Model for Forecasting of Electricity Losses During Transmission and Distribution in an Electricity System

Model for Forecasting of Electricity Losses During Transmission and Distribution in an Electricity System

  IJETT-book-cover           
  
© 2021 by IJETT Journal
Volume-69 Issue-6
Year of Publication : 2021
Authors : Kostadin Yotov, Emil Hadzhikolev, Stanka Hadzhikoleva
DOI :  10.14445/22315381/IJETT-V69I6P213

How to Cite?

Kostadin Yotov, Emil Hadzhikolev, Stanka Hadzhikoleva, "Model for Forecasting of Electricity Losses During Transmission and Distribution in an Electricity System," International Journal of Engineering Trends and Technology, vol. 69, no. 6, pp. 93-98, 2021. Crossref, https://doi.org/10.14445/22315381/IJETT-V69I6P213

Abstract
The forecasting of losses in a country’s electrical system is an important factor for its optimal management. It allows for the planning of the appropriate amount of electricity that must be produced in order to meet the needs of the economic sector and household customers. A portion of the electricity losses can be forecasted and assessed. This includes losses caused by technical components for transmission and distribution of electricity, losses from power lines formed by the length, cross-section, or resistance of conductors, the corona effect, losses due to no load or light load of the transformers, energy consumption for the needs of the individual units in the electricity system, etc. Another portion of the losses is not subject to accurate calculation. These are losses from accidents on significant lines, which may be due to wear and tear of the equipment being used, natural disasters, changes in the prevention programs, or even illegal or dishonest consumption of electricity, etc. These losses cannot be forecasted by standard statistical methods or well-known formulas. This article presents a study for forecasting electricity losses by using neural networks. Experiments have been conducted related to the forecast of the losses of the electricity system in Bulgaria.

Keywords
electrical power losses, power transmission losses, power system losses, forecasting of electricity losses.

Reference
[1] Cambridge Bitcoin Electricity Consumption Index. Country ranking, annual electricity consumption. [Online]. Available: https://cbeci.org/cbeci/comparisons. (2021)
[2] P. Kovachev and S. Stoyanov, Electricity supply to industrial enterprises, Technika Publ., Sofia, Bulgaria.
[3] Electrical Resistivity Table for Common Materials. ElectronicNotes. [Online]. Available: https://electronics-notes.com/articles/basic_concepts/resistance/electrical-resistivity-table-materials.php. (2021).
[4] S. Kasap, C. Koughia and H. Ruda, Electrical Conduction in Metals and Semiconductors, In: Kasap S., Capper P. (eds) Springer Handbook of Electronic and Photonic Materials. Springer Handbooks. Springer, Cham. (2017).
[5] K. Welch, Questions & Answers – How do you explain electrical resistance?, Thomas Jefferson National Accelerator Facility. (2017).
[6] J. Gallop, SQUIDs, the Josephson Effects and Superconducting Electronics. CRC Press (1991).
[7] D. Pines, The Spin Fluctuation Model for High Temperature Superconductivity: Progress and Prospects. New York (2002).
[8] A. Fyodorov and N. Vasilev, Electricity supply to industrial enterprises. Technika Publ., Sofia, Bulgaria (1979).
[9] S, Stoyanov and D. Zhivkov, Electricity supply to industrial enterprises. Technika Publ., Sofia, Bulgaria (1990).
[10] The World Bank Group. Electric power transmission and distribution losses (% of output). [Online]. Available: https://data.worldbank.org/indicator/EG.ELC.LOSS.ZS. (2021).
[11] S. Bhatti, S. Haq, N. Gardezi and A. Javaid, Electric Power Transmission and Distribution Losses Overview and Minimization in Pakistan, International Journal of Scientific & Engineering Research, vol. 6(4) (2015).
[12] A. Onyemaechi and O. Isaac, Minimization of Power Losses in Transmission Lines. IOSR Journal of Electrical and Electronics Engineering, 9(3) (2014) 23-26.
[13] Y. Wilms, S. Fedorovich and N. Kachalov, Methods of reducing power losses in distribution systems. MATEC Web of Conferences 141, 01050 (2017).
[14] M. Munasinghe and W. Scott, Energy Efficiency: Optimization of Electric Power Distribution System Losses. Washington: The World Bank (1982).
[15] C. Cavellucc and C. Lyra, Minimization of Energy Losses in Electric Power Distribution Systems by Intelligent Search Strategies. IFAC Large Scale Systems (1995).
[16] Y. Al-Mahroqi, I. Metwally, A. Al-Hinai and A. Al-Badi, Reduction of Power Losses in Distribution Systems. International Journal of Computer and Systems Engineering, 6(3) (2012) 315-322.
[17] L. Hongmei and C. Hantao, Distribution Network Power Loss Analysis Considering Uncertainties in Distributed Generations, Sustainability 11 (2019) 1311.
[18] (2021) Why are neuron axons long and spindly? Study shows they`re optimizing signaling efficiency. Medical Xpress. [Online]. Available: https://medicalxpress.com/news/2018-07-neuron-axons-spindly-theyre-optimizing.html.
[19] D. Dudel, I. Ryuegg, R. Shmidt and V. Yanig, Human physiology. MIR Publ., Moscow (1985).
[20] Matlab. [Online]. Available: https://www.mathworks.com/products/ matlab.html. (2021).
[21] National Statistical Institute. Overall energy balance sheet. [Online]. Available: https://www.nsi.bg/en/ content/5055/overall-energy-balance-sheet. (2021).
[22] Infostat. Overall energy balance sheet. [Online]. Available: https://infostat.nsi.bg/infostat/pages/reports/query.jsf?x_2=500 (2021).
[23] K. Yotov, E. Hadzhikolev and S. Hadzhikoleva, Forecasting Energy Efficiency and Energy Consumption in Bulgaria by Examining the Energy Intensity Indicator Using Neural Networks, In Proc. SIELA’2021 (2021) 523-526.