Energy-tunable sources of entangled photons: a viable concept for solid-state-based quantum relays
Physical review letters, 2015•APS
We propose a new method of generating triggered entangled photon pairs with wavelength
on demand. The method uses a microstructured semiconductor-piezoelectric device
capable of dynamically reshaping the electronic properties of self-assembled quantum dots
(QDs) via anisotropic strain engineering. Theoretical models based on k· p theory in
combination with finite-element calculations show that the energy of the polarization-
entangled photons emitted by QDs can be tuned in a range larger than 100 meV without …
on demand. The method uses a microstructured semiconductor-piezoelectric device
capable of dynamically reshaping the electronic properties of self-assembled quantum dots
(QDs) via anisotropic strain engineering. Theoretical models based on k· p theory in
combination with finite-element calculations show that the energy of the polarization-
entangled photons emitted by QDs can be tuned in a range larger than 100 meV without …
We propose a new method of generating triggered entangled photon pairs with wavelength on demand. The method uses a microstructured semiconductor-piezoelectric device capable of dynamically reshaping the electronic properties of self-assembled quantum dots (QDs) via anisotropic strain engineering. Theoretical models based on theory in combination with finite-element calculations show that the energy of the polarization-entangled photons emitted by QDs can be tuned in a range larger than 100 meV without affecting the degree of entanglement of the quantum source. These results pave the way towards the deterministic implementation of QD entanglement resources in all-electrically-controlled solid-state-based quantum relays.
American Physical Society
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