Output Power Loss of Photovoltaic Panel Due to Dust and Temperature

Abhishek Kumar Tripathi, M. Aruna, Ch. S. N. Murthy

Abstract


Due to increase in power consumption and greenhouse problem all over the world, an alternative source is necessary for generating clean and environmental friendly electric power. In this regard, solar energy could be a good choice of power generation, since the cost of solar panels decreasing rapidly in the past few years.  Moreover, solar energy has also become more efficient as compared to other source of energy systems. The performance of solar photovoltaic (PV) panel depends on the incoming light to panel surface and it is governed by environmental parameters, mainly dust and temperature. Dust shading creates a barrier in the path of incoming sun light, which reduces the amount of sunlight falling on photovoltaic panel surface, and hence power output and performance of panel reduces significantly. The increase in temperature above maximum power point temperature results in power output loss of panel. This paper presents the phenomena of performance degradation of PV panel due to dust shading and temperature.


Keywords


Photovoltaic panel; Fossil fuel; Dust; Sun light

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References


Kothari D.P, Singal K.C, Rakesh R. Renewable Energy Source and Emerging Technologies. New Delhi: PHI Learning Private, 2009.

El-Shobokshy MS, Mujahid A, Zakzouk AK. Effects of dust on the performance of concentrator photovoltaic cells. IEE Proceedings I-Solid-State and Electron Devices. 1985 Feb;132(1):5-8.

Klugmann-Radziemska E. Degradation of electrical performance of a crystalline photovoltaic module due to dust deposition in northern Poland. Renewable Energy. 2015 Jun 30;78:418-26.

Alonso-García MC, Ruiz JM, Herrmann W. Computer simulation of shading effects in photovoltaic arrays. Renewable energy. 2006 Oct 31;31(12):1986-93.

Mahfoud A, Mekhilef, S, Djahli F. Effect of Temperature on the GaInP/GaAs Tandem Solar Cell Performances. International Journal of Renewable Energy Research (IJRER), 2015; 5(2): 629-634.

Molenbroek E, Waddington DW, Emery KA. Hot spot susceptibility and testing of PV modules. InPhotovoltaic Specialists Conference, 1991, Conference Record of the Twenty Second IEEE 1991 Oct 7 (pp. 547-552). IEEE.

Touati FA, Al-Hitmi MA, Bouchech HJ. Study of the Effects of Dust, Relative Humidity, and Temperature on Solar PV Performance in Doha: Comparison Between Monocrystalline and Amorphous PVS. International journal of green energy. 2013 Aug 9;10(7):680-9.

Krauter S. Increased electrical yield via water flow over the front of photovoltaic panels. Solar energy materials and solar cells. 2004 May 1;82(1):131-7.

Schwingshackl C, Petitta M, Wagner JE, Belluardo G, Moser D, Castelli M, Zebisch M, Tetzlaff A. Wind effect on PV module temperature: Analysis of different techniques for an accurate estimation. Energy Procedia. 2013 Dec 31;40:77-86.

Migan G.A. Study the operating temperature of a PV module. Project Report 2013 MVK160 Heat and Mass Transfer, Lund Sweden.




DOI (PDF): https://doi.org/10.20508/ijrer.v7i1.4995.g7010

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