
Explore the limits of electron-phonon coupling in metals, its impact on structural stability, and implications for superconductivity and metal-insulator transitions.

Explore quantum dynamics of vortices in superconductors, observing coherent superposition of spatially distinct vortex states and their implications for superconducting materials and devices.

Explore Hamiltonian engineering methods to overcome challenges in fixed-frequency superconducting quantum devices and extend their capabilities for quantum information processing.

Explore ab initio DMFT methodologies for understanding correlated quantum materials, their novel physics, and potential applications in quantum information science.

Explore superconductivity in Bernal-stacked bilayer graphene, examining its emergence under specific conditions and the underlying electronic instability mechanism.

Explore quantum mechanics through mechanically assisted Andreev reflection, Cooper pair boxes, and flying qubit states. Discover how mechanical motion impacts electric current in superconducting systems.

Explore the limits of electron-phonon interaction in metals, its impact on superconductivity, and potential metal-insulator transitions through advanced theoretical analysis.

Explore applications of holography in condensed matter theory, focusing on advanced concepts and their implications for understanding complex quantum systems.

Explore applications of holography in condensed matter theory, focusing on advanced concepts and their implications for quantum systems and materials.

Explore applications of holography in condensed matter theory, focusing on advanced concepts and their implications for quantum systems and materials.

Explore applications of holography in condensed matter theory, focusing on advanced concepts and their practical implications in quantum systems.

Explore applications of AdS/CFT correspondence to condensed matter physics, focusing on AdS/CMT and its implications for understanding complex quantum systems.

Delve into advanced physics concepts as Mohit Randeria explores theoretical bounds and fundamental principles governing superconducting transition temperatures in materials.

Explore universal scaling relations in electron-phonon superconductors, focusing on Homes law and its implications for high-temperature superconductivity in strongly coupled systems.

Explore spin-orbit interaction's impact on Josephson tunneling, revealing quantum spin fluctuations and new possibilities for spin-active Josephson junctions.

Explore first-principles theory of inhomogeneous superconductivity, focusing on magnetic atom chains on superconductor surfaces and the identification of Majorana Zero Modes in topological systems.