This book is an easy to use instructional aide. Explore sustainability issues in contemporary society through a transdisciplinary approach. Chapters include ethics, public resources, public policy, combustion, heat exchangers, nuclear, solar, water, and wind energy. A short summary is presented for each topic, followed by additional topics for research, assignments, and references. The complex assignments require students to grow in their professional judgment.

2016 International Conference on Advanced Materials and Energy Sustainability [AMES2016] was held in Wuhan, Hubei, China during May 27-29, 2016. AMES2016 aims to bring together researchers, engineers, and students to participate in the discussion of Advanced Materials and Energy Sustainability. AMES2016 features unique mixed topics of Advanced Materials and Related Technology, Energy Management and Renewable Energy and Environmental Engineering and Sustainable Development.The conference program committee is greatly honoured to have three renowned experts for taking time off to present their keynotes to the conference. In addition, we have put together five invited sessions. There are a total of 260 submissions from various parts of the world. Among them, 87 articles are compiled into this proceedings, covering Polymers, Composites and Mesoporous Materials; Applications of Micro- and Nano-Technology and Materials; Processing Technologies and Computational Methods in Area of Materials Science; Smart Grid, Micro-Grid Concepts; Fuels, Combustion and Materials Handling; Advanced and Renewable Energy Systems; Sustainable Management of Environment; Sustainable Cities and Communities, Transportation and Wind Energy Systems and Technologies.

The use of fossil fuels has generated an increasing amount of interest in renewable energy resources. Energy policies and management are of primary importance to achieve the development of sustainability and need to be consistent with recent advances in energy production and distribution. Challenges lie as much in the conversion from renewable energies such as wind and solar to useful forms like electricity, heat and fuel at an acceptable cost (including environmental damage) as in the integration of these resources into an existing infrastructure. This volume includes collaborative research between different disciplines, including materials, energy networks, new energy resources, storage solutions, waste to energy systems, smart grids and many other related subjects.

The complexity of carbon reduction and economic sustainability is significantly complicated by competing aspects of socioeconomic practices as well as legislative, regulatory, and scientific requirements and protocols. An easy to read and understand guide, Sioshansi, along with an international group of contributors, moves through the maze of carbon reduction methods and technologies, providing steps and insights to meet carbon reduction requirements and maintaining the health and welfare of the firm. The book's three part treatment is based on a clear and rigorous exposition of a wide range of options to reduce the carbon footprint Part 1 of the book, Challenge of Sustainability, examines the fundamental drivers of energy demand – economic growth, the need for basic energy services, and the interdependence of economic, political, environmental, social, equity, legacy and policy issues. Part 2 of the book, Technological Solutions, examines how energy can be used to support basic energy service needs of homes, commercial and industrial facilities and for other applications. Part 3 of the book, case studies, covers a number of innovative projects, initiatives, concepts or self-imposed targets in different parts of the world with the aim of significantly reducing energy use and carbon footprint of a company, a community, a city or an entire country. There was a widespread recognition among environmental engineers and energy economist of the importance of carbon reduction while sustaining the firm's economic growth. The only book to bring together both subjects into one easy to understand reference, Carbon Reduction and Economic Sustainability not only clearly explains which option has the lowest energy/carbon footprint but also which option would better suit the business in question. This includes carbon reduction for residential, transport, industrial and public sectors. - The only book to clearly explain the economic and environmental engineering aspects of carbon reduction. - Case studies taken from a number of international projects. - Carbon reduction options for all sectors of society. - The role of the planning system in carbon reduction.

In recent years the Arctic has become the focus of political, popular and scholarly debates around the future of our world’s Energy. Increasing consumption, dwindling reserves, climate warming and developing technologies are expected to push energy-related activities ever further into the previously inaccessible north. Within this framework, energy in the Arctic is predominantly understood as synonymous with oil and gas production for international exports; meanwhile, any social sustainability concerns associated with energy-related developments remain largely neglected or reduced to regional socioeconomic concerns. Lempinen adopts an alternative approach, exploring how energy and its societal aspects are defined and debated in the context of the circumpolar north. Combining an in-depth conceptual discussion on energy and the social dimension of sustainability with an empirical focus on the scientific and political “truths” produced about energy and society in the Arctic energyscape, this book is an enlightening read for students, scholars and professionals interested in issues related to energy and society in the Arctic or beyond.

Energy Sustainability is a subject with many dimensions that spans both production and utilization and how they are linked to sustainable development. More importantly, energy systems are designed, analyzed, assessed and evaluated in accordance to sustainable tools for more sustainable future. This book comprehensively covers these aspects, harmonizing them in a way that offers distinct perspectives for energy, the environment and sustainable development. In addition, it also covers concepts, systems, applications, illustrative examples and case studies that are presented to provide unique coverage for readers. - Presents a holistic approach for energy domains - Includes tactics on the development of sustainability models and parameters to link both energy and sustainable development - Incorporates exergy tools into models and approaches for design, analysis, assessment and evaluations - Includes illustrative examples and case studies with renewables and clean energy options

This book looks at institutional reforms for the use of energy, water and resources toward a sustainable future in East Asia. The book argues that developments in the East Asian region are critical to global sustainability and acknowledges that there is an increasing degree of mutual reliance among countries in East Asia – primarily China, Japan, Korea and Taiwan. It analyzes environmental impacts stemming from the use of energy, water and mineral resources via economic development in East Asia in the medium to long term (through 2050) through theoretical and empirical modelling. The book also evaluates the ripple effects of environmental and resource policies on each country’s economy and clarifies the direction of institutional reform in energy systems, resources and water use for a sustainable future.

Presents experimental economics research focusing on issues of environmental quality and sustainability. This title covers such topics as institutions for cap-and-trade, eco-tourism, urban sprawl, and optimal pollution control strategies.

Sustainable practices within the mining and energy sectors are assuming greater significance due to uncertainty and change within the global economy and safety, security, and health concerns. This book examines sustainability issues facing the mining and energy sectors by addressing six major themes: Mining and Mineral Processing; Metallurgy and Recycling; Environment; Energy; Socioeconomic and Regulatory; and Sustainable Materials and Fleets. Emphasizing an integrated transdisciplinary approach, it deliberates on optimizing mining productivity and energy efficiency and discusses integrated waste management practices. It discusses risk management, cost cutting, and integration of sustainable practices for long-term business value. It gives a comprehensive outlook for sustainable mineral futures from academic and industry perspectives covering mine to mill optimization, waste, risk and water management, improved efficiencies in mining tools and equipment, and performance indicators for sustainable developments. It covers how innovation and research underpin management of natural resources including sustainable carbon management. •Focuses on mining and mineral processing, metallurgy and recycling, the environment, energy, socioeconomic and regulatory issues, and sustainable materials and fleets. •Describes metallurgy and recycling and uses economic, environmental and social parameter analyses to identify areas for improvement in iron, steel, aluminium, lead, zinc, copper, and gold production. •Discusses current research on mining, performance indicators for sustainable development, sustainability in mining equipment, risk and safety management, and renewable energy resources •Covers alternative and conventional energy sources for the mineral sector as well water treatment and remediation and energy sustainability in mining. •Provides an overview of sustainable carbon management. •Offers an interdisciplinary approach with international focus.

The global demand for clean energy solutions the urgency of addressing climate change continue to intensify, and as such, the need for innovative approaches becomes increasingly paramount. However, navigating the complex landscape of clean energy production and sustainability presents significant challenges. Traditional methods often fall short in efficiently optimizing renewable energy systems and mitigating environmental impacts. Moreover, the integration of artificial intelligence (AI) into the energy sector remains underexplored, despite its potential to revolutionize operations and drive sustainable development. AI Applications for Clean Energy and Sustainability emerges, working to tackle these pressing issues. This comprehensive volume delves into the transformative power of AI in revolutionizing clean energy production, distribution, and management. By harnessing machine learning algorithms, data analytics, and optimization techniques, the book offers innovative solutions to enhance the efficiency, reliability, and scalability of renewable energy systems. Through real-world case studies and practical examples, it illustrates AI's potential to optimize energy infrastructure, monitor marine ecosystems, and predict climate change impacts, thereby paving the way for a more sustainable future.