Can quantum-mechanical particles propagating on a fixed spacetime background be approximated as test bodies satisfying the weak equivalence principle? We ultimately answer the question in the negative but find that, when universality of free-fall is assessed locally, a nontrivial agreement between quantum mechanics and the weak equivalence principle exists. Implications for mass sensing by quantum probes are discussed in some details.ISSN:1742-6588ISSN:1742-659
We use the Feynman path integral approach to nonrelativistic quantum mechanics twofold. First, we de...
We present the scientific motivation for future space tests of the equivalence principle, and in par...
In this work, we present a theoretical and mathematical method based on the theory of elasticity to ...
Can quantum-mechanical particles propagating on a fixed spacetime background be approximated as test...
We address the question whether quantum probes in a gravitational field can be considered as test pa...
We propose an approach that allows to systematically take into account gravity in quantum particle p...
Free fall in a uniform gravitational field is reexamined in the case of quantum states with and with...
Through the contributions of Galileo, Newton, and Einstein, we recall the universality of free fall ...
Through the contributions of Galileo, Newton, and Einstein, we recall the universality of free fall ...
Free fall experiments are discussed by using test masses associated to quantum states not necessaril...
A quantum particle moving in a gravitational field may penetrate the classically forbidden region of...
The universality of free fall and the weak equivalence principle, which are at the basis of general ...
We show by embodying the Einstein equivalence principle and general covariance in quantum theory tha...
We present the scientific motivation for future space tests of the equivalence principle, and in par...
International audienceWhen a light scalar field with gravitational strength interacts with matter, t...
We use the Feynman path integral approach to nonrelativistic quantum mechanics twofold. First, we de...
We present the scientific motivation for future space tests of the equivalence principle, and in par...
In this work, we present a theoretical and mathematical method based on the theory of elasticity to ...
Can quantum-mechanical particles propagating on a fixed spacetime background be approximated as test...
We address the question whether quantum probes in a gravitational field can be considered as test pa...
We propose an approach that allows to systematically take into account gravity in quantum particle p...
Free fall in a uniform gravitational field is reexamined in the case of quantum states with and with...
Through the contributions of Galileo, Newton, and Einstein, we recall the universality of free fall ...
Through the contributions of Galileo, Newton, and Einstein, we recall the universality of free fall ...
Free fall experiments are discussed by using test masses associated to quantum states not necessaril...
A quantum particle moving in a gravitational field may penetrate the classically forbidden region of...
The universality of free fall and the weak equivalence principle, which are at the basis of general ...
We show by embodying the Einstein equivalence principle and general covariance in quantum theory tha...
We present the scientific motivation for future space tests of the equivalence principle, and in par...
International audienceWhen a light scalar field with gravitational strength interacts with matter, t...
We use the Feynman path integral approach to nonrelativistic quantum mechanics twofold. First, we de...
We present the scientific motivation for future space tests of the equivalence principle, and in par...
In this work, we present a theoretical and mathematical method based on the theory of elasticity to ...