This book is a concise introductory guide to understanding the field of modern batteries, which is fast becoming an important area for applications in renewable energy storage, transportation, and consumer devices. By using simplified classroom-tested methods developed while teaching the subject to engineering students, the author explains in simple language an otherwise complex subject in terms that enable readers to gain a rapid understanding of battery basics and the fundamental scientific and engineering concepts and principles behind the technology. This powerful tutorial is a great resource for engineers from other disciplines, technicians, analysts, investors, and other busy professionals who need to quickly acquire a solid understanding of the fast emerging and disruptive battery landscape.

As the case for Climate Change mitigation becomes ever more pressing, hydrogen has the potential to play a major role in a low-carbon energy future. Hydrogen can drive the vehicles of tomorrow and also heat homes and supply energy to businesses. Much recent discussion in energy policy circles has considered ways in which greatly expanded electrification can meet the demand for low-carbon mobility and heating. Such narratives centre on the widespread use of renewable energy sources with occasionally surplus renewable electricity being used to produce hydrogen, for example by electrolysis. While such developments have a beneficial role to play, this book focuses on an alternative paradigm. This book considers a more evolutionary path involving the continued extraction and use of fossil fuels, most notably natural gas, but in ways that greatly reduce greenhouse gas emissions. In this way much established industrial capacity and know how might be transitioned to help deliver the low carbon future that the world so desperately requires. Presenting up-to-date energy policy recommendations with a focus on hydrogen from fossil fuels, the book will be of considerable interest to policymakers and energy researchers in academia, industry and government labs, while also offering a valuable reference guide for business developers in low-carbon energy, and for oil and gas industry analysts.

In this essential reference, both students and practitioners in the field will find an accessible discussion of electric power generation with gas turbine power plants, using quantitative and qualitative tools. Beginning with a basic discussion of thermodynamics of gas turbine cycles from a second law perspective, the material goes on to cover with depth an analysis of the translation of the cycle to a final product, facilitating quick estimates. In order to provide readers with the knowledge they need to design turbines effectively, there are explanations of simple and combined cycle design considerations, and state-of-the-art, performance prediction and optimization techniques, as well as rules of thumb for design and off-design performance and operational flexibility, and simplified calculations for myriad design and off-design performance. The text also features an introduction to proper material selection, manufacturing techniques, and construction, maintenance, and operation of gas turbine power plants.

The considerable interest in graphene and 2D materials is sparking intense research on layered materials due to their unexpected physical, electronic, chemical, and optical properties. This book will provide a comprehensive overview of the recent and state-of-the-art research progress on layered materials for energy storage and other applications. With a brief introduction to layered materials, the chapters of this book gather various fascinating topics such as electrocatalysis for fuel cells, lithium-ion batteries, sodium-ion batteries, photovoltaic devices, thermoelectric devices, supercapacitors and water splitting. Unique aspects of layered materials in these fields, including novel synthesis and functionalization methods, particular physicochemical properties and consequently enhanced performance are addressed. Challenges and perspectives for layered materials in these fields will also be presented. With contributions from key researchers, Layered Materials for Energy Storage and Conversion will be of interest to students, researchers and engineers worldwide who want a basic overview of the latest progress and future directions.

This handbook surveys the range of methods and fuel types used in generating energy for industry, transportation, and heating and cooling of buildings. Solar, wind, biomass, nuclear, geothermal, ocean and fossil fuels are discussed and compared, and the thermodynamics of energy conversion is explained. Appendices are provided with fully updated data. Thoroughly revised, this second edition surveys the latest advances in energy conversion from a wide variety of currently available energy sources. It describes energy sources such as fossil fuels, biomass (including refuse-derived biomass fuels), nuclear, solar radiation, wind, geothermal, and ocean, then provides the terminology and units used for each energy resource and their equivalence. It includes an overview of the steam power cycles, gas turbines, internal combustion engines, hydraulic turbines, Stirling engines, advanced fossil fuel power systems, and combined-cycle power plants. It outlines the development, current use, and future of nuclear power.

Table of Contents

Preface ..............................................................................................................................................ix

Contributors.....................................................................................................................................xi

1. Global Energy Systems..........................................................................................................1

D. Yogi Goswami and Frank Kreith

Section I Energy Resources

2. Fossil Fuels..............................................................................................................................33

Robert Reuther, Richard Bajura, and Philip C. Crouse

3. Biomass Properties and Resources.................................................................................... 61

Mark M. Wright and Robert C. Brown

4. Municipal Solid Waste.........................................................................................................73

Shelly H. Schneider

5. Nuclear Resources................................................................................................................. 81

James S. Tulenko

6. Solar Energy Resources........................................................................................................85

D. Yogi Goswami

7. Wind Energy Resource....................................................................................................... 137

Dale E. Berg

8. Geothermal Energy............................................................................................................. 177

Joel L. Renner and Marshall J. Reed

Section II Energy Conversion

9. Steam Power Plant............................................................................................................... 191

John Kern

10. Gas Turbines.........................................................................................................................209

Richard H. Bunce

11. Internal Combustion Engines...........................................................................................223

David E. Klett, Elsayed M. Afify, Kalyan K. Srinivasan, and Timothy J. Jacobs

12. Hydraulic Turbines............................................................................................................. 257

Roger E.A. Arndt and Leonardo P. Chamorro

13. Advanced Fossil Fuel Power Systems.............................................................................. 281

Seyfettin C. (John) Gülen

14. Stirling Engines...................................................................................................................447

Frank Kreith

15. Nuclear Power Technologies through Year 2035...........................................................455

Kenneth D. Kok and Edwin A. Harvego

16. Nuclear Fusion..................................................................................................................... 491

François Waelbroeck

17. Energy Storage Technologies............................................................................................ 497

Jeffrey P. Chamberlain, Roel Hammerschlag, and Christopher P. Schaber

18. Solar Thermal Energy Conversion................................................................................... 525

T. Agami Reddy and Jeffrey H. Morehouse

19. Concentrating Solar Thermal Power...............................................................................655

Manuel Romero, Jose Gonzalez-Aguilar, and Eduardo Zarza

20. Photovoltaics Fundamentals, Technology and Application....................................... 765

Roger Messenger, D. Yogi Goswami, Hari M. Upadhyaya, Senthilarasu Sundaram,

Aruna Ivaturi, Stephan Buecheler, and Ayodhya N. Tiwari

21. Wind Energy Conversion................................................................................................... 851

Dale E. Berg

22. Biomass Conversion Process for Energy Recovery....................................................... 897

Mark M. Wright and Robert C. Brown

23. Geothermal Power Generation......................................................................................... 931

Kevin Kitz

24. Waste-to-Energy Combustion...........................................................................................985

Charles O. Velzy and Leonard M. Grillo

25. Fuel Cells............................................................................................................................. 1033

Xianguo Li

26. Direct Energy Conversion................................................................................................ 1085

Mysore L. Ramalingam, Jean-Pierre Fleurial, and George Nolas

Appendix A: The International System of Units, Fundamental Constants,

and Conversion Factors................................................................................ 1103

Appendix B: Solar Radiation Data........................................................................................ 1109

Appendix C: Properties of Gases, Vapors, Liquids, and Solids...................................... 1137

Appendix D: Ultimate Analysis of Biomass Fuels............................................................ 1151

Index 1153

A guide to lithium sulfur batteries that explores their materials, electrochemical mechanisms and modelling and includes recent scientific developments Lithium Sulfur Batteries (Li-S) offers a comprehensive examination of Li-S batteries from the viewpoint of the materials used in their construction, the underlying electrochemical mechanisms and how this translates into the characteristics of Li-S batteries. The authors - noted experts in the field - outline the approaches and techniques required to model Li-S batteries. Lithium Sulfur Batteries reviews the application of Li-S batteries for commercial use and explores many broader issues including the development of battery management systems to control the unique characteristics of Li-S batteries. The authors include information onsulfur cathodes, electrolytes and other components used in making Li-S batteries and examine the role of lithium sulfide, the shuttle mechanism and its effects, and degradation mechanisms. The book contains a review of battery design and: Discusses electrochemistry of Li-S batteries and the analytical techniques used to study Li-S batteries Offers information on the application of Li-S batteries for commercial use Distills years of research on Li-S batteries into one comprehensive volume Includes contributions from many leading scientists in the field of Li-S batteries Explores the potential of Li-S batteries to power larger battery applications such as automobiles, aviation and space vehicles Written for academic researchers, industrial scientists and engineers with an interest in the research, development, manufacture and application of next generation battery technologies, Lithium Sulfur Batteries is an essential resource for accessing information on the construction and application of Li-S batteries.

Applications oriented, it contains all the pertinent and comprehensive information necessary to meet the growing demands placed upon solid-state power conversion equipment. These demands include improved reliability, increased efficiency, higher packing density, improved performance plus meeting safety and EMC regulations. Features a thorough assessment of basic electrical and magnetic aspects of power conversion as well as thermal, protection, radiation and reliability considerations. Stresses semiconductor and magnetic components and gives an analysis of diverse topologies.

Dominik Pelzer presents a framework for investigating and optimizing the profitability of energy storage systems. The author deploys the methodology to assess the benefits of electric vehicle smart charging and to investigate the financial viability of arbitrage using battery energy storage systems. He evaluates the factors influencing profitability and identifies conditions for profitable operation. Due to the framework's modular design, these considerations can be extended to a large variety of storage technologies and scenarios to identify optimal operating parameters.

This book discusses the enhancement of efficiency in currently used solar cells. The authors have characterized different structures of the solar cell system to optimize system parameters, particularly the performance of the Copper-Tin-Sulphide solar cell using Solar Cell Capacitance Simulator (SCAPS). This research can help scientist to overcome the current limitations and build up new designs of the system with higher efficiency and greater functionality. The authors have investigated the corresponding samples from various viewpoints, including structural (crystallinity, composition and surface morphology), optical (UV-vis-near-IR transmittance/reflectance spectra) and electrical resistivity properties. Describes investigations on Cu2SnS3 solar cells and prospective low cost absorber layer of thin film solar cells; Discusses the potential device structure of Copper-Tin-Sulphide based on thin film technologies; Explains solar cell structure optimization to perform a higher conversion efficiency of Copper-Tin-Sulphide.

This book surveys state-of-the-art research on and developments in lithium-ion batteries for hybrid and electric vehicles. It summarizes their features in terms of performance, cost, service life, management, charging facilities, and safety. Vehicle electrification is now commonly accepted as a means of reducing fossil-fuels consumption and air pollution. At present, every electric vehicle on the road is powered by a lithium-ion battery. Currently, batteries based on lithium-ion technology are ranked first in terms of performance, reliability and safety. Though other systems, e.g., metal-air, lithium-sulphur, solid state, and aluminium-ion, are now being investigated, the lithium-ion system is likely to dominate for at least the next decade - which is why several manufacturers, e.g., Toyota, Nissan and Tesla, are chiefly focusing on this technology. Providing comprehensive information on lithium-ion batteries, the book includes contributions by the world's leading experts on Li-ion batteries and vehicles.

This book explores the recent advances in designing and synthesizing one- and two-dimensional metal chalcogenide nanostructures, along with their practical applications, helping readers understand what has happened, and what is currently happening in the field of nanotechnology. It also includes a comprehensive table showing 1D and 2D nanostructured metal chalcogenides, which presents the recent developments from a synthetic point of view. Further, it describes the wide applicability of anisotropic metal chalcogenides, such as in electronics, energy storage and conversion, and sensors. Lastly it discusses the current understanding of the thermodynamic and kinetic aspects associated with the forming mechanisms of anisotropic metal chalcogenide nanostructures. This book is a valuable reference resource for practitioners and researchers, enabling them to obtain a quick overview of anisotropic metal chalcogenide nanomaterials through synthetic approaches and related applications. Presenting representative applications of anisotropic metal chalcogenide nanomaterials that are important in the industrial sector, it is also of interest to academics and industry specialists.

This book includes a collection of research articles presented at the "6th International Workshop on Hydro Scheduling in Competitive Electricity Markets". The workshop was a unique and intimate forum for researchers and practitioners to present state-of-the-art research and development concerning novel methodological findings, best practices and real-life applications of hydro scheduling. It also provided a platform for discussing the developments that are taking place in the industry, sharing different experiences and discussing future trends related to this area. This proceedings book is a collection of the most relevant, high-quality articles from the workshop. Discussing the state-of-the-art in the field of hydro scheduling, it is a valuable resource for a wide audience of researchers and practitioners in the field now and in the interesting and challenging times ahead.

Electrolytes are indispensable components in electrochemistry and the fast-growing electrochemical energy storage markets. Research in electrolytes has witnessed exponential growth in recent years, accompanied by their applications in the most popular electrochemical cell ever invented, lithium-ion batteries (LIBs). In myriads of LIBs, electrolytes and their interphases determine how high the voltage of a battery is, how many times it can be charged/discharged, or how rapid the energy stored therein could be released. The conquest of further technical challenges around safety, life and cost-effectiveness of lithium-based or beyond-lithium batteries requires in-depth understanding of electrolytes and interphases. This will be the authoritative textbook for those entering the field. Chapters will establish the fundamental principles for the field, before moving onto important knowledge acquired in recent years. There will be special emphasis on linking these fundamentals to real-world problems encountered in devices, especially lithium-ion batteries. The book will be suitable for advanced undergraduate and postgraduate students in electrochemical energy storage, electrochemistry, materials science and engineering, as well as researchers new to the subject.

Innovation through specific and rational design and functionalization has led to the development of a wide range of mesoporous materials with varying morphologies (hexagonal, cubic, rod-like), structures (silicates, carbons, metal oxides), and unique functionalities (doping, acid functionalization) that currently makes this field one of the most exciting in materials science and energy applications. This book focuses primarily on the rapid progress in their application in energy conversion and storage technologies, including supercapacitor, Li-ion battery, fuel cells, solar cells, and photocatalysis (water splitting) and will serve as a valuable reference for researchers in the field

The proliferation of electric communication and power networks have drawn wires through American landscapes like vines through untended gardens since 1844. But these wire networks are more than merely the tools and infrastructure required to send electric messages and power between distinct places; the iconic lines themselves send powerful messages. The wiry webs above our heads and the towers rhythmically striding along the horizon symbolize the ambiguous effects of widespread industrialization and the shifting values of electricity and landscape in the American mind.  In Power-Lined Daniel L. Wuebben weaves together personal narrative, historical research, cultural analysis, and social science to provide a sweeping investigation of the varied influence of overhead wires on the American landscape and the American mind. Wuebben shows that overhead wires—from Morse’s telegraph to our high-voltage grid—not only carry electricity between American places but also create electrified spaces that signify and complicate notions of technology, nature, progress, and, most recently, renewable energy infrastructure. Power-Lined exposes the subtle influences wrought by the wiring of the nation and shows that, even in this age of wireless devices, perceptions of overhead lines may be key in progressing toward a more sustainable energy future.     

Provides relevant material for engineering students and practicing engineers who want to learn the basics of electrical power transmission, generation, and usage

This "Second Edition of Electrical Energy Conversion and Transport" is thoroughly updated to address the recent environmental effects of electric power generation and transmission, which have become more important in conjunction with the deregulation of the industry.

The maintenance and development of the electrical energy generation and transport industry requires well-trained engineers who are able to use modern computation techniques to analyze electrical systems and understand the theory of electrical energy conversion. It includes new content that explores different power production methods, such as renewable energy sources (solar, wind, geothermal and ocean), as well as new sections that discuss the upcoming Smart Grid and distributed power generation using renewable energy conversion.

Complete with a Solutions Manual and the use of Mathcad, MATLAB, and PSpice throughout for problem solving, "Electrical Energy Conversion and Transport" offers chapter coverage of: Electric Power SystemsSingle-Phase CircuitsTransmission LinesTransformersInduction MachinesIntroduction to Power Electronics and Motor ControlElectric Generating StationsThree-Phase CircuitsElectromechanical Energy ConversionSynchronous MachinesDC Machines

This book is essential reading material for students and practicing engineers in the power industry who would like to learn computer-based electrical energy conversion and transport at their own pace.

The transformation towards electric mobility requires the highest quality mass production of battery cells. However, few research in battery cell engineering focus beyond new cell chemistries. As a consequence, there exists a huge gap between basic battery research and comparable scientific approaches to battery cell production. This handbook bridges the gap between basic electrochemical battery cell research and battery cell production approaches.To run lithium-ion battery gigafactories successfully and sustainably, high-quality battery cell production processes and systems are required. The Handbook on Smart Battery Cell Manufacturing provides a comprehensive and well-structured analysis of every aspect of the manufacturing process of smart battery cell, including upscaling battery cell production, accompanied by many instructive practical examples of the digitalization of battery products and manufacturing systems using an integrated life cycle perspective.

Battery technology is constantly changing, and the concepts and applications of these changes are rapidly becoming increasingly more important as more and more industries and individuals continue to make "greener" choices in their energy sources. As global dependence on fossil fuels slowly wanes, there is a heavier and heavier importance placed on cleaner power sources and methods for storing and transporting that power. Battery technology is a huge part of this global energy revolution. Potassium-ion batteries were first introduced to the world for energy storage in 2004, over two decades after the invention of lithium-ion batteries. Potassium-ion (or "K-ion") batteries have many advantages, including low cost, long cycle life, high energy density, safety, and reliability. Potassium-ion batteries are the potential alternative to lithium-ion batteries, fueling a new direction of energy storage research in many applications and across industries. Potassium-ion Batteries: Materials and Applications explores the concepts, mechanisms, and applications of the next-generation energy technology of potassium-ion batteries. Also included is an in-depth overview of energy storage materials and electrolytes. This is the first book on this technology and serves as a reference guide for electrochemists, chemical engineers, students, research scholars, faculty, and R&D professionals who are working in electrochemistry, solid-state science, material science, ionics, power sources, and renewable energy storage fields.

This book outlines the principles of thermoelectric generation and refrigeration from the discovery of the Seebeck and Peltier effects in the nineteenth century through the introduction of semiconductor thermoelements in the mid-twentieth century to the more recent development of nanostructured materials. It is shown that the efficiency of a thermoelectric generator and the coefficient of performance of a thermoelectric refrigerator can be related to a quantity known as the figure of merit. The figure of merit depends on the Seebeck coefficient and the ratio of the electrical to thermal conductivity. It is shown that expressions for these parameters can be derived from the band theory of solids. The conditions for favourable electronic properties are discussed. The methods for selecting materials with a low lattice thermal conductivity are outlined and the ways in which the scattering of phonons can be enhanced are described. The application of these principles is demonstrated for specific materials including the bismuth telluride alloys, bismuth antimony, alloys based on lead telluride, silicon-germanium and materials described as phonon-glass electron-crystals. It is shown that there can be advantages in using the less familiar transverse thermoelectric effects and the transverse thermomagnetic effects. Finally, practical aspects of thermoelectric generation and refrigeration are discussed. The book is aimed at readers who do not have a specialised knowledge of solid state physics.

The main aims of power electronic converter systems (PECS) are to control, convert, and condition electrical power flow from one form to another through the use of solid state electronics. This book outlines current research into the scientific modeling, experimentation, and remedial measures for advancing the reliability, availability, system robustness, and maintainability of PECS at different levels of complexity. Drawing on the experience of an international team of experts, this book explores the reliability of PECS covering topics including an introduction to reliability engineering in power electronic converter systems; anomaly detection and remaining-life prediction for power electronics; reliability of DC-link capacitors in power electronic converters; reliability of power electronics packaging; modeling for life-time prediction of power semiconductor modules; minimization of DC-link capacitance in power electronic converter systems; wind turbine systems; smart control strategies for improved reliability of power electronics system; lifetime modelling; power module lifetime test and state monitoring; tools for performance and reliability analysis of power electronics systems; fault-tolerant adjustable speed drive systems; mission profile-oriented reliability design in wind turbine and photovoltaic systems; reliability of power conversion systems in photovoltaic applications; power supplies for computers; and high-power converters. Reliability of Power Electronic Converter Systems is essential reading for researchers, professionals and students working with power electronics and their applications, particularly those specialising in the development and application of power electronic converters and systems.

This book highlights recent advances in energy research. The chapters included in this volume include research on nuclear power reactors, specifically small modular reactors (SMRs) for electricity generation; stakeholder participation in local energy-planning and the possible ways of integrating stakeholder participation in current energy planning practices; a comprehensive review of energy sources, and the development of sustainable technologies to explore these energy sources; the modeling and analysis of a liquefied natural gas (LNG) fired CCHP system, compared to the conventional method of generating useful energy, which is assumed to be a centralized electricity-only power plant; electrospray deposition method for fabricating organic photovoltaic cells; the application of energy-saving, passive strategies in occupied school building spaces; an evaluation of energy consumption in buildings with complex topology equipped with a HVAC system; and an evaluation of solar thermal technologies and applications.

"Thermal Energy Storage Technologies for Sustainability"is a broad-based overview describing the state-of-the-art in latent, sensible, and thermo-chemical energy storage systems and their applications across industries. Beginning with a discussion of the efficiency and conservation advantages of balancing energy demand with production, the book goes on to describe current state-of-the art technologies. Not stopping with description, the authors also discuss design, modeling, and simulation of representative systems, and end with several case studies of systems in use.
Describes how thermal energy storage helps bridge the gap between energy demand and supply, particularly for intermittent power sources like solar, wind, and tidal systemsProvides tables, illustrations, and comparative case studies that show applications of TES systems across industriesIncludes a chapter on the rapidly developing field of viable nanotechnology-based thermal energy storage systems"

Tajikistan suffers severe energy shortages in winter, caused by a combination of low hydropower output during winter, when river fl ows are low, and high demand driven by heating needs. Shortages affect some 70 percent of the population, costing about 3 percent of annual GDP. This fi gure excludes human and environmental costs, as well as the serious negative effect on the business investment climate. If no measures are undertaken to address this problem, then current electricity shortages, estimated at about one-quarter of winter demand (2,700 GWh), could increase to more than one-third of winter demand (4,500 GWh) by 2016. The Government of Tajikistan recognizes both the importance and challenges of energy security and has therefore introduced various measures to help meet demand. Tajikistan s Winter Energy Crisis explores a range of supply and demand alternatives including thermal, run-of-river hydro, other renewables, energy effi ciency, and demand management to further inform its development partners on the country s efforts to meet its winter energy demand. The study recommends that the Government of Tajikistan accelerate its efforts in energy effi ciency and demand management, including tariff reform; add new dual-fi red thermal power supply to complement the existing hydropower supply during winter; and pursue energy imports and rebuild regional energy trade routes to leverage surplus electricity supply in neighboring countries. Energy conservation and demand-side management, effective resource management, and reduction alone could address 40 percent of the shortages, including a signifi cant package of economic measures at the main aluminum smelting plant. The study suggests that by following these recommended actions shortages could be signifi cantly reduced within 4 5 years and a solid base for long-term energy established."

Scientists and engineers are nowadays faced with the problem of optimizing complex systems subject to constraints from, ecology, economics, and thermodynamics. It is chiefly to the last of these that this volume is addressed. Intended for physicists, chemists, and engineers, the book uses examples from solar, thermal, mechanical, chemical, and environmental engineering to focus on the use of thermodynamic criteria for optimizing energy conversion and transmission. The early chapters centre on solar energy conversion, the second section discusses the transfer and conversion of chemical energy, while the concluding chapters deal with geometric methods in thermodynamics.

The residential sector consumes a vast amount of energy. This situation has resulted in an increased interest by the scientific community in the subject of energy saving. In the present work, the authors examine the characteristics of some newer systems and options for energy savings in residential buildings. Sources for optimally heating buildings, energy systems distribution, thermal energy storage systems, control systems among other improvements and operations, which may help to reduce energy consumption in the residential sector, are discussed. The possibilities of use of heat pumps in technical systems, passive solar heating and water heating in domestic hot-water systems are also outlined. Special attention is paid to the problem of energy storage in energy systems.