LEADER 05612nam 22007453u 450 001 9910806988003321 005 20240516062824.0 010 $a1-283-17777-3 010 $a9786613177773 010 $a1-119-97171-3 010 $a1-119-97172-1 035 $a(CKB)2550000000041221 035 $a(EBL)697594 035 $a(OCoLC)746324278 035 $a(SSID)ssj0000542063 035 $a(PQKBManifestationID)11391175 035 $a(PQKBTitleCode)TC0000542063 035 $a(PQKBWorkID)10510078 035 $a(PQKB)11393600 035 $a(MiAaPQ)EBC697594 035 $a(EXLCZ)992550000000041221 100 $a20131014d2011|||| u|| | 101 0 $aeng 135 $aurcnu|||||||| 181 $ctxt 182 $cc 183 $acr 200 10$aTransients of Modern Power Electronics 205 $a1st ed. 210 $aHoboken $cWiley$d2011 215 $a1 online resource (296 p.) 300 $aDescription based upon print version of record. 311 $a0-470-68664-2 327 $aTransients of Modern Power Electronics; Contents; About the Authors; Preface; 1 Power electronic devices, circuits, topology, and control; 1.1 Power electronics; 1.2 The evolution of power device technology; 1.3 Power electronic circuit topology; 1.3.1 Switching; 1.3.2 Basic switching cell; 1.3.3 Circuit topology of power electronics; 1.4 Pulse-width modulation control; 1.5 Typical power electronic converters and their applications; 1.6 Transient processes in power electronics and book organization; References; 2 Macroscopic and microscopic factors in power electronic systems 327 $a2.1 Introduction 2.2 Microelectronics vs. power electronics; 2.2.1 Understanding semiconductor physics; 2.2.2 Evaluation of semiconductors; 2.3 State of the art of research in short-timescale transients; 2.3.1 Pulse definition; 2.3.2 Pulsed energy and pulsed power; 2.4 Typical influential factors and transient processes; 2.4.1 Failure mechanisms; 2.4.2 Different parts of the main circuit; 2.4.3 Control modules and power system interacting with each other; 2.5 Methods to study the short-timescale transients; 2.6 Summary; References 327 $a3 Power semiconductor devices, integrated power circuits, and their short-timescale transients 3.1 Major characteristics of semiconductors; 3.2 Modeling methods of semiconductors; 3.2.1 Hybrid model of a diode; 3.3 IGBT; 3.4 IGCT; 3.5 Silicon carbide junction field effect transistor; 3.6 System-level SOA; 3.6.1 Case 1: System-level SOA of a three-level DC-AC inverter; 3.6.2 Case 2: System-level SOA of a bidirectional DC-DC converter; 3.6.3 Case 3: System-level SOA of an EV battery charger; 3.7 Soft-switching control and its application in high-power converters 327 $a3.7.1 Case 4: ZCS in dual-phase-shift control 3.7.2 Case 5: Soft-switching vs. hard-switching control in the EV charger; References; 4 Power electronics in electric and hybrid vehicles; 4.1 Introduction of electric and hybrid vehicles; 4.2 Architecture and control of HEVs; 4.3 Power electronics in HEVs; 4.3.1 Rectifiers used in HEVs; 4.3.2 Buck converter used in HEVs; 4.3.3 Non-isolated bidirectional DC-DC converter; 4.3.4 Control of AC induction motors; 4.4 Battery chargers for EVs and PHEVs; 4.4.1 Unidirectional chargers; 4.4.2 Inductive charger; 4.4.3 Wireless charger 327 $a4.4.4 Optimization of a PHEV battery charger 4.4.5 Bidirectional charger and control; References; 5 Power electronics in alternative energy and advanced power systems; 5.1 Typical alternative energy systems; 5.2 Transients in alternative energy systems; 5.2.1 Dynamic process 1: MPPT control in the solar energy system; 5.2.2 Dynamic processes in the grid-tied system; 5.2.3 Wind energy systems; 5.3 Power electronics, alternative energy, and future micro-grid systems; 5.4 Dynamic process in the multi-source system; 5.5 Speciality of control and analyzing methods in alternative energy systems 327 $a5.6 Application of power electronics in advanced electric power systems 330 $aIn high power, high voltage electronics systems, a strategy to manage short timescale energy imbalances is fundamental to the system reliability. Without a theoretical framework, harmful local convergence of energy can affect the dynamic process of transformation, transmission, and storage which create an unreliable system. With an original approach that encourages understanding of both macroscopic and microscopic factors, the authors offer a solution. They demonstrate the essential theory and methodology for the design, modeling and prototyping of modern power electronics converters to crea 606 $aElectric current converters -- Design and construction 606 $aPower electronics 606 $aTransients (Electricity) 606 $aPower electronics$xDesign and construction 606 $aTransients (Electricity) 606 $aElectric current converters 615 4$aElectric current converters -- Design and construction. 615 4$aPower electronics. 615 4$aTransients (Electricity). 615 0$aPower electronics$xDesign and construction 615 0$aTransients (Electricity) 615 0$aElectric current converters 676 $a338.5 676 $a621.381/044 676 $a621.381044 686 $aTEC031000$2bisacsh 700 $aBai$b Hua$f1980-$01651936 701 $aMi$b Chris$0748188 801 0$bAU-PeEL 801 1$bAU-PeEL 801 2$bAU-PeEL 906 $aBOOK 912 $a9910806988003321 996 $aTransients of Modern Power Electronics$94002223 997 $aUNINA