A parameterization for band-to-band Auger recombination in silicon at 300 K is proposed. This general parameterization accurately fits the available experimental lifetime data for arbitrary injection level and arbitrary dopant density, for both n-type and p-type dopants. We confirm that Auger recombination is enhanced above the traditional free-particle rate at both low injection and high injection conditions. Further, the rate of enhancement is shown to be less for highly injected intrinsic silicon than for lowly injected doped silicon, consistent with the theory of Coulomb-enhanced Auger recombination. Variations on the parameterization are discussed
A detailed description, at the atomistic scale, of the dynamics of excess electrons and holes is fun...
The Auger process provides one of the most important nonradiative recombination channels in semicond...
Insitu measurement of the activation kinetics of the slowly forming recombination center (SRC) of th...
An accurate quantitative description of the Auger recombination rate in silicon as a function of the...
In traditional band-to-band Auger recombination theory, the low-injection carrier lifetime is an inv...
Accurate modeling of the intrinsic recombination in silicon is important for device simulation as we...
AbstractAccurate modeling of the intrinsic recombination in silicon is important for device simulati...
This paper will present the accurate determination of the bulk lifetime Ï b of the minority charge c...
The Auger lifetime in crystalline silicon has been measured under high injection conditions using an...
In this paper, for the first time, measurements of differential and actual recombination parameters ...
In this paper, for the first time, measurements of differential and actual recombination parameters ...
Characterisation and optimization of next-generation silicon solar cell concepts rely on an accurate...
Excitonic effects are known to enhance the rate of intrinsic recombination processes in crystalline ...
The characteristics of the band-to-band Auger recombination in Czochralski-grown high resistivity Si...
International audienceTheoretical and experimental results are presented providing evidence for fast...
A detailed description, at the atomistic scale, of the dynamics of excess electrons and holes is fun...
The Auger process provides one of the most important nonradiative recombination channels in semicond...
Insitu measurement of the activation kinetics of the slowly forming recombination center (SRC) of th...
An accurate quantitative description of the Auger recombination rate in silicon as a function of the...
In traditional band-to-band Auger recombination theory, the low-injection carrier lifetime is an inv...
Accurate modeling of the intrinsic recombination in silicon is important for device simulation as we...
AbstractAccurate modeling of the intrinsic recombination in silicon is important for device simulati...
This paper will present the accurate determination of the bulk lifetime Ï b of the minority charge c...
The Auger lifetime in crystalline silicon has been measured under high injection conditions using an...
In this paper, for the first time, measurements of differential and actual recombination parameters ...
In this paper, for the first time, measurements of differential and actual recombination parameters ...
Characterisation and optimization of next-generation silicon solar cell concepts rely on an accurate...
Excitonic effects are known to enhance the rate of intrinsic recombination processes in crystalline ...
The characteristics of the band-to-band Auger recombination in Czochralski-grown high resistivity Si...
International audienceTheoretical and experimental results are presented providing evidence for fast...
A detailed description, at the atomistic scale, of the dynamics of excess electrons and holes is fun...
The Auger process provides one of the most important nonradiative recombination channels in semicond...
Insitu measurement of the activation kinetics of the slowly forming recombination center (SRC) of th...