Complex transition metal oxides span a wide range of crystalline structures and play host to
an incredible variety of physical phenomena. High dielectric permittivities, piezo-, pyro-, and …

Oxides have become a key ingredient for new concepts of electronic devices. To a large
extent, this is due to the profusion of new physics and novel functionalities arising from …

The confluence of state‐of‐the‐art electronic‐structure computations and modern synthetic
materials growth techniques is proving indispensable in the search for and discovery of new …

Complex transition metal oxides have played a central role in the study of magnetic
materials, serving as model systems for explorations of fundamental exchange interactions …

In systems with strong electron-lattice coupling, such as manganites, orbital degeneracy is
lifted, causing a null expectation value of the orbital magnetic moment. Magnetic structure is …

Ferroelectric interfacial devices consist of materials systems whose interfacial electronic
properties (such as a 2D electron gas or an interfacial magnetic spin configuration) are …

A real space approach is developed based on template matching for quantitative lattice
analysis using atomic resolution Z-contrast images. The method, called TeMA, uses the …

Controlling the electronic properties of interfaces has enormous scientific and technological
implications and has been recently extended from semiconductors to complex oxides that …

Heterointerfaces have led to the discovery of novel electronic and magnetic states because
of their strongly entangled electronic degrees of freedom. Single-phase chromium …

Interfaces in complex oxides give rise to fascinating new physical phenomena arising from
the interconnected spin, lattice, charge and orbital degrees of freedom. Most commonly …