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Plasmonic Solar Cells, a New Way to Enhance Energy Conversion Efficiency: Analysis and Modeling of Effect of Metal Geometry
Author(s) -
Farshad Farhadnia,
Ali Rostami,
Samiey Matloub
Publication year - 2019
Publication title -
international journal of optics and photonics
Language(s) - English
Resource type - Journals
eISSN - 2538-4007
pISSN - 1735-8590
DOI - 10.29252/ijop.13.1.61
Subject(s) - plasmon , energy conversion efficiency , materials science , energy transformation , geometry , optoelectronics , solar cell efficiency , plasmonic solar cell , efficient energy use , solar energy , optics , engineering physics , solar cell , physics , engineering , polymer solar cell , electrical engineering , mathematics , thermodynamics
In this article, the effect of plasmonic properties of metal nanoparticles with different shapes, and moreover, their plasmonic-photonic interaction, on solar cell performance were investigated and simulated. Because of low conversion efficiency and then high cost of solar cells, it is difficult to commercialize and replace them with conventional energy resources. But in recent years, the plasmonic solar cell has been very popular. In this study, it is shown that the enhancement of near-field electromagnetic waves severely affects the generation rate, which handles the carrier’s generation in the solar cell equations and causes alteration of the photocurrent. This means that by manipulating the plasmonic properties of nanoparticles (shape and density) and their interaction with photons in solar cell structure, distribution of electromagnetic fields will be altered. Hence, the optical power related to the poynting vector is changed. So, with the aim of improving the solar cell some important parameters such as alteration of nanoparticle shape and their interdistance were investigated. Finally, a comparison between traditional solar cells and our improved structure was undertaken.

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