Advanced DC-DC Power Converters and Switching Converters II

© 2024 by the authors; CC BY-NC-ND license

buck converter; output intrinsically safe; the minimum frequency; temperature characteristic; LLC resonant converter; steady-state analysis; internal power losses; AC equivalent circuit; internal resistance; DC voltage gain; high-frequency hybrid converter; DC microgrids; high efficiency; low-voltage-stress; high-voltage conversion ratio; cost-effective; n/a; DC–DC converter; high voltage gain; coupled inductor; voltage multiplier cell; GaN FET; HEMT; enhancement mode; depletion mode; WBG; SiC MOSFET; super-junction MOSFET; cascode; LIDAR; zero-voltage-transition; zero-current-switching; buck/boost converter; coupled inductor; instantaneous frequency; frequency measurement; frequency-to-code converter; auto-tuning technique; boost converter; FPGA; fully-digitalized control; z-domain; controller design; ZVZCT; ZVT; ZCT; ZVS; ZCS; photovoltaics; Supercapacitors; DC–DC; dynamic systems; circuit simulation; power quality; THD; isolated PFC; LLC resonant converter; LLC PFC; first harmonic approximation; FHA; time-domain analysis; TDA; dynamic transition algorithm; CLLC resonant converters; hybrid modulation; fundamental harmonic approximation method; control loop deign; triple-active-bridge converter (TAB); phase-shift modulation (PSM); zero-voltage-switching (ZVS); electromagnetic compatibility; near-field scan; power electronics; double-switch SEPIC-buck converter (DSSB); buck-boost; SEPIC; bode diagrams; PI controllers