Microcontroller Based Automatic Power Factor Correction for Single-Phase Lagging and Leading Loads

Power Factor (PF) correction is a major power quality function in electrical distribution systems. This paper proposes a low-cost Automatic Power Factor Correction (APFC) system to increase the PF of both lagging and leading single-phase loads. The Arduino Mega 2560 microcontroller was used to calcu...

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Main Authors: B. M. Rija, M. K. Hussain, A. M. Vural
Format: Article
Language:English
Published: D. G. Pylarinos 2020-12-01
Series:Engineering, Technology & Applied Science Research
Subjects:
Online Access:http://www.etasr.com/index.php/ETASR/article/view/3916
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spelling doaj-5868b82a79334d9ea7bd320e3fbbdfbb2021-02-02T13:49:02ZengD. G. PylarinosEngineering, Technology & Applied Science Research2241-44871792-80362020-12-0110610.48084/etasr.3916Microcontroller Based Automatic Power Factor Correction for Single-Phase Lagging and Leading LoadsB. M. Rija0M. K. Hussain1A. M. Vural2Electrical and Electronics Engineering Department, Gaziantep University, TurkeyDepartment of Energy Engineering, University of Baghdad, Iraq Electrical and Electronics Engineering Department, Gaziantep University, TurkeyPower Factor (PF) correction is a major power quality function in electrical distribution systems. This paper proposes a low-cost Automatic Power Factor Correction (APFC) system to increase the PF of both lagging and leading single-phase loads. The Arduino Mega 2560 microcontroller was used to calculate the PF and activate the relays that connect the capacitor/inductor banks to the load in parallel. Thus, the required capacitive or inductive reactive power was produced by the APFC system by automatically connecting the capacitor/inductor banks to the load in parallel. The APFC system can also measure and display many electrical parameters of the load such as the rms voltage, the rms current, PF, and the real, reactive, and apparent power on an LCD display. Two zero-crossing detector circuits are used to find the phase angle difference between voltage and current waveforms of the load. The measurement ability of the APFC system was tested for resistive, inductive, and capacitive loads with two different sizes. The measurement results were compared with the measurements of a commercial digital power meter and a measurement error of less than 8.0% was observed. The PF correction ability of the APFC system was verified for inductive and capacitive loads with two different sizes. The experiments show that the PF increased to close to unity for both lagging and leading loads. http://www.etasr.com/index.php/ETASR/article/view/3916power factor correctionreactive power compensationationArduino Mega 2560 microcontroller
collection DOAJ
language English
format Article
sources DOAJ
author B. M. Rija
M. K. Hussain
A. M. Vural
spellingShingle B. M. Rija
M. K. Hussain
A. M. Vural
Microcontroller Based Automatic Power Factor Correction for Single-Phase Lagging and Leading Loads
Engineering, Technology & Applied Science Research
power factor correction
reactive power compensationation
Arduino Mega 2560 microcontroller
author_facet B. M. Rija
M. K. Hussain
A. M. Vural
author_sort B. M. Rija
title Microcontroller Based Automatic Power Factor Correction for Single-Phase Lagging and Leading Loads
title_short Microcontroller Based Automatic Power Factor Correction for Single-Phase Lagging and Leading Loads
title_full Microcontroller Based Automatic Power Factor Correction for Single-Phase Lagging and Leading Loads
title_fullStr Microcontroller Based Automatic Power Factor Correction for Single-Phase Lagging and Leading Loads
title_full_unstemmed Microcontroller Based Automatic Power Factor Correction for Single-Phase Lagging and Leading Loads
title_sort microcontroller based automatic power factor correction for single-phase lagging and leading loads
publisher D. G. Pylarinos
series Engineering, Technology & Applied Science Research
issn 2241-4487
1792-8036
publishDate 2020-12-01
description Power Factor (PF) correction is a major power quality function in electrical distribution systems. This paper proposes a low-cost Automatic Power Factor Correction (APFC) system to increase the PF of both lagging and leading single-phase loads. The Arduino Mega 2560 microcontroller was used to calculate the PF and activate the relays that connect the capacitor/inductor banks to the load in parallel. Thus, the required capacitive or inductive reactive power was produced by the APFC system by automatically connecting the capacitor/inductor banks to the load in parallel. The APFC system can also measure and display many electrical parameters of the load such as the rms voltage, the rms current, PF, and the real, reactive, and apparent power on an LCD display. Two zero-crossing detector circuits are used to find the phase angle difference between voltage and current waveforms of the load. The measurement ability of the APFC system was tested for resistive, inductive, and capacitive loads with two different sizes. The measurement results were compared with the measurements of a commercial digital power meter and a measurement error of less than 8.0% was observed. The PF correction ability of the APFC system was verified for inductive and capacitive loads with two different sizes. The experiments show that the PF increased to close to unity for both lagging and leading loads.
topic power factor correction
reactive power compensationation
Arduino Mega 2560 microcontroller
url http://www.etasr.com/index.php/ETASR/article/view/3916
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