Artificial spin ices consist of nanomagnets arranged on the sites of various periodic and
aperiodic lattices. They have enabled the experimental investigation of a variety of …

Artificial spin ice systems are lithographically prepared arrays of interacting nanoscale
magnetic moments with collective behavior resulting from the chosen array geometry. These …

Application of an electric stimulus to a material with a metal-insulator transition can trigger a
large resistance change. Resistive switching from an insulating into a metallic phase, which …

Electrical triggering of a metal–insulator transition (MIT) often results in the formation of
characteristic spatial patterns such as a metallic filament percolating through an insulating …

Phase separation naturally occurs in a variety of magnetic materials and it often has a major
impact on both electric and magnetotransport properties. In resistive switching systems …

Strong, adjustable magnetic couplings are of great importance to all devices based on
magnetic materials. Controlling the coupling between adjacent regions of a single magnetic …

Artificial spin ices (ASIs) have traditionally been designed such that each nanomagnet
possesses a single-domain magnetic configuration that is assumed to be minimally …

Laterally structured materials can exhibit properties uniquely suited for applications in
electronics, magnetoelectric memory, photonics, and nanoionics. Here, a patterning …

This Chapter is devoted to spin dynamics in artificial spin ice (ASI) networks, which consist of
arrays of magnetically interacting nanostructures. We introduce some of the most common …

Artificial spin ices (ASIs) are lithographically-patterned arrays of interacting magnetic
nanoislands which have traditionally been designed such that each nanoisland possesses …