Regulated and Entangled Photons from a Single Quantum Dot
Oliver Benson, Charles Santori, Matthew Pelton, Y. Yamamoto
Abstract
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Oliver Benson, Charles Santori, Matthew Pelton, Y. Yamamoto
Abstract
Open-access reader
We propose a new method of generating nonclassical optical field states. The method uses a semiconductor device, which consists of a single quantum dot as active medium embedded in a p- i- n junction and surrounded by a microcavity. Resonant tunneling of electrons and holes into the quantum dot ground states, together with the Pauli exclusion principle, produce regulated single photons or regulated pairs of photons. We propose that this device also has the unique potential to generate pairs of entangled photons at a well-defined repetition rate.
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We propose a new method of generating nonclassical optical field states. The method uses a semiconductor device, which consists of a single quantum dot as active medium embedded in a p- i- n junction and surrounded by a microcavity. Resonant tunneling of electrons and holes into the quantum dot ground states, together with the Pauli exclusion principle, produce regulated single photons or regulated pairs of photons. We propose that this device also has the unique potential to generate pairs of entangled photons at a well-defined repetition rate.
Key concepts: Physics, Photon, Pauli exclusion principle, Photon entanglement, Quantum dot, Quantum tunnelling, Quantum mechanics, Quantum optics