Wind Energy Engineering – serie

Supervised Machine Learning in Wind Forecasting and Ramp Event Prediction provides an up-to- date overview on the broad area of wind generation and forecasting, with a focus on the role and need of Machine Learning in this emerging field of knowledge. Various regression models and signal decomposition techniques are presented and analyzed, including least-square, twin support and random forest regression, all with supervised Machine Learning. The specific topics of ramp event prediction and wake interactions are addressed in this book, along with forecasted performance.

Wind speed forecasting has become an essential component to ensure power system security, reliability and safe operation, making this reference useful for all researchers and professionals researching renewable energy, wind energy forecasting and generation.

Features various supervised machine learning based regression models Offers global case studies for turbine wind farm layouts Includes state-of-the-art models and methodologies in wind forecasting

Fundamentals of Wind Farm Aerodynamic Layout Design, Volume Four provides readers with effective wind farm design and layout guidance through algorithm optimization, going beyond other references and general approaches in literature. Focusing on interactions of wake models, designers can combine numerical schemes presented in this book which also considers wake models' effects and problems on layout optimization in order to simulate and enhance wind farm designs. Covering the aerodynamic modeling and simulation of wind farms, the book's authors include experimental tests supporting modeling simulations and tutorials on the simulation of wind turbines.

In addition, the book includes a CFD technique designed to be more computationally efficient than currently available techniques, making this book ideal for industrial engineers in the wind industry who need to produce an accurate simulation within limited timeframes.

Features novel CFD modeling Offers global case studies for turbine wind farm layouts Includes tutorials on simulation of wind turbine using OpenFoam

Wind Turbine Icing Physics and Anti-/De-Icing Technology gives a comprehensive update of research on the underlying physics pertinent to wind turbine icing and the development of various effective and robust anti-/de-icing technology for wind turbine icing mitigation. The book introduces the most recent research results derived from both laboratory studies and field experiments. Specifically, the research results based on field measurement campaigns to quantify the characteristics of the ice structures accreted over the blades surfaces of utility-scale wind turbines by using a Supervisory Control and Data Acquisition (SCADA) system and an Unmanned-Aerial-Vehicle (UAV) equipped with a high-resolution digital camera are also introduced.

In addition, comprehensive lab experimental studies are explored, along with a suite of advanced flow diagnostic techniques, a detailed overview of the improvements, and the advantages and disadvantages of state-of-the-art ice mitigation strategies. This new addition to the Wind Energy Engineering series will be useful to all researchers and industry professionals who address icing issues through testing, research and industrial innovation.

Covers detailed improvements and the advantages/disadvantages of state-of-the-art ice mitigation strategies Includes condition monitoring contents for lab-scale experiments and field tests Presents the potential of various bio-inspired icephobic coatings of wind turbine blades

Corrosion and Corrosion Protection of Wind Power Structures in Marine Environments: Volume 1: Introduction and Corrosive Loads offers the first comprehensive review on corrosion and corrosion protection of offshore wind power structures. The book provides extensive discussion on corrosion phenomena and types in different marine corrosion zones, including the modeling of corrosion processes and interactions between corrosion and structural stability. The book addresses important design issues, namely materials selection relative to performance in marine environments, corrosion allowance, and constructive design. Active and passive corrosion protection measures are emphasized, with special sections on cathodic corrosion protection and the use of protective coatings.

Seawater related issues associated with cathodic protection, such as calcareous deposit formation, hydrogen formation and fouling, are discussed. With respect to protective coatings, the book considers for the first time complete loading scenarios, including corrosive loads, mechanical loads, and special loads, and covers a wide range of coating materials. Problems associated with fouling and bacterial-induced corrosion are extensively reviewed. The book closes with a chapter on recent developments in maintenance strategies, inspection techniques, and repair technologies. The book is of special interest to materials scientists, materials developers, corrosion engineers, maintenance engineers, civil engineers, steel work designers, mechanical engineers, marine engineers.

Offshore wind power is an emerging renewable technology and a key factor for a cleaner environment. Offshore wind power structures are situated in a demanding and challenging marine environment. The structures are loaded in a complex way, including mechanical loads and corrosive loads. Corrosion is one of the major limiting factors to the reliability and performance of the technology. Maintenance and repair of corrosion protection systems are particularly laborious and costly.

Explores the literature between 1950 and 2020 and contains over 2000 referencesOffers the most complete monograph on the issueCovers all aspects of corrosion protection in detail, including coatings, cathodic protection, corrosion allowance, and constructive design, as well as maintenance and repairDelivers the most complete review on corrosion of metals in marine/offshore environmentsFocuses on all aspects of offshore wind power structures, including foundations, towers, internal sections, connection flanges, and transformation platforms

Corrosion and Corrosion Protection of Wind Power Structures in Marine Environments: Volume 2: Corrosion Protection Measures offers the first comprehensive review on corrosion and corrosion protection of offshore wind power structures. The book extensively discusses corrosion phenomena and corrosion types in different marine corrosion zones, including the modeling of corrosion processes and interactions between corrosion and structural stability. The book addresses important design issues, namely materials selection relevant to their performance in marine environments, corrosion allowance, and constructive design. Active and passive corrosion protection measures are emphasized, with special sections on cathodic corrosion protection and the use of protective coatings.

Seawater related issues associated with cathodic protection, such as calcareous deposit formation, hydrogen formation, and fouling, are discussed. With respect to protective coatings, the book considers, for the first time, complete loading scenarios, including corrosive loads, mechanical loads, and special loads, and covers a wide range of coating materials. Problems associated with fouling and bacterial-induced corrosion are extensively reviewed. The book closes with a chapter on recent developments in maintenance strategies, inspection techniques, and repair technologies. The book will be of special interest to materials scientists, materials developers, corrosion engineers, maintenance engineers, civil engineers, steel work designers, mechanical engineers, marine engineers, chemists, and coating specialists.

Offshore wind power is an emerging renewable technology and a key factor for a cleaner environment. Offshore wind power structures are situated in a demanding and challenging marine environment. The structures are loaded in a complex way, including mechanical loads and corrosive loads. Corrosion is one of the major limiting factors to the reliability and performance of the technology. Maintenance and repair of corrosion protection systems are particularly laborious and costly.

Explores the literature between 1950 and 2020 and contains over 2000 referencesOffers the most complete monograph on the issueCovers all aspects of corrosion protection in detail, including coatings, cathodic protection, corrosion allowance, constructive design, as well as maintenance and repairDelivers the most complete review on corrosion of metals in marine/offshore environmentsFocuses on all aspects of offshore wind power structures, namely foundations, towers, internal sections, connection flanges, and transformation platforms

Non-Destructive Testing and Condition Monitoring Techniques in Wind Energy looks at the complex and critical components of energy assets and the importance of inspection and maintenance to ensure their high availability and uninterrupted operation. Presenting the main concepts, state-of-the-art advances and case studies, this book approaches the topic by considering it as an integral part of the overall operation of any wind energy project. Linking the essential NDT subject with its sub disciplines, the book uses computational techniques, dynamic analysis, probabilistic methods, and mathematical optimization techniques to support analysis of prognostic problems with defined constraints and requirements.

This book is the first of its kind and will provide useful insights to industrial engineers and scientists, academics and students in the possibilities that NDT and condition monitoring technologies can offer.

Presents advances in Non-Destructive Techniques and Condition Monitoring Systems applied in the energy industry Provides case studies in Fault Detection and Diagnosis and Prognosis for critical variability Offers technical maintenance actions for the observation and analyses of inspection, monitoring, testing, diagnosis, prognosis and active maintenance actions in wind

Published as an Open Access book available on Science Direct, IEA Wind Recommended Practices for the Implementation of Renewable Energy Forecasting Solutions translates decades of academic knowledge and standard requirements into applicable procedures and decision support tools for the energy industry. Designed specifically for practitioners in the energy industry, readers will find the tools to maximize the value of renewable energy forecast information in operational decision-making applications and significantly reduce the costs of integrating large amounts of wind and solar generation assets into grid systems through more efficient management of the renewable generation variability.

Authored by a group of international experts as part of the IEA Wind Task 36 (Wind Energy Forecasting), the book addresses the issue that many current operational forecast solutions are not properly optimized for their intended applications. It provides detailed guidelines and recommended practices on forecast solution selection processes, designing and executing forecasting benchmarks and trials, forecast solution evaluation, verification, and validation, and meteorological and power data requirements for real-time forecasting applications. In addition, the guidelines integrate probabilistic forecasting, integrate wind and solar forecasting, offer improved IT data exchange and data format standards, and have a dedicated section to dealing with the requirements for SCADA and meteorological measurements.

A unique and comprehensive reference, IEA Wind Recommended Practices for the Implementation of Renewable Energy Forecasting Solutions is an essential guide for all practitioners involved in wind and solar energy generation forecasting from forecast vendors to end-users of renewable forecasting solutions.

Brings together the decades-long expertise of authors from a range of backgrounds, including universities and government laboratories, commercial forecasters, and operational forecast end-users into a single comprehensive set of practices Addresses all areas of wind power forecasting, including forecasting methods, measurement selection, setup and data quality control, and the evaluation of forecasting processes related to renewable energy forecasting Provides purpose-built decision-support tools, process diagrams, and code examples to help readers visualize and navigate the book and support decision-making

Wind Energy Operation and Control: Issues, Solutions, and Future Developments provides deep insights into the critical issues of wind power generation and the integration of wind energy in electricity grids, offering an interdisciplinary approach that enables readers to overcome current barriers and to understand future opportunities. As part of the Elsevier Wind Energy Engineering Series, this book is a valuable resource for researchers, academics, and advanced students with an interest in wind energy, operation and control, grid integration, power systems, and renewable energy, as well as practitioners, industry personnel, and policy makers working in the wind energy sector.

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 extensive and comprehensive information on solar chimney power plantsDescribes the technology in terms of working principles, efficiency, and performance enhancing methodsPresents current application examples and addresses challenges encountered

Artificial Intelligence of Things for Wind Energy Systems covers the novel concept of Artificial Intelligence (AI) combined with Internet of Things (IoT), for efficient data acquisition, analytics, and automated control, in wind energy systems. The book begins by introducing Artificial Intelligence of Things (AIoT), technologies, challenges, and future directions. Subsequent chapters provide in-depth coverage of specific technical areas and their applications in wind forecasting, generation, energy management, anomaly detection, digital twins, inspection of generators, recommendation systems, security concerns, and microgrid monitoring and control. Throughout the book, the information presented is supported by visuals, case studies, simulations, and code. A Volume in the Elsevier Wind Energy Engineering Series, this is a valuable resource for researchers, graduate students, engineers, operators, and other industry personnel with an interest in the use of AI and IoT in wind energy production and integration.Links Artificial Intelligence and Internet of Things, in the context of wind energy systemsConsiders the latest innovations in terms of big data, machine learning, deep learning, digital twins, and other areasSupported by case studies, visual decision-making tools, simulations, and code

Distributed Optimal Control of Large-Scale Wind Farm Clusters: Optimal Active and Reactive Power Control, and Fault Ride Through, a new volume in the Elsevier Wind Energy Engineering series, explores the latest advances in distributed optimal control of large-scale wind farm clusters, also describing distributed optimal control techniques for high voltage ride through (HVRT). Both mathematical formulations and algorithm details are provided, along with MATLAB codes to replicate and implement distributed optimal control schemes. This is a valuable resource for anyone interested in the operation, control, and integration of wind power plants, wind farms, and electricity grids, both at research and operational levels.Researchers, faculty, scientists, engineers, R&D, and other industry professionals, as well as graduate and postgraduate students studying and working in wind energy will find this comprehensive resource a valuable addition to their work.Presents the latest developments in the distributed optimal control of large-scale wind power plant clustersCovers both active and reactive power control, as well as techniques for high voltage ride through (HVRT)Provides methodologies to follow set-points from system operators in order to maintain expected voltagesIncludes control algorithms and codes for implementing the control schemes

Published as an Open Access book freely available for download on Science Direct, Marine Operations for Offshore Wind Turbines, Volume 1: Fundamentals and Application is a practical reference that links fundamentals to methods to application in this unique, important, and highly interdisciplinary area, helping readers to ensure operational safety, reduced installation costs, and improved wind farm efficiency and reliability. The first part of the book introduces the fundamentals of offshore wind energy systems and marine operations, along with analysis methods and numerical modelling and simulation tools. The second section focuses on in-depth case studies based on the authors’ own research and incorporating real-world practical experience in key areas, guiding the reader through lifting operations for turbine components, environmental loads, motion control, structural modelling, and safety assessment for installations, modelling, analysis and control of full assembly installation, and design and optimization for floating installations. Finally, the critical phases of transportation and final mooring hook-up are introduced, and a concluding chapter provides an overview of recent trends and emerging topics, such as robotic technologies, artificial intelligence, and advanced decommissioning solutions, offering routes for future research and development. A volume in the Elsevier Wind Energy Engineering Series, this is an essential resource for all those looking learn the fundamentals, to improve their understanding, and to gain insights into installation concepts, analysis methods, modelling approaches, key tools, and problems and challenges, including researchers, students, engineers, R&D, policy makers and industry professionals.Offers a comprehensive overview of offshore wind turbine installationBrings together installation concepts, analysis methods, modeling approaches, and toolsProvides hands-on case studies based on actual research and practical experience

Wind Turbine Wakes: Physics, Modelling and Mitigation Strategies offers a detailed introduction to wind turbine wake dynamics, computational models, and wake mitigation strategies, bridging the gap between research and industry by showcasing the latest developments in the field with insights and case studies. This book is structured in four parts, offering in-depth coverage of the science of wind turbine wakes, mid-fidelity and high-fidelity numerical models, engineering models, and wake mitigation strategies. While the book delves into theoretical aspects, it also emphasizes the practical applications of various computational models for wind turbine wakes. Step-by-step tutorials for setting up the case, selection of model parameters, and result analysis will be included in the book to enable readers to employ and test various models in their work. A volume in the Elsevier Wind Energy Engineering Series, this is a valuable resource for all those with an interest in wind turbine design and layout, wind farm development and optimization, wind resource assessment, and wind power plant operation, including researchers, students, faculty, engineers, R&D, and industry practitioners.Provides a systematic review of recent advances in the understanding of wind turbine dynamics and wakes in wind energy applicationsConsiders key impacts of wakes on power production and fatigue loads of wind turbinesDiscusses different wake mitigation strategies and future directions for developing wind power plantsEmphasizes practical applications of various computational models for wind turbine wakes, including case studies in onshore and offshore wind

Numerical Modelling of Offshore Wind Energy Systems, the latest release in Elsevier's Wind Energy Engineering series, is a thorough, systematic guide to numerical modeling and code development in the offshore wind energy field. The book begins by introducing offshore wind energy and reviewing widely-used numerical simulation tools and the fundamental knowledge essential for performing fully coupled analysis of offshore wind turbines. The second part of the book focuses on numerical modeling techniques for fixed-bottom turbines followed by detailed coverage of floating turbines. In both cases, in-depth case studies are presented to help readers understand the dynamic behavior of the relevant systems.The final section of the book explores numerical modelling techniques as applied to novel concepts and future trends, including twin-rotor wind energy systems, integration with marine energy resources, multi-energy hybrid floating systems, and other areas. This latest volume will be of interest to all those involved in the design, development, and installation of offshore wind turbines, floating energy systems, and wave-wind-current hybrid systems, including researchers, students, engineers, and other practitioners.Compiles, in a single resource, the most common numerical simulation tools, codes, and models used to determine complex dynamic loadsAddresses design principles of fixed-bottom wind turbines, floating wind energy systems, and hybrid technologiesProvides specific case studies based on the authors’ extensive research and practical experience

Wind Energy Systems: Control, Optimization, and Market Strategies, the latest volume in the Elsevier Wind Energy Engineering series, presents in-depth coverage of the technical aspects of controlling and optimizing wind energy resources, including advanced control strategies to enhance anti-disturbance and stable operation. The book begins by introducing wind energy resources in power systems and provides an overview of control, optimization methods, and market strategies. This is followed by individual chapters that detail advanced methods and approaches, moving from traditional centralized electricity grids characterized by source-grid-load systems to systems that integrate storage of energy, thus source-grid-load-storage electricity grids.Users will find cutting-edge knowledge supported by case studies, practical applications, and code. This latest volume will be of interest to those involved in the planning, design, operation, and maintenance of wind energy systems, including researchers, students, faculty, engineers, industry practitioners, and R&D professionals.Shares the latest research findings in the control and optimization of wind energy systems, along with their market strategiesDescribes advanced control strategies of grid-connected wind energy conversion systems in the safe and stable operation of power systemsExamines optimal operation strategies of power systems, considering the uncertainty of wind powerIncludes case studies and real-world examples and provides codes for optimization strategies and algorithms

Offshore Wind Turbine Foundations: Advanced Geotechnical Engineering Approaches offers an in-depth exploration of the complex challenges and potential solutions arising in the design and maintenance of offshore wind installations, covering the whole range of OWT foundation types, including gravity-based and deep foundations, suction caissons, and anchors for floating turbines, with special emphasis given to monopiles, as the most common type of foundation at present. Key aspects addressed include current design practices and standards, characterization of soils, sea depth, soil types, and loads, soil-structure interaction, long-term behavior of offshore wind turbines, decommissioning, recycling, and reuse of offshore wind turbine foundations, and future trends. Additionally, valuable case studies are used as a reference for practical guidance and for future designs, helping practitioners to learn from past experiences. By bridging the gap between theoretical concepts, research lines and real applications, this latest volume in the Elsevier Wind Energy Engineering Series will equip both practitioners and researchers with the knowledge and tools needed to address the very particular challenges of offshore wind turbine foundations.Enables readers to learn about geotechnical challenges, standards, and design procedures for offshore wind turbine foundationsCovers characterization of soils, construction procedures, analytical and numerical analyses for design, retrofitting, and decommissioningAnalyzes soil-structure interaction, load transfer mechanisms, and dynamic response of foundations under varying environmental conditions, for different types of soilsUses case studies to illustrate practical applications and lessons learned, offering valuable insights into best practices and emerging trends

Al-Driven Intelligent Optimization and Synergistic Integration of Multi-Energy Systems introduces advanced artificial intelligence methods in the operations, management, and performance of renewable energy systems, focusing on wind energy, solar energy, and hydrogen systems. The book addresses key problems such as low accuracy and efficiency in traditional wind power system modeling and control, challenges in wind energy resource prediction and intelligent scheduling, intelligent fault management of wind and hydrogen energy systems, complex scheduling and energy management challenges of multi-energy complementary systems when connected to the grid, and scheduling and reliability challenges in multi-energy system grid connection. Real-world applications and case studies are used throughout to help readers integrate academic research with practical engineering applications, to enhance energy system design and management. This latest volume in the Elsevier Wind Energy Engineering Series is of interest to all those who are interested in the integration of AI in the operation of complex energy systems, including researchers, students, faculty, engineers, practitioners, and policy makers.Introduces artificial intelligence (AI) methods in the operation, management, and optimization of renewable energy systemsDetails comprehensive and systematic knowledge on the latest developments and future trends in modern energy systemsFocuses on the integration of wind energy, solar energy, and hydrogen in power gridsProvides systematic theoretical and practical guidance for practitioners to improve the efficiency and the reliability of renewable energy systemsIncludes recent technology developments, real-world applications and case studies in the design and management of modern energy systems