Symmetrical Al sub(2)O sub(3)-based passivation layers for p- and n-type silicon
The Al[sub 2]O[sub 3] nanolayers, as currently used in the solar industry, provide excellent passivation over the entire injection level range for p-type Si. A high concentration of negative fixed charges guarantees excellent field effect passivation. However, on n-type Si, those fixed charges creat...
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Veröffentlicht in: | Solar energy materials and solar cells 2014-02, Vol.131, p.72-76 |
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creator | Simon, Daniel K Jordan, Paul M Dirnstorfer, Ingo Benner, Frank Richter, Claudia Mikolajick, Thomas |
description | The Al[sub 2]O[sub 3] nanolayers, as currently used in the solar industry, provide excellent passivation over the entire injection level range for p-type Si. A high concentration of negative fixed charges guarantees excellent field effect passivation. However, on n-type Si, those fixed charges create an inversion layer at the surface, which opens an additional near-surface recombination channel. This results in a reduced minority carrier lifetime at low injection levels, which is the operation condition of solar cells. In this work, a passivation layer stack is presented, showing excellent performance within the complete injection level range symmetrically for both p- and n-type Si. This layer stack consists of 20 nm Al[sub 2]O[sub 3] combined with a thin Hf)[sub 2] or SiO[sub 2] interface. The comparison of both passivation stacks shows that the introduction of an ultrathin HfO[sub 2] interface is the most promising approach to achieve a symmetrical passivation layer for p- and n-type Si. |
doi_str_mv | 10.1016/j.solmat.2014.06.005 |
format | Article |
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subjects | Channels Minority carriers Passivation Photovoltaic cells Silicon Solar cells Solar energy Stacks |
title | Symmetrical Al sub(2)O sub(3)-based passivation layers for p- and n-type silicon |
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