Peeyush Phogat – författare

Provides a comprehensive guide to hydrogen technologies for sustainable energy production and practical deployment With the growing urgency to reduce greenhouse gas emissions, decarbonize heavy industries, and diversify energy sources, hydrogen stands out as a versatile, clean energy carrier. Next-Generation Hydrogen Economy: Production, Storage, and Fuel Cell Technologies serves as an interdisciplinary roadmap for understanding and leveraging hydrogen’s vast potential. This timely volume meets the pressing need for a unified, research-informed resource that integrates hydrogen science, engineering, and policy—addressing both theoretical foundations and real-world implementation. Written by experts in material science and energy research, Next-Generation Hydrogen Economy thoroughly examines hydrogen’s role in modern and future energy systems. The authors explore advanced production methods such as electrolysis, photocatalysis, and biological synthesis, while also detailing innovative storage technologies including metal hydrides, metal-organic frameworks (MOFs), and liquid organic hydrogen carriers (LOHCs). Practical chapters on hydrogen fuel cells highlight applications in transportation, grid storage, and heavy industry, with in-depth discussions on commercialization, economic feasibility, infrastructure challenges, and safety standards. Bridging research and practice, the book also delves into AI-driven catalyst development, smart hydrogen cities, and other emerging areas in the fields. Equipping readers with the knowledge to drive innovation and make informed decisions in the rapidly evolving hydrogen economy, Next-Generation Hydrogen Economy: Integrates multidisciplinary insights from material science, electrochemistry, energy systems, and public policyHighlights novel hydrogen production techniques including photocatalysis and biological routesAnalyzes the techno-economic challenges and opportunities of industrial-scale hydrogen deploymentFeatures clear diagrams and process flowcharts to illustrate complex technical concepts and up-to-date case studies and global policy frameworks to contextualize hydrogen adoptionDiscusses safety standards, regulatory compliance, and risk mitigation strategies for hydrogen technologiesEmphasizing cross-sectoral integration of hydrogen, Next-Generation Hydrogen Economy: Production, Storage, and Fuel Cell Technologies is ideal for graduate and postgraduate students in courses such as Renewable Energy Systems, Energy Materials, and Sustainable Engineering within physics, chemistry, and energy engineering programs. It also serves as a valuable reference for professionals in electrochemistry, clean energy R&D, and energy policy analysis.

Guide to the design, synthesis, and applications of core-shell nanoparticles Core-Shell Nanomaterials provides a thorough exploration of core-shell nanomaterials, detailing their fundamental architectures and synthesis methods (e.g., sol-gel, hydrothermal), advanced characterization techniques (TEM, XRD), and applications in energy (batteries, solar cells), environment (water purification, carbon capture), and biomedicine (drug delivery, theranostics). Emerging trends like smart coatings and additive manufacturing are highlighted, alongside challenges such as toxicity, cost, and regulatory hurdles. Written by a team of highly qualified authors, Core-Shell Nanomaterials includes information on: Unique properties of core-shell structures, including structural and morphological characteristics, enhanced stability and core protection, and tunable optical and electronic propertiesPhysical methods for core-shell synthesis including sputtering and pulsed laser deposition, mechanical milling and ball milling, and electrospinning and physical encapsulationScalability and cost-effective manufacturing, covering batch versus continuous production, challenges in quality control, and automated and AI-driven synthesis methodsMicroscopy characterization techniques including scanning electron microscopy (SEM), transmission electron microscopy (TEM), and forced ion beam (FIB) and 3D imaging techniquesThermal and mechanical analysis through thermogravimetric analysis (TGA), differential scanning calorimetry (DSC), nanoindentation, and dynamic mechanical analysis (DMA)By drawing from both academic research and emerging industrial trends, Core-Shell Nanomaterials serves as a valuable reference for graduate students, researchers, and professionals in materials science, nanotechnology, chemistry, and engineering seeking a multidimensional perspective on the future trajectory of these exciting nanomaterials.

Provides a comprehensive guide to hydrogen technologies for sustainable energy production and practical deployment With the growing urgency to reduce greenhouse gas emissions, decarbonize heavy industries, and diversify energy sources, hydrogen stands out as a versatile, clean energy carrier. Next-Generation Hydrogen Economy: Production, Storage, and Fuel Cell Technologies serves as an interdisciplinary roadmap for understanding and leveraging hydrogen s vast potential. This timely volume meets the pressing need for a unified, research-informed resource that integrates hydrogen science, engineering, and policy addressing both theoretical foundations and real-world implementation. Written by experts in material science and energy research, Next-Generation Hydrogen Economy thoroughly examines hydrogen s role in modern and future energy systems. The authors explore advanced production methods such as electrolysis, photocatalysis, and biological synthesis, while also detailing innovative storage technologies including metal hydrides, metal-organic frameworks (MOFs), and liquid organic hydrogen carriers (LOHCs). Practical chapters on hydrogen fuel cells highlight applications in transportation, grid storage, and heavy industry, with in-depth discussions on commercialization, economic feasibility, infrastructure challenges, and safety standards. Bridging research and practice, the book also delves into AI-driven catalyst development, smart hydrogen cities, and other emerging areas in the fields. Equipping readers with the knowledge to drive innovation and make informed decisions in the rapidly evolving hydrogen economy, Next-Generation Hydrogen Economy: Integrates multidisciplinary insights from material science, electrochemistry, energy systems, and public policyHighlights novel hydrogen production techniques including photocatalysis and biological routesAnalyzes the techno-economic challenges and opportunities of industrial-scale hydrogen deploymentFeatures clear diagrams and process flowcharts to illustrate complex technical concepts and up-to-date case studies and global policy frameworks to contextualize hydrogen adoptionDiscusses safety standards, regulatory compliance, and risk mitigation strategies for hydrogen technologies Emphasizing cross-sectoral integration of hydrogen, Next-Generation Hydrogen Economy: Production, Storage, and Fuel Cell Technologies is ideal for graduate and postgraduate students in courses such as Renewable Energy Systems, Energy Materials, and Sustainable Engineering within physics, chemistry, and energy engineering programs. It also serves as a valuable reference for professionals in electrochemistry, clean energy R&D, and energy policy analysis.

Provides a comprehensive guide to hydrogen technologies for sustainable energy production and practical deployment With the growing urgency to reduce greenhouse gas emissions, decarbonize heavy industries, and diversify energy sources, hydrogen stands out as a versatile, clean energy carrier. Next-Generation Hydrogen Economy: Production, Storage, and Fuel Cell Technologies serves as an interdisciplinary roadmap for understanding and leveraging hydrogen s vast potential. This timely volume meets the pressing need for a unified, research-informed resource that integrates hydrogen science, engineering, and policy addressing both theoretical foundations and real-world implementation. Written by experts in material science and energy research, Next-Generation Hydrogen Economy thoroughly examines hydrogen s role in modern and future energy systems. The authors explore advanced production methods such as electrolysis, photocatalysis, and biological synthesis, while also detailing innovative storage technologies including metal hydrides, metal-organic frameworks (MOFs), and liquid organic hydrogen carriers (LOHCs). Practical chapters on hydrogen fuel cells highlight applications in transportation, grid storage, and heavy industry, with in-depth discussions on commercialization, economic feasibility, infrastructure challenges, and safety standards. Bridging research and practice, the book also delves into AI-driven catalyst development, smart hydrogen cities, and other emerging areas in the fields. Equipping readers with the knowledge to drive innovation and make informed decisions in the rapidly evolving hydrogen economy, Next-Generation Hydrogen Economy: Integrates multidisciplinary insights from material science, electrochemistry, energy systems, and public policyHighlights novel hydrogen production techniques including photocatalysis and biological routesAnalyzes the techno-economic challenges and opportunities of industrial-scale hydrogen deploymentFeatures clear diagrams and process flowcharts to illustrate complex technical concepts and up-to-date case studies and global policy frameworks to contextualize hydrogen adoptionDiscusses safety standards, regulatory compliance, and risk mitigation strategies for hydrogen technologies Emphasizing cross-sectoral integration of hydrogen, Next-Generation Hydrogen Economy: Production, Storage, and Fuel Cell Technologies is ideal for graduate and postgraduate students in courses such as Renewable Energy Systems, Energy Materials, and Sustainable Engineering within physics, chemistry, and energy engineering programs. It also serves as a valuable reference for professionals in electrochemistry, clean energy R&D, and energy policy analysis.

Guide to the design, synthesis, and applications of core-shell nanoparticles Core-Shell Nanomaterials provides a thorough exploration of core-shell nanomaterials, detailing their fundamental architectures and synthesis methods (e.g., sol-gel, hydrothermal), advanced characterization techniques (TEM, XRD), and applications in energy (batteries, solar cells), environment (water purification, carbon capture), and biomedicine (drug delivery, theranostics). Emerging trends like smart coatings and additive manufacturing are highlighted, alongside challenges such as toxicity, cost, and regulatory hurdles. Written by a team of highly qualified authors, Core-Shell Nanomaterials includes information on: Unique properties of core-shell structures, including structural and morphological characteristics, enhanced stability and core protection, and tunable optical and electronic properties Physical methods for core-shell synthesis including sputtering and pulsed laser deposition, mechanical milling and ball milling, and electrospinning and physical encapsulation Scalability and cost-effective manufacturing, covering batch versus continuous production, challenges in quality control, and automated and AI-driven synthesis methods Microscopy characterization techniques including scanning electron microscopy (SEM), transmission electron microscopy (TEM), and forced ion beam (FIB) and 3D imaging techniques Thermal and mechanical analysis through thermogravimetric analysis (TGA), differential scanning calorimetry (DSC), nanoindentation, and dynamic mechanical analysis (DMA) By drawing from both academic research and emerging industrial trends, Core-Shell Nanomaterials serves as a valuable reference for graduate students, researchers, and professionals in materials science, nanotechnology, chemistry, and engineering seeking a multidimensional perspective on the future trajectory of these exciting nanomaterials.

Guide to the design, synthesis, and applications of core-shell nanoparticles Core-Shell Nanomaterials provides a thorough exploration of core-shell nanomaterials, detailing their fundamental architectures and synthesis methods (e.g., sol-gel, hydrothermal), advanced characterization techniques (TEM, XRD), and applications in energy (batteries, solar cells), environment (water purification, carbon capture), and biomedicine (drug delivery, theranostics). Emerging trends like smart coatings and additive manufacturing are highlighted, alongside challenges such as toxicity, cost, and regulatory hurdles. Written by a team of highly qualified authors, Core-Shell Nanomaterials includes information on: Unique properties of core-shell structures, including structural and morphological characteristics, enhanced stability and core protection, and tunable optical and electronic properties Physical methods for core-shell synthesis including sputtering and pulsed laser deposition, mechanical milling and ball milling, and electrospinning and physical encapsulation Scalability and cost-effective manufacturing, covering batch versus continuous production, challenges in quality control, and automated and AI-driven synthesis methods Microscopy characterization techniques including scanning electron microscopy (SEM), transmission electron microscopy (TEM), and forced ion beam (FIB) and 3D imaging techniques Thermal and mechanical analysis through thermogravimetric analysis (TGA), differential scanning calorimetry (DSC), nanoindentation, and dynamic mechanical analysis (DMA) By drawing from both academic research and emerging industrial trends, Core-Shell Nanomaterials serves as a valuable reference for graduate students, researchers, and professionals in materials science, nanotechnology, chemistry, and engineering seeking a multidimensional perspective on the future trajectory of these exciting nanomaterials.

This book serves as a comprehensive guide for both beginners and researchers, offering insights into the diverse array of electrochemical devices and their intricate dependencies. It provides a comprehensive overview of electrochemical devices from fundamental principles to cutting-edge applications. By bringing together insights from materials science, chemistry, physics, engineering, and beyond, it offers a holistic understanding of the underlying mechanisms, design strategies, and practical considerations associated with these devices.The book begins by exploring of the fundamental principles of electrochemistry, laying the groundwork for understanding electrochemical reactions, charge transfer processes, and device operation mechanisms. Building upon this foundation, it delves into various types of electrochemical devices, including solar cells, photodetectors, sensors, batteries, and more.

This book serves as a comprehensive guide for both beginners and researchers, offering insights into the diverse array of electrochemical devices and their intricate dependencies. It provides a comprehensive overview of electrochemical devices from fundamental principles to cutting-edge applications. By bringing together insights from materials science, chemistry, physics, engineering, and beyond, it offers a holistic understanding of the underlying mechanisms, design strategies, and practical considerations associated with these devices.The book begins by exploring of the fundamental principles of electrochemistry, laying the groundwork for understanding electrochemical reactions, charge transfer processes, and device operation mechanisms. Building upon this foundation, it delves into various types of electrochemical devices, including solar cells, photodetectors, sensors, batteries, and more.

This book highlights the transformative potential of self-healing materials in addressing global challenges related to sustainability, durability, and efficiency across industries. By bridging the disciplines of physics, chemistry, and engineering, it provides a comprehensive exploration of self-healing mechanisms, material classifications, and cutting-edge applications in energy systems, biomedical devices, and infrastructure. The book also delves into the thermodynamics, kinetics, and biomimetic inspirations driving advancements in this field. With an emphasis on scalability, environmental impact, and future technologies, this resource equips researchers, engineers, and professionals with the knowledge to innovate and implement sustainable solutions. It is an essential guide for those aiming to contribute to a circular economy and design materials for a more resilient and eco-friendly future.

This book highlights the transformative potential of self-healing materials in addressing global challenges related to sustainability, durability, and efficiency across industries. By bridging the disciplines of physics, chemistry, and engineering, it provides a comprehensive exploration of self-healing mechanisms, material classifications, and cutting-edge applications in energy systems, biomedical devices, and infrastructure. The book also delves into the thermodynamics, kinetics, and biomimetic inspirations driving advancements in this field. With an emphasis on scalability, environmental impact, and future technologies, this resource equips researchers, engineers, and professionals with the knowledge to innovate and implement sustainable solutions. It is an essential guide for those aiming to contribute to a circular economy and design materials for a more resilient and eco-friendly future.