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Electrons in pentalayer graphene can be described as a "crystal" of electrons, where their positions and movements become highly correlated.

Researchers develop new quasiparticles that combine the speed of photons with strong matter interactions to enable faster and more efficient artificial intelligence processing.

Scientists have developed a fast, room-temperature method to rearrange thousands of atoms deep within crystals, opening the way for custom quantum materials that work outside the lab.

Researchers use atom-sized defects in crystals to pack terabytes of data into a tiny millimeter cube for regular computers.

Exploring how optical cavities reveal material properties with leaking light.

Machine learning framework simulates large-scale material responses to electric fields, advancing materials design for energy and technology applications.

Researchers enhance simulation of electric fields in plasmas, aiding chip manufacturing and fusion research with faster, stable tools.

University of Michigan's ZEUS laser hits 2 petawatts, advancing research in medicine, security, and astrophysics.

New method uses lasers to measure tiny delays in light, revealing how materials transform in billionths of a billionth of a second.