We've discovered how to use rotating magnetic fields to dexterously manipulate objects made of metals that are typically considered non-magnetic. This has the potential to contribute a solution to the problem of space debris.

The serendipitous journey behind understanding the inner workings of Li-rich cathodes and how that can provide a way to satisfy the "AND problem" for battery cathodes.

By integrating an atomically-thin superlattice with a microcavity, we prepare a system to manipulate the quantum state with versatile flexibility, suggesting a new path to ultralow energy nonlinear photonic devices.

The delamination between cathode and electrolyte during cell fabrication or thermal cycling is one of the most typical failures due to their thermo-mechanical incompatibility. We achieved thermo-mechanical compatibility and high activity in an SOFC cathode by a thermal-expansion offset approach.

Flexible perovskites single-crystal devices can be realized with designed crystal morphology, orientation, thickness, size, and graded band structure.