Analysis, design and implementation of a DC/DC boost resonant‐inductor converter with sliding‐mode control

Abstract

Modern DC-DC resonant converters are normally build around a voltage-source series-resonant converter. This study aims to facilitate the practical use of current-source parallel-resonant converters due to their outstanding properties. To this end, the study presents a sliding-mode control scheme, which provides the following features to the closed-loop system: 1) high robustness to external disturbances and parameter variations and 2) fast transient response during large and abrupt load changes. In addition, a design procedure for determining the values of the control parameters is presented. The theoretical contributions of the paper are experimentally validated by selected tests on a laboratory prototype.

Coupled‐inductor‐based high step‐up DC–DC converter

“…The conventional boost converter could not provide a high voltage gain, while it increases the voltage stress of the converters’ active and passive elements, so the conversion efficiency is degraded. In practice, the voltage gain of step‐up converters is limited due to parasitic effects of active (power metal–oxide–semiconductor field‐effect transistors [MOSFETs] or insulated‐gate bipolar transistors) and passive components [2, 3]. DC–DC converters have various voltage boost techniques such as charge pump, voltage multiplier, switched inductor, magnetic coupling, and multi‐stage topologies.…”

Average power balance method for power failure compensation control of high‐speed turbo molecular pump with AMB system

“…In this case, the non-linearity and the timevarying problem must be compensated effectively by the non-linear control method instead of the traditional linear control method. At present, sliding mode control (SMC) has been widely studied on the dc/dc converter because of the superior dynamic response and the robustness [29][30][31]. However, only the capacitor voltage or inductor current was selected to build the sliding surface in traditional single-loop SMC, and the asymptotic convergence may bring in the system slow response and the big steady-state error.…”

Sliding Mode Control of dc-dc Buck Converter using Typhoon Hardware in Loop Software

“…nearly-zero switching losses [4] therefore nonlinear controllers (SM) are suitable for controlling dc-dc converters. Conventional PWM technique is suitable while applying sliding mode control in converters but this leads to the trade-off between the overshoot and speed of output voltage response.…”