Matrix converter for frequency changing power supply applications

The purpose of this work is to investigate the design and implementation of a 7.5kVA Matrix Converter-based power supply for aircraft applications (GPU Ground Power Unit). A Matlab/Simulink as well as SABER simulation analysis of the candidate Matrix Converter system is provided. The design and impl...

Full description

Bibliographic Details
Main Author: Lopez Arevalo, Saul
Format: Thesis (University of Nottingham only)
Language:English
Published: 2008
Subjects:
Online Access:https://eprints.nottingham.ac.uk/10477/
_version_ 1848791084709183488
author Lopez Arevalo, Saul
author_facet Lopez Arevalo, Saul
author_sort Lopez Arevalo, Saul
building Nottingham Research Data Repository
collection Online Access
description The purpose of this work is to investigate the design and implementation of a 7.5kVA Matrix Converter-based power supply for aircraft applications (GPU Ground Power Unit). A Matlab/Simulink as well as SABER simulation analysis of the candidate Matrix Converter system is provided. The design and implementation of the Matrix Converter is described, with particular attention to the strict requirements of the given power supply application. This AC-AC system is proposed as an effective replacement for the conventional AC-DC-AC system which employs a two-step power conversion. The Matrix Converter is an attractive topology of power converter for power supply applications where factors such as the absence of electrolytic capacitors, the potentiality of increasing power density, reducing size and weight and good input power quality are fundamental. An improved control structure is proposed. This structure employs an ABC reference frame implementation comprising at the Repetitive Control strategy combined with a traditional tracking controller in order to attenuate or eliminate the unwanted harmonic distortion in the output voltage waveform of the Matrix Converter and to compensate for the steady-state error. The system with the proposed control was initially fully analyzed and verified by simulation. The analysis of the input and output waveforms identified the constraints that need to be satisfied to ensure successful operation of the converter. Finally, to demonstrate both the Matrix Converter concept and the control strategy proposed, a 7.5kVA prototype of the proposed system was constructed and tested in Nottingham PEMC laboratory. The experimental results obtained confirmed the expectations from the simulation study and the validity of the power converter and control design.
first_indexed 2025-11-14T18:22:53Z
format Thesis (University of Nottingham only)
id nottingham-10477
institution University of Nottingham Malaysia Campus
institution_category Local University
language English
last_indexed 2025-11-14T18:22:53Z
publishDate 2008
recordtype eprints
repository_type Digital Repository
spelling nottingham-104772025-02-28T11:08:24Z https://eprints.nottingham.ac.uk/10477/ Matrix converter for frequency changing power supply applications Lopez Arevalo, Saul The purpose of this work is to investigate the design and implementation of a 7.5kVA Matrix Converter-based power supply for aircraft applications (GPU Ground Power Unit). A Matlab/Simulink as well as SABER simulation analysis of the candidate Matrix Converter system is provided. The design and implementation of the Matrix Converter is described, with particular attention to the strict requirements of the given power supply application. This AC-AC system is proposed as an effective replacement for the conventional AC-DC-AC system which employs a two-step power conversion. The Matrix Converter is an attractive topology of power converter for power supply applications where factors such as the absence of electrolytic capacitors, the potentiality of increasing power density, reducing size and weight and good input power quality are fundamental. An improved control structure is proposed. This structure employs an ABC reference frame implementation comprising at the Repetitive Control strategy combined with a traditional tracking controller in order to attenuate or eliminate the unwanted harmonic distortion in the output voltage waveform of the Matrix Converter and to compensate for the steady-state error. The system with the proposed control was initially fully analyzed and verified by simulation. The analysis of the input and output waveforms identified the constraints that need to be satisfied to ensure successful operation of the converter. Finally, to demonstrate both the Matrix Converter concept and the control strategy proposed, a 7.5kVA prototype of the proposed system was constructed and tested in Nottingham PEMC laboratory. The experimental results obtained confirmed the expectations from the simulation study and the validity of the power converter and control design. 2008 Thesis (University of Nottingham only) NonPeerReviewed application/pdf en arr https://eprints.nottingham.ac.uk/10477/1/Saul_Thesis.pdf Lopez Arevalo, Saul (2008) Matrix converter for frequency changing power supply applications. PhD thesis, University of Nottingham. MC Matrix Converter Control System RC Repetitive Control Power Converter Aircraft Application SVM Space Vector Modulation.
spellingShingle MC
Matrix Converter
Control System
RC
Repetitive Control
Power Converter
Aircraft Application
SVM
Space Vector Modulation.
Lopez Arevalo, Saul
Matrix converter for frequency changing power supply applications
title Matrix converter for frequency changing power supply applications
title_full Matrix converter for frequency changing power supply applications
title_fullStr Matrix converter for frequency changing power supply applications
title_full_unstemmed Matrix converter for frequency changing power supply applications
title_short Matrix converter for frequency changing power supply applications
title_sort matrix converter for frequency changing power supply applications
topic MC
Matrix Converter
Control System
RC
Repetitive Control
Power Converter
Aircraft Application
SVM
Space Vector Modulation.
url https://eprints.nottingham.ac.uk/10477/