In most naturally occurring superconductors, electrons with opposite spins form Cooper
pairs. This includes both conventional s-wave superconductors such as aluminium, as well …

We report on conductance measurements in carbon nanotube based double quantum dots
connected to two normal electrodes and a central superconducting finger. By operating our …

Correlations are fundamental in describing many-body systems. However, in experiments,
correlations are notoriously difficult to assess on a microscopic scale, especially for electron …

Entanglement is at the heart of the Einstein-Podolsky-Rosen paradox, where the non-locality
is a necessary ingredient. Cooper pairs in superconductors can be split adiabatically, thus …

The two electrons of a Cooper pair in a conventional superconductor form a spin singlet and
therefore a maximally entangled state. Recently, it was demonstrated that the two particles …

We study thermal and charge transport in a three-terminal setup consisting of one
superconducting and two ferromagnetic contacts. We predict that the simultaneous presence …

In a device with a superconductor coupled to two parallel quantum dots (QDs) the electrical
tunability of the QD levels can be used to exploit nonclassical current correlations due to the …

Non-local entanglement is a key ingredient to quantum information processing. For photons,
entanglement has been demonstrated, but it is more difficult to observe for electrons. One …

Hybrid devices that combine superconductors (S) and semiconductors (Sm) have attracted
great attention due to the integration of the properties of both materials, which relies on the …

Spin-transport in superconductors is a subject of fundamental and technical importance with
the potential for applications in superconducting-based cryogenic memory and logic …