An Investigation on Electric Field Distribution around 380 kV Transmission Line for Various Pylon Models
In this study, electric field distribution analyses for
three pylon models are carried out by a Finite Element Method
(FEM) based software. Analyses are performed in both stationary and
time domains to observe instantaneous values along with the
effective ones. Considering the results of the study, different line
geometries is considerably affecting the magnitude and distribution
of electric field although the line voltages are the same. Furthermore,
it is observed that maximum values of instantaneous electric field
obtained in time domain analysis are quite higher than the effective
ones in stationary mode. In consequence, electric field distribution
analyses should be individually made for each different line model
and the limit exposure values or distances to residential buildings
should be defined according to the results obtained.
[1] Kalenderli, O., Kocatepe, C., Arikan, O, “High Voltage Technique with
Solved Problems”, Vol.1, Birsen Press, Istanbul, Turkey, 2011, pp. 5-14.
[2] Yildirim, H., Kalenderli, O., “Computation of electric field induced
currents on human body standing under a high voltage transmission line
by using charge simulation method”, in Proc. IEEE 2nd International
Biomedical Engineering Days, Istanbul, 1998, pp. 75-77.
[3] R. Liu, H. Liu, O. Xie, “Calculation of the electric field for EHV
transmission lines based on the boundary element method”, in Proc.
Automation Congress (WAC), Waikoloa, 2008, pp. 1-4.
[4] B. Yang, S. Wang, Q. Wang, H. Du, Y. Huangfu, “Simulation and
analysis for power frequency electric field of building close to power
transmission lines”, in Proc. IEEE International Symposium on
Electromagnetic Compatibility, Raleigh-North Carolina, 2014, pp. 451-
454.
[5] A. Mujezinovic, A. Carsimamovic, S. Carsimamovic, A. Muharemovic,
I. Turkovic, “Electric field calculation around of overhead transmission
lines in Bosnia and Herzegovina ”, in Proc. IEEE International
Symposium on Electromagnetic Compatibility, Raleigh-North Carolina,
2014, pp. 1001-1006.
[6] A.I. Sidorov, I.S. Okrainskaya, S.P. Gladyshev, “Measurement of super
high voltage transmission line electric field effecting on the
environment”, in Proc. IEEE International Conference on
Electro/Information Technology, Mankato, 2011, pp. 1-4.
[7] M. Trlep, A. Hamler, M. Jesenik, B. Stumberger, “Electric field
distribution under transmission lines dependent on ground surface”,
IEEE Trans. Magnetics, vol. 45, pp. 1748-1751, 2009.
[8] S.M. El-Makkawy, “Numerical determination of electric field induced
currents on human body standing under a high voltage transmission
line”, in Proc. Annual Report Conference on electrical Insulation and
Dielectric Phenomena, Vancouver, 2007, pp. 802-806.
[9] Kalenderli, O., “Finite element method in electrical engineering”,
Course Notes, I.T.U., 2007.
[10] ICNIRP Publication , ICNIRP Guidelines, For limiting exposure to time
varying electric and magnetic fields (1 Hz – 100 kHz), Health Physics
99(6), 818-834, 2010.
[1] Kalenderli, O., Kocatepe, C., Arikan, O, “High Voltage Technique with
Solved Problems”, Vol.1, Birsen Press, Istanbul, Turkey, 2011, pp. 5-14.
[2] Yildirim, H., Kalenderli, O., “Computation of electric field induced
currents on human body standing under a high voltage transmission line
by using charge simulation method”, in Proc. IEEE 2nd International
Biomedical Engineering Days, Istanbul, 1998, pp. 75-77.
[3] R. Liu, H. Liu, O. Xie, “Calculation of the electric field for EHV
transmission lines based on the boundary element method”, in Proc.
Automation Congress (WAC), Waikoloa, 2008, pp. 1-4.
[4] B. Yang, S. Wang, Q. Wang, H. Du, Y. Huangfu, “Simulation and
analysis for power frequency electric field of building close to power
transmission lines”, in Proc. IEEE International Symposium on
Electromagnetic Compatibility, Raleigh-North Carolina, 2014, pp. 451-
454.
[5] A. Mujezinovic, A. Carsimamovic, S. Carsimamovic, A. Muharemovic,
I. Turkovic, “Electric field calculation around of overhead transmission
lines in Bosnia and Herzegovina ”, in Proc. IEEE International
Symposium on Electromagnetic Compatibility, Raleigh-North Carolina,
2014, pp. 1001-1006.
[6] A.I. Sidorov, I.S. Okrainskaya, S.P. Gladyshev, “Measurement of super
high voltage transmission line electric field effecting on the
environment”, in Proc. IEEE International Conference on
Electro/Information Technology, Mankato, 2011, pp. 1-4.
[7] M. Trlep, A. Hamler, M. Jesenik, B. Stumberger, “Electric field
distribution under transmission lines dependent on ground surface”,
IEEE Trans. Magnetics, vol. 45, pp. 1748-1751, 2009.
[8] S.M. El-Makkawy, “Numerical determination of electric field induced
currents on human body standing under a high voltage transmission
line”, in Proc. Annual Report Conference on electrical Insulation and
Dielectric Phenomena, Vancouver, 2007, pp. 802-806.
[9] Kalenderli, O., “Finite element method in electrical engineering”,
Course Notes, I.T.U., 2007.
[10] ICNIRP Publication , ICNIRP Guidelines, For limiting exposure to time
varying electric and magnetic fields (1 Hz – 100 kHz), Health Physics
99(6), 818-834, 2010.
@article{"International Journal of Electrical, Electronic and Communication Sciences:70794", author = "C. F. Kumru and C. Kocatepe and O. Arikan", title = "An Investigation on Electric Field Distribution around 380 kV Transmission Line for Various Pylon Models", abstract = "In this study, electric field distribution analyses for
three pylon models are carried out by a Finite Element Method
(FEM) based software. Analyses are performed in both stationary and
time domains to observe instantaneous values along with the
effective ones. Considering the results of the study, different line
geometries is considerably affecting the magnitude and distribution
of electric field although the line voltages are the same. Furthermore,
it is observed that maximum values of instantaneous electric field
obtained in time domain analysis are quite higher than the effective
ones in stationary mode. In consequence, electric field distribution
analyses should be individually made for each different line model
and the limit exposure values or distances to residential buildings
should be defined according to the results obtained.", keywords = "Electric field, energy transmission line, finite
element method, pylon.", volume = "9", number = "8", pages = "882-4", }