A comprehensive analysis of small-scale building integrated photovoltaic system for residential buildings: Techno-economic benefits and greenhouse gas mitigation potential

The present paper aims to highlight the techno-economic and greenhouse mitigation potential of the small-scale building integrated photovoltaic (BIPV) of 10 kW suitable for residential as well as small commercial agglomerations. To carry out this investigation a mathematical model has been developed...

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Main Authors: Anand A., A P Verayiah R., Mansor M., Tengku Hasim T.J., Shukla A., Panchal H., Sharma A., L. N., Kumar A.
Other Authors: 56026687500
Format: Article
Published: Elsevier Ltd 2025
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spelling my.uniten.dspace-367412025-03-03T15:44:19Z A comprehensive analysis of small-scale building integrated photovoltaic system for residential buildings: Techno-economic benefits and greenhouse gas mitigation potential Anand A. A P Verayiah R. Mansor M. Tengku Hasim T.J. Shukla A. Panchal H. Sharma A. L. N. Kumar A. 56026687500 58746921000 6701749037 58746866600 57195537828 55573559000 56593971100 56871260100 58951802600 Carbon Climate change Economic analysis Emission control Greenhouse gases Housing Investments Solar power generation Building integrated photovoltaic Building integrated photovoltaic system Climate change mitigation Economics analysis Emission reduction Energy analysis GHG emission GHG emission reduction GHGs emissions Small scale Energy conservation The present paper aims to highlight the techno-economic and greenhouse mitigation potential of the small-scale building integrated photovoltaic (BIPV) of 10 kW suitable for residential as well as small commercial agglomerations. To carry out this investigation a mathematical model has been developed utilizing the RetScreen simulation tool. The model has been implemented by choosing various cities across India that are major residential hubs such as Delhi, Lucknow, Indore, Jodhpur, Pune, and Coimbatore. The result showed that the energy production remained highest at Jodhpur i.e. 15678 kWh amounting to Rs. 94107/year of energy savings. The energy payback period (ENPP) for a 10 kW system has been obtained between 6 and 7 years. The highest capacity utilization factor (CUF) was obtained during March but the performance ratio (PR) and efficiency remained highest during December?January (Winter). Jodhpur had the highest net present value (NPV) and profitability index (PI) which indicated that Jodhpur was the most lucrative site among all locations. The simple and the equity payback (SPP and EPP) obtained were between 7.1 and 9.3 years. The Levelized cost of electricity (LCOE) was between Rs. 5.81/kWh- Rs. 6.95/kWh. The result also revealed that the 10 kW BIPV system was capable of reducing 15 tonnes/year of carbon and more than 400 tonnes of carbon in 25 years. The carbon credit earned by a single installation was more than Rs. 70 thousand in a year. If the current model is applied to 3000 households in a locality, there can be 40?50 GWh of energy savings amounting to Rs. 230?280 million. ? 2023 Elsevier Ltd Final 2025-03-03T07:44:19Z 2025-03-03T07:44:19Z 2024 Article 10.1016/j.jobe.2023.108232 2-s2.0-85178659890 https://www.scopus.com/inward/record.uri?eid=2-s2.0-85178659890&doi=10.1016%2fj.jobe.2023.108232&partnerID=40&md5=bb25eda5d8931cfdf806d5bd9041e0a9 https://irepository.uniten.edu.my/handle/123456789/36741 82 108232 Elsevier Ltd Scopus
institution Universiti Tenaga Nasional
building UNITEN Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Tenaga Nasional
content_source UNITEN Institutional Repository
url_provider http://dspace.uniten.edu.my/
topic Carbon
Climate change
Economic analysis
Emission control
Greenhouse gases
Housing
Investments
Solar power generation
Building integrated photovoltaic
Building integrated photovoltaic system
Climate change mitigation
Economics analysis
Emission reduction
Energy analysis
GHG emission
GHG emission reduction
GHGs emissions
Small scale
Energy conservation
spellingShingle Carbon
Climate change
Economic analysis
Emission control
Greenhouse gases
Housing
Investments
Solar power generation
Building integrated photovoltaic
Building integrated photovoltaic system
Climate change mitigation
Economics analysis
Emission reduction
Energy analysis
GHG emission
GHG emission reduction
GHGs emissions
Small scale
Energy conservation
Anand A.
A P Verayiah R.
Mansor M.
Tengku Hasim T.J.
Shukla A.
Panchal H.
Sharma A.
L. N.
Kumar A.
A comprehensive analysis of small-scale building integrated photovoltaic system for residential buildings: Techno-economic benefits and greenhouse gas mitigation potential
description The present paper aims to highlight the techno-economic and greenhouse mitigation potential of the small-scale building integrated photovoltaic (BIPV) of 10 kW suitable for residential as well as small commercial agglomerations. To carry out this investigation a mathematical model has been developed utilizing the RetScreen simulation tool. The model has been implemented by choosing various cities across India that are major residential hubs such as Delhi, Lucknow, Indore, Jodhpur, Pune, and Coimbatore. The result showed that the energy production remained highest at Jodhpur i.e. 15678 kWh amounting to Rs. 94107/year of energy savings. The energy payback period (ENPP) for a 10 kW system has been obtained between 6 and 7 years. The highest capacity utilization factor (CUF) was obtained during March but the performance ratio (PR) and efficiency remained highest during December?January (Winter). Jodhpur had the highest net present value (NPV) and profitability index (PI) which indicated that Jodhpur was the most lucrative site among all locations. The simple and the equity payback (SPP and EPP) obtained were between 7.1 and 9.3 years. The Levelized cost of electricity (LCOE) was between Rs. 5.81/kWh- Rs. 6.95/kWh. The result also revealed that the 10 kW BIPV system was capable of reducing 15 tonnes/year of carbon and more than 400 tonnes of carbon in 25 years. The carbon credit earned by a single installation was more than Rs. 70 thousand in a year. If the current model is applied to 3000 households in a locality, there can be 40?50 GWh of energy savings amounting to Rs. 230?280 million. ? 2023 Elsevier Ltd
author2 56026687500
author_facet 56026687500
Anand A.
A P Verayiah R.
Mansor M.
Tengku Hasim T.J.
Shukla A.
Panchal H.
Sharma A.
L. N.
Kumar A.
format Article
author Anand A.
A P Verayiah R.
Mansor M.
Tengku Hasim T.J.
Shukla A.
Panchal H.
Sharma A.
L. N.
Kumar A.
author_sort Anand A.
title A comprehensive analysis of small-scale building integrated photovoltaic system for residential buildings: Techno-economic benefits and greenhouse gas mitigation potential
title_short A comprehensive analysis of small-scale building integrated photovoltaic system for residential buildings: Techno-economic benefits and greenhouse gas mitigation potential
title_full A comprehensive analysis of small-scale building integrated photovoltaic system for residential buildings: Techno-economic benefits and greenhouse gas mitigation potential
title_fullStr A comprehensive analysis of small-scale building integrated photovoltaic system for residential buildings: Techno-economic benefits and greenhouse gas mitigation potential
title_full_unstemmed A comprehensive analysis of small-scale building integrated photovoltaic system for residential buildings: Techno-economic benefits and greenhouse gas mitigation potential
title_sort comprehensive analysis of small-scale building integrated photovoltaic system for residential buildings: techno-economic benefits and greenhouse gas mitigation potential
publisher Elsevier Ltd
publishDate 2025
_version_ 1825816072890089472
score 13.244413