance and stable materials that could be used as active materials in these devices are much needed. This book focuses on the use of hydrogels in such emerging applications.

The main objective of this book is to provide current, state-of-the-art development in hydrogel-based materials, their applications in energy, and their future challenges. This book covers the entire spectrum of hydrogels for their applications in a range of energy devices in terms of materials, various synthetic approaches, architectural aspects, design and technology of energy devices, and challenges. This book covers the fundamentals of hydrogels, various composites of hydrogels, design concepts, different technologies, and applications in the diverse energy area. All chapters are written by experts in these areas around the world, making this a suitable textbook for students and providing new guidelines to researchers and industries working in these areas.

This book includes topics such as various approaches to synthesizing hydrogels, their characterizations, and emerging applications in the energy area. Fundamentals of energy devices, working principles, and their challenges are also covered. This book will provide new directions to scientists, researchers, and students to better understand hydrogel-based materials and their emerging applications in energy.

2D Metals: Fundamentals, Emerging Applications, and Challenges delves into the state-of- the-art advancements in utilizing 2D metals for emerging applications, encompassing a comprehensive overview of synthetic methodologies and characterization techniques provided by leading experts in the field.

2D nanomaterials have emerged as highly promising candidates for a diverse array of cutting-edge applications, spanning energy and biomedicine, owing to their adjustable electrochemical properties, versatility, and exceptional mechanical resilience. Notably, carbon-based 2D materials have already demonstrated extensive utility across various domains. Meanwhile, 2D metals, often referred to as Metallenes, represent a burgeoning class of materials with broad reaching potential. In contrast to alternative 2D materials like graphene and transition metal chalcogenides, as well as bulk metals, 2D metals exhibit remarkable conductivity, expansive surface area, and customizable electronic and optoelectronic characteristics.

This book explores the influence of structural modifications on the properties of 2D metals and addresses the myriad challenges associated with their burgeoning applications. Each chapter, authored by esteemed specialists from across the globe, offers invaluable insights, rendering this book an indispensable resource for students while furnishing researchers and industry professionals with novel guidance and perspectives.

2D Metals: Fundamentals, Emerging Applications, and Challenges delves into the state-of- the-art advancements in utilizing 2D metals for emerging applications, encompassing a comprehensive overview of synthetic methodologies and characterization techniques provided by leading experts in the field.

2D nanomaterials have emerged as highly promising candidates for a diverse array of cutting-edge applications, spanning energy and biomedicine, owing to their adjustable electrochemical properties, versatility, and exceptional mechanical resilience. Notably, carbon-based 2D materials have already demonstrated extensive utility across various domains. Meanwhile, 2D metals, often referred to as Metallenes, represent a burgeoning class of materials with broad reaching potential. In contrast to alternative 2D materials like graphene and transition metal chalcogenides, as well as bulk metals, 2D metals exhibit remarkable conductivity, expansive surface area, and customizable electronic and optoelectronic characteristics.

This book explores the influence of structural modifications on the properties of 2D metals and addresses the myriad challenges associated with their burgeoning applications. Each chapter, authored by esteemed specialists from across the globe, offers invaluable insights, rendering this book an indispensable resource for students while furnishing researchers and industry professionals with novel guidance and perspectives.