This book presents contributions to the topics of materials for energy infrastructure with a focus on data and informatics for materials. This spectrum of topics has been chosen because challenges in terms of materials are identified to lie in transport and storage of energy, adequate supply of food and water, well-working infrastructure, materials for medical application and health, efficient use of scarce resources or elements and alternate materials solutions as well as recycling. The contributions were invited at the 4th WMRIF Young Materials Scientist Workshop held at the National Institute for Standards and Technology (NIST) in Boulder, Colorado, USA during September 8-10, 2014.

C. S. Lewis rightly instructed, "The task of the modern educator is not to cut down jungles, but to irrigate deserts." This book aims to achieve this task by pushing the frontiers of scholarship for securing a sustainable future through green energy and infrastructure. This encompasses the notion that what we create is in harmony and integration with both the spatial and temporal domains. Through numerous practical examples and illustrations, this book examines a comprehensive review of the latest science on indoor environmental health, energy requirements for buildings, and the "greening" of infrastructure. Also, it provides a discussion on the underlying properties of biomass and its influence on furthering energy conversion technologies. Energy storage is essential for driving the integration of renewable energy, and different storage approaches are discussed in terms of power balancing, grid stability, and reliability. Features: Focuses on the importance of coupling green energy with green infrastructure Provides an unbiased update of the state-of-the-art of sustainability science Discusses utilizing sustainable building materials for simultaneous improvement in energy, economic, and environmental bottom lines for industry Illuminates practical steps that need to be undertaken to achieve a greener infrastructure Green Energy and Infrastructure: Securing a Sustainable Future is appropriate for researchers, students, and decision-makers seeking the latest, practical information on environmental sustainability.

This is the first book that analyses the future raw materials supply from the demand side of a society that chiefly relies on renewable energies, which is of great significance for us all. It addresses primary and secondary resources and substitution, not only from technical but also socioeconomic and ethical points of view. The “Energiewende” (Energy Transition) will change our consumption of natural resources significantly. When in future our energy requirements will be covered mostly by wind, solar power and biomass, we will need less coal, oil and natural gas. However, the consumption of minerals, especially metallic resources, will increase to build wind generators, solar panels or energy storage facilities. Besides e.g. copper, nickel or cobalt, rare earth elements and other high-tech elements will be increasingly used. With regard to primary metals, Germany is 100 % import dependent; only secondary material is produced within Germany. Though sufficient geological primary resources exist worldwide, their availability on the market is crucial. The future supply of the market is dependent on the development of prices, the transparency of the market and the question of social and ethical standards in the raw materials industry, as well as the social license to operate, which especially applies to mining. The book offers a valuable resource for everyone interested in the future raw material supply of our way of life, which will involve more and more renewable energies.

Our consumption of raw materials and energy has reached unprecedented levels which are continuing to increase at a steady rate due to the economic emergence of many countries and the development of new technologies. Metal and cement usage has doubled since the beginning of the 21st Century and this production, between now and 2050, will be equivalent to that produced since the beginning of humanity. It is in this context that the transition to low-carbon and renewable energies is taking place, which involves profound changes to the existing global energy system. This book addresses these different aspects and attempts to estimate first-order requirements for cement, steel, copper, aluminum and energy for different power generation technologies, and for three types of energy scenarios. Some dynamic modeling approaches are proposed to assess the needs and likely evolution of primary production and recycling. The link between production and primary reserves, recycling and stocks of end-of-life products, production costs, incomes and prices using a prey–predator dynamic is discussed. - Approaches the issues of commodities and energy in terms of needs, technological innovation and economic and social issues - Emphasizes the couplings between these different aspects - Helps readers understand and integrate these couplings through global modeling

This book contains the proceedings of CAETS 2015 Convocation on ‘Pathways to Sustainability: Energy, Mobility and Healthcare Engineering’ that was held on October 13-14, 2015 in New Delhi. This 3 volume proceedings provide an international forum for discussion and communication of engineering and technological issues of common concern. This volume talks about ‘Energy’ and includes 22 chapters on diverse topics like renewable energy, advances and applications of bio-energy and bio-refinery, energy options and scenarios, wind energy for buildings and transportation, etc. The contents of this volume will be useful to researchers, professionals, and policy makers alike.

This paper provides an overview of different types of new industrial infrastructure materials and technologies that are available.

Damage to critical energy infrastructure as a result of terrorism, criminal activity or natural disaster can have a significant impact at both a national and international level. Reducing the vulnerability of critical infrastructure to protect populations is therefore a high priority for governments worldwide, and high-quality training courses and advanced technologies are imperative in this regard. This book presents edited contributions from the NATO Advanced Training Course (ATC) entitled ‘Critical Energy Infrastructure Protection: Innovative Structures and Materials for Blast and Ballistic Protection’, held as a virtual event from 22 - 25 March 2021. The principal aim of the course was to gather specialists from NATO member and partner countries interested in protecting their critical infrastructure against terrorist attacks, and to share research and practical experience in this field. The meeting provided a forum for participants and speakers to disseminate their recent work, and also served to promote the exchange of ideas and international cooperation among scientists and engineers. The focus was on the physical protection of critical infrastructure in the face of certain types of intentional threat or accident, such as explosions, impacts and blast waves, and the experts shared their experience on topics including the mitigation of risks, classification of vulnerabilities, improvement of resilience, advanced protective materials, dynamic testing of materials and structures, simulations, and numerical prediction methods. The book will be of interest to all those whose work involves protecting critical infrastructure from the threat of terrorist attacks.

The number of severe and sometimes catastrophic disruptive events has been rapidly increasing. Extreme weather events including floods, wildfires, hurricanes, and other natural disasters have become both more frequent and more severe, whilst events such as the COVID-19 pandemic represent a global threat to public health with huge economic effects that recovery packages tried to address. These disruptive events, alone and in combination, have dramatic consequences on nature, human life, and the economy, calling for urgent action to mitigate their causes and adapt to their impacts. In response to discourses of collapsology and end-of-growth theories, this monograph offers an analytical approach to developing legal responses that can help ensure the needs of present and future generations can be met through energy systems, infrastructure development, and natural resources management in these times of disruption. 'Resilience' is, therefore, seen as a common framework for the interpretation and development of energy, infrastructure, and natural resources law. With a mix of thematic chapters and case studies from multiple jurisdictions, Resilience in Energy, Infrastructure, and Natural Resources Law maps and assesses legal responses to disruptive nature-based events, and examines possible legal pathways for more sustainable outcomes, based on its engagement with this concept of 'resilience' and social-ecological thinking.

Sulfide and Selenide-Based Materials for Emerging Applications explores a materials and device-based approach to the transition to low-cost sustainable thin film photovoltaic devices and energy storage systems. Part 1 examines recent advances in renewable technologies and materials for sustainable development, as well as photovoltaic energy storage devices. Part 2 discusses thin film solar cells with earth abundant materials, highlighting the power conversion efficiency of the kesterite-based solar cells. Kesterite film technology including different synthesis and doping method designs are also discussed, along with emerging sulfide semiconductors with potential in thin film photovoltaics/flexible devices. In Part 3 sulfur- and selenides-based materials for thermoelectric applications are explored. Part 4 covers chalcogenide semiconductors with applications in electrochemical water splitting for green hydrogen generation and oxygen generation, as well as the latest research on layered 2D transition metal chalcogenides for electrochemical water splitting. To conclude, part 5 discusses recent developments of storage technologies such as Li-S batteries, sulfide-based supercapacitors and metal-ion batteries, and the development of 3D printing sulfides/selenides for energy conversion and storage. This book is a useful resource for those involved in green energy technology and decarbonization and is designed for a broad audience, from students to experienced scientists. - Discusses the emerging sulfide/selenide based thin film absorber materials and their deposition methods - Previews device engineering techniques that have been developed to enhance the power conversion efficiency and lifetime of sulfide/selenide based thin film solar cells - Provides an update on what low cost sulfide/selenide based electro-catalysts have become available and the comparison of their performance vs. noble metal catalysts

Mining, Materials, and the Sustainable Development Goals (SDGs): 2030 and Beyond provides a systematic assessment of how the mining and materials sector contributes to the 17 sustainable development goals (SDGs) set forth by the United Nations in 2015. While the target date of 2030 is considered a benchmark for reaching these goals, the book looks beyond this date and considers a longer-term vision. FEATURES Written by a consortium of authors from developing and developed countries Offers coverage of environmental, economic, and social dimensions of the SDGs Follows the 17 SDGs and includes a short chapter on each, followed by a case example Includes longer conceptual chapters that consider cross-cutting issues as well Aimed at those working in minerals, mining, and materials, this work offers readers a practical vision of how these sectors can have a positive impact on meeting these vital global targets.