Enhancing Overvoltage Resistance in Electrical Feeders: A Case Study on CEPALCOs Pueblo de Oro Feeder 2 with Critical Node Optimization

Lightning strikes are prevalent on the overhead distribution lines of CEPALCO’s Pueblo de Oro Feeder 2, often causing significant insulation damage and leading to partial or total system shutdowns. While lightning arresters are considered an effective solution to this problem, they require significant investment, making large-scale use across CEPALCO’s extensive network economically unfeasible. In response to this challenge, this study explores a Critical Node Optimzation technique known as Direct Discharge Crossing (DDC). This method is used to efficiently place lightning arresters, ensuring adequate protection for the distribution system while minimizing cost. Simulations were conducted using EMTP-RV, a power system analysis software, to model the CEPALCO PDO F2 feeder. The results of the study demonstrate that installing lightning arresters at the most critical positions significantly reduces flashover incidents and decreases the D function for each pole, leading to enhanced system reliability and reduced maintenance costs. This approach offers optimal resource allocation and improved lightning performance of the distribution network.

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Publication Details

Published
2024-10-23
DOI
https://doi.org/10.1109/icssas64001.2024.10760981
Primary Topic
Electrical Fault Detection and Protection
Type
article
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article

Enhancing Overvoltage Resistance in Electrical Feeders: A Case Study on CEPALCOs Pueblo de Oro Feeder 2 with Critical Node Optimization

Lory Liza D. Bulay-Og, Abid Yahya, Jan Michael Batilo, Wenna Baroza
Electrical Fault Detection and Protection
article

Enhancing Overvoltage Resistance in Electrical Feeders: A Case Study on CEPALCOs Pueblo de Oro Feeder 2 with Critical Node Optimization

Lory Liza D. Bulay-Og, Abid Yahya, Jan Michael Batilo, Wenna Baroza
article en

Abstract

Lightning strikes are prevalent on the overhead distribution lines of CEPALCO’s Pueblo de Oro Feeder 2, often causing significant insulation damage and leading to partial or total system shutdowns. While lightning arresters are considered an effective solution to this problem, they require significant investment, making large-scale use across CEPALCO’s extensive network economically unfeasible. In response to this challenge, this study explores a Critical Node Optimzation technique known as Direct Discharge Crossing (DDC). This method is used to efficiently place lightning arresters, ensuring adequate protection for the distribution system while minimizing cost. Simulations were conducted using EMTP-RV, a power system analysis software, to model the CEPALCO PDO F2 feeder. The results of the study demonstrate that installing lightning arresters at the most critical positions significantly reduces flashover incidents and decreases the D function for each pole, leading to enhanced system reliability and reduced maintenance costs. This approach offers optimal resource allocation and improved lightning performance of the distribution network.

University of Science and Technology of Southern Philippines (PH), Botswana International University of Science and Technology (BW)
Affordable and clean energy
Openalex Percentile: Top 77%
Electrical Fault Detection and Protection
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Enhancing Overvoltage Resistance in Electrical Feeders: A Case Study on CEPALCOs Pueblo de Oro Feeder 2 with Critical Node Optimization — Lory Liza D. Bulay-Og, Abid Yahya, et al. · (2024) | TGRS Research Map | TGRS