Optical model for simulation and optimization of luminescent down-shifting layers filled with phosphor particles for photovoltaics

Lipovsek B, Solodovnyk A, Forberich K, Stern E, Krc J, Brabec C, Topic M (2015)


Publication Type: Journal article

Publication year: 2015

Journal

Book Volume: 23

Article Number: 00A882

Journal Issue: 15

DOI: 10.1364/OE.23.00A882

Abstract

We developed an optical model for simulation and optimization of luminescent down-shifting (LDS) layers for photovoltaics. These layers consist of micron-sized phosphor particles embedded in a polymer binder. The model is based on ray tracing and employs an effective approach to scattering and photoluminescence modelling. Experimental verification of the model shows that the model accurately takes all the structural parameters and material properties of the LDS layers into account, including the layer thickness, phosphor particle volume concentration, and phosphor particle size distribution. Finally, using the verified model, complete organic solar cells on glass substrate covered with the LDS layers are simulated. Simulations reveal that an optimized LDS layer can result in more than 6% larger short-circuit current of the solar cell.

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APA:

Lipovsek, B., Solodovnyk, A., Forberich, K., Stern, E., Krc, J., Brabec, C., & Topic, M. (2015). Optical model for simulation and optimization of luminescent down-shifting layers filled with phosphor particles for photovoltaics. Optics Express, 23(15). https://doi.org/10.1364/OE.23.00A882

MLA:

Lipovsek, Benjamin, et al. "Optical model for simulation and optimization of luminescent down-shifting layers filled with phosphor particles for photovoltaics." Optics Express 23.15 (2015).

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