A Methodology for Optimal Design of Transmission Lines to Protection against Lightning Surges in Presence of Arresters

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R. Shariatinasab
https://orcid.org/0000-0001-5007-7557
R. Azimi

Abstract

In this paper, a methodology for determination of the optimal value of protection design parameters, i.e. tower footing resistance, insulation strength, and surge arresters’ rating in the planning stage of transmission lines (TLs) is presented. This method calculates the shielding failure flashover rate (SFFOR) of TLs, based on Electro-geometric model (EGM) of TLs, and the back flashover rate (BFR) of TLs, based on the Monte Carlo method, in which the accuracy of the proposed methodology has been verified by comparing the resultant results with those obtained with the use of the IEEE FLASH program. The proposed method can be directly used to achieve the minimum lightning flashover rate (LFOR) of TLs by the minimum investment cost. Also, it can be used, indirectly, for determination of the appropriate value of the footing resistance, insulation strength and arresters’ rating to satisfy any target number of LFOR that might be specified by the utilities or standards.

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How to Cite
Shariatinasab, R., & Azimi, R. (2020). A Methodology for Optimal Design of Transmission Lines to Protection against Lightning Surges in Presence of Arresters. Advanced Electromagnetics, 9(1), 105–110. https://doi.org/10.7716/aem.v9i1.1316
Section
Research Articles

References

R. Shariatinasab, J. Gholinezhad, K. Sheshyekani, Estimation of Energy Stress of Surge Arresters Considering the High-Frequency behavior of Grounding Systems, IEEE Trans on Electromagnetic Compatibility 60(4): 917-925, 2018.

View Article

D. Rajičić, M. Todorovski, A Double-Exponential Lightning Current Function Suitable for Use of Different Sets of Input Data, IEEE Transactions on Power Delivery 33(4): 2053-2055, 2018.

View Article

G.W. Brown, E. Whitehead, Systems, Field and Analytical Studies of Transmission Line Shielding: Part, IEEE Transactions on Power Apparatus and Systems 5: 617-626, 1969.

View Article

J.T. Whitehead, W.A.Chisholm, J.Anderson, and et al, Estimating Lightning Performance of Transmission Line 2--Updates to Analytical Models, IEEE Transactions on Power Delivery 8(3), 1993.

View Article

P. Sarajcev, Monte Carlo Method for Estimating Backflashover Rates on High Voltage Transmission Lines, Electric Power Systems Research 119: 247-257, 2015.

View Article

J. Martinez, F. Castro-Aranda, Lightning Performance Analysis of Transmission Lines Using the Emtp, in Power Engineering Society General Meeting, Toronto, Ont., Canada, 2003.

L. Ekonomou, D. Iracleous, I. Gonos, and et al, An Optimal Design Method for Improving the Lightning Performance of Overhead High Voltage Transmission Lines, Electric Power Systems Research 76(6-7): 493-499, 2006.

View Article

A. Shafaei, A. Gholami, R. Shariatinasab, A New Developed Method for Evaluation of Lighting Performance of Overhead Transmission Lines with Considering Impact of Stroke Angle, In: 2011 International Conference on Circuit System and Simulation IPCSIT, IACSIT Press, Singapore, pp. 235-241, 2011.

C.A. Christodoulou, L. Ekonomou, N. Papanikolaou, and et al, Effect of the Grounding Resistance to the Behaviour of High-Voltage Transmission Lines, Surge Arresters, IET Science, Measurement and Technology 8(6): 470-478, 2014.

View Article

R. Shariatinasab, B. Vahidi, S. Hosseinian, and et al, Probabilistic Evaluation of Optimal Location of Surge Arresters on EHV and UHV Networks Due to Switching and Lightning Surges, IEEE Trans. on Power Delivery 24(4): 1903-1911, 2009.

View Article

J. Das, Transients in Electrical Systems, McGraw-Hill Professional Publishing, 2010.

CIGRE, Guide to procedures for estimating the lightning performance of transmission lines, WG 01 (Lightning) of SC 33 (Overvoltages and Insulation Coordination), 1991.

IEEE Working Group on Lightning Performance of Transmission Lines, A simplified method for estimating lightning performance of transmission lines, IEEE Trans. PAS 104: 919-927, 1985.

View Article

R. Shariatinasab, B. Vahidi, S. Hosseinian, Statistical Evaluation of Lightning-Related Failures for the Optimal Location of Surge Arresters on the Power Networks, IET Generation, Transmission and distribution 3 (2): 129-144, 2009.

View Article

A.R. Hileman, Insulation Coordination for Power Systems, CRC Press, United States, 1999.

View Article

R. Shariatinasab, F. Ajri, H. Daman-Khorshid, Probabilistic Evaluation of Failure Risk of Transmission Line Surge Arresters Caused by Lightning Flash, IET Generation, Transmission and Distribution 8(2): 193-202, 2014.

View Article

P. Chowdhuri, J. Anderson, W. Chisholm, and et al, Parameters of Lightning Strokes: A Review, IEEE Transactions on Power Delivery 20(1): 346-358, 2005.

View Article

T. E. McDermott, A New Version of the IEEE Flash Program, in IEEE PES T&D, New Orleans, LA, USA, 2010.

View Article

G. Heidari, Electrical Planning of the Transmission Lines, Tavanir Press, pp. 1-384, 2001.

L. Chambers, The practical handbookof genetic algorithms applications, Chapman & Hall/CRC Press, 2nd edn., 2001.

V. Miranda, J.V. Ranito, L.V. Proenca, Genetic algorithms in optimal multistage distribution systems, IEEE Trans. Power DelivERY, 9(4), 1927-1933, 1994.

View Article

"Kerman local grid", http://www.krec.co.ir, accessed 10 Feb. 2019.