Scalar and Vector Controlled Infinite Level Inverter (ILI) Topology Fed Open-Ended Three-Phase Induction Motor

The design and performance analysis of an open-ended three-phase induction motor, driven by an Infinite Level Inverter (ILI) with its speed control using scalar and direct vector control techniques are presented in this paper. The ILI belongs to an Active-Front-End (AFE) Reduced-Device-Count (RDC) M...

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Main Authors: Hareesh A., Jayanand B.
Format: Article
Language:English
Published: IEEE 2021-01-01
Series:IEEE Access
Subjects:
Online Access:https://ieeexplore.ieee.org/document/9478909/
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spelling doaj-f8b0bf13becf42cb8fa218b146470a8c2021-07-16T23:00:08ZengIEEEIEEE Access2169-35362021-01-019984339845910.1109/ACCESS.2021.30961259478909Scalar and Vector Controlled Infinite Level Inverter (ILI) Topology Fed Open-Ended Three-Phase Induction MotorHareesh A.0https://orcid.org/0000-0003-0513-3083Jayanand B.1https://orcid.org/0000-0001-9366-4903Electrical and Electronics Engineering Department, Government Engineering College, Thrissur, Affiliated to APJ Abdul Kalam Technological University, Thrissur, Kerala, IndiaElectrical and Electronics Engineering Department, SCMS School of Engineering and Technology, Affiliated to APJ Abdul Kalam Technological University, Karukutty, Kerala, IndiaThe design and performance analysis of an open-ended three-phase induction motor, driven by an Infinite Level Inverter (ILI) with its speed control using scalar and direct vector control techniques are presented in this paper. The ILI belongs to an Active-Front-End (AFE) Reduced-Device-Count (RDC) Multi-level Inverter (MLI) topology. The fundamental structure of this inverter topology is a dc-to-dc buck converter followed by an H-bridge. This topology performs a high-quality power conversion without any shoot-through issues and reverse recovery problems. The performance of the proposed topology is validated using a resistive load. The THD of output voltage waveform obtained is 1.2%. Moreover, this topology has exhibited a high degree of dc-source voltage utilization. ILI considerably reduces the switching and conduction losses, since only one switch per phase is operated at high frequency, and other switches are operated at power frequency. The overall efficiency of the inverter is 98%. The speed control performance of the ILI topology using three-phase open-ended induction motor has been further validated through scalar and direct vector control techniques. Results obtained from simulation studies are verified experimentally.https://ieeexplore.ieee.org/document/9478909/Active-front-endmulti-level invertersreduced-device-countscalar and direct vector controlthree-phase infinite level inverter
collection DOAJ
language English
format Article
sources DOAJ
author Hareesh A.
Jayanand B.
spellingShingle Hareesh A.
Jayanand B.
Scalar and Vector Controlled Infinite Level Inverter (ILI) Topology Fed Open-Ended Three-Phase Induction Motor
IEEE Access
Active-front-end
multi-level inverters
reduced-device-count
scalar and direct vector control
three-phase infinite level inverter
author_facet Hareesh A.
Jayanand B.
author_sort Hareesh A.
title Scalar and Vector Controlled Infinite Level Inverter (ILI) Topology Fed Open-Ended Three-Phase Induction Motor
title_short Scalar and Vector Controlled Infinite Level Inverter (ILI) Topology Fed Open-Ended Three-Phase Induction Motor
title_full Scalar and Vector Controlled Infinite Level Inverter (ILI) Topology Fed Open-Ended Three-Phase Induction Motor
title_fullStr Scalar and Vector Controlled Infinite Level Inverter (ILI) Topology Fed Open-Ended Three-Phase Induction Motor
title_full_unstemmed Scalar and Vector Controlled Infinite Level Inverter (ILI) Topology Fed Open-Ended Three-Phase Induction Motor
title_sort scalar and vector controlled infinite level inverter (ili) topology fed open-ended three-phase induction motor
publisher IEEE
series IEEE Access
issn 2169-3536
publishDate 2021-01-01
description The design and performance analysis of an open-ended three-phase induction motor, driven by an Infinite Level Inverter (ILI) with its speed control using scalar and direct vector control techniques are presented in this paper. The ILI belongs to an Active-Front-End (AFE) Reduced-Device-Count (RDC) Multi-level Inverter (MLI) topology. The fundamental structure of this inverter topology is a dc-to-dc buck converter followed by an H-bridge. This topology performs a high-quality power conversion without any shoot-through issues and reverse recovery problems. The performance of the proposed topology is validated using a resistive load. The THD of output voltage waveform obtained is 1.2%. Moreover, this topology has exhibited a high degree of dc-source voltage utilization. ILI considerably reduces the switching and conduction losses, since only one switch per phase is operated at high frequency, and other switches are operated at power frequency. The overall efficiency of the inverter is 98%. The speed control performance of the ILI topology using three-phase open-ended induction motor has been further validated through scalar and direct vector control techniques. Results obtained from simulation studies are verified experimentally.
topic Active-front-end
multi-level inverters
reduced-device-count
scalar and direct vector control
three-phase infinite level inverter
url https://ieeexplore.ieee.org/document/9478909/
work_keys_str_mv AT hareesha scalarandvectorcontrolledinfinitelevelinverterilitopologyfedopenendedthreephaseinductionmotor
AT jayanandb scalarandvectorcontrolledinfinitelevelinverterilitopologyfedopenendedthreephaseinductionmotor
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