Explore how hydrostatic pressure and chemical substitution tune phase transitions in UCr₂Si₂, revealing the quantum interplay between structure and magnetism.
Explore how chemical and physical design principles are revolutionizing quantum materials discovery and enabling unprecedented control over matter.
Explore how hybridized defects in solid-state materials create artificial molecules for quantum computing, sensing, and communication technologies.
How scientists are using advanced photoelectron spectroscopy to visualize the quantum behavior of electrons in exotic materials
Discover how atomic-scale site mixing in magnetic topological insulators like MnBi₂Te₄ and MnSb₂Te₄ is transforming quantum material research and future technology.
Explore how chemical pressure tuning of van Hove singularities in quantum materials opens pathways toward designing room-temperature superconductors.
Exploring revolutionary quantum materials that promise computing speeds 1,000x faster than silicon through quantum confinement, topological states, and strong correlations.