An energy-based transport model for the analysis of illuminated microwave active devices is presented. The model is based on the Boltzmann's transport equation, with optical carrier generation and carrier recombination accounted for. The simulation results are compared with the conventional local-field mobility models based on drift-diffusion formulations. It is shown that the drift-diffusion models lose their applicability in submicrometer gate-length devices. The presented time-domain model has a great potential in the analysis of microwave devices under ac and pulsed illumination conditions
The availability of an optically controlled integrated microwave source that is compatible with MMIC...
The availability of an optically controlled integrated microwave source that is compatible with MMIC...
Abstract. Enhanced functional integration in modern electron devices requires an accurate modeling o...
An energy-based transport model for the analysis of illuminated microwave active devices is presente...
An energy-based transport model for the analysis of illuminated microwave active devices is presente...
An energy-based transport model for the analysis of illuminated microwave active devices is presente...
This paper presents the characterization of illuminated high-frequency active devices using a time -...
This paper presents the characterization of illuminated high-frequency active devices using a time -...
This paper presents the characterization of illuminated high-frequency active devices using a time -...
This paper presents the characterization of illuminated high-frequency active devices using a time d...
This paper presents the characterization of illuminated high-frequency active devices using a time d...
In microwave GaAs MESFETs, carrier transport is a strong function of carrier energy. When illuminate...
In microwave GaAs MESFETs, carrier transport is a strong function of carrier energy. When illuminate...
In microwave GaAs MESFETs, carrier transport is a strong function of carrier energy. When illuminate...
The availability of an optically controlled integrated microwave source that is compatible with MMIC...
The availability of an optically controlled integrated microwave source that is compatible with MMIC...
The availability of an optically controlled integrated microwave source that is compatible with MMIC...
Abstract. Enhanced functional integration in modern electron devices requires an accurate modeling o...
An energy-based transport model for the analysis of illuminated microwave active devices is presente...
An energy-based transport model for the analysis of illuminated microwave active devices is presente...
An energy-based transport model for the analysis of illuminated microwave active devices is presente...
This paper presents the characterization of illuminated high-frequency active devices using a time -...
This paper presents the characterization of illuminated high-frequency active devices using a time -...
This paper presents the characterization of illuminated high-frequency active devices using a time -...
This paper presents the characterization of illuminated high-frequency active devices using a time d...
This paper presents the characterization of illuminated high-frequency active devices using a time d...
In microwave GaAs MESFETs, carrier transport is a strong function of carrier energy. When illuminate...
In microwave GaAs MESFETs, carrier transport is a strong function of carrier energy. When illuminate...
In microwave GaAs MESFETs, carrier transport is a strong function of carrier energy. When illuminate...
The availability of an optically controlled integrated microwave source that is compatible with MMIC...
The availability of an optically controlled integrated microwave source that is compatible with MMIC...
The availability of an optically controlled integrated microwave source that is compatible with MMIC...
Abstract. Enhanced functional integration in modern electron devices requires an accurate modeling o...