Qubit Entanglement Using Doped Carbon Nanotubes
Abraham O. Alaka

TL;DR
This paper theoretically investigates doped carbon nanotubes connected by a chemical bond as a potential solid-state qubit teleportation gate, demonstrating entanglement and simulating qubit transit.
Contribution
It introduces a novel design using doped carbon nanotubes for qubit teleportation, showing entanglement generation and qubit transit simulation.
Findings
System provides necessary entanglement for qubit teleportation.
Simulated qubit transit using time-dependent density functional theory.
Discussed implications of the proposed design.
Abstract
We study theoretically, two doped Carbon nanotubes connected via a chemically active bond as the basic elementary gate for a recent proposal for qubit teleportation in the solid--state. We show that such a system provides the necessary entanglement between electron and electron--hole that is necessary for qubit teleportation. We simulate the transit of a defined qubit using time--dependent density functional theory within our structure. Finally, we critically discuss the implications of our design.
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Taxonomy
TopicsQuantum-Dot Cellular Automata · Quantum Computing Algorithms and Architecture · Molecular Communication and Nanonetworks
