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Revista Eletrônica de Potência (Brazilian Journal of Power Electronics)

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Issue: Volume 24 - Number 2
Publishing Date: junho 2019
Editor-in-Chief: Marcello Mezaroba
Editor Affiliation: Universidade do Estado de Santa Catarina
SISTEMA DE CONTROLE MULTI-MALHAS PARA INVERSOR MULTINÍVEIS QUASI-Z-SOURCE COM UMA ÚNICA FONTE DE ENTRADA
Ronaldo Antonio Guisso, Tadeu Vargas, Mário Lúcio da Silva Martins, Hélio Leães Hey
165 - 176
http://dx.doi.org/10.18618/REP.2019.2.0049
Portuguese Data

Palavras Chaves: Controle de malhas em cascata, Conversor cc-ca, Filtro LCL, Inversor multinível em cascata (CMI), Inversor quasi-Z-source (qZSI), Sistema de potência fotovoltaica

Resumo

Uma estratégia de controle baseada na estrutura de malhas em cascata e controladores Proporcional-Integral (PI) e Proporcional-Ressonante (PR) é proposta e apresentada para o inversor Quasi-Z-Source em Cascata com uma Única Entrada (SS qZS-CMI). Este inversor serve como interface para um arranjo fotovoltaico (FV) com um pequeno número de painéis conectados em série. A estratégia de controle proposta permite a injeção de corrente
na rede monofásica com alta qualidade, proporcionando o equilíbrio das tensões dos barramentos de cada módulo inversor e o rastreamento do ponto de máxima potência do arranjo. Resultados experimentais de um protótipo de um inversor SS qZS-CMI com cinco níveis comprovam o desempenho do sistema e os benefícios do emprego desta topologia em relação a outros inversores multiníveis.

English Data

Title: MULTI-LOOP CONTROL SYSTEM FOR A SINGLE SOURCE INPUT QUASI-Z-SOURCE MULTI-LEVEL INVERTER

Keywords: Cascade loop controller, Cascade multilevel inverter (CMI), DC-AC Converter, LCL filter, Photovoltaic (PV) power system, Quasi-Z-source inverter (qZSI)

Abstract

A control strategy based upon cascaded loops structure and Proportional-Integral (PI) and Proportional-Resonant (PR) controllers is proposed and presented for the cascaded Quasi-Z-Sourcer inverter with a single source (SS qZS-CMI) input. This inverter interfaces a small PV string with the single-phase grid. The proposed control strategy enables high quality current injection into the single-phase grid in addition with the voltage balance of the DC buses of each inverter module and maximum power point tracking of the array. Experimental results of a 5-level SS qZS-CMI inverter prototype
emonstrate the system's performance and the benefits of employing this topology in comparison with others cascaded inverters.

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