ADVANCEMENTS IN NANO ELECTRONICS FOR SOLAR ENERGY APPLICATIONS-ENHANCING EFFICIENCY AND PERFORMANCE IN PHOTOVOLTAIC SYSTEMS
Abstract
The growing demand for clean and sustainable energy has driven significant interest in solar energy, particularly in photovoltaic (PV) systems. Traditional silicon-based solar cells have limitations in efficiency and cost-effectiveness. Nanoelectronics, which involves the manipulation of materials at the atomic and molecular levels, offers promising solutions for improving the efficiency and performance of PV systems. The combination of nanomaterials, including quantum dots, nanowires, and graphene, has shown potential to enhance light absorption, charge carrier mobility, and overall system performance. Despite advances in photovoltaic technologies, current commercial solar cells face challenges such as high production costs, limited efficiency under varying environmental conditions, and suboptimal energy conversion rates. Achieving significant improvements in these areas is essential for large-scale deployment of solar energy systems. This study investigates the use of advanced nanoelectronic materials and structures to optimize the performance of PV systems. Quantum dots were combined into multi-junction solar cells to increase the absorption of sunlight across a broader spectrum, while nanowires were used to improve electron transport. Graphene layers were incorporated to enhance the conductivity and reduce resistance in the PV cells. Extensive simulations and experimental testing were conducted under varying environmental conditions, including changes in light intensity and temperature. The combination of nanomaterials led to a significant enhancement in photovoltaic efficiency. The quantum dot-based solar cells achieved a conversion efficiency of 34%, a notable increase from the typical 20% efficiency of traditional silicon cells. Nanowire combination improved charge carrier mobility, reducing recombination losses by 25%. Graphene layers enhanced electrical conductivity, resulting in a 15% improvement in overall system performance. The cost of production was also reduced by 18% due to the use of more abundant materials and streamlined fabrication processes.

Authors
K.R. Chairma Lakshmi
R.M.K. Engineering College, India

Keywords
Nanoelectronics, Photovoltaic Systems, Quantum Dots, Nanowires, Solar Energy Efficiency
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Published By :
ICTACT
Published In :
ICTACT Journal on Microelectronics
( Volume: 10 , Issue: 3 , Pages: 1879 - 1887 )
Date of Publication :
October 2024
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