In this work we investigate and compare the electrostatics of fully-depleted cylindrical nanowire (CNW) FETs, rectangular nanowire (RNW) FETs, FinFETs and gate-all-around carbon-nanotube (GAA-CNT) FETs at extreme miniaturization limits. In doing so, we rigorously solve the coupled Schroedinger-Poisson equations within the device cross sections and fully account for quantum-mechanical effects. The investigation leads to the conclusion that, for an assigned threshold voltage, the gate-all-around CNT-FET offers superior properties due to the confinement of the gate-induced charge at the surface of the nanotube
In this work we investigate the electrostatics of of the top-gate carbon-nanotube FET (CNT-FET) and...
In this work we investigate the electrostatics of of the top-gate carbon-nanotube FET (CNT-FET) and...
none5In this work we investigate the electrostatics of of the top-gate carbon-nanotube FET (CNT-FET...
In this work we investigate and compare the electrostatics of fully-depleted cylindrical nanowire (...
none5In this work we investigate and compare the electrostatics of fully-depleted cylindrical nanow...
In this work we investigate and compare the electrostatics of fully depleted cylindrical silicon-nan...
In this work we investigate and compare the electrostatics of fully depleted cylindrical silicon-nan...
In this work we investigate and compare the electrostatics of fully depleted cylindrical silicon-nan...
In this work we investigate the performance of silicon nanowire and carbon-nanotube FETs at their ex...
In this work we investigate the performance of silicon nanowire and carbon-nanotube FETs at their ex...
In this work we investigate the performance of silicon nanowire and carbon-nanotube FETs at their ex...
none5In this work we investigate the electrostatics of the silicon-based Pi-gate FET and the top-ga...
none5In this work we investigate the electrostatics of the silicon-based Pi-gate FET and the top-ga...
none5In this work we investigate the electrostatics of the silicon-based Pi-gate FET and the top-ga...
In this work we investigate the performance of cylindrical nanowire (CNW) and carbon-nanotube (CNT) ...
In this work we investigate the electrostatics of of the top-gate carbon-nanotube FET (CNT-FET) and...
In this work we investigate the electrostatics of of the top-gate carbon-nanotube FET (CNT-FET) and...
none5In this work we investigate the electrostatics of of the top-gate carbon-nanotube FET (CNT-FET...
In this work we investigate and compare the electrostatics of fully-depleted cylindrical nanowire (...
none5In this work we investigate and compare the electrostatics of fully-depleted cylindrical nanow...
In this work we investigate and compare the electrostatics of fully depleted cylindrical silicon-nan...
In this work we investigate and compare the electrostatics of fully depleted cylindrical silicon-nan...
In this work we investigate and compare the electrostatics of fully depleted cylindrical silicon-nan...
In this work we investigate the performance of silicon nanowire and carbon-nanotube FETs at their ex...
In this work we investigate the performance of silicon nanowire and carbon-nanotube FETs at their ex...
In this work we investigate the performance of silicon nanowire and carbon-nanotube FETs at their ex...
none5In this work we investigate the electrostatics of the silicon-based Pi-gate FET and the top-ga...
none5In this work we investigate the electrostatics of the silicon-based Pi-gate FET and the top-ga...
none5In this work we investigate the electrostatics of the silicon-based Pi-gate FET and the top-ga...
In this work we investigate the performance of cylindrical nanowire (CNW) and carbon-nanotube (CNT) ...
In this work we investigate the electrostatics of of the top-gate carbon-nanotube FET (CNT-FET) and...
In this work we investigate the electrostatics of of the top-gate carbon-nanotube FET (CNT-FET) and...
none5In this work we investigate the electrostatics of of the top-gate carbon-nanotube FET (CNT-FET...