On ultra-low power hybrid NEMS-CMOS
Valeriu Beiu, Walid Ibrahim, Mihai Tache, T.-J. King Liu
Abstract
Valeriu Beiu, Walid Ibrahim, Mihai Tache, T.-J. King Liu
Abstract
In this paper we advocate the use of nano-electromechanical switches (NEMS) to eliminate static power consumption, and propose a dual-voltage hybrid NEMS-CMOS scheme to also reduce dynamic power consumption. The main idea is to use a smaller voltage to propagate information, and a larger voltage to drive the NEMS. CMOS amplifiers can be used to interface these two voltages. It follows that synthesizing gates with a large(r) number of inputs is beneficial, which matches very well the optimal NEMS circuit topology. Simulation results based on a particular 4-input Boolean function, show that significant power reductions can be expected when using such a hybrid design approach.
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In this paper we advocate the use of nano-electromechanical switches (NEMS) to eliminate static power consumption, and propose a dual-voltage hybrid NEMS-CMOS scheme to also reduce dynamic power consumption. The main idea is to use a smaller voltage to propagate information, and a larger voltage to drive the NEMS. CMOS amplifiers can be used to interface these two voltages. It follows that synthesizing gates with a large(r) number of inputs is beneficial, which matches very well the optimal NEMS circuit topology. Simulation results based on a particular 4-input Boolean function, show that significant power reductions can be expected when using such a hybrid design approach.
Key concepts: Nanoelectromechanical systems, CMOS, Voltage, Amplifier, Electronic engineering, Power (physics), Topology (electrical circuits), Low-power electronics