AbstractThe paper is devoted to the identification of the metallic impurities in silicon wafers by using Temperature Dependent Lifetime Spectroscopy (TDLS). We consider the variation of all recombination mechanisms, intrinsic and extrinsic, to follow the variation of lifetime with the temperature. The extrinsic recombination mechanism is based on the standard Shockley-Read-Hall theory (SRH) [1], [2] and we simulated the variation of SRH lifetime for two impurities: gold and iron. The simulation results show that their SRH lifetime variations with the temperature are opposite and that the presence of a peak is characteristic of the impurity studied. Experimental measurements are displayed showing the identification of gold impurity by means ...
Correlations between defect-related luminescence (DRL) and recombination mechanisms of multicrystall...
Lifetime spectroscopy (LS) always allows a complete defect characterization on one single sample if ...
Carrier lifetime is very sensitive to electrically active defects. Apart from detecting the presence...
6th International Conference on Crystalline Silicon Photovoltaics (SiliconPV), CEA INES, Chambery, F...
AbstractThe paper is devoted to the identification of the metallic impurities in silicon wafers by u...
In Silicon, impurities introduce recombination centers and degrade the minority carrier lifetime. It...
Carrier lifetime is very sensitive to electrically active defects. Apart from detecting the presence...
Apart from detecting the presence of electrically active defects, lifetime measurements allow for a ...
AbstractLifetime techniques are frequently used to identify transition metals and to quantify their ...
To demonstrate the full potential of temperature- and injection-dependent lifetime spectroscopy (T-I...
Lifetime spectroscopy (LS) is a highly sensitive diagnostic tool for the identification of impuritie...
As dissolved iron is one of the most common lifetime-killing contaminants in silicon, its coexisting...
Lifetime spectroscopy is one of the most sensitive diagnostic tools for the identification and analy...
The carrier lifetime is very sensitive to electrically active defects. Since the recombination activ...
Temperature- and injection-dependent lifetime measurements have been made on single-crystal silicon ...
Correlations between defect-related luminescence (DRL) and recombination mechanisms of multicrystall...
Lifetime spectroscopy (LS) always allows a complete defect characterization on one single sample if ...
Carrier lifetime is very sensitive to electrically active defects. Apart from detecting the presence...
6th International Conference on Crystalline Silicon Photovoltaics (SiliconPV), CEA INES, Chambery, F...
AbstractThe paper is devoted to the identification of the metallic impurities in silicon wafers by u...
In Silicon, impurities introduce recombination centers and degrade the minority carrier lifetime. It...
Carrier lifetime is very sensitive to electrically active defects. Apart from detecting the presence...
Apart from detecting the presence of electrically active defects, lifetime measurements allow for a ...
AbstractLifetime techniques are frequently used to identify transition metals and to quantify their ...
To demonstrate the full potential of temperature- and injection-dependent lifetime spectroscopy (T-I...
Lifetime spectroscopy (LS) is a highly sensitive diagnostic tool for the identification of impuritie...
As dissolved iron is one of the most common lifetime-killing contaminants in silicon, its coexisting...
Lifetime spectroscopy is one of the most sensitive diagnostic tools for the identification and analy...
The carrier lifetime is very sensitive to electrically active defects. Since the recombination activ...
Temperature- and injection-dependent lifetime measurements have been made on single-crystal silicon ...
Correlations between defect-related luminescence (DRL) and recombination mechanisms of multicrystall...
Lifetime spectroscopy (LS) always allows a complete defect characterization on one single sample if ...
Carrier lifetime is very sensitive to electrically active defects. Apart from detecting the presence...