Realization of 485 Level Inverter Using Tri-State Architecture for Renewable Energy Systems

In this paper, a ‘k’-state inverter producing a higher number of voltage levels was designed, and we studied the inverter's working. Further, a tri-state inverter was derived from the ‘k’-state inverter, which could build a maximum number of output voltage levels with the requirement of fewer c...

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Main Authors: Vijayaraja Loganathan, Ganesh Kumar Srinivasan, Marco Rivera
Format: Article
Language:English
Published: MDPI AG 2020-12-01
Series:Energies
Subjects:
Online Access:https://www.mdpi.com/1996-1073/13/24/6627
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spelling doaj-8f8c50df19ca42069f0473fcc9aafc652020-12-16T00:04:44ZengMDPI AGEnergies1996-10732020-12-01136627662710.3390/en13246627Realization of 485 Level Inverter Using Tri-State Architecture for Renewable Energy SystemsVijayaraja Loganathan0Ganesh Kumar Srinivasan1Marco Rivera2Department of Electrical and Electronics Engineering, Sri Sairam Institute of Technology, Anna University, Chennai 600044, IndiaDepartment of Electrical and Electronics Engineering, Anna University, Chennai 600025, IndiaCentro Tecnologico de Conversión de Energía, Department of Electrical Engineering, Faculty of Engineering, Universidad de Talca, Campus Curico, Curico 3341717, ChileIn this paper, a ‘k’-state inverter producing a higher number of voltage levels was designed, and we studied the inverter's working. Further, a tri-state inverter was derived from the ‘k’-state inverter, which could build a maximum number of output voltage levels with the requirement of fewer components, thereby reducing the cost and size. A single Tri-state architecture generates three direct current (D.C.) voltage levels; therefore, cascading five tri-state architectures can generate 242 levels of DC voltages. Further, the inversion is done via the H bridge, which leads to 485 levels of the output voltage. Algorithms to design the amplitude of voltage sources and the generation of pulses are discussed in this paper. The proposed tri-state inverter takes a significant role in advancing renewable energy systems in utilizing inverter technology. A simulation study validated the operation of the proposed inverter. Moreover, an experimental setup was built for a single-phase 485-level inverter, and the structure’s performance was verified through the experimental results.https://www.mdpi.com/1996-1073/13/24/6627asymmetric voltage sourcehalf-bridgemultilevel inverter and Tri-state architecture
collection DOAJ
language English
format Article
sources DOAJ
author Vijayaraja Loganathan
Ganesh Kumar Srinivasan
Marco Rivera
spellingShingle Vijayaraja Loganathan
Ganesh Kumar Srinivasan
Marco Rivera
Realization of 485 Level Inverter Using Tri-State Architecture for Renewable Energy Systems
Energies
asymmetric voltage source
half-bridge
multilevel inverter and Tri-state architecture
author_facet Vijayaraja Loganathan
Ganesh Kumar Srinivasan
Marco Rivera
author_sort Vijayaraja Loganathan
title Realization of 485 Level Inverter Using Tri-State Architecture for Renewable Energy Systems
title_short Realization of 485 Level Inverter Using Tri-State Architecture for Renewable Energy Systems
title_full Realization of 485 Level Inverter Using Tri-State Architecture for Renewable Energy Systems
title_fullStr Realization of 485 Level Inverter Using Tri-State Architecture for Renewable Energy Systems
title_full_unstemmed Realization of 485 Level Inverter Using Tri-State Architecture for Renewable Energy Systems
title_sort realization of 485 level inverter using tri-state architecture for renewable energy systems
publisher MDPI AG
series Energies
issn 1996-1073
publishDate 2020-12-01
description In this paper, a ‘k’-state inverter producing a higher number of voltage levels was designed, and we studied the inverter's working. Further, a tri-state inverter was derived from the ‘k’-state inverter, which could build a maximum number of output voltage levels with the requirement of fewer components, thereby reducing the cost and size. A single Tri-state architecture generates three direct current (D.C.) voltage levels; therefore, cascading five tri-state architectures can generate 242 levels of DC voltages. Further, the inversion is done via the H bridge, which leads to 485 levels of the output voltage. Algorithms to design the amplitude of voltage sources and the generation of pulses are discussed in this paper. The proposed tri-state inverter takes a significant role in advancing renewable energy systems in utilizing inverter technology. A simulation study validated the operation of the proposed inverter. Moreover, an experimental setup was built for a single-phase 485-level inverter, and the structure’s performance was verified through the experimental results.
topic asymmetric voltage source
half-bridge
multilevel inverter and Tri-state architecture
url https://www.mdpi.com/1996-1073/13/24/6627
work_keys_str_mv AT vijayarajaloganathan realizationof485levelinverterusingtristatearchitectureforrenewableenergysystems
AT ganeshkumarsrinivasan realizationof485levelinverterusingtristatearchitectureforrenewableenergysystems
AT marcorivera realizationof485levelinverterusingtristatearchitectureforrenewableenergysystems
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