Universal quantum computer based on Carbon Nanotube Rotators
Motohiko Ezawa, Shun Yasunaga, Tetsuya Iizuka, Akio Higo, Yoshio Mita

TL;DR
This paper introduces a universal quantum computing scheme using a chain of carbon nanotube rotators, where qubits are encoded in rotational angles and quantum gates are implemented via electrostatic control.
Contribution
It proposes a novel quantum computing architecture based on carbon nanotube rotators, demonstrating how to realize universal quantum gates through electrostatic manipulation.
Findings
Constructed a universal set of quantum gates using nanotube rotators.
Encoded qubits in rotational angles of nanotube rotators.
Showed feasibility of controlling gates via voltage adjustments.
Abstract
We propose a universal quantum computer based on a chain of carbon nanotube rotators where one metallic plate is attached to each rotator. The dynamical variable is the rotational angle . The attached plate connected to ground electrostatically interacts with two fixed plates. Two angle positions are made stable by applying a voltage difference between the attached plate and the two fixed plates. We assign and to the qubit states and . Then, considering a chain of rotators, we construct the arbitrary phase-shift gate, the NOT gate and the Ising gate, which constitute a set of universal quantum gates. They are executed by controlling the voltage between various plates.
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Taxonomy
TopicsQuantum Computing Algorithms and Architecture · Quantum-Dot Cellular Automata · Quantum Information and Cryptography
