Sentence examples for quantum character from inspiring English sources

It takes into account the quantum character of the final state by replacing the Dirac function by an Airy function.

The mobility of the electrons at 4 K can be explained by the quantum character of the conductivity in the vicinity of the carbon layer [18].

The observed motional narrowing of the CRD EPR signal in the temperature interval from 4 to 20 K indicates that electrons are mobile at 4 K which can be explained by a quantum character of the conductivity in the vicinity of the carbon layer.

The motional narrowing of the EPR linewidth was well described by a variable range hopping law at low temperatures and the oscillating character observed for the temperature dependence of the CRD signal intensity at T = 200 440 K was explained by the presence of the carbon nanodots at the SiO2 C surface and quantum character of the carbon layer conductivity.

The observed motional narrowing of the EPR signal linewidth in the temperature interval from 4 to 20 K indicates that the electrons are mobile at 4 K and it can be explained by the quantum character of the conductivity in the vicinity of the carbon layer.

The phonon interaction in the resulting equation still bears the quantum character despite all simplifying assumptions.

It is revealed that the interface in double core QDs has the type II quantum well character that permits to explain the near IR optical transition (1.60 eV) in the double core QDs.

What about the quantum case?

The BH theory, however, differs from these other treatments in its dynamical approach, the treatment of the quantum and dynamical character of the X coordinate, and the simultaneous consideration of the X and S coordinates.

In the ground state, the Ps atom exists as a singlet para-positronium (p-Ps) decaying intrinsically with two γ-quanta and a character lifetime in a vacuum of 0.125 ns, and triplet ortho-positronium (o-Ps) decaying with three γ-quanta and a lifetime of 142 ns.

In some sense this is obvious, given the belief in the universal character of quantum mechanics, and the observation that any quantum computation that is diagonal in the computational basis, i.e., involves no interference between the qubits, is effectively classical.