We present a numerical modeling of the effect of optical pulse position on the impulse response of a GaAs back-gated Metal-Semiconductor-Metal (MSM) photodetector at low bias voltages. The backside contact of the photodetector is set to the floating condition (disconnected from the external circuit). Experimentally the device response to the optical pulse is strong only when the position of the optical pulse is around the anode contact. We have used a one-dimensional time-dependent nonlinear ambipolar transport equation to model this behavior. Our numerical modeling results agree well with the reported experimental findings
We have simulated the transient response of metal\u2013semiconductor\u2013metal (MSM) photodetectors...
We use a two-dimensional, drift-diffusion calculation to illustrate the physics behind the recently ...
The carrier density for a photoconductive switch is described by a single linear rate equation that ...
We present a numerical modeling of the effect of optical pulse position on the impulse response of a...
Photocurrents in a GaAs metal-semiconductor-metal (MSM) photodetector have been numerically modelled...
Photocurrents in a GaAs metal-semiconductor-metal (MSM) photodetector have been numerically modelled...
Photocurrents in a GaAs metal-semiconductor-metal (MSM) photodetector have been numerically modelled...
We have simulated the carrier concentration and temporal response characteristics of a Back-Gated Me...
We have simulated the carrier concentration and temporal response characteristics of a Back-Gated Me...
© 2014, Shiraz University. All rights reserved. We have simulated the carrier concentration and temp...
A numerical method for describing the electrical response of a Back-Gated Metal-Semiconductor- Metal...
A numerical method for describing the electrical response of a Back-Gated Metal-Semiconductor- Metal...
As symmetrical data characteristics I (V) of the Metal-Semiconductor-Metal (MSM) photodetector, we w...
We present a comprehensive theoretical and experimental analysis of the current response of GaAs met...
The partial illumination of a metal-semiconductor-metal photodetector (MSM-PD) was modeled using a o...
We have simulated the transient response of metal\u2013semiconductor\u2013metal (MSM) photodetectors...
We use a two-dimensional, drift-diffusion calculation to illustrate the physics behind the recently ...
The carrier density for a photoconductive switch is described by a single linear rate equation that ...
We present a numerical modeling of the effect of optical pulse position on the impulse response of a...
Photocurrents in a GaAs metal-semiconductor-metal (MSM) photodetector have been numerically modelled...
Photocurrents in a GaAs metal-semiconductor-metal (MSM) photodetector have been numerically modelled...
Photocurrents in a GaAs metal-semiconductor-metal (MSM) photodetector have been numerically modelled...
We have simulated the carrier concentration and temporal response characteristics of a Back-Gated Me...
We have simulated the carrier concentration and temporal response characteristics of a Back-Gated Me...
© 2014, Shiraz University. All rights reserved. We have simulated the carrier concentration and temp...
A numerical method for describing the electrical response of a Back-Gated Metal-Semiconductor- Metal...
A numerical method for describing the electrical response of a Back-Gated Metal-Semiconductor- Metal...
As symmetrical data characteristics I (V) of the Metal-Semiconductor-Metal (MSM) photodetector, we w...
We present a comprehensive theoretical and experimental analysis of the current response of GaAs met...
The partial illumination of a metal-semiconductor-metal photodetector (MSM-PD) was modeled using a o...
We have simulated the transient response of metal\u2013semiconductor\u2013metal (MSM) photodetectors...
We use a two-dimensional, drift-diffusion calculation to illustrate the physics behind the recently ...
The carrier density for a photoconductive switch is described by a single linear rate equation that ...