As the dimensions of a material shrink from an extended bulk solid to a nanoscale structure,
size and quantum confinement effects become dominant, altering the properties of the …

Low‐dimensional magnetic architectures including wires and thin films are key enablers of
prospective ultrafast and energy efficient memory, logic, and sensor devices relying on spin …

We derive the effective one-dimensional Schrödinger-Pauli equation for electrons
constrained to move on a space curve. The electrons are confined using a double thin-wall …

We prove that curvature effects in low-dimensional nanomaterials can promote the
generation of topological states of matter by considering the paradigmatic example of …

We propose that geometric curvature and torsion may be used to probe the quality of an
uncompensated antiferromagnetic interface, using the proximity effect. We study a helix of …

The experimental techniques have evolved to a stage where various examples of
nanostructures with non-trivial shapes have been synthesized, turning the dynamics of a …

We derive the effective dimensionally reduced Schrödinger equation for electrons in strain-
driven curved nanostructures by adiabatic separation of fast and slow quantum degrees of …

We show that tailoring the geometric curvature profile of magnets can be used for bespoke
design of an effective non-relativistic spin–orbit coupling, which may be used to control …

Coupling a conventional s-wave superconductor to a ferromagnet allows us, via the
proximity effect, to generate superconducting triplet correlations. This feature can be …

In Dirac's canonical quantization theory on systems with second-class constraints, the
commutators between the position, momentum, and Hamiltonian form a set of algebraic …