Simulation based IV Characteristics Analysis of GaAs and InP Solar Cell
Sana Moin, Sadia Muniza Faraz
Abstract
Sana Moin, Sadia Muniza Faraz
Abstract
This paper presents the simulation of currentvoltage (IV) characteristics and analysis of III-V semiconductors, Gallium Arsenide (GaAs) and Indium Phosphide (InP) homojunction solar cell under standard illumination AirMass-1.5D (AM1.5D) spectrum using MicroTec-simulator. The IV characteristics curves signify the use of GaAs with 86.22% Fill Factor (FF) and 28.5% efficiency than InP with 82.48% FF and 24% efficiency in photovoltaic (PV) unit. The influence of change in doping profile and temperature of GaAs solar cell is simulated for improving the device performance. Due to the substantial increase in base doping concentration, increase in Maximum Power Output (Pm), FF and efficiency have been noticed. We have observed 0.684% per °C decrease in Pm along with 0.1% per °C decrease in efficiency from the GaAs photovoltaic cell.
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This paper presents the simulation of currentvoltage (IV) characteristics and analysis of III-V semiconductors, Gallium Arsenide (GaAs) and Indium Phosphide (InP) homojunction solar cell under standard illumination AirMass-1.5D (AM1.5D) spectrum using MicroTec-simulator. The IV characteristics curves signify the use of GaAs with 86.22% Fill Factor (FF) and 28.5% efficiency than InP with 82.48% FF and 24% efficiency in photovoltaic (PV) unit. The influence of change in doping profile and temperature of GaAs solar cell is simulated for improving the device performance. Due to the substantial increase in base doping concentration, increase in Maximum Power Output (Pm), FF and efficiency have been noticed. We have observed 0.684% per °C decrease in Pm along with 0.1% per °C decrease in efficiency from the GaAs photovoltaic cell.
Key concepts: Homojunction, Indium phosphide, Gallium arsenide, Solar cell, Optoelectronics, Materials science, Photovoltaic system, Doping