A high-voltage-gain dc-dc converter based on modified dickson charge pump voltage multiplier
Bhanu Prashant Baddipadiga, Mehdi Ferdowsi
Abstract
Bhanu Prashant Baddipadiga, Mehdi Ferdowsi
Abstract
A high-voltage-gain dc-dc converter is introduced in this paper. The proposed converter resembles a two-phase interleaved boost converter on its input side while having a Dickson-charge-pump-based voltage multiplier (VM) on its output side. This converter offers continuous input current, which makes it more appealing for the integration of renewable sources like solar panels to a 400-V dc bus. Also, the proposed converter is capable of drawing power from either a single source or two independent sources. Furthermore, the VM used offers low voltage ratings for capacitors that potentially leads to size reduction. The converter design and component selection have been discussed in detail with supporting simulation results. A hardware prototype of the proposed converter with Vin= 20 and Vout= 400 V has been developed to validate the analytical results.
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A high-voltage-gain dc-dc converter is introduced in this paper. The proposed converter resembles a two-phase interleaved boost converter on its input side while having a Dickson-charge-pump-based voltage multiplier (VM) on its output side. This converter offers continuous input current, which makes it more appealing for the integration of renewable sources like solar panels to a 400-V dc bus. Also, the proposed converter is capable of drawing power from either a single source or two independent sources. Furthermore, the VM used offers low voltage ratings for capacitors that potentially leads to size reduction. The converter design and component selection have been discussed in detail with supporting simulation results. A hardware prototype of the proposed converter with Vin= 20 and Vout= 400 V has been developed to validate the analytical results.
Key concepts: Voltage multiplier, Charge pump, Capacitor, Boost converter, Electrical engineering, Forward converter, Ćuk converter, Voltage