Laboratory manual for pulse-width modulated DC-DC power converters / Marian K. Kazimierczuk, and Agasthya Ayachit.
Material type: TextPublisher: Chichester, West Sussex : Wiley, 2016Description: xviii, 247 pages : illustrationsContent type:- text
- computer
- online resource
- 1119052769
- 9781119052760
- 621.3/132 23
- TK7872.C8 K39 2016
Item type | Current library | Call number | Status | Date due | Barcode | |
---|---|---|---|---|---|---|
E-Resources | Main Library E-Resources | 621.381044 K23 (Browse shelf(Opens below)) | Available | E001794 |
Includes index.
List of Symbols; Part I Open-Loop Pulse-Width Modulated DC-DC Converters-Steady-State and Performance Analysis and Simulation of Converter Topologies; 1 Boost DC-DC Converter in CCM-Steady-State Simulation; Objectives; Specifications; Pre-lab; Quick Design; Procedure; A. Simulation of the Boost Converter and its Analysis in Steady State; B. Simulation of the Boost Converter to Determine the Power Losses and Overall Efficiency; Postlab Questions 2 Efficiency and DC Voltage Transfer Function of PWM Boost DC-DC Converter in CCMObjectives; Theory; Specifications; Pre-lab; Quick Design; Procedure; A. Efficiency as a Function of the Input Voltage at Full and Light Load Conditions; B. Efficiency as a Function of the Output Current at Minimum, Nominal, and Maximum Input Voltages; C. DC Voltage Transfer Function as a Function of the Duty Cycle; Post-lab Questions; 3 Boost DC-DC Converter in DCM-Steady-State Simulation; Objectives; Specifications; Pre-lab; Quick Design; Procedure A. Simulation of the Boost Converter and its Analysis in Steady State B. Simulation of the Boost Converter to Determine the Power Losses and Overall Efficiency; Post-lab Questions; 4 Efficiency and DC Voltage Transfer Function of PWM Boost DC-DC Converter in DCM; Objectives; Theory; Specifications; Pre-lab; Quick Design; Procedure; A. Efficiency as a Function of the Input Voltage at Various Load Conditions; B. Efficiency as a Function of the Output Current at Minimum, Nominal, and Maximum Input Voltages; C. DC Voltage Transfer Function as a Function of the Duty Cycle; Post-lab Questions 5 Open-Loop Boost AC-DC Power Factor Corrector-Steady-State Simulation Objectives; Specifications; Pre-lab; Quick Design; Procedure; A. Simulation of the Boost Converter as a Power Factor Corrector; B. Simulation of the Boost Converter as a Peak Rectifier Circuit; Post-lab Questions; 6 Buck DC-DC Converter in CCM-Steady-State Simulation; Objectives; Specifications; Pre-lab; Quick Design; Procedure; A. Simulation of the Buck Converter and its Analysis in Steady State; B. Simulation of the Buck Converter to Determine the Power Losses and Overall Efficiency; Post-lab Questions 7 Efficiency and DC Voltage Transfer Function of PWM Buck DC-DC Converter in CCM Objectives; Theory; Specifications; Pre-lab; Quick Design; Procedure; A. Efficiency of the Buck Converter as a Function of the Input Voltage at Full and Light Load Conditions; B. Efficiency of the Buck Converter as a Function of the Output Current at Minimum, Nominal, and Maximum Input Voltages; C. DC Voltage Transfer Function of the Buck Converter as a Function of the Duty Cycle; Post-lab Questions; 8 Buck DC-DC Converter in DCM-Steady-State Simulation; Objectives; Specifications; Pre-lab; Quick Design; Procedure.
Designed to complement a range of power electronics study resources, this unique lab manual helps students to gain a deep understanding of the operation, modeling, analysis, design, and performance of pulse-width modulated (PWM) DC-DC power converters. Exercises focus on three essential areas of power electronics: open-loop power stages; small-signal modeling, design of feedback loops and PWM DC-DC converter control schemes; and semiconductor devices such as silicon, silicon carbide and gallium nitride. Meeting the standards required by industrial employers, the lab manual combines program.
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