Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Straightforward Multilevel Space Vector Modulation for a Modular Multilevel Converter for PV Generation

View through CrossRef
Many methods have been developed for multilevel Space Vector Modulation (SVM), but despite their inherent advantages, all of them have been more complex than the alternative option of using Pulse Width Modulation (PWM) with sinusoidal or modified references. Different axes like g-h at 60° or ja-jb-jc at 120° have been used to simplify the operations to find the three nearest vectors and their duty cycles, but the control signals of multilevel converters are the duty cycles of phases, not the duty cycles of vectors. Moreover, throughout this paper, it was found that local information is not sufficient to compute the duty cycles of the phases: global information should be taken into account to obtain full control on the common mode voltage (CMV), and the selection of the starting vector in the switching sequence is also critical to obtain a balanced CMV. The natural coordinates ab-bc-ca were used in this paper, and a straightforward method is proposed for multilevel SVM: a method that is comparable in complexity to multilevel PWM with modified references and leads to exactly the same control signals. This method can be used as an easy starting point to develop other SVM techniques for multilevel converters.
Title: Straightforward Multilevel Space Vector Modulation for a Modular Multilevel Converter for PV Generation
Description:
Many methods have been developed for multilevel Space Vector Modulation (SVM), but despite their inherent advantages, all of them have been more complex than the alternative option of using Pulse Width Modulation (PWM) with sinusoidal or modified references.
Different axes like g-h at 60° or ja-jb-jc at 120° have been used to simplify the operations to find the three nearest vectors and their duty cycles, but the control signals of multilevel converters are the duty cycles of phases, not the duty cycles of vectors.
Moreover, throughout this paper, it was found that local information is not sufficient to compute the duty cycles of the phases: global information should be taken into account to obtain full control on the common mode voltage (CMV), and the selection of the starting vector in the switching sequence is also critical to obtain a balanced CMV.
The natural coordinates ab-bc-ca were used in this paper, and a straightforward method is proposed for multilevel SVM: a method that is comparable in complexity to multilevel PWM with modified references and leads to exactly the same control signals.
This method can be used as an easy starting point to develop other SVM techniques for multilevel converters.

Related Results

Study, analysis, and development of a small‐scale AC‐AC modular multilevel converter for solid‐state transformer applications
Study, analysis, and development of a small‐scale AC‐AC modular multilevel converter for solid‐state transformer applications
SummaryThe modular multilevel converter presents itself as a promising topology in medium voltage and high power applications due to its modular characteristic and flexibility in a...
Katalis Plat Kuningan Berbentuk Sarang Lebah untuk Mengurangi Emisi Kendaraan Bermotor
Katalis Plat Kuningan Berbentuk Sarang Lebah untuk Mengurangi Emisi Kendaraan Bermotor
Meningkatnya jumlah kendaraan bermotor berdampak langsung terhadap pencemaran udara akibat gas buang. Pencemaran udara di perkotaan didominasi oleh emisi kendaraan bermotor, disert...
Design and Simulation Converter with Buck-boost Converter as The Voltage Stabilizer
Design and Simulation Converter with Buck-boost Converter as The Voltage Stabilizer
Buck-boost Converter is the device with the function to convert DC Voltage input to the setpoint DC Voltage output. Buck-boost converter can be used for regulating unstable voltage...
A Single‐Stage Isolated Battery Charger Using Nonbridged Positive Cuk Converter Configuration
A Single‐Stage Isolated Battery Charger Using Nonbridged Positive Cuk Converter Configuration
This article presents a nonbridged isolated positive Cuk (NB‐IPCuk) converter‐based single‐stage battery charging system (SSBCS). The architecture of the suggested charger ensures ...
Design and analysis of a novel multilevel active-clamped power-converter
Design and analysis of a novel multilevel active-clamped power-converter
Multilevel converter technology has been receiving increasing attention during the last years due to its important advantages compared to conventional two-level conversion. Multile...
Research and Implementation of Single Switch Voltage Clamped Hybrid DC-DC Converter
Research and Implementation of Single Switch Voltage Clamped Hybrid DC-DC Converter
Recently, micro-inverter has received great attention due to its excellent performance under local shade condition. However, this kind of inverter needs large DC-DC voltage gain to...
Design of Buck Converter Based on Maximum Power Point Tracking for Photovoltaic Applications
Design of Buck Converter Based on Maximum Power Point Tracking for Photovoltaic Applications
e MPPT converter ensures that the PV system operates at the maximum power point, which is the point where the solar panels can generate the most power. This is done by adjusting th...
An Overview of Modelling Techniques and Control Strategies for Modular Multilevel Matrix Converters
An Overview of Modelling Techniques and Control Strategies for Modular Multilevel Matrix Converters
The Modular Multilevel Matrix Converter is a relatively new power converter topology appropriate for high-power Alternating Current (AC) to AC purposes. Several publications in the...

Back to Top