Software-based solar energy potential assessment for an industrial facility: a case study from Aegean Region of Turkey

Yıl 2022, Cilt: 7 Sayı: 2, 99 - 111, 29.12.2022

Berk Sürücü , Murat Öztürk , Erdem Çiftçi , Azim Doğuş Tuncer

https://doi.org/10.58559/ijes.1160477

Cited By: 2

https://izlik.org/JA43XZ52XW

Öz

Solar energy is considered as one of the clean and sustainable energy sources. As known, big portion of the energy demand in industrial processes are generally met by fossil energy sources. Utilizing renewable and sustainable energy technologies in industrial facilities can decrease negative environmental effects. In this study, applicability of a rooftop solar energy generation system in an industrial building has been analyzed. In the simulation process, PvSOL software has been employed. Considering available areas on the roof of the facility, solar electrical energy generation system with installed power of 573.75 kWp was planned and simulated. Moreover, economic analysis results of the proposed rooftop solar energy system were presented within the scope of this research. According to the economic analysis outcomes, payback period of the proposed rooftop energy system was achieved less than 4 years.

Anahtar Kelimeler

Solar energy , energy potential , photovoltaics , software , PvSOL

Kaynakça

• [1] Demirkesen S, Variyenli HI. The model of ‘free investment and centralised management’ in renewable energy production projects. International Journal of Energy Studies 2021;6(1):1-18.
• [2] Yolcan OO, Köse R. Finding optimum tilt angles of photoltaic panels: Kütahya case study. International Journal of Energy Studies 2020;5(2):89-105.
• [3] Wu H, Deng F, Tan H. Research on parametric design method of solar photovoltaic utilization potential of nearly zero-energy high-rise residential building based on genetic algorithm. Journal of Cleaner Production 2022;368: 133169.
• [4] Ouria M. (2019). Solar energy potential according to climatic and geometrical parameters of cities and buildings: A case-study from Tabriz City-Iran. Urban Climate 2019; 28:100469.
• [5] Li Y, Ding D, Liu C, Wang C. A pixel-based approach to estimation of solar energy potential on building roofs. Energy and Buildings 2016; 129: 563-573.
• [6] Li SY, Han JY. The impact of shadow covering on the rooftop solar photovoltaic system for evaluating self-sufficiency rate in the concept of nearly zero energy building. Sustainable Cities and Society 2022; 80: 103821.
• [7] Behura AK, Kumar A, Rajak DK, Pruncu CI, Lamberti L. Towards better performances for a novel rooftop solar PV system. Solar Energy 2021; 216: 518-529.
• [8] Kumar R, Rajoria CS, Sharma A, Suhag S. Design and simulation of standalone solar PV system using PVsyst Software: A case study. Materials Today: Proceedings 2021; 46: 5322-5328.
• [9] Anang N, Azman SSN, Muda WMW, Dagang AN, Daud MZ. Performance analysis of a grid-connected rooftop solar PV system in Kuala Terengganu, Malaysia. Energy and Buildings, 2021; 248: 111182.
• [10] van Vuuren DJ, Marnewick A, Pretorius JHC. A proposed simulation-based theoretical preconstruction process: The case of solar photovoltaic technology in South African shopping centres. Renewable and Sustainable Energy Reviews 2019;113: 109295.
• [11] Ali H, Khan H A. Techno-economic evaluation of two 42 kWp polycrystalline-Si and CIS thin-film based PV rooftop systems in Pakistan. Renewable Energy 2020;152: 347-357.
• [12] Dehwah AH, Asif M, Rahman MT. Prospects of PV application in unregulated building rooftops in developing countries: A perspective from Saudi Arabia. Energy and Buildings 2018;171: 76-87.
• [13] Odou ODT, Bhandari R, Adamou R. Hybrid off-grid renewable power system for sustainable rural electrification in Benin. Renewable energy 2020;145: 1266-1279.
• [14] Dahmoun MEH, Bekkouche B, Sudhakar K, Guezgouz M, Chenafi A, Chaouch A. (2021). Performance evaluation and analysis of grid-tied large scale PV plant in Algeria. Energy for Sustainable Development 2021; 61: 181-195.
• [15] Redweik P, Catita C, Brito M. Solar energy potential on roofs and facades in an urban landscape. Solar energy 2013; 97: 332-341.
• [16] Ahmed A, Nadeem TB, Naqvi AA, Siddiqui MA, Khan MH, Zahid MSB, Ammar SM. Investigation of PV utilizability on university buildings: A case study of Karachi, Pakistan. Renewable Energy 2022; 195: 238-251.
• [17] Nisar H, Janjua AK, Hafeez H, Shahzad N, Waqas A. Thermal and electrical performance of solar floating PV system compared to on-ground PV system-an experimental investigation. Solar Energy 2022; 241: 231-247.
• [18] Agrawal KK, Jha SK, Mittal RK, Vashishtha S. Assessment of floating solar PV (FSPV) potential and water conservation: case study on Rajghat Dam in Uttar Pradesh, India. Energy for Sustainable Development 2022; 66: 287-295.
• [19] Kechiche OBHB, Hamza M. Enhancement of a commercial PV module performance under Low Concentrated Photovoltaic (LCPV) conditions: A numerical study. Renewable Energy Focus 2022; 41: 258-267.
• [20] Belhaouas N, Mehareb F, Assem H, Kouadri-Boudjelthia E, Bensalem S, Hadjrioua F, Aissaoui A, Bakria K. A new approach of PV system structure to enhance performance of PV generator under partial shading effect. Journal of Cleaner Production 2021; 317: 128349.
• [21] General Directorate of Renewable Energy of Turkey, available at: www.yegm.gov.tr