Electrical Breakdown of Excitonic Insulators
Explore a novel electrical breakdown mechanism for exciton insulators, examining the instability of many-body ground states and its implications for condensation energies and electric fields.
Flatbands: Construction and Effects of Perturbations
Explore flatbands in tight-binding systems, their construction, and effects of disorder and interactions. Discover unconventional phases, metal-insulator transitions, and ergodicity breaking phenomena.
Exploring Moiré 2D Materials and Topological Quasicrystals
Delve into moiré 2D materials and topological quasicrystals, exploring theoretical perspectives on emergent behaviors, long-range continuum models, and fascinating phenomena in trilayer systems.
Emergence of Flat Bands and Ferromagnetic Fluctuations via Orbital-Selective Electron Correlations
Explore orbital-selective electron correlations and their role in flat band emergence and ferromagnetic fluctuations in condensed matter physics.
Exact Projected Entangled Pair Ground States with Topological Euler Invariant
Explore exact projected entangled pair ground states and their connection to topological Euler invariants in quantum systems, advancing understanding of quantum many-body physics.
Viruses under the Mathematical Microscope: Deciphering the Code of Viral Geometry
Explore virus architecture through mathematical tools, uncovering insights on viral evolution and infection mechanisms. Discover how symmetry and Penrose tiling concepts illuminate viral structures.
Machine-Learning Enabled Imaging: From Microscopy to Medical Imaging to Astronomy - Kirk Lecture
Explore machine learning's impact on imaging across microscopy, medical imaging, and astronomy. Learn how neural networks leverage training data and physical models for improved image quality and resolution.
On Growth and Form and Mathematics: Reading D'Arcy Thompson 100 Years On - Rothschild Lecture
Explore the enduring impact of D'Arcy Thompson's "On Growth and Form" on modern science, examining its themes and relevance to understanding morphogenesis.
Nematic Liquid Crystals: Where Mathematics Meets Physics and Applications
Explore the fascinating intersection of mathematics, physics, and applications in nematic liquid crystals with Prof. Apala Majumdar's insightful lecture.
Growth and Mechanics of Tissues - SPL Rothschild Lecture
Explorez les propriétés mécaniques des tissus et leur rôle dans la croissance et l'expression génétique, en mettant l'accent sur les tissus cancéreux et le développement précoce.
From Black Holes to Holographic Spacetime - Rothschild Lecture
Explore the concept of holographic spacetime, tracing its origins from Hawking's black hole discoveries to implications for our understanding of quantum reality and dimensions.
How Physical Systems Can Learn by Themselves - Kirk Lecture
Explore how physical systems can learn autonomously, inspired by biological neural networks, without external computation or top-down control.
The Force Awakens: Quantum Collisions
Explore the Standard Model, Higgs boson discovery, and potential new quantum forces in this interactive talk on particle physics and Large Hadron Collider experiments at CERN.
Inertia, Turbulence and the Concentration Field in Active Fluids
Explore inertia, turbulence, and concentration fields in active fluids. Delve into self-driven particle dynamics, active turbulence, and hydrodynamic flow interactions in various settings.
Evading Newton's Third Law to Set Patterns in Motion - Kirk Public Lecture
Explore how active matter systems evade Newton's third law, creating dynamic patterns in biological and synthetic systems. Gain insights into this cutting-edge field of physics.
Self-Avoiding Walk, Spin Systems, and Renormalisation - Clay Math Public Lecture
Explore self-avoiding walks, spin systems, and renormalisation in mathematics with Professor Gordon Slade. Gain insights into stochastic systems for anomalous diffusion in this Clay Math Public Lecture.
Ab Initio Approach to Electronic Conductivity Calculations for Disordered Structures
Explore ab initio methods for calculating electronic conductivity in disordered structures using the Kubo-Greenwood formula and LSMS method. Compare various approaches for energetics calculations.
Disordered Hyperuniformity in Two-Dimensional Materials
Explore disordered hyperuniformity in 2D materials, its impact on electronic structures, and role of topological defects in preserving hyperuniformity in amorphous materials.
Shaped Solution to the Poisson Equation in the Full-Potential KKR Method
Explore a practical and accurate solution to the Poisson equation in full-potential KKR, focusing on the removed-sphere method for disordered materials.
Breaking Symmetries in Compositionally Complex Oxides
Explore experimental studies of high entropy oxides and their symmetry-breaking properties in compositionally complex systems.
High-Strength Alloys for High Field Magnets
Explore high-strength, high-entropy alloys for advanced magnetic field applications, focusing on their development and potential in cutting-edge research.