What Is Solid State Transformer In actuality, an AC-to-AC converter, also known as a solid-state transformer (SST), power electronic transformer (PET), or electronic power transformer, is a type of electric power converter that replaces a conventional transformer in AC electric power distribution. This type of electric power converter is known as an AC-to-AC converter. Because it works at a higher frequency, this kind of transformer is more complicated than a traditional transformer that uses the utility frequency, but it also has the potential to be more space-efficient and smaller than a traditional transformer. The two primary varieties are referred to as "real" AC-to-AC converters and AC-to-DC-to-DC-to-AC converters, respectively. The AC-to-AC converter or DC-to-DC converter that is often found inside of a solid-state transformer is really a transformer. This transformer is what provides the electrical isolation and carries the entire power. This transformer is more compact because the DC-DC inverting stages that occur between the transformer coils are on the smaller side. As a result, the transformer coils that are needed to step up or step down voltages are also on the smaller side. Active regulation of voltage and current may be performed via a solid-state transformer. There are several that are able to convert electricity from single-phase to three-phase and vice versa. The amount of conversions that need to take place may be decreased by having variations that can either input or output DC power. This results in increased end-to-end efficiency. A Modular Solid-state transformer is similar to a Multi-level converter in that it is made up of numerous high-frequency transformers and has the same function. Because it is an intricate electrical circuit, it has to be constructed such that it can survive surges of various kinds, such as lightning. The solid-state transformer is a relatively new kind of transformer. How You Will Benefit (I) Insights, and validations about the following topics: Chapter 1: Solid-state transformer Chapter 2: Power factor Chapter 3: Rectifier Chapter 4: Power supply Chapter 5: Power inverter Chapter 6: Switched-mode power supply Chapter 7: DC-to-DC converter Chapter 8: Voltage regulator Chapter 9: Power electronics Chapter 10: Motor?generator Chapter 11: Rotary converter Chapter 12: HVDC converter station Chapter 13: Variable-frequency drive Chapter 14: Index of electrical engineering articles Chapter 15: H-bridge Chapter 16: Phase converter Chapter 17: Voltage converter Chapter 18: Induction heater Chapter 19: Transformer types Chapter 20: Electric machine Chapter 21: Glossary of electrical and electronics engineering (II) Answering the public top questions about solid state transformer. (III) Real world examples for the usage of solid state transformer in many fields. (IV) 17 appendices to explain, briefly, 266 emerging technologies in each industry to have 360-degree full understanding of solid state transformer' technologies. Who This Book Is For Professionals, undergraduate and graduate students, enthusiasts, hobbyists, and those who want to go beyond basic knowledge or information for any kind of solid state transformer.

Bendable wearable materials like conductive strands, fluid metallic mixes, and polymer in paper are generally utilized as a part of the current adaptable electronic gadgets. Extra necessities are implemented in wearable applications. Characteristic elastic, for example, is an appealing exchange adaptable material that is biocompatible and offers high conductivity, low lost, simplicity to make, and most importantly, it is water/climate safe and condition amicable. The wearable antenna is one of the key components to establish body area network (BAN) for wireless communication, which is why it has become such an important part of antenna research. Wearable antennas are being applied successfully in various parts of life such as health monitoring, physical training, navigation, RFID, medicine, military, and more. Emerging Materials and Advanced Designs for Wearable Antennas explores how wearable antenna technology is being employed to enhance the quality of life in various industries. The technologies implemented and success of these antenna technologies is essential in the emerging field of wearable computing and is discussed in detail within the contents of this book. While covering essential topics such as the optimization of antenna material, improvement in flexible antenna performance, synthesis and design aspects of antennas, and transmission and receiving of the bendable antenna, this book is ideal for the military field, scientists, the medical field, practitioners, stakeholders, researchers, academicians, and students looking for the most advanced and updated research on the technology and implementation of wearable antennas spanning multiple industries.

This book covers advancements of power converter and control techniques for grid integration of large-scale renewable energy sources and electrical vehicles

This book is based on the author's 50+ years experience in the power and distribution transformer industry. The first few chapters of the book provide a step-by-step procedures of transformer design. Engineers without prior knowledge or exposure to design can follow the procedures and calculation methods to acquire reasonable proficiency necessary to designing a transformer. Although the transformer is a mature product, engineers working in the industry need to understand its fundamentals oand design to enable them to offer products to meet the challenging demands of the power system and the customer. This book can function as a useful guide for practicing engineers to undertake new designs, cost optimization, design automation etc., without the need for external help or consultancy. The book extensively covers the design processes with necessary data and calculations from a wide variety of transformers, including dry-type cast resin transformers, amorphous core transformers, earthing transformers, rectifier transformers, auto transformers, transformers for explosive atmospheres, and solid-state transformers. The other subjects covered include, carbon footprint salculation of transformers, condition monitoring of transformers and design optimization techniques. In addition to being useful for the transformer industry, this book can serve as a reference for power utility engineers, consultants, research scholars, and teaching faculty at universities.

A solid-state transformer (SST) is a power electronics converter that converts high voltage alternating current to low voltage alternating current and it aims to replace conventional 60 Hz power transformers. The SST has been regarded as one of the most emerging technologies in power distribution systems. Transferring energy through a high-frequency transformer with power electronics brings SST advantages of low volume, low weight, fault isolation, and potential additional functions, such as voltage regulation, harmonic filtering, reactive power compensation, etc. However, the involvement of a large number of power devices makes the control of an SST a challenge. In addition, the high voltage and high-power hardware design of the SST are not easy. To resolve these issues, this research seeks to develop a modular solid-state transformer (MSST). Specifically, the overall SST system is built by multiple identical isolated AC/AC converter modules connected in an input-seriesoutput-parallel configuration. Also, a distributed control algorithm has been developed for MSST to further increase modularity. The proposed solution of SST significantly reduced the overall system complexity and cost. Compared to previous research on SST, MSST improves both conversion efficiency and power density. The modular architecture allows more flexibility on converter module design optimization. Therefore, optimization of the isolated DC/DC converter stage is studied in this research. The hardware implementation and a distributed control algorithm will be illustrated in detail. Simulation and experiment results will be shown to demonstrate the feasibility and performance of MSST

Describing the fundamental physical properties of materials used in electronics, the thorough coverage of this book will facilitate an understanding of the technological processes used in the fabrication of electronic and photonic devices. The book opens with an introduction to the basic applied physics of simple electronic states and energy levels. Silicon and copper, the building blocks for many electronic devices, are used as examples. Next, more advanced theories are developed to better account for the electronic and optical behavior of ordered materials, such as diamond, and disordered materials, such as amorphous silicon. Finally, the principal quasi-particles (phonons, polarons, excitons, plasmons, and polaritons) that are fundamental to explaining phenomena such as component aging (phonons) and optical performance in terms of yield (excitons) or communication speed (polarons) are discussed.

DVD features highlights from the conference held at Columbia University.