A functional cell for quantum-dot cellular automata
Gregory L. Snider, Alexei O. Orlov, Ishamshah Amlani, Gary H. Bernstein, Craig S. Lent, James L. Merz, Wolfgang Porod
Abstract
Gregory L. Snider, Alexei O. Orlov, Ishamshah Amlani, Gary H. Bernstein, Craig S. Lent, James L. Merz, Wolfgang Porod
Abstract
We present experimental demonstration of a basic cell of Quantum-dot Cellular Automata, a transistorless computation paradigm which addresses the issues of device density and interconnection. The devices presented consist of four and six-dot quantum-dot cellular systems where the metal dots are connected by capacitors and tunnel junctions. The operation of a basic cell is confirmed by the externally controlled polarization change of the cell. The cell exhibits a bistable response and voltage gain. We present an experimental technique which cancels the parasitic cross-talk capacitors in the system.
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We present experimental demonstration of a basic cell of Quantum-dot Cellular Automata, a transistorless computation paradigm which addresses the issues of device density and interconnection. The devices presented consist of four and six-dot quantum-dot cellular systems where the metal dots are connected by capacitors and tunnel junctions. The operation of a basic cell is confirmed by the externally controlled polarization change of the cell. The cell exhibits a bistable response and voltage gain. We present an experimental technique which cancels the parasitic cross-talk capacitors in the system.
Key concepts: Quantum dot cellular automaton, Quantum dot, Bistability, Quantum cellular automaton, Cellular automaton, Capacitor, Optoelectronics, Physics