Energy and environmental performance analysis of grid-connected photovoltaic systems under similar outdoor conditions in the Saharan environment
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URMPE/ MESO, M. Bougara University, Boumerdès-35000 Algeria
LAADI, ZianeAchour University, Djelfa-17000 Algeria
Electrical Engineering Faculty of the University of Science and Technology of Oran, Mohamed Boudiaf USTO-MB, BP 1505 El M’naouer, Oran, 31000, Algeria.
Submission date: 2020-02-18
Final revision date: 2020-05-02
Acceptance date: 2020-05-05
Online publication date: 2020-05-06
Publication date: 2020-05-06
Corresponding author
Mohammed Amine Deriche   

URMPE/ MESO, M. Bougara University, Boumerdès-35000 Algeria
Diagnostyka 2020;21(2):13-23
The aim of this paper is to present a one-year performance analysis of four grid-connected PV systems installed at Ghardaia city in Algeria’s Sahara. The PV systems are based on four different PV module technologies which are: monocrystalline silicon (m-Si), multi-crystalline silicon (mc-Si), cadmium telluride (Cd-Te) and amorphous (a-Si) PV module technologies. The thin film technologies have their performance ratio better throughout the year when the performance ratio of the mc-Si technology is better in the winter season. The a-Si PV system has its performance ratio about 6.13 % more better than mc-Si and 8.90 % better than m-Si. It was found that the a-Si PV system performs better than the other technologies under the Saharan climate conditions of Ghardaia city. The energy payback time (EPBT) and greenhouse gases (GHG) emissions of the different PV systems were analysed. The EPBT and GHG emissions per year, vary from a minimum value of 2.8 years to a maximum value of 5.73 years and from 13.24 tons to 32.03 tons of CO2/kWh for CdTe and m-Si respectively. The CdTe PV system performs better in terms of EPBT and GHG emissions compared to the other technologies due to its low life cycle energy requirement.
Holden E, Linnerud K, Banister D. Sustainable development: Our Common Future revisited. Global Environmental Change 2014; 26: 130–139.
Leach G. The energy transition. Energy Policy 1992; 20: 116–123.
Süsser D, Döring M, Ratter BMW. Harvesting energy: Place and local entrepreneurship in community-based renewable energy transition. Energy Policy 2017; 101: 332–341.
Moosavian SM, Rahim NA, Selvaraj J, Solangi KH. Energy policy to promote photovoltaic generation. Renewable and Sustainable Energy Reviews 2013; 25:44–58.
Solé J, García-Olivares A, Turiel A, Ballabrera-Poy J. Renewable transitions and the net energy from oil liquids: A scenarios study. Renewable Energy 2018; 116:258–271.
Renewables 2017: Global Status Report. Montreal, QC, CA: REN21, 2017.
Lai CS, Jia Y, Lai LL, Xu Z, McCulloch MD, Wong KP. A comprehensive review on large-scale photovoltaic system with applications of electrical energy storage. Renewable and Sustainable Energy Reviews 2017;78:439–451.
Freitas S, Santos T, Brito MC. Impact of large scale PV deployment in the sizing of urban distribution transformers. Renewable Energy 2018; 119: 767–776.
Fraunhofer Institute for Solar Energy Systems, ISE, Ed., “PHOTOVOLTAICS REPORT,” Jul. 2017.
Edalati S, Ameri M, Iranmanesh M. Comparative performance investigation of mono- and poly-crystalline silicon photovoltaic modules for use in grid-connected photovoltaic systems in dry climates. Applied Energy 2015;160:255–265.
Humada AM, Hojabri M, Hamada HM, Samsuri FB, Ahmed MN. Performance evaluation of two PV technologies (c-Si and CIS) for building integrated photovoltaic based on tropical climate condition: A case study in Malaysia. Energy and Buildings 2016; 119: 233–241.
Myong SY, Park YC, Jeon SW. Performance of Si-based PV rooftop systems operated under distinct four seasons. Renewable Energy 2015; 81: 482–489.
Başoğlu ME, Kazdaloğlu A, Erfidan T, Bilgin MZ, Çakır B. Performance analyzes of different photovoltaic module technologies under İzmit, Kocaeli climatic conditions. Renewable and Sustainable Energy Reviews 2015; 52: 357–365.
Wang H, Muñoz-García MA, Moreda GP, Alonso-García MC. Seasonal performance comparison of three grid connected photovoltaic systems based on different technologies operating under the same conditions. Solar Energy 2017; 144: 798–807.
Kazem HA, Khatib T, Sopian K, Elmenreich W. Performance and feasibility assessment of a 1.4kW roof top grid-connected photovoltaic power system under desertic weather conditions. Energy and Buildings 2014; 82: 123–129.
Ferrada P, Araya F, Marzo A, Fuentealba E. Performance analysis of photovoltaic systems of two different technologies in a coastal desert climate zone of Chile. Solar Energy 2015; 114: 356–363.
Dabou R, Bouchafaa F, Hadj Arab A, Bouraiou A, Draou MD, Neçaibia A, Mostefaoui M. Monitoring and performance analysis of grid connected photovoltaic under different climatic conditions in south Algeria. Energy Conversion and Management 2016;130:200–206.
IEC 61724: Photovoltaic System Performance Monitoring - Guidelines for Measurement, Data Exchange and Analysis. [Online] Available: Accessed on: Feb. 05 2018.
Khalid AM, Mitra, Warmuth W, Schacht V. Performance ratio – Crucial parameter for grid connected PV plants. Renewable and Sustainable Energy Reviews 2016; 65: 1139–1158.
Kim HC, Fthenakis VM. Life Cycle Energy Demand and Greenhouse Gas Emissions from an Amonix High Concentrator Photovoltaic System. IEEE 4th World Conference on Photovoltaic Energy Conference 2006; 628–631.
Leccisi E, Raugei M, Fthenakis V. The Energy and Environmental Performance of Ground-Mounted Photovoltaic Systems-A Timely Update. Energies 2016; 9: 622.
Sherwani AF, Usmani JA, and Varun. Life cycle assessment of solar PV based electricity generation systems: A review. Renewable and Sustainable Energy Reviews 2010; 14: 540–544.
Van Overstraeten R J. Advances in Silicon Solar Cell Processing. In Photovoltaic Solar Energy Conference: Proceedings of the International Conference, Held at Cannes, France, 1980, W. Palz, Ed., Dordrecht: Springer Verlag; 2013: 257–262.
Peng J, Lu L, Yang H. Review on life cycle assessment of energy payback and greenhouse gas emission of solar photovoltaic systems. Renewable and Sustainable Energy Reviews 2013; 19: 255–274.
Ito M, Kato K, Komoto K, Kichimi T, Kurokawa K. A comparative study on cost and life-cycle analysis for 100 MW very large-scale PV (VLS-PV) systems in deserts using m-Si, a-Si, CdTe, and CIS modules. Prog. Photovolt: Res. Appl. 2008; 16: 17–30.
Alsema EA, Frankl P, Kato K. Energy pay-back time of photovoltaic energy systems: Present status and prospects.(en), 1998.
Wu P, Ma X, Ji J, Ma Y. Review on Life Cycle Assessment of Energy Payback of Solar Photovoltaic Systems and a Case Study. Energy Procedia 2017; 105:68–74.
Brander M, Sood A, Wylie C, Haughton A, Lovell J. Technical Paper| Electricity-specific emission factors for grid electricity. Ecometrica, Emissionfactors. com, 2011.
Daher DH, Gaillard L, Amara M, Ménézo C. Impact of tropical desert maritime climate on the performance of a PV grid-connected power plant. Renewable Energy 2018;125:729–737.
Phinikarides A, Makrides G, Zinsser B, Schubert M, Georghiou GE. Analysis of photovoltaic system performance time series: Seasonality and performance loss. Renewable Energy 2015; 77: 51–63.
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