The energy sector continues to receive increased attention from both consumers and producers due to its impact on all aspects of life. Electrical energy especially has become more in demand because of the delivery of the service to a large percentage of consumers in addition to the progress and increase of industrial production. It is thus necessary to find advanced systems capable of transferring huge amounts of electrical energy efficiently and safely. Nanotechnology aims to develop new types of atomic electronics that adopt quantum mechanics and the movement of individual particles to produce equipment faster and smaller and solve problems attributed to the electrical engineering field. Emerging Nanotechnology Applications in Electrical Engineering contains innovative research on the methods and applications of nanoparticles in electrical engineering. This book discusses the wide array of uses nanoparticles have within electrical engineering and the diverse electric and magnetic properties that nanomaterials help make prevalent. While highlighting topics including electrical applications, magnetic applications, and electronic applications, this book is ideally designed for researchers, engineers, industry professionals, practitioners, scientists, managers, manufacturers, analysts, students, and educators seeking current research on nanotechnology in electrical, electronic, and industrial applications.

Recent Advancements in Multidimensional Applications of Nanotechnology provides a comprehensive overview of the latest advancements and applications of nanotechnology across various dimensions. Covering a wide range of topics, from electron microscopy to nanotherapeutic strategies, the book explores the diverse applications of nanotechnology in industries and research fields. Key Features: Comprehensive Coverage: Gain insights into electron microscopy, biogenic synthesis methods, energy applications, and more. Industry Applications: Discover how nanotechnology is revolutionizing industries such as energy, oil and gas, agriculture, and healthcare. Cutting-Edge Developments: Stay ahead of the curve with discussions on copper oxide nanoparticles, nano-coatings, and thin film optimization for solar cells. Biomedical Breakthroughs: Explore the exciting realm of biomedical applications, from metallic nanoparticles in healthcare to biogenic synthesis methods. Practical Insights: Benefit from practical insights and case studies that showcase real-world applications of nanotechnology.

Neutrosophy is a new branch of philosophy that studies the origin, nature, and scope of neutralities as well as their interactions with different ideational spectra. In all classical algebraic structures, the law of compositions on a given set are well-defined, but this is a restrictive case because there are situations in science where a law of composition defined on a set may be only partially defined and partially undefined, which we call NeutroDefined, or totally undefined, which we call AntiDefined. Theory and Applications of NeutroAlgebras as Generalizations of Classical Algebra introduces NeutroAlgebra, an emerging field of research. This book provides a comprehensive collection of original work related to NeutroAlgebra and covers topics such as image retrieval, mathematical morphology, and NeutroAlgebraic structure. It is an essential resource for philosophers, mathematicians, researchers, educators and students of higher education, and academicians.

Fuzzy logic, which is based on the concept of fuzzy set, has enabled scientists to create models under conditions of imprecision, vagueness, or both at once. As a result, it has now found many important applications in almost all sectors of human activity, becoming a complementary feature and supporter of probability theory, which is suitable for modelling situations of uncertainty derived from randomness. Fuzzy mathematics has also significantly developed at the theoretical level, providing important insights into branches of traditional mathematics like algebra, analysis, geometry, topology, and more. With such widespread applications, fuzzy sets and logic are an important area of focus in mathematics. The Handbook of Research on Advances and Applications of Fuzzy Sets and Logic studies recent theoretical advances of fuzzy sets and numbers, fuzzy systems, fuzzy logic and their generalizations, extensions, and more. This book also explores the applications of fuzzy sets and logic applied to science, technology, and everyday life to further provide research on the subject. This book is ideal for mathematicians, physicists, computer specialists, engineers, practitioners, researchers, academicians, and students who are looking to learn more about fuzzy sets, fuzzy logic, and their applications.

In internet of things (IoT) applications, wireless connectivity is a key factor, particularly those that need to be in transition, or where wired communication is not effective or practicable. For top-notch connectivity of the Narrowband IoT (NB-IoT) standard, the 900MHz frequency is generally used by most of the vendors. The radiation quality not only depends on the antenna geometry but on immediate surroundings. Additionally, the IoT product itself and the user of the product can strongly affect the resulting radiation pattern and other characteristics of the antenna. On the other hand, a suitable antenna should also have high efficiency and adequate bandwidth covering the desired frequency range. To take these effects into consideration, the whole IoT product must be included in the antenna simulations. Antenna Design for Narrowband IoT: Design, Analysis, and Applications provides the antenna design concept for narrowband internet of things applications, performs a detailed analysis of the antenna, and discusses the various antenna design concepts and structures. Covering a range of topics such as antenna design and antenna measurement systems, this book is ideal for industry professionals, research scholars, academicians, professors, and students.

Blockchain is the most disruptive technology to emerge in the last decade. The evolution of cryptocurrencies has carried with it a revolution in digital economics that has catapulted the application of blockchain technology to a new level across a variety of industries, including banking, security, networking, and more. Blockchain Technology and Computational Excellence for Society 5.0 closes the gap in existing literature by presenting a selection of chapters that not only shape the research domain, but also present supportive real-life problems and pragmatic solutions. This book presents a variety of highly relevant themes, concepts, and applications in blockchain, discussing topics such as cyber security, digital currencies, and intelligent networks, fueling awareness and interest. With its insight into various platforms, techniques, and tools, this book serves as a valuable resource for academicians, researchers, research scholars, postgraduates, professors, computer scientists, and technology enthusiasts.

Nanotechnology has emerged as a trending research area as its industrial uses continue to multiply. Some specific areas that have benefited from the dynamic properties of nanomaterials are high voltage electronics and electrical engineering. Nanoparticles have created new avenues for engineers to explore within these fields; however, significant research on this subject is lacking. Design and Investment of High Voltage NanoDielectrics is a collection of innovative research on the methods and application of nanoparticles in high voltage insulations and dielectric properties. This book discusses the wide array of uses nanoparticles have within high voltage electrics engineering and the diverse polymeric properties that nanomaterials help make prevalent. While highlighting topics including electrical degradation, magnetic materials, and fundamental polymers, this book is ideally designed for researchers, engineers, industry professionals, practitioners, scientists, managers, manufacturers, analysts, students, and educators seeking current research on the dielectric properties of modern nanocomposite materials.

This volume brings together innovative research, new concepts, and novel developments in the application of new tools for chemical engineers. It presents significant research, reporting on new methodologies and important applications in the field of chemical engineering. Highlighting theoretical foundations, real-world cases, and future directions, this book covers selected topics in a variety of areas, including: chemoinformatics and computational chemistry advanced dielectric materials nanotechniques polymer composites It also presents several advanced case studies. The topics discussed in this volume will be valuable for researchers, practitioners, professionals, and students of chemistry material and chemical engineering.

The imperative for responsible innovation in the nanotechnology domain has inspired and provoked assorted views on its trajectory, potential implications as well as appropriate pathways for its development across a spectrum of stakeholders. These debates assume greater significance in the context of developing nations since harnessing the inherent potential of this transformational technology presumes the establishment of simultaneous capabilities to cutting-edge technological innovation as well as risk governance, regulation and public engagement in an environment challenged by limited resources, weak innovation systems and inadequate abilities for risk management.This book seeks to examine developments, opportunities, concerns and challenges in nanotechnology from a developing country perspective raising complex questions and issues in the course of the responsible development of nanotechnology. It covers a range of issues such as potential R & D prospects, S&T capacities and innovation systems, issues of environment, health and safety, risk and regulatory preparedness, and prospective socio-economic and ethical repercussions, with a focus on Indian developments. Based on half a decade of interdisciplinary research and informed by multi-stakeholder insights on the aforementioned aspects, it proposes options for effective and inclusive governance for nanotechnology in India.

Electrical engineering is a field of engineering that encompasses the study, design, and application of devices, systems, and equipment that use electricity, electronics, and electromagnetism. Since its inception in the late 19th century, following the commercialization of the electric telegraph and electrical power supply, electrical engineering has grown exponentially, impacting nearly every aspect of modern life. The field of electrical engineering is broad, covering a range of sub-disciplines such as power engineering, control systems, electronics, microelectronics, signal processing, telecommunications, and instrumentation. Each sub-discipline focuses on specific technologies and applications, from the generation and distribution of electrical power to the design of complex electronic circuits and communication systems. Historical Perspective The roots of electrical engineering can be traced back to pioneering scientists and inventors such as Michael Faraday, Nikola Tesla, and Thomas Edison. Their foundational work laid the groundwork for the development of electric power and telecommunications systems, fundamentally transforming society and setting the stage for future advancements. Core Areas and Applications Power Engineering: This area focuses on the generation, transmission, distribution, and utilization of electrical power. Engineers in this field design systems for power plants, electrical grids, and renewable energy sources, ensuring efficient and reliable electricity supply. Control Systems: Control engineering deals with the design and implementation of controllers that manage dynamic systems. Applications range from industrial automation to the stabilization of aircraft and spacecraft. Electronics and Microelectronics: Electronics engineering involves the design of electronic circuits, devices, and systems. Microelectronics, a subfield, delves into the fabrication of tiny electronic components used in integrated circuits, which are essential for modern computing and communication technologies. Signal Processing: This area focuses on the analysis and manipulation of signals, which can be analog or digital. Signal processing is crucial for applications in communications, audio and video technology, and medical imaging. Telecommunications: Telecommunications engineering involves the transmission of information across channels such as cables, optical fibers, or airwaves. This sub-discipline is vital for internet, telephone, and satellite communications. Instrumentation: Instrumentation engineering centers on the design and development of devices that measure and control physical quantities. This includes everything from simple thermometers to complex automated systems used in manufacturing and research. Future Directions Electrical engineering continues to evolve rapidly, driven by technological advancements and societal needs. Emerging areas such as renewable energy, smart grids, nanotechnology, and artificial intelligence present new challenges and opportunities for innovation. The integration of interdisciplinary knowledge from computer science, material science, and biology is also expanding the scope and impact of electrical engineering. As we look to the future, electrical engineers will play a pivotal role in addressing global challenges such as sustainable energy, efficient resource management, and advanced communication networks. Their expertise will be crucial in developing innovative solutions that enhance the quality of life and drive economic progress. Conclusion The field of electrical engineering is dynamic and ever-changing, with a rich history and a promising future. Its principles and applications are foundational to the technological advancements that shape our modern world. Aspiring electrical engineers are entering a profession that not only demands technical proficiency and creativity but also offers the opportunity to make significant contributions to society. This preface provides an overview of electrical engineering, highlighting its history, core areas, and future prospects, setting the stage for a deeper exploration of the subject.