DocumentCode
77304
Title
Applications of the FDTD Method to Lightning Electromagnetic Pulse and Surge Simulations
Author
Baba, Yuya ; Rakov, V.A.
Author_Institution
Dept. of Electr. Eng., Doshisha Univ., Kyotanabe, Japan
Volume
56
Issue
6
fYear
2014
fDate
Dec. 2014
Firstpage
1506
Lastpage
1521
Abstract
Electromagnetic computation methods (ECMs) have been widely used in analyzing lightning electromagnetic pulses (LEMPs) and lightning-caused surges in various systems. One of the advantages of ECMs, in comparison with circuit simulation methods, is that they allow a self-consistent full-wave solution for both the transient current distribution in a 3-D conductor system and resultant electromagnetic fields, although they are computationally expensive. Among ECMs, the finite-difference time-domain (FDTD) method for solving Maxwell´s equations has been most frequently used in LEMP and surge simulations. In this paper, we review applications of the FDTD method to LEMP and surge simulations, including 1) lightning electromagnetic fields at close and far distances, 2) lightning surges on overhead power transmission line conductors and towers, 3) lightning surges on overhead distribution and telecommunication lines, 4) lightning electromagnetic environment in power substations, 5) lightning surges in wind-turbine-generator towers, 6) lightning surges in photovoltaic (PV) arrays, 7) lightning electromagnetic environment in electric vehicles (EVs), 8) lightning electromagnetic environment in airborne vehicles, 9) lightning surges and electromagnetic environment in buildings, and 10) surges on grounding electrodes.
Keywords
Maxwell equations; earthing; electric vehicles; electromagnetic pulse; finite difference time-domain analysis; poles and towers; power overhead lines; substation protection; surge protection; wind turbines; 3D conductor system; ECM; FDTD method; LEMP; Maxwell´s equations; airborne vehicles; buildings; circuit simulation; electric vehicles; electromagnetic computation methods; finite-difference time-domain method; full-wave solution; grounding electrodes; lightning electromagnetic pulse; overhead power transmission line conductors; photovoltaic arrays; power substations; surge simulations; telecommunication lines; transient current distribution; wind-turbine-generator towers; Electromagnetic measurements; Finite difference methods; Impedance; Lightning; Surge protection; Time-domain analysis; Wires; Electromagnetic field; FDTD method; lightning; lightning return stroke; surge;
fLanguage
English
Journal_Title
Electromagnetic Compatibility, IEEE Transactions on
Publisher
ieee
ISSN
0018-9375
Type
jour
DOI
10.1109/TEMC.2014.2331323
Filename
6847227
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