The quantum channel between two particle detectors provides a prototype framework for the study of wireless quantum communication via relativistic quantum fields. In this article we calculate the classical channel capacity between two Unruh-DeWitt detectors arising from couplings within the perturbative regime. To this end, we identify the detector states which achieve maximal signal strength. We use these results to investigate the impact of relativistic effects on signaling between detectors in inertial and uniformly accelerated motion which communicate via a massless field in Minkowski spacetime
[[abstract]]We study the dynamics of quantum entanglement between two Unruh-DeWitt detectors, one st...
The relativistic quantum protocols realizing the bit commitment and distant coin tossing schemes are...
We investigate a two-level Unruh-DeWitt detector coupled to a massless scalar field or its proper ti...
The quantum channel between two particle detectors provides a prototype framework for the study of w...
We propose a model of communication employing two harmonic oscillator detectors interacting through ...
In this work we study nonperturbatively the transmission of classical and quantum information in glo...
It is shown that an ideal measurement of a one–particle wave packet state of a relativistic quantum ...
In this Ph.D. thesis, I investigate the communication abilities of non-inertial observers and the pr...
We review Unruh-DeWitt detectors and other models of detector-field interaction in a relativistic qu...
An unsolved problem in relativistic quantum information research is how to model efficient, directio...
Wireless communication derives its power from the simultaneous emission of signals in multiple direc...
We study how an arbitrary Gaussian state of two localized wave packets, prepared in an inertial fram...
We introduce a relativistic version of quantum encryption protocol by considering two inertial obser...
Building on the well-known Unruh-Davies effect, we examine the effects of projective measurements an...
Based on homodyne detection, we discuss how the presence of an event horizon affects quantum communi...
[[abstract]]We study the dynamics of quantum entanglement between two Unruh-DeWitt detectors, one st...
The relativistic quantum protocols realizing the bit commitment and distant coin tossing schemes are...
We investigate a two-level Unruh-DeWitt detector coupled to a massless scalar field or its proper ti...
The quantum channel between two particle detectors provides a prototype framework for the study of w...
We propose a model of communication employing two harmonic oscillator detectors interacting through ...
In this work we study nonperturbatively the transmission of classical and quantum information in glo...
It is shown that an ideal measurement of a one–particle wave packet state of a relativistic quantum ...
In this Ph.D. thesis, I investigate the communication abilities of non-inertial observers and the pr...
We review Unruh-DeWitt detectors and other models of detector-field interaction in a relativistic qu...
An unsolved problem in relativistic quantum information research is how to model efficient, directio...
Wireless communication derives its power from the simultaneous emission of signals in multiple direc...
We study how an arbitrary Gaussian state of two localized wave packets, prepared in an inertial fram...
We introduce a relativistic version of quantum encryption protocol by considering two inertial obser...
Building on the well-known Unruh-Davies effect, we examine the effects of projective measurements an...
Based on homodyne detection, we discuss how the presence of an event horizon affects quantum communi...
[[abstract]]We study the dynamics of quantum entanglement between two Unruh-DeWitt detectors, one st...
The relativistic quantum protocols realizing the bit commitment and distant coin tossing schemes are...
We investigate a two-level Unruh-DeWitt detector coupled to a massless scalar field or its proper ti...