Numerical Study of a Solar Cell to Achieve the Highest InGaN Power Conversion Efficiency for the Whole In-Content Range

Author:

Martínez-Revuelta Rubén,Solís-Cisneros Horacio I.,Trejo-Hernández RaúlORCID,Pérez-Patricio MadaínORCID,Paniagua-Chávez Martha L.,Grajales-Coutiño Rubén,Camas-Anzueto Jorge L.,Hernández-Gutiérrez Carlos A.ORCID

Abstract

A solar cell structure with a graded bandgap absorber layer based on InGaN has been proposed to overcome early predicted efficiency. Technological issues such as carrier concentration in the p- and n-type are based on the data available in the literature. The influence of carrier concentration-dependent mobility on the absorber layer has been studied, obtaining considerable improvements in efficiency and photocurrent density. Efficiency over the tandem solar cell theoretical limit has been reached. A current density of 52.95 mA/cm2, with an efficiency of over 85%, is determined for a PiN structure with an InGaN step-graded bandgap absorption layer and 65.44% of power conversion efficiency for the same structure considering piezoelectric polarization of fully-strained layers and interfaces with electron and hole surface recombination velocities of 10−3 cm/s.

Funder

Instituto de Ciencia, Tecnología e Innovación del Estado de Chiapas

Publisher

MDPI AG

Subject

Electrical and Electronic Engineering,Mechanical Engineering,Control and Systems Engineering

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