
Explore recycled pulsars, neutron star spin-up, and magnetic field evolution in binary systems. Gain insights into the Hulse-Taylor pulsar, accretion processes, and the physics of neutron star interiors.

Explore neutron star interiors, from formation to exotic states of matter. Delve into superfluidity, superconductivity, and their implications for neutron star physics and behavior.

Explore quantum scars in many-body systems, focusing on Floquet engineering techniques and their applications to Rydberg atom chains. Examine dynamics, phase diagrams, and effects of noise on coherent oscillations.

Explore neutron star formation, structure, and exotic states. Dive into superfluidity, superconductivity, and their implications in these extreme cosmic objects.

Explores Andreev reflection in graphene-NbSe2 junctions, discussing experimental challenges, data analysis, and implications for quantum Hall effect and superconductivity in these novel heterostructures.

Exploring iron-based superconductors as potential hosts for Majorana zero modes, discussing recent developments and implications for quantum computing and condensed matter physics.

Explore edge-state dynamics and fractal-mediated superconductivity in complex quantum systems, focusing on shock and bounce phenomena and their implications for advanced materials.

Explore quantum electrodynamic modeling of superconducting systems with Princeton's Hakan Tureci, covering multiscale approaches in quantum mechanics and their applications.

Explore the quantum Hall phase diagram of bilayer graphene, examining its unique properties and potential applications in condensed matter physics and quantum information.

Explore topological superconductivity through non-collinear magnetism engineering. Learn about quantum phases, superconductors, and their potential in quantum information processing.

Explore the impact of fractional statistics on anyon collisions in quantum systems, delving into advanced concepts at the intersection of condensed matter physics and quantum information.

Explore superconducting electrical circuits as a platform for quantum information processing, focusing on SQUIDs, qubits, and their manipulation in quantum computation applications.

Explore superconductivity in strongly correlated systems and flat-bands, focusing on theoretical bounds and implications for quantum materials research.

Explore superconductivity and strong correlations in graphene systems, focusing on recent developments and their implications for understanding quantum matter beyond traditional models.

Explore charge correlations in AV3Sb5 kagome superconductors with Stephen Wilson. Gain insights into non-Fermi liquid behavior and unconventional superconductivity in these fascinating materials.

Exploración de nematicidad y superconductividad en sistemas multiorbital fuertemente correlacionados, analizando sus propiedades y comportamientos en materiales cuánticos complejos.

Exploration of chiral Majorana fermions: theoretical prediction, experimental realization, and potential applications in topological quantum computing.

Explore phase-sensitive measurements of exotic superconductors and hybrid devices, revealing quantum states and excitations through Josephson interferometry and current-phase relation techniques.

Explore quantum phenomena in rings, from persistent currents in metals to superconducting fluctuations and potential Majorana modes, using scanning SQUID microscopy to measure magnetic signatures and current-phase relations.

Uncover evidence of BCS-BEC crossover in cuprates through a universal magic gap ratio, revealing optimal robustness in paired fermion condensates and its implications for high-temperature superconductivity.

Explore the wizardry of condensed matter physics, from crystal formation to exotic particles, and discover how quantum phenomena shape our everyday world.