AbstractIn this contribution, we investigate quantum effects of relic gravitons in a Friedmann–Robertson–Walker (FRW) cosmological background. We reduce the problem to that of a generalized time-dependent harmonic oscillator and find the corresponding exact Schrödinger states with the help of linear invariants and of the dynamical invariant method. Afterwards, we construct Gaussian wave packet states and calculate the quantum dispersions as well as the quantum correlations for each mode of the quantized field
Coherent states and their generalizations, displaced Fock states, are of fundamental importance to q...
Quantum wave packets generally spread in their time evolution except in the special case of harmonic...
We study how quantum correlations survive at large scales in spite of their exposition to stochastic...
AbstractIn this contribution, we investigate quantum effects of relic gravitons in a Friedmann–Rober...
AbstractIn this contribution we use linear invariants and the dynamical invariant method in the fram...
A pure quantum state can be equivalently represented by means of its wave function psi(q) or by the ...
The spectrum and amplitude of the stochastic background of relic gravitons produced in a bouncing un...
We study how an arbitrary Gaussian state of two localized wave packets, prepared in an inertial fram...
We examine an extension to the theory of Gaussian wave packet dynamics on a potential surface by mea...
International audienceWe quantise and solve the dynamics of gravitational waves in a quantum Friedma...
discussion clarified, acknowledgements and references added, version accepted in PRDIn homogeneous u...
We investigate the interplay between gravity and the quantum coherence present in the state of a pul...
Owing to the analogy with the ordinary photons in the visible range of the electromagnetic spectrum,...
AbstractWe study the classical and quantum models of a scalar field Friedmann–Robertson–Walker (FRW)...
In the present work, we use the formalism of quantum general relativity in order to quantize a Fried...
Coherent states and their generalizations, displaced Fock states, are of fundamental importance to q...
Quantum wave packets generally spread in their time evolution except in the special case of harmonic...
We study how quantum correlations survive at large scales in spite of their exposition to stochastic...
AbstractIn this contribution, we investigate quantum effects of relic gravitons in a Friedmann–Rober...
AbstractIn this contribution we use linear invariants and the dynamical invariant method in the fram...
A pure quantum state can be equivalently represented by means of its wave function psi(q) or by the ...
The spectrum and amplitude of the stochastic background of relic gravitons produced in a bouncing un...
We study how an arbitrary Gaussian state of two localized wave packets, prepared in an inertial fram...
We examine an extension to the theory of Gaussian wave packet dynamics on a potential surface by mea...
International audienceWe quantise and solve the dynamics of gravitational waves in a quantum Friedma...
discussion clarified, acknowledgements and references added, version accepted in PRDIn homogeneous u...
We investigate the interplay between gravity and the quantum coherence present in the state of a pul...
Owing to the analogy with the ordinary photons in the visible range of the electromagnetic spectrum,...
AbstractWe study the classical and quantum models of a scalar field Friedmann–Robertson–Walker (FRW)...
In the present work, we use the formalism of quantum general relativity in order to quantize a Fried...
Coherent states and their generalizations, displaced Fock states, are of fundamental importance to q...
Quantum wave packets generally spread in their time evolution except in the special case of harmonic...
We study how quantum correlations survive at large scales in spite of their exposition to stochastic...