DocumentCode
1765094
Title
Study on Communication Architecture Design of Wide-Area Measurement System
Author
Xiaoping Xiong ; Jiancheng Tan ; Xiangning Lin
Author_Institution
Guangxi Power Syst. Optimization & Energy-saving Tech. Key Lab., Guangxi Univ., Nanning, China
Volume
28
Issue
3
fYear
2013
fDate
41456
Firstpage
1542
Lastpage
1547
Abstract
This paper discusses the issues of reliability and real time of information transmission on the communication system of wide-area measurement (CSWAM) from the viewpoint of network architecture. Connectivity and hop count are adopted as the performance indices to build the communication network optimal model that can be satisfied with the requirements of CSWAM. The improved cut saturation algorithm (improved CSA) is used to obtain the optimal network topology in line with network flow and several performance constraints. Under the same conditions, the comparison of the case study showed that it can reduce network costs by nearly 40% with a little deficiency in load balancing compared to the structure of dual directions double ring. It is provided with a new theory basis and is a good reference for the optimal design of network architecture in the CSWAM.
Keywords
cost reduction; power system measurement; telecommunication network reliability; CSWAM; communication architecture design; communication network optimal model; communication system reliability; communication system-wide-area measurement; hop count; improved CSA; improved cut saturation algorithm; information transmission real time; network architecture optimal design; network cost reduction; network flow; optimal network topology; Algorithm design and analysis; Delays; Network topology; Power system reliability; Real-time systems; Reliability; Topology; Connectivity; communication system of wide-area measurement (CSWAM); hop count; improved cut saturation algorithm (ICSA); network architecture;
fLanguage
English
Journal_Title
Power Delivery, IEEE Transactions on
Publisher
ieee
ISSN
0885-8977
Type
jour
DOI
10.1109/TPWRD.2013.2243922
Filename
6530646
Link To Document