Real-time data-based performance analysis of a large-scale building applied PV system

Solar photovoltaic (PV) is one of the fastest-growing renewable technologies. Building applied photovoltaic systems can significantly help reduce the energy and environmental loads of buildings. This study analyzes the performance of a 425 kW building applied photovoltaic system by investigating imp...

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Main Authors: Ayman Alazazmeh, Ahsan Ahmed, Mubashir Siddiqui, Muhammad Asif
Format: Article
Language:English
Published: Elsevier 2022-11-01
Series:Energy Reports
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S235248472202443X
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author Ayman Alazazmeh
Ahsan Ahmed
Mubashir Siddiqui
Muhammad Asif
author_facet Ayman Alazazmeh
Ahsan Ahmed
Mubashir Siddiqui
Muhammad Asif
author_sort Ayman Alazazmeh
collection DOAJ
description Solar photovoltaic (PV) is one of the fastest-growing renewable technologies. Building applied photovoltaic systems can significantly help reduce the energy and environmental loads of buildings. This study analyzes the performance of a 425 kW building applied photovoltaic system by investigating important technical, economic, and environmental parameters. These analyses have been carried out with the help of year-long real-time performance data. The technical performance indicators examined in this study include direct current and alternating current power output, array yield, specific (final) yield, references yield, array losses, module and overall PV conversion efficiency, capacity factor, and performance ratio. The main strengths of the study include the large size of the BAPV system, and a comprehensive techno-economic and environmental analysis based upon real-time monitored data. The PV system has been found to annually produce 835.60 MWh and 814.88 MWh of DC and AC power output, respectively. The performance ratio varies from 74.03% in August to 84.62% in January with an annual figure of 78.09%. The annual capacity factor is determined to be 21.85%. For a project life of 25 years, the simple payback period and Net Present Value have been calculated to be 6.92 years and USD 866,565.24, respectively. Over the project lifetime, the savings of CO2, CH4 and N2O are calculated to be 15,666 tons, 483.75 kg, and 83.25 kg respectively.
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spelling doaj.art-facbcd9b4cd74e66929f10ac2dcbbbb22023-02-21T05:14:36ZengElsevierEnergy Reports2352-48472022-11-0181540815420Real-time data-based performance analysis of a large-scale building applied PV systemAyman Alazazmeh0Ahsan Ahmed1Mubashir Siddiqui2Muhammad Asif3Mechanical Engineering Department, King Fahd University of Petroleum & Minerals, Kingdom of Saudi Arabia; Corresponding author.Department of Mechanical Engineering, N.E.D. University, PakistanDepartment of Mechanical Engineering, N.E.D. University, PakistanArchitectural Engineering Department, King Fahd University of Petroleum and Minerals, Dhahran, Saudi Arabia; Interdisciplinary Research Center for Renewable Energy and Power Systems, King Fahd University of Petroleum and Minerals, Saudi ArabiaSolar photovoltaic (PV) is one of the fastest-growing renewable technologies. Building applied photovoltaic systems can significantly help reduce the energy and environmental loads of buildings. This study analyzes the performance of a 425 kW building applied photovoltaic system by investigating important technical, economic, and environmental parameters. These analyses have been carried out with the help of year-long real-time performance data. The technical performance indicators examined in this study include direct current and alternating current power output, array yield, specific (final) yield, references yield, array losses, module and overall PV conversion efficiency, capacity factor, and performance ratio. The main strengths of the study include the large size of the BAPV system, and a comprehensive techno-economic and environmental analysis based upon real-time monitored data. The PV system has been found to annually produce 835.60 MWh and 814.88 MWh of DC and AC power output, respectively. The performance ratio varies from 74.03% in August to 84.62% in January with an annual figure of 78.09%. The annual capacity factor is determined to be 21.85%. For a project life of 25 years, the simple payback period and Net Present Value have been calculated to be 6.92 years and USD 866,565.24, respectively. Over the project lifetime, the savings of CO2, CH4 and N2O are calculated to be 15,666 tons, 483.75 kg, and 83.25 kg respectively.http://www.sciencedirect.com/science/article/pii/S235248472202443XSolar energyPhotovoltaicBuildingsEnvironmentTechno-economic analysisSensitivity analysis
spellingShingle Ayman Alazazmeh
Ahsan Ahmed
Mubashir Siddiqui
Muhammad Asif
Real-time data-based performance analysis of a large-scale building applied PV system
Energy Reports
Solar energy
Photovoltaic
Buildings
Environment
Techno-economic analysis
Sensitivity analysis
title Real-time data-based performance analysis of a large-scale building applied PV system
title_full Real-time data-based performance analysis of a large-scale building applied PV system
title_fullStr Real-time data-based performance analysis of a large-scale building applied PV system
title_full_unstemmed Real-time data-based performance analysis of a large-scale building applied PV system
title_short Real-time data-based performance analysis of a large-scale building applied PV system
title_sort real time data based performance analysis of a large scale building applied pv system
topic Solar energy
Photovoltaic
Buildings
Environment
Techno-economic analysis
Sensitivity analysis
url http://www.sciencedirect.com/science/article/pii/S235248472202443X
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