Elimination of Lower Order Harmonics in Modified Reduced Switched 7-Level Multilevel Inverter Using Artificial Neural Network
Keywords:
Multilevel Inverter (MLI), Selective Harmonic Elimination (SHE), Newton Raphson (NR), Artificial Neural Network (ANN).Abstract
Multilevel inverters, or MLIs, are finding increasing use in electric vehicles, drives, renewable energy systems, and other applications. The best power conversion and stepped output are provided by Multilevel Inverters (MLI). Selective harmonic elimination pulse width modulation, or SHEPWM, is a modulation technique that is commonly used to eliminate low-order harmonics from the output waveform of MLIs. This paper solves the transcendental nonlinear output equations of multilayer inverters (MLI) using Newton Raphson's (NR) approach. The suggested reduced switched Multilevel Inverter uses the NR technique. Additionally, lower harmonics (such as the third, fifth, seventh, etc.) S that are more dangerous and challenging to eliminate using filters are being decreased through the use of artificial neural networks (ANNs) in the proposed reduced switched 7 levels MLI. The THD comparison in the proposed reduced switched 7 levels MLI is done between PWM, SHE-NR, and SHE-ANN. The comparison and outcome are displayed in MATLAB simulation results. This paper also emphasizes the creation of a modified multilevel inverter and its significance. This work aims to encourage and direct society toward the development of an affordable, efficient multilevel inverter that combines the capabilities of various converters documented in the literature.
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