For years, the orbital Edelstein effect (OEE), which converts an electric field into a non-equilibrium orbital polarization, remained theoretically intriguing but experimentally elusive. While ...
Multiferroic materials are attractive for controlling magnetic order using an electric field, a process that potentially requires very little energy. In the model multiferroic ...
Superconductivity in infinite-layer nickelates represents one of the major developments in condensed matter physics in recent years. Discovered in 2019, these materials are regarded ...
Two-dimensional electron gases (2DEG) are a fundamental element of modern electronics. Among the various systems capable of hosting them, complex oxide heterostructures are particularly noteworthy. ...
A CNRS Research Director at the Laboratoire Albert Fert (CNRS, Thales, Univ. Paris-Saclay) in Palaiseau, Manuel Bibes is one of the pioneers of oxitronics, ...
For decades, ferroelectric materials with complex layered structures were thought too difficult to grow with the quality needed for device applications. Among them is the ...
Magnonic nano-devices exploit magnons - quanta of spin waves - to transmit and process information within a single integrated platform that has the potential to outperform traditional semiconductor-based electronics.
Scientists have successfully modulated magnetic information using electrical pulses while converting it into a polarized light signal. This discovery, described in the journal Nature, could revolutionize long-distance optical telecommunications.
Scientists have successfully modulated magnetic information using electrical pulses while converting it into a polarized light signal. This discovery, described in the journal Nature, could revolutionize long-distance optical telecommunications.
In superconducting materials, the electric current flows without energy dissipation (zero electrical resistance). This happens only below a so-called critical temperature Tc. The cuprates are ...
Laboratoire Albert Fert (UMR137)
CNRS, Thales, Université Paris-Saclay
1 Avenue Augustin Fresnel
91120 Palaiseau, France
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