Arvids Jakusenoks, Aigars Laizans
This article is devoted to the research of reactive electrical power compensation in the household sector, addressing the challenges posed by varying power factors influenced by both active and reactive electrical power. Many electrical appliances exhibit low power factors, which can lead to issues such as noise and fluctuations within the power grid. The study explores various methods of reactively compensating electrical power, including detailed implementations via a MatLab Simulink model, emphasizing the need for long-term electrical consumption data either from power suppliers or consumers seeking optimization. The presented methods are applicable across all consumer sectors, and the article evaluates their advantages and disadvantages. Notably, findings indicate that adequate reactive electrical power compensation can substantially reduce voltage loss by 4% and lower total electrical grid current by 3%, with a transformer load decrease of 5% at a power factor of 0.95. While efficacy varies based on load and compensation techniques, the demonstrated benefits highlight significant advantages for electrical suppliers and consumers alike.
@article{90af5be6-b52d-4527-b13f-8a95df1c62d4,
title={Reactive electrical power compensation i},
author={Arvids Jakusenoks and Aigars Laizans},
year={2026},
language={en}
}TY - JOUR TI - Reactive electrical power compensation i AU - Arvids Jakusenoks AU - Aigars Laizans PY - 2026 LA - en ER -
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