Modeling and Control of a Three Phase Voltage Source Inverter with an LCL Filter
abstract: This thesis addresses the design and control of three phase inverters. Such inverters are used to produce three-phase sinusoidal voltages and currents from a DC source. They are critical for injecting power from renewable energy sources into the grid. This is especially true since many...
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ndltd-asu.edu-item-299812018-06-22T03:06:19Z Modeling and Control of a Three Phase Voltage Source Inverter with an LCL Filter abstract: This thesis addresses the design and control of three phase inverters. Such inverters are used to produce three-phase sinusoidal voltages and currents from a DC source. They are critical for injecting power from renewable energy sources into the grid. This is especially true since many of these sources of energy are DC sources (e.g. solar photovoltaic) or need to be stored in DC batteries because they are intermittent (e.g. wind and solar). Two classes of inverters are examined in this thesis. A control-centric design procedure is presented for each class. The first class of inverters is simple in that they consist of three decoupled subsystems. Such inverters are characterized by no mutual inductance between the three phases. As such, no multivariable coupling is present and decentralized single-input single-output (SISO) control theory suffices to generate acceptable control designs. For this class of inverters several families of controllers are addressed in order to examine command following as well as input disturbance and noise attenuation specifications. The goal here is to illuminate fundamental tradeoffs. Such tradeoffs include an improvement in the in-band command following and output disturbance attenuation versus a deterioration in out-of-band noise attenuation. A fundamental deficiency associated with such inverters is their large size. This can be remedied by designing a smaller core. This naturally leads to the second class of inverters considered in this work. These inverters are characterized by significant mutual inductances and multivariable coupling. As such, SISO control theory is generally not adequate and multiple-input multiple-output (MIMO) theory becomes essential for controlling these inverters. Dissertation/Thesis Sarkar, Aratrik (Author) Rodriguez, Armando A. (Advisor) Si, Jennie (Committee member) Tsakalis, Konstantinos (Committee member) Arizona State University (Publisher) Electrical engineering Control H - Infinity Control LCL filter Mutual inductance Power Electronics Three Phase Inverter eng 166 pages Masters Thesis Electrical Engineering 2015 Masters Thesis http://hdl.handle.net/2286/R.I.29981 http://rightsstatements.org/vocab/InC/1.0/ All Rights Reserved 2015 |
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English |
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Dissertation |
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Electrical engineering Control H - Infinity Control LCL filter Mutual inductance Power Electronics Three Phase Inverter |
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Electrical engineering Control H - Infinity Control LCL filter Mutual inductance Power Electronics Three Phase Inverter Modeling and Control of a Three Phase Voltage Source Inverter with an LCL Filter |
description |
abstract: This thesis addresses the design and control of three phase inverters. Such inverters are
used to produce three-phase sinusoidal voltages and currents from a DC source. They
are critical for injecting power from renewable energy sources into the grid. This is
especially true since many of these sources of energy are DC sources (e.g. solar
photovoltaic) or need to be stored in DC batteries because they are intermittent (e.g. wind
and solar). Two classes of inverters are examined in this thesis. A control-centric design
procedure is presented for each class. The first class of inverters is simple in that they
consist of three decoupled subsystems. Such inverters are characterized by no mutual
inductance between the three phases. As such, no multivariable coupling is present and
decentralized single-input single-output (SISO) control theory suffices to generate
acceptable control designs. For this class of inverters several families of controllers are
addressed in order to examine command following as well as input disturbance and noise
attenuation specifications. The goal here is to illuminate fundamental tradeoffs. Such
tradeoffs include an improvement in the in-band command following and output
disturbance attenuation versus a deterioration in out-of-band noise attenuation.
A fundamental deficiency associated with such inverters is their large size. This can be
remedied by designing a smaller core. This naturally leads to the second class of inverters
considered in this work. These inverters are characterized by significant mutual
inductances and multivariable coupling. As such, SISO control theory is generally not
adequate and multiple-input multiple-output (MIMO) theory becomes essential for
controlling these inverters. === Dissertation/Thesis === Masters Thesis Electrical Engineering 2015 |
author2 |
Sarkar, Aratrik (Author) |
author_facet |
Sarkar, Aratrik (Author) |
title |
Modeling and Control of a Three Phase Voltage Source Inverter with an LCL Filter |
title_short |
Modeling and Control of a Three Phase Voltage Source Inverter with an LCL Filter |
title_full |
Modeling and Control of a Three Phase Voltage Source Inverter with an LCL Filter |
title_fullStr |
Modeling and Control of a Three Phase Voltage Source Inverter with an LCL Filter |
title_full_unstemmed |
Modeling and Control of a Three Phase Voltage Source Inverter with an LCL Filter |
title_sort |
modeling and control of a three phase voltage source inverter with an lcl filter |
publishDate |
2015 |
url |
http://hdl.handle.net/2286/R.I.29981 |
_version_ |
1718700795368570880 |