Start control of an M^3C-based FFTS
The fractional frequency transmission system (FFTS) can multiply increase transmission capacity by using a lower frequency to reduce the reactance of the AC transmission system. The modular multi-level matric converter (M^3C) as the new generation of the AC/AC converter is the critical equipment of...
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doaj-898ce07ab625486bbf17db082066f2992021-04-02T05:34:40ZengWileyThe Journal of Engineering2051-33052019-04-0110.1049/joe.2018.8401JOE.2018.8401Start control of an M^3C-based FFTSXiaoliang Zhang0Xifan Wang1Xiuli Wang2Qihang Huang3Jiajie Fan4Qian Zhou5Shaanxi Key Laboratory of Smart Grid, Xi'an Jiaotong UniversityShaanxi Key Laboratory of Smart Grid, Xi'an Jiaotong UniversityShaanxi Key Laboratory of Smart Grid, Xi'an Jiaotong UniversityShaanxi Key Laboratory of Smart Grid, Xi'an Jiaotong UniversityShaanxi Key Laboratory of Smart Grid, Xi'an Jiaotong UniversityState Grid Jiangsu Electric Power Research InstituteThe fractional frequency transmission system (FFTS) can multiply increase transmission capacity by using a lower frequency to reduce the reactance of the AC transmission system. The modular multi-level matric converter (M^3C) as the new generation of the AC/AC converter is the critical equipment of FFTS. The self-start control strategy for M^3C-based FFTS is proposed and the whole start-up procedure is divided into the uncontrollable stage and controllable stage. The model of the equivalent circuit in an uncontrollable stage is built and the mathematical relation between the maximum charging current and the current-limit resistor is obtained. Finally, a digital simulation system of M^3C-based FFTS is established, and the effectiveness of the proposed control strategies is verified by simulation results.https://digital-library.theiet.org/content/journals/10.1049/joe.2018.8401AC-AC power convertorsresistorsequivalent circuitspower transmission controlfractional frequency transmission systemtransmission capacitymodular multilevel matric converterself-start control strategystart-up procedureuncontrollable stagecontrollable stagedigital simulation systemAC-AC converterM^3C-based FFTSAC transmission system reactance reductionequivalent circuitmaximum charging currentcurrent-limit resistor |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Xiaoliang Zhang Xifan Wang Xiuli Wang Qihang Huang Jiajie Fan Qian Zhou |
spellingShingle |
Xiaoliang Zhang Xifan Wang Xiuli Wang Qihang Huang Jiajie Fan Qian Zhou Start control of an M^3C-based FFTS The Journal of Engineering AC-AC power convertors resistors equivalent circuits power transmission control fractional frequency transmission system transmission capacity modular multilevel matric converter self-start control strategy start-up procedure uncontrollable stage controllable stage digital simulation system AC-AC converter M^3C-based FFTS AC transmission system reactance reduction equivalent circuit maximum charging current current-limit resistor |
author_facet |
Xiaoliang Zhang Xifan Wang Xiuli Wang Qihang Huang Jiajie Fan Qian Zhou |
author_sort |
Xiaoliang Zhang |
title |
Start control of an M^3C-based FFTS |
title_short |
Start control of an M^3C-based FFTS |
title_full |
Start control of an M^3C-based FFTS |
title_fullStr |
Start control of an M^3C-based FFTS |
title_full_unstemmed |
Start control of an M^3C-based FFTS |
title_sort |
start control of an m^3c-based ffts |
publisher |
Wiley |
series |
The Journal of Engineering |
issn |
2051-3305 |
publishDate |
2019-04-01 |
description |
The fractional frequency transmission system (FFTS) can multiply increase transmission capacity by using a lower frequency to reduce the reactance of the AC transmission system. The modular multi-level matric converter (M^3C) as the new generation of the AC/AC converter is the critical equipment of FFTS. The self-start control strategy for M^3C-based FFTS is proposed and the whole start-up procedure is divided into the uncontrollable stage and controllable stage. The model of the equivalent circuit in an uncontrollable stage is built and the mathematical relation between the maximum charging current and the current-limit resistor is obtained. Finally, a digital simulation system of M^3C-based FFTS is established, and the effectiveness of the proposed control strategies is verified by simulation results. |
topic |
AC-AC power convertors resistors equivalent circuits power transmission control fractional frequency transmission system transmission capacity modular multilevel matric converter self-start control strategy start-up procedure uncontrollable stage controllable stage digital simulation system AC-AC converter M^3C-based FFTS AC transmission system reactance reduction equivalent circuit maximum charging current current-limit resistor |
url |
https://digital-library.theiet.org/content/journals/10.1049/joe.2018.8401 |
work_keys_str_mv |
AT xiaoliangzhang startcontrolofanm3cbasedffts AT xifanwang startcontrolofanm3cbasedffts AT xiuliwang startcontrolofanm3cbasedffts AT qihanghuang startcontrolofanm3cbasedffts AT jiajiefan startcontrolofanm3cbasedffts AT qianzhou startcontrolofanm3cbasedffts |
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