Spin–orbit coupling induces a unique form of Zeeman interaction in momentum space in
materials that lack inversion symmetry: the electron's spin is locked on an effective magnetic …

We report on superconductivity in Nd1− x Eu x NiO2 using Eu as a 4f dopant of the parent
NdNiO2 infinite-layer compound. We use an all–in situ molecular beam epitaxy reduction …

Graphene provides a wealth of advantageous functionalities but lags behind in spintronic
applications due to lack of magnetism. A solution currently explored is proximity coupling of …

Heavy fermion compounds are a remarkable class of inter-metallic systems, where the
presence of several competing interactions leads to the emergence of a plethora of exotic …

Spin-orbit interaction and structure inversion asymmetry in combination with magnetic
ordering is a promising route to novel materials with highly mobile spin-polarized carriers at …

We demonstrate that the effects of spin-orbit coupling and inversion asymmetry exist in a
single Gd-Fe-Co ferrimagnetic layer, even without a heavy-metal interface. We use electric …

The coupling of real and momentum space is utilized to tailor electronic properties of the
collinear metallic antiferromagnet Mn2Au by aligning the real space Néel vector indicating …

Intrinsic two-dimensional (2D) magnetism has been demonstrated in various materials
scaled down to a single monolayer. However, the question is whether 2D magnetism …

Abstract Two-dimension (2D) magnets have recently developed into a class of stoichiometric
materials with prospective applications in ultra-compact spintronics and quantum computing …

Imprinting magnetism into graphene may lead to unconventional electron states and enable
the design of spin logic devices with low power consumption. The ongoing active …