Out of the enormous Solar energy availability at the surface of the earth, if we are able to extract a small amount of available energy then our power demand from conventional sources will be reduced as well as environmental pollution also gets controlled. The major part of NCSE is solar photovoltaic systems, which convert sunlight emitted from the sun into Electrical Energy. For this purpose, Non-conventional sources of energy (NCSE) during recent years gets increased significantly with the increase in load demand in the power system. But in approaching years these resources get condensed day by day and also due to their harmful environmental effects alternate resources should be used.
The simulation and experimental verification using IB Solar-36 polycrystalline modules with varying T and G values for the SPVA are presented.Īt present, conventional energy resources produce a massive amount of energy across the world. These design principles can be applied to simulate the behavior of any large scale SPVA’s which are present in the system. The inverse slope method is used to formulate the Parasitic effects from the datasheets, which will extract the exact performance curves of the SPVA.
To match the simulation performance of the system accurately with the practical model, this paper uses a novel approach for formulating the equations to find the exact values of shunt resistance (R sh) and series resistance (R s) called parasitic effects.
This paper model the SPVM with the datasheet of IB Solar-36 series and these modules are connected in parallel to form the Solar Photovoltaic Array (SPVA) is considered for the result verifications. The design and development of the SPVM are done to extract its electrical characteristics that are subjective to solar irradiance (G) and temperature (T). In the field of Solar systems, it is necessary for every engineer to start with the solar photovoltaic module (SPVM) design, this paper provides a complete mathematical design specification of the SPVM.
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