Microscopic optoelectronic defectoscopy of solar cells
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Škarvada, Pavel
Tománek, Pavel
Koktavý, Pavel
Sobola, Dinara
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Mark
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EDP Sciences
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Abstract
Scanning probe microscopes are powerful tool for micro- or nanoscale diagnostics of defects in crystalline silicon solar cells. Solar cell is a large p-n junction semiconductor device. Its quality is strongly damaged by the presence of defects. If the cell works under low reverse-biased voltage, defects emit a light in visible range. The suggested method combines three different measurements: electric noise measurement, local topography and near-field optical beam induced current and thus provides more complex information. To prove its feasibility, we have selected one defect (truncated pyramid) in the sample, which emitted light under low reverse-biased voltage.
Scanning probe microscopes are powerful tool for micro- or nanoscale diagnostics of defects in crystalline silicon solar cells. Solar cell is a large p-n junction semiconductor device. Its quality is strongly damaged by the presence of defects. If the cell works under low reverse-biased voltage, defects emit a light in visible range. The suggested method combines three different measurements: electric noise measurement, local topography and near-field optical beam induced current and thus provides more complex information. To prove its feasibility, we have selected one defect (truncated pyramid) in the sample, which emitted light under low reverse-biased voltage.
Scanning probe microscopes are powerful tool for micro- or nanoscale diagnostics of defects in crystalline silicon solar cells. Solar cell is a large p-n junction semiconductor device. Its quality is strongly damaged by the presence of defects. If the cell works under low reverse-biased voltage, defects emit a light in visible range. The suggested method combines three different measurements: electric noise measurement, local topography and near-field optical beam induced current and thus provides more complex information. To prove its feasibility, we have selected one defect (truncated pyramid) in the sample, which emitted light under low reverse-biased voltage.
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solar cell , defect , noise , topography , induced photocurrent , solar cell , defect , noise , topography , induced photocurrent
Citation
EPJ Web of Conferences. 2013, vol. 48, issue 1, p. 1-4.
https://www.epj-conferences.org/articles/epjconf/abs/2013/09/epjconf_OAM2012_00026/epjconf_OAM2012_00026.html
https://www.epj-conferences.org/articles/epjconf/abs/2013/09/epjconf_OAM2012_00026/epjconf_OAM2012_00026.html
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en
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Except where otherwised noted, this item's license is described as Creative Commons Attribution 2.0 Generic

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