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Intelligent Learning Approaches for Renewable and Sustainable
Energy provides a practical, systematic overview of the application
of advanced intelligent control techniques, adaptive techniques,
machine learning algorithms, and predictive control in renewable
and sustainable energy. The book begins by introducing the
intelligent learning approaches, and the roles of artificial
intelligence and machine learning in terms of energy and
sustainability, grid transformation, large-scale integration of
renewable energy, and variability and flexibility of renewable
sources. The second section of the book provides detailed coverage
of intelligent learning techniques as applied to key areas of
renewable and sustainable energy, including forecasting, supply and
demand, integration, energy management, and optimization, supported
by case studies, figures, schematics, and references. This is a
useful resource for researchers, scientists, advanced students,
energy engineers, R&D professionals, and other industrial
personnel with an interest in sustainable energy and integration of
renewable energy sources, energy systems, energy engineering,
machine learning, and artificial intelligence.
Microgrids: Modeling, Control, and Applications presents a
systematic elaboration of different types of microgrids, with a
particular focus on new trends and applications. The book includes
sections on AC, DC and hybrid AC/DC microgrids and reflects
state-of-the-art developments, covering theory, algorithms,
simulations, error and uncertainty analysis, as well as novel
applications of new control techniques. Offering a valuable
resource for students and researchers working on the integration of
renewable energy with existing grid and control of microgrids, this
book combines recent advances and ongoing research into a single
informative resource. The book highlights recent findings while
also analyzing modelling and control, thus making it a solid
reference for researchers as well as undergraduate and postgraduate
students.
Multidimensional Lithium-Ion Battery Status Monitoring focuses on
equivalent circuit modeling, parameter identification, and state
estimation in lithium-ion battery power applications. It explores
the requirements of high-power lithium-ion batteries for new energy
vehicles and systematically describes the key technologies in core
state estimation based on battery equivalent modeling and parameter
identification methods of lithium-ion batteries, providing a
technical reference for the design and application of power
lithium-ion battery management systems. Reviews Li-ion battery
characteristics and applications. Covers battery equivalent
modeling, including electrical circuit modeling and parameter
identification theory Discusses battery state estimation methods,
including state of charge estimation, state of energy prediction,
state of power evaluation, state of health estimation, and cycle
life estimation Introduces equivalent modeling and state estimation
algorithms that can be applied to new energy measurement and
control in large-scale energy storage Includes a large number of
examples and case studies This book has been developed as a
reference for researchers and advanced students in energy and
electrical engineering.
State Estimation Strategies in Lithium-ion Battery Management
Systems presents key technologies and methodologies in modeling and
monitoring charge, energy, power and health of lithium-ion
batteries. Sections introduce core state parameters of the
lithium-ion battery, reviewing existing research and the
significance of the prediction of core state parameters of the
lithium-ion battery and analyzing the advantages and disadvantages
of prediction methods of core state parameters. Characteristic
analysis and aging characteristics are then discussed. Subsequent
chapters elaborate, in detail, on modeling and parameter
identification methods and advanced estimation techniques in
different application scenarios. Offering a systematic approach
supported by examples, process diagrams, flowcharts, algorithms,
and other visual elements, this book is of interest to researchers,
advanced students and scientists in energy storage, control,
automation, electrical engineering, power systems, materials
science and chemical engineering, as well as to engineers, R&D
professionals, and other industry personnel.
Power electronics converters are devices that change parameters of
electric power, such as voltage and frequency, as well as between
AC and DC. They are essential parts of both advanced drives, for
machines and vehicles, and energy systems to meet required
flexibility and efficiency criteria. In energy systems both
stationary and mobile, control and converters help ensure
reliability and quality of electric power supplies. This reference
in two volumes is useful reading for scientists and researchers
working with power electronics, drives and energy systems;
manufacturers developing power electronics for advanced
applications; professionals working in the utilities sector; and
for advanced students of subjects related to power electronics.
Volume 1 covers converters and control for drives, while Volume 2
addresses clean generation and power grids. The chapters enable the
reader to directly apply the knowledge gained to their research and
designs. Topics include reliability, WBG power semiconductor
devices, converter topology and their fast response, matrix and
multilevel converters, nonlinear dynamics, AI and machine learning.
Robust modern control is covered as well. A coherent chapter
structure and step-by-step explanation provide the reader with the
understanding to pursue their research.
Batteries are a necessary part of a low-emission energy system, as
they can store renewable electricity and assist the grid.
Utility-scale batteries, with capacities of several to hundreds of
MWh, are particularly important for condominiums, local grid nodes,
and EV charging arrays. However, such batteries are expensive and
need to be monitored and managed well to maintain capacity and
reliability. Artificial intelligence offers a solution for
effective monitoring and management of utility-scale batteries.
This book systematically describes AI-based technologies for
battery state estimation and modeling for utility-scale Li-ion
batteries. Chapters cover utility-scale lithium-ion battery system
characteristics, AI-based equivalent modeling, parameter
identification, state of charge estimation, battery parameter
estimation, offer samples and case studies for utility-scale
battery operation, and conclude with a summary and prospect for
AI-based battery status monitoring. The book provides practical
references for the design and application of large-scale
lithium-ion battery systems. AI for Status Monitoring of
Utility-Scale Batteries is an invaluable resource for researchers
in battery R&D, including battery management systems and
related power electronics, battery manufacturers, and advanced
students.
Distributed generation of electric energy has become part of the
current electric power system. In this book, a recent research
study is arising on a new scenario in which small energy sources
make up a new supply system: The microgrid. The most recent
research projects show the technical difficulty of controlling the
operation of microgrids, because they are complex systems in which
several subsystems interact: energy sources, power electronic
converters, energy storage systems, local, linear and non-linear
loads and of course, the main grid. In next years, the electric
grid will evolve from the current very centralized model toward a
more distributed one. Summing up, it is pursued the generation of
small quantities of electric power by the users (called,
microgeneration in the origin), considering them not only as
electric power consumers but also as responsible for the
generation, becoming this way an integral and active part of the
grid.
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