The Influence of Hot Point on MTU CB Condition at the Pgeli-Giugur 1 Bay Line (PT. PLN Paya Geli Substation)

Dina Maizana, Cando Situmorang, Habib Satria, Yanawati Binti Yahya, Muhammad Ayyoub, Manoj V. Bhalerao, Ashif Mohammad

Abstract


Local heating that occurs in substation equipment is caused by the current flowing in the conductor due to resistance. The parts that often experience heating are the terminals and connections at the substation, especially between two different metals, as well as the conductor cross-section which decreases due to corrosion. So that part must be considered. As for how to control or check the temperature is done by using thermovision. The heat temperature of the Circuit Breaker (CB) equipment at the Bay line PGELI-GIUGUR1 at Paya GeIi Substation is still in normal conditions where the temperature ranges from 20oC-43oC. But one phase need attention if temperature more than 70oC, it is needed for improvement plans. The temperature difference between the phases of the CB equipment at Bay Iine P. GELI-GLUGUR 1 at Paya Geli Substation has reached condition 5 (five), so it needs serious attention and a repair plan, to avoid short circuits between phases (R, S, T).


Keywords


Substations; Thermovision; CB; Hotpoints

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References


Blevins, M., & Power, L. (2008). Lum inant 254897 5209.

Daszczyński, T., Chmielak, W., & Giergielewicz, J. (2020). Basic Concept of MV Circuit Breaker Fault Detection by Image Processing. 2020 Progress in Applied Electrical Engineering (PAEE), 1–7.

Hasibuan, A., Isa, M., Nrartha, I. M. A., & Hardi, S. (2019). Improving Voltage Profile of 150 KV Transmission Line in Aceh Subsystem with Capacitor Bank Installation. 2019 3rd International Conference on Electrical, Telecommunication and Computer Engineering (ELTICOM), 140–144.

Hasibuan, A., Masri, S., & Othman, W. (2018). Effect of distributed generation installation on power loss using genetic algorithm method. IOP Conference Series: Materials Science and Engineering, 308(1), 12034.

Hotel, S., Sponsors, G., & Sponsors, S. (2013). Green growth in GMS: Energy, environment and social issues. The 8th International Conference 2013, 18–20.

Hrabčik, M., Govno, R., & Rusek, S. (2014). Thermovision in distribution power networks. Przeglad Elektrotechniczny, 90(4), 112–115.

Jakubiak, E. A., & Matrusz, J. S. (1989). High temperature tests of ACSR conductor hardware. IEEE Transactions on Power Delivery, 4(1), 524–531.

Kesim, M. T., Yu, H., Sun, Y., Aindow, M., & Alpay, S. P. (2018). Corrosion, oxidation, erosion and performance of Ag/W-based circuit breaker contacts: A review. Corrosion Science, 135, 12–34.

Meerovich, V., & Sokolovsky, V. (2015). High-temperature superconducting fault current limiters (FCLs) for power grid applications. In Superconductors in the power grid (pp. 283–324). Elsevier.

Paul, Schiopu, & Costea, A. (2017). Independent thermal protection for electrical circuit breaker panels, electrical power cables and lines. A practical solution proposal. 2017 9th International Conference on Electronics, Computers and Artificial Intelligence (ECAI), 1–5.

Qassim, Q. S., Jamil, N., Mahdi, M. N., Abd Rahim, F., Cob, Z. C., & Sidek, L. M. (2021). Threat Assessment Model in Electrical Power Grid Environment. Journal of Physics: Conference Series, 1962(1), 12014.

Rivas, A. E. L., & Abrao, T. (2020). Faults in smart grid systems: Monitoring, detection and classification. Electric Power Systems Research, 189, 106602.

Saragih, J. W. P., Hasibuan, A., & others. (2020). Analysis of damage to ship MT. Delta Victory due to Human Error and Electricity with the Shel Method. 2020 4rd International Conference on Electrical, Telecommunication and Computer Engineering (ELTICOM), 48–51.

Siegel, D., & Anheuser, M. (2014). Significance of resistances of switching contacts for the temperature rise of LV circuit breakers. ICEC 2014; The 27th International Conference on Electrical Contacts, 1–6.

Uchii, T., Nishiwaki, S., & Boggs, S. (2004). Effects of hot SF/sub 6/on post-arc circuit breaker design. IEEE Transactions on Power Delivery, 19(1), 124–130.

Van Lanen, E. P. A., Popov, M., van der Sluis, L., & Smeets, R. P. P. (2005). Vacuum circuit breaker current-zero phenomena. IEEE Transactions on Plasma Science, 33(5), 1589–1593.

Weedy, B. M., & Parker, A. M. (1965). Method of predicting the thermal loading of an oil circuit breaker. Proceedings of the Institution of Electrical Engineers, 112(5), 986–994.

Wijaya, M. S., Negara, I., & Hernanda, I. (2022). High voltage circuit breaker contact resistance assessment with synchronization test using failure mode effect analysis (FMEA). AIP Conference Proceedings, 2499(1).

Zarco-Periñán, P. J., Mart’inez-Ramos, J. L., & Zarco-Soto, F. J. (2021). A novel method to correct temperature problems revealed by infrared thermography in electrical substations. Infrared Physics & Technology, 113, 103623.

Zhou, Z., Chen, M., Jiang, J., Zhang, D., Ye, S., & Liu, C. (2019). Analysis and design of a novel thyristor-based circuit breaker for DC microgrids. IEEE Transactions on Power Electronics, 35(3), 2959–2968.




DOI: https://doi.org/10.29103/jreece.v3i2.10600

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