A Hybrid Nine-Level Inverter Topology With Boosting Capability and Reduced Component Count

Nowadays, output voltage boosting gain property along with curtailment in the circuit voltage stress, and component count are considered as the essential topological features for the new multilevel inverter (MLI) circuits. Recognizing the above, a hybrid nine-level inverter topology (HNIT) for DC-AC...

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Veröffentlicht in:IEEE transactions on circuits and systems. II, Express briefs Express briefs, 2021-01, Vol.68 (1), p.316-320
Hauptverfasser: Naik, Banavath Shiva, Suresh, Y., Venkataramanaiah, J., Panda, Anup Kumar
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creator Naik, Banavath Shiva
Suresh, Y.
Venkataramanaiah, J.
Panda, Anup Kumar
description Nowadays, output voltage boosting gain property along with curtailment in the circuit voltage stress, and component count are considered as the essential topological features for the new multilevel inverter (MLI) circuits. Recognizing the above, a hybrid nine-level inverter topology (HNIT) for DC-AC conversion is proposed in this brief. Each phase of the HNIT is designed with only eight semiconductor switches, one diode, and two electrolytic capacitors. Herein, series-parallel and conventional-series techniques are utilized effectively to balance the capacitor voltages. Further, cost and quantitative comparisons are carried among the state-of-art circuits to highlight the supremacy of proposed circuit. Subsequently, the performance of HNIT is verified experimentally with the fundamental switching PWM technique at different load conditions.
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source IEEE Electronic Library (IEL)
subjects Boosting
boosting gain
Capacitors
Circuits
Electric converters
Electric potential
Electrolytic capacitors
Inverters
Multilevel inverter
natural balancing
Semiconductor diodes
single-stage
switched-capacitor
Switches
Topology
Voltage
title A Hybrid Nine-Level Inverter Topology With Boosting Capability and Reduced Component Count
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