
Explore Planckian dissipation in cuprates with Martin Greven. Part of a conference on electron correlations beyond quasiparticle paradigms, discussing new perspectives on quantum matter and non-Fermi liquid behavior.

Explore departures from Fermi-liquid physics in Hund metals with Luca De' Medici. This talk delves into quantum matter, electron correlations, and non-Fermi liquid observations, challenging conventional understanding of materials.

Explore connections between black holes and momentum relaxation in cuprates. Gain insights into non-Fermi liquid behavior and quantum matter through cutting-edge theoretical and experimental perspectives.

Explore low-energy electrodynamics in superconducting cuprates and titanates. Gain insights into non-Fermi liquid behavior, Planckian scattering limits, and Cooper pairing without quasiparticles in quantum materials.

Explore collinear carrier dynamics in Fermi gases and strongly-interacting 2D systems with MIT physicist Leonid Levitov. Gain insights into quantum matter beyond the Fermi-liquid paradigm.

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

Explore shot noise in strange metals with Doug Natelson. Gain insights into non-Fermi liquid behavior, electron transport, and quantum matter beyond traditional quasiparticle frameworks.

Explore chiral transport in metallic Kagome nets with Philip Moll. Discover new insights on electron correlations and quantum matter beyond traditional Fermi-liquid theory in this conference talk.

Explore heat propagation in liquid helium-3, examining its unique properties and behavior at low temperatures. Gain insights into quantum fluids and their thermal characteristics.

Explore strange metal behavior in cuprates through overdamped short-range fluctuations. Gain insights into non-Fermi liquid materials and their unique properties in quantum matter research.

Explore an exact model for superconductivity and Mottness, challenging traditional BCS theory. This talk delves into new perspectives on quantum matter and electron correlations beyond the quasiparticle paradigm.

Explore variational analysis and numerical methods for Lindblad equations in quantum algorithms, presented by Duke University's Jianfeng Lu at IPAM's workshop on scientific computation.

Explore numerical approaches to tackle strongly correlated systems, focusing on entanglement entropy, matrix product states, and recent advancements in 2D systems and the TJ model.

Streamline a rope simulator using lists to track elements, velocities, and forces, resulting in a convincing animation that can handle any number of rope segments.

Explore the physics of ropes in video games by building a simple rope simulator using three atoms and two springs. Learn about the Euler-Cromer Method and VPython programming.

Explore the physics behind the yellow light dilemma through coding. Learn to develop a program that simulates this common traffic scenario using VPython.

Explore the Euler-Cromer Method for computational physics through a guided Jupyter notebook project. Learn to implement and analyze this numerical integration technique for solving differential equations.

Explore the basics of projectile motion simulation using the Euler-Cromer method in VPython, focusing on simple gravity and its effects on object trajectories.

Explore the apparent contradiction between Newton's Second Law and Ohm's Law through coding, using the Euler-Cromer Method to simulate electron collisions in a Drude circuit model.

Transform the Schrodinger equation into a difference equation and animate the wave function using VPython. Visualize quantum mechanics behaviors through computer animations.

Explore spring pendulum dynamics using GlowScript, examining energy conservation and competing forces through rich phase space views and Lagrangian mechanics.