Theoretical modeling, near-optimum design and predicted performance of n/sup +/pp/sup +/ and p/sup +/nn/sup +/ indium phosphide homojunction solar cells
C. Goradia, William Thesling, I. Weinberg
Abstract
C. Goradia, William Thesling, I. Weinberg
Abstract
Using a detailed simulation model of p/sup +/nn/sup +/ and n/sup +/pp/sup +/ indium phosphide (InP) homojunction solar cells, the authors have conducted extensive parametric variation computer simulation runs to help arrive at near-optimum designs of these two solar cell configurations. Values of all the geometrical and material parameters corresponding to the near-optimal designs of both these configurations are presented. For each configuration, results are given for parametric variation runs showing how the performance parameters J/sub SC/, V/sub OC/, and eta vary with each of the cell parameters for the near-optimally designed cell.>
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Using a detailed simulation model of p/sup +/nn/sup +/ and n/sup +/pp/sup +/ indium phosphide (InP) homojunction solar cells, the authors have conducted extensive parametric variation computer simulation runs to help arrive at near-optimum designs of these two solar cell configurations. Values of all the geometrical and material parameters corresponding to the near-optimal designs of both these configurations are presented. For each configuration, results are given for parametric variation runs showing how the performance parameters J/sub SC/, V/sub OC/, and eta vary with each of the cell parameters for the near-optimally designed cell.>
Key concepts: Homojunction, Indium phosphide, Solar cell, Parametric statistics, Physics, Materials science, Optoelectronics, Heterojunction