Design of a Novel Hybrid Switched-Inductor/Switched-Capacitor DC-DC Step-Up Converter

In this paper, a new topology of a step-up DC converter is presented for renewable energy applications, yielding a high step-up conversion ratio and reduced voltage stress across the switches. The proposed converter uses a hybrid switched-inductor and switched-capacitor cell to achieve the high voltage gain. Additionally, the capacitors in the switched cell also perform the function of clamping the voltage across switches. The proposed converter utilizes only a single controlled switch and operates in only two modes of conduction. The steady-state analysis and operating principle of the proposed hybrid step-up converter are discussed in detail and various mathematical equations have been derived. The analysis shows numerous improvements over the traditional DC-DC converters. Simulation was carried out in MATLAB Simulink 2021b on a 55% duty cycle and simulation results are compared with theoretical analysis. From simulation results, it is clear the proposed converter exhibits better performance compared to conventional boost and other traditional step-up converters with the same design parameters. Finally, a 31.5-watt hardware prototype was constructed and tested in the laboratory to experimentally validate the theoretical and simulation results.

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Publication Details

Journal
Energies
Published
2026-10-12
DOI
https://doi.org/10.3390/en19204811
Primary Topic
Advanced DC-DC Converters
Type
article
Field-Weighted Citation Impact
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article

Design of a Novel Hybrid Switched-Inductor/Switched-Capacitor DC-DC Step-Up Converter

Ajmal Farooq, Mian Muhammad Amir Ayaz, Muhammad I. Masud, Fazal Muhammad et al.
Energies
Advanced DC-DC Converters
article

Design of a Novel Hybrid Switched-Inductor/Switched-Capacitor DC-DC Step-Up Converter

Ajmal Farooq, Mian Muhammad Amir Ayaz, Muhammad I. Masud, Fazal Muhammad, Mohammed Alqarni, Zakir Ullah, Muhammad Uzair Shah
article en

Abstract

In this paper, a new topology of a step-up DC converter is presented for renewable energy applications, yielding a high step-up conversion ratio and reduced voltage stress across the switches. The proposed converter uses a hybrid switched-inductor and switched-capacitor cell to achieve the high voltage gain. Additionally, the capacitors in the switched cell also perform the function of clamping the voltage across switches. The proposed converter utilizes only a single controlled switch and operates in only two modes of conduction. The steady-state analysis and operating principle of the proposed hybrid step-up converter are discussed in detail and various mathematical equations have been derived. The analysis shows numerous improvements over the traditional DC-DC converters. Simulation was carried out in MATLAB Simulink 2021b on a 55% duty cycle and simulation results are compared with theoretical analysis. From simulation results, it is clear the proposed converter exhibits better performance compared to conventional boost and other traditional step-up converters with the same design parameters. Finally, a 31.5-watt hardware prototype was constructed and tested in the laboratory to experimentally validate the theoretical and simulation results.

EnergiesVol. 19(20)
University of Business and Technology (SA), University of Oulu (FI)
Openalex Percentile: Top 23%
Advanced DC-DC Converters
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Design of a Novel Hybrid Switched-Inductor/Switched-Capacitor DC-DC Step-Up Converter — Ajmal Farooq, Mian Muhammad Amir Ayaz, et al. · Energies (2026) | TGRS Research Map | TGRS