These are exciting times for quantum physics as new quantum technologies are expected to
soon transform computing at an unprecedented level. Simultaneously network science is …

In this work, we present (and encourage the use of) the Williamson theorem and its
consequences in several contexts in physics. We demonstrate this theorem using only basic …

We apply reverse engineering to find electromagnetic pulses that allow for the control of
populations in quantum systems under dephasing and thermal noises. In particular, we …

Considering stationary states of continuous-variable systems undergoing an open
dynamics, we unveil the connection between properties and symmetries of the latter and the …

We analyze the dynamics of quantum correlations between two qubits coupled to a linear
chain of oscillators. The chain mediates interactions between the qubits and acts as a non …

Abstract The Weyl–Wigner representations for canonical thermal equilibrium quantum states
are obtained for the whole class of quadratic Hamiltonians through a Wick rotation of the …

Quantum state transfer is the act of transferring quantum information from one system in a
quantum network to another without physically transporting carriers of quantum information …

Trapped ions driven by electromagnetic radiation constitute one of the most developed
quantum technologies to date. The scenarios range from proof-of-principle experiments to …

We study the propagation of different types of correlations through a quantum bus formed by
a chain of coupled harmonic oscillators. This includes steering, entanglement, mutual …

The goal in quantum state transfer is to avoid the need to physically transport carriers of
quantum information. This is achieved by using a suitably engineered Hamiltonian that …