Recent studies have led to the discovery of ultrafast Einstein-de Haas effect and advances in non-equilibrium control of complex solids through nonlinear phononics.

Researchers have achieved ultrafast phononic switching of magnetization and manipulation of magnetic interactions using light-driven phonons.

Princeton University physicists discovered 'hybrid topology' in a crystalline material, indicating a novel quantum effect with potential applications in quantum computing and advanced electronics.

The material exhibits both edge states and surface states, leading to a new state of matter that could revolutionize quantum science and engineering.

These findings could impact a range of technologies, including optics, telecommunications, antenna design, imaging technologies, and energy-saving applications.