Photovoltaic Module Cooling Techniques: Types, Applications, Assessment Methods, and Current and Future Challenges offers an up-to-date central resource covering the latest photovoltaic module cooling techniques and their application, performance assessment methods, and the current and future challenges of these techniques. The book begins by introducing photovoltaic technology before reviewing existing types and applications of PV cooling techniques and their effects on performance. Subsequent chapters examine in detail various methods and approaches, including temperature dependent PV efficiency and power difference factors, PV cooling technique production cost effectiveness factor, the use of power ratio for evaluating performance of PV coolers when different PV reference power values are used, lifespan effectiveness factor and critical mass flow rate for evaluating performance of cooling techniques, and the definition and use of energy per weight, volume and area factors for assessing performance. A final chapter discusses current and future challenges, considering technical, economic, and social factors, and provides recommendations for future development. This book is of interest to all those working on photovoltaics performance, efficiency, and development, including researchers, advanced students, faculty, engineers, R&D, manufacturers, designers, and policy makers.
CFD Simulations of Advances of Solar Thermal Systems offers readers the tools needed to optimize the performance of solar thermal systems with low costs through CFD applications and simulations. This book aims to advance the enhancement and affordability of solar thermal systems via CFD applications. Each chapter contains overviews paired with relevant illustrations, diagrams, and calculations describing each system. Sections then progress into intersectionality and application of CFDs for each, including advances -- all woven into a volume that flows from chapter to chapter with a consistent structure that delivers readers a valuable, easy-to-follow, practical reference.Production of clean energy is a global goal. Several clean energy sources are available, including geothermal, wind, hydropower, and solar energy. The challenge is to develop efficient methods and processes for beneficial, rapidly scaled, safe and economically viable exploitation of these resources. Solar energy represents one of the most important renewable sources of clean energy. Solar energy is exploited using various methods – solar thermal systems convert solar energy to thermal energy via solar collectors, solar air heaters, solar chimney power plants, solar dishes, solar cookers, and solar parabolic concentrators.
Renewable Photocatalysts: Technologies, Applications, Economics, Environmental Analysis, and a Sustainable Future offers an innovative and broad approach to photocatalysts, integrating design, materials, methods, applications, economics, and sustainable development. The book begins by introducing solar energy and catalysis, before delving into cutting-edge photocatalyst technologies and applications. The third section focuses on regulations, economics, and commercialization, before the final chapters provide further in-depth coverage of environmental considerations, life cycle, and applications. The lens of sustainable development is applied throughout the book, with a view to developing renewable photocatalysts that support the reduction of CO2 emissions, net zero goals, and sustainable development. This is a valuable resource for researchers, students, faculty, engineers, R&D, scientists, and policy makers, with an interest in solar energy, photocatalysts, and sustainable development.
Photovoltaic Device Physics and Materials: Solar Cell, Energy Management, and Retinomorphic Structures, Third Edition reflects that the physics behind these three important photovoltaics applications is the same while the device structure, designs, and materials used to optimally implement this physics varies. These variations come from differences in the incoming spectra, the materials utilized, and differences in the concomitant light trapping required. The importance of the materials utilized requires extensive examination and exploration of emerging inorganics, including perovskites, organics, and 2-D materials.An additional consideration that is addressed is device planar extent, which varies with device application. This thoroughly revised and expanded text is a valuable resource for students and researchers looking to learn about photovoltaic or solar cell devices, as well as faculty, engineers, R&D, government and industry labs, and medical facilities.
Statistical Relational Artificial Intelligence in Photovoltaic Power Uncertainty Analysis addresses uncertainty issues in photovoltaic power generation and supports the collaborative enhancement of understanding and application of theory and methods through the integration of models, cases, and code. The book employs StaRAI to address uncertainty analysis and modeling issues at different time scales in photovoltaic power generation, including photovoltaic power prediction, probabilistic power flow, stochastic planning, and more. Chapters 2, 3, 4, and 5 cover uncertainty of PV power generation from short to long time scales, including day-ahead scheduling (24 hours in advance), intraday scheduling (minute to hour rolling), and grid planning (15 years). Chapters 6, 7, and 8 study the impact of photovoltaic uncertainty on the power grid, offering the most classic cases of probabilistic load flow and PV stochastic planning. The theoretical content of this book is not only systematic but supplemented with concrete examples and Matlab/Python codes. This is of interest to all those working on photovoltaic planning, power generation, power plants, and applications of AI, including researchers, advanced students, faculty engineers, R&D, and designers.
Perovskite Photovoltaics: Basic to Advanced Concepts and Implementation, Second Edition brings together the latest advances in perovskite photovoltaics, associated challenges and opportunities, and how to achieve further developments. This edition presents new topics and novel areas, including defect engineering, interface engineering, additive engineering, anti-solvents, single crystal perovskite solar cells, inorganic perovskites, optoelectronic characterization, and mathematical modeling of perovskite solar cells. In addition, the book contains a detailed analysis of the implementation and economic viability of perovskite solar cells, highlighting what photovoltaic devices need to be generated by low cost, non-toxic, earth abundant materials using environmentally-scalable processes.This book is a valuable resource for all those with an interest in perovskite solar cells, photovoltaics, and more broadly solar energy and renewable energy, including researchers, scientists, graduate students, engineers, R&D professionals, and other industry personnel.
Solar Chimney Power Plants: From Theory to Practice offers detailed information in one place, covering working principles, efficiency, performance-enhancing methods, experimental and theoretical studies, current application examples, techno-economic analysis, and artificial intelligence, providing the reader with a thorough and up-to-date understanding of solar chimney power plants. The book covers basic theory and dynamics of solar chimney power plants, systematic coverage of the various parameters affecting performance, assessment by experimental studies, mathematical and theoretical models, the use of computer simulations and computation fluid dynamics, and innovative applications and hybrid approaches.Finally, techno-economic analysis and the role of artificial intelligence are presented. This is an ideal resource for all those with an interest in solar chimney plants and energy conversion technologies, including graduate students, researchers, academics, faculty, engineers, R&D, scientists, policymakers and professionals in the renewable energy sector.
Provides an overview of various small scale sustainable energy technologies, with examples and a clear focus on technological and research issuesBeginning with an overview of the special characteristics, challenges, and opportunities of small scale power plants, this book goes on to provide detailed assessments of a wide variety of renewable energy generation technologies. Solar, biomass, hydroelectric, and geothermal energy generation are all addressed, with assessment of their performance, availability, reliability unique requirements for operation, maintenance, control, and grid integration.Combining technological advances with consideration of economic and application challenges, the Small Scale Power Generation Handbook is an essential resource for graduate students, academic researchers, and industry professionals involved in the design and integration of small scale power generation for sustainable systems.
Solar Energy Technologies in Cultural Heritage offers a comprehensive overview of the solar renewable energy possibilities, developments, innovations, and challenges for cultural heritage applications. This book bridges the traditional boundary between research, professional practices, and policies, as well as between arts, architecture, engineering, and social science.Conservation of heritage buildings, especially in urban settings, has evolved from purely physical preservation to functional redevelopment and repurposing. This opens new opportunities for active solar energy systems in buildings, towns, and landscapes. This book presents international contributions on the integration of solar renewable energies within cultural heritage, providing detailed coverage of cultural, legislative, and social frameworks, design criteria, simulation tools, innovative materials, and technologies.This book is an essential resource for anyone interested in solar energy technologies for the built environment, including researchers, scientists, graduate students, engineers, designers, developers, and policymakers.
High-Temperature Phase Change Materials for Thermal Energy Storage covers the fundamentals, thermal characteristics, measurement, design, and applications of high-temperature phase change materials (PCMs) for thermal energy storage, supported by examples and numerical modeling. The differences between low-temperature and high-temperature PCMs are examined with respect to thermophysical properties, phase change properties, and melting/solidification processes, with detailed coverage of how to alter or shorten the phase transition temperature range between melting and solidification, providing routes for the utilization of PCMs for specific high-temperature applications. The book also addresses key challenges, such as the design of PCM containers, phase transition temperature with little deviation, high latent heat capacity, thermal conductivity, viscosity, efficiency, ecocompatibility, and cost. This book is a valuable resource for researchers, advanced students, and scientists across the areas of energy storage, power generation, energy engineering, thermodynamics, materials science, renewable energy, energy management, mechanical engineering, and chemical engineering as well as engineers, research and development professionals, and other industry personnel with an interest in thermal energy storage design and materials.