Carbon neutral hydrogen technologies play a key role in preventing climate change. Maximizing production of hydrogen in a clean and efficient manner is critical to the hydrogen economy. This book describes most of the potential hydrogen processing technologies and presents the state-of the- art and future developments of modern hydrogen technologies. Attention has been given to the theoretical aspects, thermodynamics, process calculations, and modeling approaches, new technologies and reports of multiple successful new pilot systems. The book should appeal to a brad readership and ideal for students of materials science, chemistry, physics; for researchers, chemical- and mechanical engineering, for industrialists, policymakers, economics, safety agencies and governments.

The conventional generation of a substantial quantity of hydrogen from resources based on fossil fuels continues to play an essential role in the hydrogen economy. Hydrogen Production from Nonrenewable Resources offers a comprehensive overview and features three sections covering properties and characteristics of hydrogen, technologies for converting nonrenewable sources to hydrogen, and challenges in synthesis and production. Details of thermophysical characteristics and properties of hydrogen Covers conventional and novel industrial technologies for efficient production Explores environmental opportunities and challenges and health and safety regulations Provides techno‐economic and lifecycle assessments with future outlooks Part of the multivolume Handbook of Hydrogen Production and Applications, this standalone book guides researchers and academics in chemical, environmental, energy, and related areas of engineering interested in the development and implementation of hydrogen production technologies.

Compendium of Hydrogen Energy, Volume 2: Hydrogen Storage, Distribution and Infrastructure focuses on the storage and transmission of hydrogen. As many experts believe the hydrogen economy will, at some point, replace the fossil fuel economy as the primary source of the world's energy, this book details hydrogen storage in pure form, including chapters on hydrogen liquefaction, slush production, as well as underground and pipeline storage. Other sections in the book explore physical and chemical storage, including environmentally sustainable methods of hydrogen production from water, with final chapters dedicated to hydrogen distribution and infrastructure. - Covers a wide array of methods for storing hydrogen, detailing hydrogen transport and the infrastructure required for transition to the hydrogen economy - Written by leading academics in the fields of sustainable energy and experts from the world of industry - Part of a very comprehensive compendium which looks at the entirety of the hydrogen energy economy

Studying the interactions between heavy hydrogen isotopes and hydride forming metals or intermetallic compounds (IMC) is of importance for both fundamental and applied sciences. These systems offer, for example, the possibility of technical hydrogen isotope separation due to their considerable isotope effects. In addition, quite a lot of problems of hydrogen recovery, hydrogen purification, and tritium storage can be solved. This review deals with theoretical aspects of the interaction of heavy hydrogen isotopes with metals and IMC, and contains detailed information on phase and isotopic equilibrium and of the kinetics of isotope exchange in systems with hydride phases. Numerical data and results from theoretical and experimental studies are presented as well.

The low-carbon transition is ongoing everywhere. This Handbook, written by a group of senior and junior scholars from six continents and nineteen countries, explores the legal pathways of decarbonisation in the energy sector. What emerges is a composite picture. There are many roadblocks, but also a lot of legal innovation. The volume distils the legal knowledge which should help move forward the transition. Questions addressed include the differences between the decarbonization strategies of developed and developing countries, the pace of the transition, the management of multi-level governance systems, the pros and cons of different policy instruments, the planning of low-carbon infrastructures, the roles and meanings of energy justice. The Handbook can be drawn upon by legal scholars to compare decarbonisation pathways in several jurisdictions. Non-legal scholars can find information to be included in transition theories and decarbonization scenarios. Policymakers can discover contextual factors that should be taken into account when deciding how to support the transition.

Advances in Hydrogen Production, Storage and Distribution reviews recent developments in this key component of the emerging "hydrogen economy," an energy infrastructure based on hydrogen. Since hydrogen can be produced without using fossil fuels, a move to such an economy has the potential to reduce greenhouse gas emissions and improve energy security. However, such a move also requires the advanced production, storage and usage techniques discussed in this book. Part one introduces the fundamentals of hydrogen production, storage, and distribution, including an overview of the development of the necessary infrastructure, an analysis of the potential environmental benefits, and a review of some important hydrogen production technologies in conventional, bio-based, and nuclear power plants. Part two focuses on hydrogen production from renewable resources, and includes chapters outlining the production of hydrogen through water electrolysis, photocatalysis, and bioengineered algae. Finally, part three covers hydrogen production using inorganic membrane reactors, the storage of hydrogen, fuel cell technology, and the potential of hydrogen as a fuel for transportation. Advances in Hydrogen Production, Storage and Distribution provides a detailed overview of the components and challenges of a hydrogen economy. This book is an invaluable resource for research and development professionals in the energy industry, as well as academics with an interest in this important subject. - Reviews developments and research in this dynamic area - Discusses the challenges of creating an infrastructure to store and distribute hydrogen - Reviews the production of hydrogen using electrolysis and photo-catalytic methods

Hydrogen has become one of the most promising energy carriers in the transition to a cleaner, more sustainable future. In Hydrogen: From Discovery to Modern Energy Applications, authors Ronald Legarski, Yash Patel, and Zoltan Csernus provide a comprehensive exploration of hydrogen’s journey from its early discovery to its role in cutting-edge energy technologies today. This book delves into hydrogen’s past, present, and future, detailing its scientific origins, production methods, and versatile applications across industries. The authors combine their expertise in energy systems, telecommunications, and advanced technologies to offer a detailed look at hydrogen’s potential to transform global energy systems. Key topics include: The historical discovery of hydrogen and its evolution in scientific research. Breakthroughs in hydrogen production methods, including electrolysis, steam methane reforming, and green hydrogen technologies. Hydrogen’s role in transportation, power generation, and industrial applications. The future of hydrogen in decarbonization efforts, with a focus on energy storage, fuel cells, and nuclear applications. Case studies showcasing successful hydrogen projects and their real-world impact on energy systems. Written by industry experts, Hydrogen: From Discovery to Modern Energy Applications is an essential resource for energy professionals, engineers, policymakers, and anyone interested in the future of clean energy. Whether you're looking to understand the fundamentals of hydrogen technology or gain insight into its role in the global energy transition, this book offers a thorough and accessible guide to hydrogen’s revolutionary potential. Explore the remarkable journey of hydrogen and its power to fuel the future of energy.