“…Because we used block-shaped profiles in the simulations, from which the results are in agreement with the measurements, we may say that the exact shape of the doping profile is not important rather the integral P CH , as described in (9). This could drastically simplify the (analytical) calculations with (7a) and (9).…”
Section: Resultsmentioning
confidence: 95%
“…We can use (7a), (9), and (12) for qualitatively understanding the experimental and simulation data discussed in Section III.…”
Section: Basic Theorymentioning
confidence: 99%
“…In [9], it was stated that the surface-potential variation in the channel of pocket-implanted devices is important, which partly explains the physics behind the subthreshold current.…”
In this work, we analyzed the subthreshold current (I D) of pocket implanted MOSFETs using extensive device simulations and experimental data. We present an analytical model for the subthreshold current applicable for any type of FET and show that the subthreshold current of nMOSFETs, which is mainly due to diffusion, is determined by the internal two-dimensional hole distribution across the device. This hole distribution is affected by the electric potential of the gate and the doping concentration in the channel. The results obtained allow accurate modelling of the subthreshold current of future generation MOS devices.
“…Because we used block-shaped profiles in the simulations, from which the results are in agreement with the measurements, we may say that the exact shape of the doping profile is not important rather the integral P CH , as described in (9). This could drastically simplify the (analytical) calculations with (7a) and (9).…”
Section: Resultsmentioning
confidence: 95%
“…We can use (7a), (9), and (12) for qualitatively understanding the experimental and simulation data discussed in Section III.…”
Section: Basic Theorymentioning
confidence: 99%
“…In [9], it was stated that the surface-potential variation in the channel of pocket-implanted devices is important, which partly explains the physics behind the subthreshold current.…”
In this work, we analyzed the subthreshold current (I D) of pocket implanted MOSFETs using extensive device simulations and experimental data. We present an analytical model for the subthreshold current applicable for any type of FET and show that the subthreshold current of nMOSFETs, which is mainly due to diffusion, is determined by the internal two-dimensional hole distribution across the device. This hole distribution is affected by the electric potential of the gate and the doping concentration in the channel. The results obtained allow accurate modelling of the subthreshold current of future generation MOS devices.
“…ION 'OFF ratio is found to be higher in case of LACLATI MOSFET as shown in Fig.5. In the LACLATI MOSFETs, that exhibits channel length independent sub-threshold characteristics which will be discussed elsewhere, it is expected that ION 'OFF ratio will increase as Leff decreases [2]. MOSFETs with channellength independent sub-threshold characteristics will have better device performance without increasing standby current.…”
“…The implant can be either symmetrical or asymmetrical with respect to source or drain. It was reported that the threshold voltage roll-off and subthreshold leakage current can be reduced by such implants next to the source /drain (S/D) junction [1][2]. Reduction of short channel effects has also been reported through Large Angle Tilt Implant in asymmetric halo structures [3].…”
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