This article reviews static and dynamic interfacial effects in magnetism, focusing on
interfacially driven magnetic effects and phenomena associated with spin-orbit coupling and …

Complex transition-metal oxides (TMOs) are critical materials for cutting-edge electronics
and energy-related technologies, on the basis of their intriguing properties including …

The distribution of charge density in materials dictates their chemical bonding, electronic
transport, and optical and mechanical properties. Indirectly measuring the charge density of …

Strong correlations between electrons, spins and lattices—stemming from strong
hybridization between transition metal d and oxygen p orbitals—are responsible for the …

Transition metal oxides are promising candidates for the next generation of spintronic
devices due to their fascinating properties that can be effectively engineered by strain …

Complex oxide interfaces have mesmerized the scientific community in the last decade due
to the possibility of creating tunable novel multifunctionalities, which are possible owing to …

Heterostructures of complex transition metal oxides are known to induce extraordinary
emergent quantum states that arise from broken symmetry and other discontinuities at …

Controlling phase transitions in transition metal oxides remains a central feature of both
technological and fundamental scientific relevance. A well-known example is the metal …

Epitaxial strain can induce collective phenomena and new functionalities in complex oxide
thin films. Strong coupling between strain and polar lattice modes can stabilize new …

The rich functionalities in the ABO3 perovskite oxides originate, at least in part, from the
ability of the corner-connected BO6 octahedral network to host a large variety of cations …