Power Flow Models of Unified Power Flow Controllers in Various Operation Modes

Sheng Huei Lee; Chia Chi Chu

Power Flow Models of Unified Power Flow Controllers in Various Operation Modes

Sheng Huei Lee^*, Chia Chi Chu

^*此作品的通信作者

電機工程學系(含學碩博士班及碩士在職專班)

研究成果: 會議稿件的類型 › 論文 › 同行評審

11 引文斯高帕斯（Scopus）

摘要

A comprehensive UPFC steady-state model for power flow analysis will be proposed. With considering resistances of coupling transformers and converter losses, this new model can implement any desired control actions, including any combinations of active/reactive power control and voltage magnitude control, within the same framework. The d-q axis decomposition of UPFC control variables will be considered as UPFC unknown variables in conventional Newton-Raphson power flow solvers. An IEEE 118 test system embedded with 2 UPFCs is studied to validate our new model. Performance comparisons between our new model and the Voltage-Source-Based (VSB) model are also performed. Simulation results demonstrate that the quadratic convergence of the Newton-Raphson algorithm is still maintained in our model even under different operation modes. Influence of coupling transformers and converter loss are also studied in detail.

原文	英語
頁面	157-162
頁數	6
出版狀態	已出版 - 2003
事件	2003 IEEE PES Transmission and Distribution Conference - Dallas, TX, 美國持續時間: 07 09 2003 → 12 09 2003

Conference

Conference	2003 IEEE PES Transmission and Distribution Conference
國家/地區	美國
城市	Dallas, TX
期間	07/09/03 → 12/09/03

其它文件與鏈接

Link to publication in Scopus

引用此

@conference{bfa8c2da7d8d4e59bb13095895e7be67,

title = "Power Flow Models of Unified Power Flow Controllers in Various Operation Modes",

abstract = "A comprehensive UPFC steady-state model for power flow analysis will be proposed. With considering resistances of coupling transformers and converter losses, this new model can implement any desired control actions, including any combinations of active/reactive power control and voltage magnitude control, within the same framework. The d-q axis decomposition of UPFC control variables will be considered as UPFC unknown variables in conventional Newton-Raphson power flow solvers. An IEEE 118 test system embedded with 2 UPFCs is studied to validate our new model. Performance comparisons between our new model and the Voltage-Source-Based (VSB) model are also performed. Simulation results demonstrate that the quadratic convergence of the Newton-Raphson algorithm is still maintained in our model even under different operation modes. Influence of coupling transformers and converter loss are also studied in detail.",

keywords = "Newton-Raphson Iterations, Unified Power Flow Controller (UPFC), d-q Axis Decomposition",

author = "Lee, {Sheng Huei} and Chu, {Chia Chi}",

year = "2003",

language = "英语",

pages = "157--162",

note = "2003 IEEE PES Transmission and Distribution Conference ; Conference date: 07-09-2003 Through 12-09-2003",

}

TY - CONF

T1 - Power Flow Models of Unified Power Flow Controllers in Various Operation Modes

AU - Lee, Sheng Huei

AU - Chu, Chia Chi

PY - 2003

Y1 - 2003

N2 - A comprehensive UPFC steady-state model for power flow analysis will be proposed. With considering resistances of coupling transformers and converter losses, this new model can implement any desired control actions, including any combinations of active/reactive power control and voltage magnitude control, within the same framework. The d-q axis decomposition of UPFC control variables will be considered as UPFC unknown variables in conventional Newton-Raphson power flow solvers. An IEEE 118 test system embedded with 2 UPFCs is studied to validate our new model. Performance comparisons between our new model and the Voltage-Source-Based (VSB) model are also performed. Simulation results demonstrate that the quadratic convergence of the Newton-Raphson algorithm is still maintained in our model even under different operation modes. Influence of coupling transformers and converter loss are also studied in detail.

AB - A comprehensive UPFC steady-state model for power flow analysis will be proposed. With considering resistances of coupling transformers and converter losses, this new model can implement any desired control actions, including any combinations of active/reactive power control and voltage magnitude control, within the same framework. The d-q axis decomposition of UPFC control variables will be considered as UPFC unknown variables in conventional Newton-Raphson power flow solvers. An IEEE 118 test system embedded with 2 UPFCs is studied to validate our new model. Performance comparisons between our new model and the Voltage-Source-Based (VSB) model are also performed. Simulation results demonstrate that the quadratic convergence of the Newton-Raphson algorithm is still maintained in our model even under different operation modes. Influence of coupling transformers and converter loss are also studied in detail.

KW - Newton-Raphson Iterations

KW - Unified Power Flow Controller (UPFC)

KW - d-q Axis Decomposition

UR - http://www.scopus.com/inward/record.url?scp=0842322719&partnerID=8YFLogxK

M3 - 论文

AN - SCOPUS:0842322719

SP - 157

EP - 162

T2 - 2003 IEEE PES Transmission and Distribution Conference

Y2 - 7 September 2003 through 12 September 2003

ER -

Power Flow Models of Unified Power Flow Controllers in Various Operation Modes

摘要

Conference

其它文件與鏈接

指紋

引用此