Javascript must be enabled to continue!
High step‐up soft‐switched dual‐boost coupled‐inductor‐based converter integrating multipurpose coupled inductors with capacitor‐diode stages
View through CrossRef
A soft‐switched dual‐boost coupled‐inductor‐based converter is proposed which possesses an intrinsic advantage, in terms of transferring the energy directly to output to provide the essential voltage and power for load. The fabulous characteristic of the proposed structure, the combination of forward and flyback converter, makes it possible to utilise one magnetic core for two coupled inductors, advancing the power density. Another implication of proposed converter is the fact that leakage inductances pave the way for the zero‐current‐switching implementation by confining the diodes current slope during turn‐off period. As regards the voltage conversion ratio, the secondary windings of the coupled inductors operate in series with the capacitors of both voltage‐doubler stage and capacitor‐diode stages; consequently, designer is under no obligation to use coupled inductors with extreme turn ratio. Concerning the mentioned features of converter besides its high‐efficiency power conversion over a broad range of input voltage, the proposed structure is well suited for the purpose of high step‐up dc–dc converter. Lastly, the results of laboratory prototype, working with switching frequency of 50 kHz and output voltage 380 V, are convincingly in line with the mathematical analysis.
Institution of Engineering and Technology (IET)
Title: High step‐up soft‐switched dual‐boost coupled‐inductor‐based converter integrating multipurpose coupled inductors with capacitor‐diode stages
Description:
A soft‐switched dual‐boost coupled‐inductor‐based converter is proposed which possesses an intrinsic advantage, in terms of transferring the energy directly to output to provide the essential voltage and power for load.
The fabulous characteristic of the proposed structure, the combination of forward and flyback converter, makes it possible to utilise one magnetic core for two coupled inductors, advancing the power density.
Another implication of proposed converter is the fact that leakage inductances pave the way for the zero‐current‐switching implementation by confining the diodes current slope during turn‐off period.
As regards the voltage conversion ratio, the secondary windings of the coupled inductors operate in series with the capacitors of both voltage‐doubler stage and capacitor‐diode stages; consequently, designer is under no obligation to use coupled inductors with extreme turn ratio.
Concerning the mentioned features of converter besides its high‐efficiency power conversion over a broad range of input voltage, the proposed structure is well suited for the purpose of high step‐up dc–dc converter.
Lastly, the results of laboratory prototype, working with switching frequency of 50 kHz and output voltage 380 V, are convincingly in line with the mathematical analysis.
Related Results
Simulation of Hybrid Boost Converter with Reduced Switch Stress for PV Systems
Simulation of Hybrid Boost Converter with Reduced Switch Stress for PV Systems
Currently, there is a growing prominence on using switched capacitor and switched inductor techniques in high-power boost converters to achieve higher voltages. This is accomplishe...
Three Topologies of a Non-Isolated High Gain Switched-Inductor Switched-Capacitor Step-Up Cuk Converter for Renewable Energy Applications
Three Topologies of a Non-Isolated High Gain Switched-Inductor Switched-Capacitor Step-Up Cuk Converter for Renewable Energy Applications
This paper introduces three topologies of a non-isolated high gain step-up Cuk converter based on a switched-inductor (SL) and switched-capacitor (SC) techniques for renewable ener...
Simulation and Analysis of Dc-Dc Boost Converter Using Pspice SoftwareProgram
Simulation and Analysis of Dc-Dc Boost Converter Using Pspice SoftwareProgram
In many topologies and uses, the DC-DC converter has emerged as a crucial component. Electric cars, marine hoists, photovoltaic (PV) systems, uninterruptible power supply (UPS), an...
Design and Simulation Converter with Buck-boost Converter as The Voltage Stabilizer
Design and Simulation Converter with Buck-boost Converter as The Voltage Stabilizer
Buck-boost Converter is the device with the function to convert DC Voltage input to the setpoint DC Voltage output. Buck-boost converter can be used for regulating unstable voltage...
A Single‐Stage Isolated Battery Charger Using Nonbridged Positive Cuk Converter Configuration
A Single‐Stage Isolated Battery Charger Using Nonbridged Positive Cuk Converter Configuration
This article presents a nonbridged isolated positive Cuk (NB‐IPCuk) converter‐based single‐stage battery charging system (SSBCS). The architecture of the suggested charger ensures ...
Enhanced High Gain Switched- Capacitor- DC-DC Converter Optimizing Renewable Energy Integration
Enhanced High Gain Switched- Capacitor- DC-DC Converter Optimizing Renewable Energy Integration
The work elucidated in this scientific article presents a novel
non-isolated high gain switched capacitor (HGSC) DC-DC converter
engulfed for carbon neutral energy applications. A ...
Perancangan Boost Converter Untuk Sistem Pembangkit Listrik Tenaga Surya
Perancangan Boost Converter Untuk Sistem Pembangkit Listrik Tenaga Surya
Makalah ini telah dipresentasikan dalam Seminar Nasional Iptek Jenderal Achmad Yani 2015; Unjani, 4 Juni 2015. ...
Switched Inductor and Capacitor Techniques for Efficient Power Conversion
Switched Inductor and Capacitor Techniques for Efficient Power Conversion
Power conversion systems are essential for efficient energy utilization in modern electrical and electronic systems. Among the various topologies available, the switched inductor (...

