An overview of quantum phase transitions (QPTs) in metallic ferromagnets, discussing both
experimental and theoretical aspects, is given. These QPTs can be classified with respect to …

Entropic forces in classical many-body systems, eg, colloidal suspensions, can lead to the
formation of new phases. Quantum fluctuations can have similar effects: spin fluctuations …

LaCrGe 3 has attracted attention as a paradigm example of the avoidance of ferromagnetic
(FM) quantum criticality in an itinerant magnet. Here, we combined thermodynamic (specific …

Experimental and theoretical investigations on itinerant ferromagnetic systems under
pressure have shown that ferromagnetic quantum criticality is avoided either by a change of …

Mesoscale patterns as observed in, for example, ferromagnets, ferroelectrics,
superconductors, monomolecular films or block copolymers, reflect spatial variations of a …

The temperature-pressure phase diagram of the ferromagnet LaCrGe 3 is determined for the
first time from a combination of magnetization, muon-spin-rotation, and electrical resistivity …

Quantum critical points (QCPs) emerge when a second-order phase transition is suppressed
to zero temperature. In metals the quantum fluctuations at such a QCP can give rise to new …

At finite temperatures, fluctuations invariably introduce disorder and are responsible for
ultimately destroying ordered phases. Here we present an unusual magnetic transition in …

The magnetization, magnetoresistance, and Hall effect of the kagome structured material Fe
3 Sn 2 is reported for high-quality single crystals. Previous investigations of Fe 3 Sn 2 …

Quantum materials (QMs) have garnered significant attention due to their captivating
quantum properties, notably quantum entanglement. This interest is motivated by the …