Authors :
Rashida K; Neetha John; Deena George; Haritha Viji
Volume/Issue :
Volume 7 - 2022, Issue 10 - October
Google Scholar :
https://bit.ly/3IIfn9N
Scribd :
https://bit.ly/3ExSas4
DOI :
https://doi.org/10.5281/zenodo.7320823
Abstract :
A modified single-inductor boost converter
(MSLBC) can contribute a ultrahigh voltage boosting
capability without using any transformer or coupled
inductor. This converter topology is highly suitable for
applications where better performances, including
improved voltage gain, efficiency, power density, and
reliability are needed. The major contributions of the
MSLBC are ultrahigh voltage boosting capability without
using transformer or coupled-inductor, single-inductor
structure to realize continuous input current, simple
topological structure, lower voltage stress of switches and
intrinsic small duty cycle to enhance the system
efficiency. Results are obtained by simulating the
converter using MATLAB/SIMULINK R2020b.The
simulation results shows that the converter has high
voltage gain and achieves a peak efficiency of 81%T˙ he
converter is controlled using TMS320F28335
microcontroller. The experimental results obtained from
converter prototype confirm the theoretical considerations
and the simulation results. The results shows that the
modified single inductor boost converter can be used for
wide conversion range applications with high voltage gain
and low ripple content.
Keywords :
Boost Converter, Transformer less, High Gain, Efficiency, Single Inductor.
A modified single-inductor boost converter
(MSLBC) can contribute a ultrahigh voltage boosting
capability without using any transformer or coupled
inductor. This converter topology is highly suitable for
applications where better performances, including
improved voltage gain, efficiency, power density, and
reliability are needed. The major contributions of the
MSLBC are ultrahigh voltage boosting capability without
using transformer or coupled-inductor, single-inductor
structure to realize continuous input current, simple
topological structure, lower voltage stress of switches and
intrinsic small duty cycle to enhance the system
efficiency. Results are obtained by simulating the
converter using MATLAB/SIMULINK R2020b.The
simulation results shows that the converter has high
voltage gain and achieves a peak efficiency of 81%T˙ he
converter is controlled using TMS320F28335
microcontroller. The experimental results obtained from
converter prototype confirm the theoretical considerations
and the simulation results. The results shows that the
modified single inductor boost converter can be used for
wide conversion range applications with high voltage gain
and low ripple content.
Keywords :
Boost Converter, Transformer less, High Gain, Efficiency, Single Inductor.
