DocumentCode
1927209
Title
Modeling propagation characteristics of power cables with finite element techniques and ATP
Author
Hio Nam O ; Blackburn, T.R. ; Phung, B.T.
Author_Institution
New South Wales Univ., Sydney, NSW
fYear
2007
fDate
9-12 Dec. 2007
Firstpage
1
Lastpage
5
Abstract
This investigation details the results of an investigation of different techniques for modeling high frequency electromagnetic wave propagation in power cables. ATP is probably the most widely used simulation tool for modeling transient phenomena in electrical systems, including power cables. However, ATP is not able to include complex geometries and material physical constants such. However the finite element method approach which provides a more basic analysis of the electromagnetic fields in cable materials can cover such complexities. These two methods have been applied to cable simulation and the results compared with laboratory measurements. The results of ATP give lower power loss than both the measured results and the simulated results obtained with the FEM method. The FEM technique does provide good agreement with tests. However, ATP gives a good understanding of modeling of transient system, its simulation time is shorter than FEM and its cost is reasonably low.
Keywords
XLPE insulation; electromagnetic wave propagation; finite element analysis; power cable insulation; power cables; transients; ATP simulation tool; FEM method; XLPE insulation; advanced transient program; electromagnetic fields; finite element technique; high frequency electromagnetic wave propagation; insulated cable parameters; power cable material; propagation characteristics modeling; transient system; Electromagnetic analysis; Electromagnetic measurements; Electromagnetic modeling; Electromagnetic propagation; Electromagnetic transients; Finite element methods; Frequency; Geometry; Power cables; Power system modeling;
fLanguage
English
Publisher
ieee
Conference_Titel
Power Engineering Conference, 2007. AUPEC 2007. Australasian Universities
Conference_Location
Perth, WA
Print_ISBN
978-0-646-49488-3
Electronic_ISBN
978-0-646-49499-1
Type
conf
DOI
10.1109/AUPEC.2007.4548087
Filename
4548087
Link To Document