In energy-harvesting applications, inductor-based switching dc/dc converters are usually employed to regulate the operating voltage of the energy transducer and to transfer the
Ordinary modular energy storage systems require cell- and module-level equalizers, in addition to a main bidirectional converter, increasing the system complexity and cost. This article
By replacing the energy storage inductor in [16–18]. In [19], the coupled inductor module and secondary winding voltage multiplier cell are integrated into the converter [12] and a high step
the laboratory. To validate the theoretical analysis, four prototypes were built according to PV AC-module specifications 200 W. 1 Introduction Solar energy has become very popular as a
In this study, a coupled inductor (CI)-based high step-up DC–DC converter is presented. The proposed topology is developed from a primitive quadratic boost converter (QBC) structure. A two-phase interleaved QBC
The non-isolated cascaded bidirectional buck/boost converter topology is proposed in works such as [9], who presents a non-isolated bidirectional buck/boost converter with three commutators
Abstract: Boost converter exhibits voltage boosting ability as they deliver higher voltage level output from lower input voltage due to the temporarily storing of the input energy. The energy
converter is placed between an energy transducer (e.g. a PV module) and a storage unit (e.g. a rechargeable battery) with again two goals: (i) to maintain the operating voltage of the energy
The three immense configurations of modified boost converter for renewable energy application are presented in the paper. In the proposed configurations, Voltage Lift Switched Inductor (VLSI
This study proposes a two-phase switched-inductor DC–DC converter with a voltage multiplication stage to attain high-voltage gain. The converter is an ideal solution for applications requiring
• Energy storage systems • Automotive Target Applications Features •Digitally-controlled bi-directional power stage operating as half-bridge battery charger and current fed full-bridge
The three immense configurations of modified boost converter for renewable energy application are presented in the paper. In the proposed configurations, Voltage Lift Switched Inductor
In 22, a switched inductor technique is utilized to construct a high step-up boost converter with fewer components and a simple structure, but the voltage gain is significantly reduced at low voltage inputs with low efficiency due to the hard-switching work condition.
In this paper, a single stage buck–boost DC–AC converter based on coupled inductors is presented for renewable energy and electric vehicle applications. The proposed topology works with only three semiconductor switches, two diodes, and three coupled inductors to transfer input DC voltage to a high gain or low gain output AC voltage.
Switched-inductor boost converter boosts the voltage by charging the coils in parallel and discharges them in series [25–31]. The challenge with this type of converters is that the input current is significantly varying at the operating frequency.
Abstract: Ordinary modular energy storage systems require cell- and module-level equalizers, in addition to a main bidirectional converter, increasing the system complexity and cost. This article proposes a bidirectional buck-boost converter using cascaded energy storage modules. Each module contains a cell-level equalizer with a half-bridge cell.
In this study, a coupled inductor (CI)-based high step-up DC–DC converter is presented. The proposed topology is developed from a primitive quadratic boost converter (QBC) structure. A two-phase interleaved QBC structure is obtained by employing multi-winding CIs instead of discrete inductors as the energy storage magnetic element.
The voltage conversion ratio of a conventional boost converter (CBC) is enhanced by adopting one or more of the techniques (like coupled inductor (CI), voltage multiplier cells (VMCs), switched capacitor, etc.) outlined in [3, 4]. The converters presented in [5 - 7] employ gain extension cells based on diodes and capacitors.
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