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Dislocations in laser-doped silicon detected by micro-photoluminescence spectroscopy

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Authors

Nguyen, Hieu T.
Han, Young
Ernst, Marco
Fell, Andreas
Franklin, Evan
Macdonald, Daniel

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American Institute of Physics

Abstract

We report the detection of laser-induced damage in laser-doped layers at the surface of crystalline silicon wafers, via micron-scale photoluminescence spectroscopy. The properties of the sub-band-gap emission from the induced defects are found to match the emission characteristics of dislocations. Courtesy of the high spatial resolution of the micro-photoluminescence spectroscopy technique, micron-scale variations in the extent of damage at the edge of the laser-doped region can be detected, providing a powerful tool to study and optimize laser-doping processes for silicon photovoltaics.

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Applied Physics Letters

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