
Explore Richard Feynman's legacy through his sister's experiences, quantum computing advancements, and impact on nuclear and particle physics in this centennial tribute session.

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.

Explore quantum condensed matter's topological states, their robust properties, and potential applications in quantum information processing with Nobel laureate Duncan Haldane.

Explore the intersection of quantum information and quantum gravity with experts Prof. Bianchi and Prof. Hackl, delving into cutting-edge research and theoretical insights.

Exploring materials science's role in neuromorphic devices and quantum computing, with insights on future MRS priorities from incoming president Matt Copel.

Explore the theory of chiral state conversion in non-Hermitian systems, delving into quantum mechanics and condensed matter physics concepts for advanced understanding.

Explore non-Abelian quantum Hall states in this advanced physics lecture, delving into complex theories and their implications for quantum information processing and condensed matter physics.

Explore non-Abelian quantum Hall states in this advanced physics lecture, delving into complex theories and their implications for quantum information processing and condensed matter physics.

Explores a novel phase in quantum Hall systems at 5/2 filling factor, discussing its properties and potential implications for condensed matter physics and quantum information.

Explore non-Abelian quantum Hall states in this advanced physics lecture, covering theoretical foundations and implications for condensed matter and quantum information.

Explores advanced concepts of Quantum Hall Effects, focusing on chiral edge states, fractional charges, and Abelian fractional quantum Hall states in condensed matter physics.

Exploring shot noise as a diagnostic tool for fractional quantum Hall edge states, examining its potential in understanding and characterizing various edge configurations.

Explore a unified description of quantum Hall effects, covering key concepts, recent developments, and potential applications in condensed matter physics and quantum information.

Explore entanglement limits in highly symmetric quantum states on complete graphs, using semidefinite programming and representation theory to solve long-standing problems.

Explore defective tensor networks and their anomalies in algebraic varieties, focusing on graph structure, dimensions, and unexpected deviations from parameter-based expectations.

Explore the fusion of coupled cluster theory and DMRG for tackling strongly correlated systems in computational chemistry, with insights on mathematical and computational advancements.

Explore topological dualities connecting toric code, superconductors, and Ising model using matchgate tensor networks. Unifies approaches to non-local duality between fermionic and bosonic systems.

Regina G. Barber interviews whurley, tech innovator and Strangeworks CEO, on the rise of community scientists and their impact on scientific progress and innovation.

Explore computational methods for calculating quantum expectation values, visualizing wave functions, and understanding the connection between quantum and classical mechanics.