Scientists can establish a necessary condition of entanglement, called quantum correlation, to correlate photons to electrons, so that the photons can act as the messengers of an electron's spin.
Coherent spin-flip scattering off such a quantum impurity correlates the conduction electrons, and at low temperature this leads to a zero-bias conductance anomaly2,3.
Our previous optical investigations of the CdS quantum dots correlate with the present data.
Preiss, P. M. et al. Strongly correlated quantum walks in optical lattices.
This coincidence can be explained via the following intuitive quasi-particle picture: The quantum quench generates correlated particle-hole pairs (analogous to cosmological particle creation, for example [38, 39]) which move away in opposite directions due to quasi-momentum conservation.
Long-lived states, which are correlated quantum states of multiple nuclei, have decay time constants that may exceed T1 by large factors.
On the other hand, we observed interesting structure photophysical‐property relationships that depended on the electronic character of the R′ substituent: Whereas the emission wavelength showed an inverse correlation with the Hammett constant, the quantum yield was positively correlated with the Hammett constant (Table 1).
(33) In such a two-dimensional experiment, double quantum coherences due to pairs of dipolar coupled protons are correlated with single quantum coherences, resulting in correlation peaks characteristic for H−H pairs.
Büchler, H. P. et al. Strongly correlated 2D quantum phases with cold polar molecules: controlling the shape of the interaction potential.
Structural descriptors, derived from the minimum energy conformers, obtained by molecular mechanics and semiempirical level quantum chemical calculations, were correlated with dye affinity for cellulose by MLR.
For the case of the as-grown SiO x films, the absorption and emission properties are correlated with quantum effects in Si-nc and defects.
