The modeling and analysis of a power transmission line supplied by a solar power plant

This article deals with the energy transmission line system which feeds from solar energy at the MATLAB Simulink. So, direct voltage is considered to be converted as an alternating voltage by a 35-level inverter after the solar power plant which has the power of 110 MW produce 360 kV of direct volta...

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Main Author: Erol Can
Format: Article
Language:English
Published: University North 2018-01-01
Series:Tehnički Glasnik
Subjects:
Online Access:https://hrcak.srce.hr/file/302944
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spelling doaj-17038d74fb774452adf538ea351f13212020-11-25T00:20:06ZengUniversity NorthTehnički Glasnik1846-61681848-55882018-01-01123124130The modeling and analysis of a power transmission line supplied by a solar power plantErol Can0School of Civil Aviation, Erzincan University, Aircraft Airframe Power Plant, Yanliz Bag Yerleşkesi, 24100 Erzincan, TurkeyThis article deals with the energy transmission line system which feeds from solar energy at the MATLAB Simulink. So, direct voltage is considered to be converted as an alternating voltage by a 35-level inverter after the solar power plant which has the power of 110 MW produce 360 kV of direct voltage. A line which covers 240 km of distance is preferred to transmit electrical power from the A1 point to an A2 point. Due to this, the required mathematical equations are calculated with a circuit analyzing method for the line modeling in the simulation. Experiments on the model are carried out at the MATLAB Simulink after the creation of an energy transmission line. After that, when measurements are made taking into consideration the A2 node; the capacitor voltage, the transformer current, the A2 node current, and the fault current, values are given according to the converted voltage at the frequencies of 100 Hz, 80 Hz, and 50 Hz. The obtained results demonstrate the success of the proposed line system, while power is distributed with eliminated fault at a long distance at different frequencies.https://hrcak.srce.hr/file/302944mathematical model of the linesimulation model of the transmission line35-level inverter
collection DOAJ
language English
format Article
sources DOAJ
author Erol Can
spellingShingle Erol Can
The modeling and analysis of a power transmission line supplied by a solar power plant
Tehnički Glasnik
mathematical model of the line
simulation model of the transmission line
35-level inverter
author_facet Erol Can
author_sort Erol Can
title The modeling and analysis of a power transmission line supplied by a solar power plant
title_short The modeling and analysis of a power transmission line supplied by a solar power plant
title_full The modeling and analysis of a power transmission line supplied by a solar power plant
title_fullStr The modeling and analysis of a power transmission line supplied by a solar power plant
title_full_unstemmed The modeling and analysis of a power transmission line supplied by a solar power plant
title_sort modeling and analysis of a power transmission line supplied by a solar power plant
publisher University North
series Tehnički Glasnik
issn 1846-6168
1848-5588
publishDate 2018-01-01
description This article deals with the energy transmission line system which feeds from solar energy at the MATLAB Simulink. So, direct voltage is considered to be converted as an alternating voltage by a 35-level inverter after the solar power plant which has the power of 110 MW produce 360 kV of direct voltage. A line which covers 240 km of distance is preferred to transmit electrical power from the A1 point to an A2 point. Due to this, the required mathematical equations are calculated with a circuit analyzing method for the line modeling in the simulation. Experiments on the model are carried out at the MATLAB Simulink after the creation of an energy transmission line. After that, when measurements are made taking into consideration the A2 node; the capacitor voltage, the transformer current, the A2 node current, and the fault current, values are given according to the converted voltage at the frequencies of 100 Hz, 80 Hz, and 50 Hz. The obtained results demonstrate the success of the proposed line system, while power is distributed with eliminated fault at a long distance at different frequencies.
topic mathematical model of the line
simulation model of the transmission line
35-level inverter
url https://hrcak.srce.hr/file/302944
work_keys_str_mv AT erolcan themodelingandanalysisofapowertransmissionlinesuppliedbyasolarpowerplant
AT erolcan modelingandanalysisofapowertransmissionlinesuppliedbyasolarpowerplant
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