★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★★Open research. Global perspectives.
Engineering and Technology OPEN ACCESS

Assessment of Alternative Energy Sources for Local Government Service Commission, Alagbaka, Akure, Ondo State

Gabriel Alade. Adesida
Department of Electrical and Electronics Engineering Federal University of Technology Akure, Ondo state, Nigeria
Matthew Olayinka Oyeleye
Department of Electrical and Electronics Engineering Federal University of Technology Akure, Ondo state, Nigeria.
tajet 2026
VOL. 8 / NO. 05 MAY
VOLUME 8
ISSUE 05
YEAR 2026
PAGES 18-40

Abstract

Department of Electrical and Electronics Engineering, Federal University of Technology, Akure, This research assessed persistent unavailability electrical energy problem of Local Government Service Commission (LGSC) Alagbaka in Akure, Ondo State, Data were collected from Benin Electricity Distribution Company (BEDC), Akure and LGSC log books Alagbaka. Frequency and duration of electricity supply were obtained from the BEDC and LGSC log books. Results revealed that the existing public utility and existing generators sources feed the LGSC; the LVP and associated CBs of the LGSC network are functioning very well; the average public supply is averagely 4hrs per each working day as against the required 8hrs per day amounting to 50% availability through the year; total connected load is 113.4 kVA. Conclusively, a proposed generator or inverter capacity is designed to 79.4 kVA considering appropriate standards of demand load, diversity factor and future expansion; solar inverter is recommended for the LGSC operation due to its overall benefits existing literature established in this research; and 80 kVA solar inverter is recommended for the LGSC operation.  Load survey should be carried out before sizing of a generator/Inverter for any edifice. Appropriate standards should be considered in sizing a power supply unit source.

Keywords

Local Government Service Commission electrical energy load survey design standards Inverter.

Downloads

Download data is not yet available.

References

  1. Ondo State Map (2026): LGSC map. available athttps://www.google.com/search?q=ondo+state+lgsc+map
  2. BEDC, (2025). BEDC daily electricity supply log book.
  3. Beecher, J. A., (2020). The prudent regulator: Ethics, independence, and the public interest. Energy Law Journal, 41(2), 285–321.
  4. Boyd, W., (2018). Just price, public utility, and the long history of economic regulation in America. Yale Journal on Regulation, 35(3), 721–773.
  5. Adebayo, T., (2023). An analysis of the Nigerian electricity act of 2023 and its effect on electricity generation in Nigeria. available at www.ssrn.com. ssrn, nigeria.
  6. Costello, K. W., (2019). A troubling trend in
  7. public utility regulation. utilities policy, 58, 31–
  8. Adeyemi, A., (2024). Promoting renewable energy through a decentralised electricity regulatory framework – an analysis of Nigeria’s electricity act 2023. journal of sustainable development law and policy, 15(3), 399–421
  9. Edomah, N., (2021). The governance of energy transition: Lessons from the Nigerian electricity sector. Energy, Sustainability and Society, 11, Article 40.
  10. Jonah, K., (2023). Evaluating the landscape of
  11. electricity regulation in Nigeria: an in- depth
  12. analysis of the electricity act 2023 and its
  13. pivotal reforms in the power sector. Available athttps://doi.org/10.2139/ssrn.4613516.
  14. Olatunji, O. D., (2019). Electricity
  15. insecurity and the performance of small-scale businesses in Akoko area of Ondo state, Nigeria. international journal of business and social science, 10(7), 158–167.
  16. Owoeye, J. O., (2024). Effects of incessant electric power outages on physical development: a case study of Akure, Ondo state. Ibadan planning journal [university of Ibadan]. accessed from [https://journals.ui.edu.ng/index.php/ipj/article/ view/1794].
  17. Jimoh, M. A., and Raji, B. S., (2023). Electric grid reliability: an assessment of the Nigerian power system failures, causes and mitigations. Covenant journal of engineering technology (CJET), 7(1), 17–20.
  18. Obele, J. D., (2025). Causes and consequences of frequent power grid failures in Nigeria. gph-international journal of social science and humanities research, 8(8).
  19. Olujobi, O. J., (2020). The legal sustainability of energy substitution in Nigeria's electric power sector: Renewable energy as alternative. Protection and Control of Modern Power Systems, 5, Article 32.https://doi.org/10.1186/s41601-020-00179-3.
  20. LGSC, (2025). LGSC daily electricity supply log book.
  21. Cerna, F. V., (2023). Load factor improvement of the electricity grid considering distributed energy resources operation and regulation of peak load. Available at https://www.sciencedirect.com/scienc/article/Abs/ ii/s22106707223004134]
  22. Oyeleye, M. O., (2019). Illumination evaluation of lecture theatre, case study of 1000 seat lecture theatre, federal university of technology, Akure, Nigeria. European journal of engineering and technology research. 4, 7, 31–36.
  23. Bahloul M. and khadem S., (2024). A refined method for optimising inverter loading ratio in utility-scale photovoltaic power plant". energy reports, DOI: 10.1016/j.egyr.2024.10.055.
  24. IEC, 2025. Demand factor. Accessed on Jan
  25. , at https://www.researchgate.net/profile
  26. /BattulaSanthoshKumar/publication/323119880_Demand_Factor-Diversity_Factor-Utilization_FactorLoad_Factor/data/5a815cf4a6fdcc0d4bacd187/Demand-Factor-Diversity-Factor-Utilization-Factor-Load-Factor.pdf
  27. NEC (2025): NEC 220. Demand and diversity
  28. factor for generator sizing. accessed march, 2026, available at https://www.google.com/search?q=nec+diversi ty+factor+for+generator
  29. Adeyemi, O., and Bello, T., (2023). Comparative of inverter and generator technologies in Nigerian power systems. journal of sustainable energy studies, 8(3), 101–115.
  30. Shif, M., and Zhang, Y., (2024). Grid-forming inverter-based resource research landscape: understanding the key assets for renewable-rich power systems. energy reports, 12, 45–62.
  31. Kumar, r., and Singh, P., (2024). Grid-forming
  32. inverters: a comparative study. international
  33. journal of power electronics, vol. 15(2), pp. 77–90.
  34. Oladipo, K., and Eze, C., (2022). Energy Backup Systems in Nigeria: A Comparative Review of Generators and Inverters. African Journal of Electrical Engineering, 6(4), 210–225.
  35. Nwachukwu, I., (2024). Renewable energy adoption in Nigeria: policy and practice. journal of energy policy and management, 11(1), 33–48.