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Total Size:
83.5 MB
Info Hash:
35AC5B4095328B9CC7783D0ACE6ACB7A906EF565
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Added:
Aug. 30, 2025, 9:18 a.m.
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(Last updated: Aug. 30, 2025, 9:22 a.m.)
| File | Size |
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| Kizilyalli I. Wide Bandgap Power Electronics. Emerging Converter Tech..Apps 2025.pdf | 83.5 MB |
NOTE
SOURCE: Kizilyalli I. Wide Bandgap Power Electronics. Emerging Converter Tech..Apps 2025
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COVER
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MEDIAINFO
Textbook in PDF format This book presents the transformational progress in next-generation advanced converter circuit topologies based on the unique electrical properties of wide-bandgap semiconductors, including silicon carbide (SiC) and gallium nitride (GaN). It addresses the opportunities for significant advances in power electronics circuit performance opened by the availability of wide-bandgap power devices and the challenges associated with using these devices that must be overcome when applying them. The authors tackle specific grand challenges in application areas covering a broad range of power electronics circuits and systems disciplines, including electric motor-driven systems, automotive applications, air/rail/ship propulsion, electric vehicle chargers, high-performance computing and data centers, power supplies, solar inverters, wind-electric systems, high/medium voltage transmission/distribution equipment and power electronics interacting with the grid, power conversion for grid storage, monolithic power processing, and solid-state circuit breakers. Advances in power electronics have been one of primary enablers of the unprecedented growth of renewable energy sources on the electrical power grid over the past several decades. Today’s transition toward widespread electrification is seen a key enabler to replace fossil fuels as a source of energy. A key component of power electronic systems is the semiconductor switching device which determines the frequencies and power levels at which the electronic system may operate. Along with key sub-systems such as gate drivers, passive components, and controller circuits, the switching device comprises a power electronics system. A significant portion of losses in a power electronic converter is dissipated in the power semiconductor devices. Historically, consequential innovations and non-incremental performance improvements in converter technology have been achieved with the advent of new generations of enhanced power semiconductor switches and their associated drive and controller circuits. Summarizing, this book seeks to accelerate the development and deployment of a new class of efficient, lightweight, and reliable power converters based on wide-bandgap (WBG) semiconductors. These power converters are designed to incorporate transformational system-level advances enabling effective operation at higher switching frequencies, higher temperatures, and lower losses. Hundreds of technical papers have been published on the subject of WBG-based power converters, including several comprehensive review/survey papers on different technical aspects of their operation. However, no book has been published yet that covers both the basic concepts and recent technology advances leading to the development of innovative power electronic circuits that have been optimized for wide-bandgap semiconductor devices. This book has been written to fill that critical gap. Wide Bandgap Power Electronics: Emerging Converter Technologies and Applications introduces readers to the unique characteristics of wide-bandgap power semiconductor devices and the revolutionary impact that they are capable of having on the performance of power converters in future power electronics applications and will be an invaluable resource for practicing engineers, researchers, and graduate students in the field of power electronics, applications, and systems. Introduction Part I Core Converter Technologies Silicon Carbide-Based Voltage Boost Matrix Converter with Model Predictive Control Design and Evaluation of a 24 kV, 2 MW, High-Density, High Efficiency, Modular Medium-Voltage Power Converter Based on 10 kV SiC MOSFET Devices Soft-Switching Solid-State Transformers (S4T) Single DC Source–Based Cascaded Multilevel Inverter WBG-Based Integrated Motor Drive Using a Current Source Inverter Multi-level Converter and Active Noise Filter Based High Density AC-DC Converter. A Bidirectional GaN-Based Flying Capacitor Multilevel Converter for Electric Vehicle Charging Confluence of Wide-Bandgap and Differential-Mode EV Charger Technologies A Universal Converter for DC, Single-Phase AC, and Multi-phase AC Systems Modified Switched Multiplier Topology Enabled by the Optical Transconductance Varistor Hybrid Switched Capacitor Converters with WBG Devices for Medium Voltage, High Power Density Applications Part II Emerging Applications Reliable, High Power Density Inverters for Transportation Applications Aviation Electrification: The Next Frontier for Wide-Bandgap Semiconductor Devices Ultrafast Electric Vehicle Charger Active Neutral Point Clamped Electric Drive Converters Using WBG Devices Data Center Power Delivery: Differential Power Processing Architecture Data Center Power Delivery: Capacitor-Based Power Converters Part III Enabling and Related Technologies Low-Cost Gate Driver IC for e-Mode GaN HEMTs in Variable Speed Drives for Appliance Motors Characteristics, Challenges, and Solutions to Electromagnetic Interference in Wide Bandgap Semiconductor Power Electronics Systems Pulsed Power Techniques Enabled by SiC Devices for Subsurface Applications Medium-Voltage Pulse-Current Supply Using Wide Bandgap Solid-State Devices High-Voltage Nonlinear Transmission Lines Using Wide Bandgap Diodes A Scalable Architecture for High-Density, High-Efficiency Electric-Vehicle Power Electronics
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