The team developed a groundbreaking method that harnesses the structure of light to twist and tweak the properties of quantum materials. 

In a new study, SLAC researchers suggest a small-scale solution could be the key to solving a large-scale mystery.

Strongly interacting electrons in quantum materials carry heat and charge in a way that’s surprisingly similar to what individual electrons do in normal metals, a SLAC/Stanford study finds.

With up to a million X-ray flashes per second, 8,000 times more than its predecessor, it transforms the ability of scientists to explore atomic-scale, ultrafast phenomena that are key to a broad range of applications, from quantum materials to clean...

It irons out wrinkles in thin films of these novel superconductors so scientists can see their true nature for the first time. 

This ‘beautiful’ herringbone-like pattern could give rise to unique features that scientists are just starting to explore.

This month, Symmetry presents a series of articles on the past, present and future of quantum research—and its many connections to particle physics, astrophysics and computing.

Belopolski has made key discoveries about Weyl semimetals and topological magnets, systems in which quantum effects produce new emergent particles with exotic electronic and magnetic properties.

SLAC and Stanford partner with two Illinois universities to create the Center for Quantum Sensing and Quantum Materials, which aims to unravel mysteries associated with exotic superconductors, topological insulators and strange metals.

Theory suggests that quantum critical points may be analogous to black holes as places where all sorts of strange phenomena can exist in a quantum material. Now scientists are trying to pin down where this particular quantum critical point might...