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Published in: Electrical Engineering 5/2022

09-04-2022 | Original Paper

Lightning surges in hybrid cable-overhead lines: Part I—voltage estimation for shielding failure

Authors: F. Faria da Silva, Kasper Pedersen

Published in: Electrical Engineering | Issue 5/2022

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Abstract

The increasing usage of hybrid cable-overhead lines raises concerns over the protection of short cable sections against lightning surges, because of voltage build-up in the cable section. To set a simulation model of the phenomenon is time consuming, with numerous parameters impacting the overvoltage. This paper (Part I) presents formulas able to perform a fast estimation of the maximum overvoltage at a cable-overhead line transition point in the event of shielding failure. The formulas estimate the overvoltage with and without surge arrester, as well as the energy absorbed by the surge arrester. These formulas do not require an electromagnetic transients software and they can be implemented as a script, requiring solely the geometric data of the cable and overhead line, information available in the respective datasheets. The main usefulness is a tool for a fast screening of the overvoltages and a fast evaluation of the impact of different parameters such as cable length, lightning waveform and grounding impedance.

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Appendix
Available only for authorised users
Literature
1.
go back to reference McDermott TE (2012) Using IEEE flash to estimate transmission and distribution line lightning performance. IEEE PES T&D McDermott TE (2012) Using IEEE flash to estimate transmission and distribution line lightning performance. IEEE PES T&D
3.
go back to reference Faria da Silva F, Pedersen KS, Bak CL (2017) Lightning in hybrid cable-overhead lines and consequent transient overvoltages. In: International conference on power system transients Faria da Silva F, Pedersen KS, Bak CL (2017) Lightning in hybrid cable-overhead lines and consequent transient overvoltages. In: International conference on power system transients
4.
go back to reference Colla L, Gatta FM, Geri A, Lauria S (2007) Lightning overvoltages in HV-EHV “Mixed” overhead-cable lines. In: International conference on power system transients Colla L, Gatta FM, Geri A, Lauria S (2007) Lightning overvoltages in HV-EHV “Mixed” overhead-cable lines. In: International conference on power system transients
5.
go back to reference Henriksen T (2007) Maximum lightning overvoltage along a cable due to shielding failure. Electr Power Syst Res 77:1460–1465CrossRef Henriksen T (2007) Maximum lightning overvoltage along a cable due to shielding failure. Electr Power Syst Res 77:1460–1465CrossRef
6.
go back to reference Henriksen T, Gustavsen B, Balog G, Baur U (2005) Maximum lightning overvoltage along a cable protected by surge arresters. IEEE Trans Power Deliv 20:859–866CrossRef Henriksen T, Gustavsen B, Balog G, Baur U (2005) Maximum lightning overvoltage along a cable protected by surge arresters. IEEE Trans Power Deliv 20:859–866CrossRef
7.
go back to reference CIGRE WG C4.407 (2013) Lightning parameters for engineering applications. Cigré CIGRE WG C4.407 (2013) Lightning parameters for engineering applications. Cigré
8.
go back to reference CIGRE WG 33.01 (1991) Guide to procedures for estimating the lightning performance of transmission lines. Cigré CIGRE WG 33.01 (1991) Guide to procedures for estimating the lightning performance of transmission lines. Cigré
9.
go back to reference Gary C (1976) Approche complète de la propagation multifilaire en haute fréquence par utilisation des matrices complexes. EDF Bull Dir Études Rech Sér B-Réseaux Electr Matér Électr Gary C (1976) Approche complète de la propagation multifilaire en haute fréquence par utilisation des matrices complexes. EDF Bull Dir Études Rech Sér B-Réseaux Electr Matér Électr
10.
go back to reference Faria da Silva F (2015) Simplified formulae for the estimation of the positive-sequence resistance and reactance of three-phase cables for different frequencies. UPEC 50th Faria da Silva F (2015) Simplified formulae for the estimation of the positive-sequence resistance and reactance of three-phase cables for different frequencies. UPEC 50th
11.
go back to reference Ametani A, Ohno T, Nagaoka N (2015) Cable system transients – theory, modeling and Simulation. Wiley, New JerseyCrossRef Ametani A, Ohno T, Nagaoka N (2015) Cable system transients – theory, modeling and Simulation. Wiley, New JerseyCrossRef
12.
go back to reference IEEE Std 1410–2010 (2011) IEEE guide for improving the lightning performance of electric power overhead distribution lines. IEEE Power Energy Soc IEEE Std 1410–2010 (2011) IEEE guide for improving the lightning performance of electric power overhead distribution lines. IEEE Power Energy Soc
13.
go back to reference Berger K, Anderson RB, Kröninger H (1975) Parameters of lightning flashes. Electra N. 41 Berger K, Anderson RB, Kröninger H (1975) Parameters of lightning flashes. Electra N. 41
14.
go back to reference IEEE WG 3.4.11 (1992) Modelling of metal oxide surge arresters. IEEE Trans Power Deliv 7 IEEE WG 3.4.11 (1992) Modelling of metal oxide surge arresters. IEEE Trans Power Deliv 7
15.
go back to reference CIGRE WG 33.06 (1991) Metal oxide arresters in AC systems. Cigré CIGRE WG 33.06 (1991) Metal oxide arresters in AC systems. Cigré
16.
go back to reference Pinceti P, Giannettoni M (1999) A simplified model for zinc oxide surge arresters. IEEE Tran Power Deliv 14:393–398CrossRef Pinceti P, Giannettoni M (1999) A simplified model for zinc oxide surge arresters. IEEE Tran Power Deliv 14:393–398CrossRef
17.
go back to reference Fernandez F, Diaz R (2003) Metal oxide surge arrester model for fast transient simulations. In: International conference on power system transients Fernandez F, Diaz R (2003) Metal oxide surge arrester model for fast transient simulations. In: International conference on power system transients
18.
go back to reference Mikropoulos PN, Tsovilis TE (2010) Lightning attachment models and maximum shielding failure current of overhead transmission lines: implications in insulation coordination of substations. IET Gener Trans Distrib 4:1299–1313CrossRef Mikropoulos PN, Tsovilis TE (2010) Lightning attachment models and maximum shielding failure current of overhead transmission lines: implications in insulation coordination of substations. IET Gener Trans Distrib 4:1299–1313CrossRef
19.
go back to reference CIGRE WG C4.26 (2017) Evaluation of lightning shielding analysis methods for EHV and UHV DC and AC transmission lines. Cigré CIGRE WG C4.26 (2017) Evaluation of lightning shielding analysis methods for EHV and UHV DC and AC transmission lines. Cigré
20.
go back to reference CIGRE WG B1.05 (2005) Transient voltages affecting long cables. CIGRE CIGRE WG B1.05 (2005) Transient voltages affecting long cables. CIGRE
21.
go back to reference IEC 60071-2:2018 (2018) Insulation co-ordination – Part 2: application guidelines. IEC, Edition 4.0 IEC 60071-2:2018 (2018) Insulation co-ordination – Part 2: application guidelines. IEC, Edition 4.0
22.
go back to reference Jun T, Shigemitsu O (2007) Observational results of lightning current on transmission tower. IEEE Trans Power Deliv 22(1):547–556CrossRef Jun T, Shigemitsu O (2007) Observational results of lightning current on transmission tower. IEEE Trans Power Deliv 22(1):547–556CrossRef
23.
go back to reference Shigemitsu O, Jun T, Toshihiro T, Genyo U, Akihiro A, Kunihiko H (2013) Discussion on standard waveform in the lightning impulse voltage test. IEEE Trans Dielectr Electr Insul 20(1):147–156CrossRef Shigemitsu O, Jun T, Toshihiro T, Genyo U, Akihiro A, Kunihiko H (2013) Discussion on standard waveform in the lightning impulse voltage test. IEEE Trans Dielectr Electr Insul 20(1):147–156CrossRef
24.
go back to reference Andrew RH (1999) Insulation coordination for power systems, 1st edn. Taylor & Francis, UK, p 267 Andrew RH (1999) Insulation coordination for power systems, 1st edn. Taylor & Francis, UK, p 267
25.
go back to reference CIGRE WG C4.33 (2019) Impact of soil-parameter frequency dependence on the response of grounding electrodes and on the lightning performance of electrical systems. CIGRE CIGRE WG C4.33 (2019) Impact of soil-parameter frequency dependence on the response of grounding electrodes and on the lightning performance of electrical systems. CIGRE
26.
go back to reference Silverio V, Rafael A (2012) Frequency dependence of soil parameters: experimental results, predicting formula and influence on the lightning response of grounding electrodes. IEEE Trans Power Deliv 27(2):927–935CrossRef Silverio V, Rafael A (2012) Frequency dependence of soil parameters: experimental results, predicting formula and influence on the lightning response of grounding electrodes. IEEE Trans Power Deliv 27(2):927–935CrossRef
27.
go back to reference Longmire CL, Smith KS (1975) A universal impedance for soils. Topical report for period July 1– September 30, Defense Nuclear Agency, Santa Barbara, California Longmire CL, Smith KS (1975) A universal impedance for soils. Topical report for period July 1– September 30, Defense Nuclear Agency, Santa Barbara, California
28.
go back to reference Messier MA (1980) The propagation of an electromagnetic impulse through soil: influence of frequency dependent parameters, MRC-N-415. Mission Research Corporation, Santa Barbara Messier MA (1980) The propagation of an electromagnetic impulse through soil: influence of frequency dependent parameters, MRC-N-415. Mission Research Corporation, Santa Barbara
Metadata
Title
Lightning surges in hybrid cable-overhead lines: Part I—voltage estimation for shielding failure
Authors
F. Faria da Silva
Kasper Pedersen
Publication date
09-04-2022
Publisher
Springer Berlin Heidelberg
Published in
Electrical Engineering / Issue 5/2022
Print ISSN: 0948-7921
Electronic ISSN: 1432-0487
DOI
https://doi.org/10.1007/s00202-022-01538-z

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