
Explore four fundamental forms of energy: kinetic, gravitational potential, elastic potential, and thermal. Learn equations and solve practical examples for each type.

Explore conductors, insulators, and charging processes through conduction and induction. Gain atomic-level insights into electrostatic phenomena and electric dipoles.

Learn to prevent board meltdowns through thermal analysis. Explore heat transfer principles, simulation tools, and practical applications for effective circuit design and component selection.

Explore everyday physics concepts and their cosmic connections in this engaging talk. Discover parallels between familiar phenomena and astrophysical observations, bridging the gap between our daily lives and the universe.

Explore the inner workings of deaerators, including spray and tray types, components, operating conditions, and designs. Learn how these devices remove dissolved gases from boiler feedwater to prevent corrosion.

Explore temperature, pressure, and the Ideal Gas Law through bouncy ball simulations using VPython. Calculate and visualize ensemble properties in this engaging physics coding tutorial.

Explore critical phenomena in the Ising model, a powerful tool for understanding cooperative phenomena in statistical physics, with insights on recent progress in three and four dimensions.

Explore supersymmetric black holes, superconformal index, and AdS/CFT phases. Delve into entropy calculations, matrix integrals, and competing free energies in quantum gravity and string theory.

Explore the foundations of statistical mechanics and its ability to predict macroscopic system behavior with renowned physicist Joel Lebowitz. Gain insights into Gibbs ensembles and their applications.

Explore thermodynamics at the nanoscale, including fluctuations, quantum effects, and implications for the Second Law. Discover new perspectives on Maxwell's demon and the arrow of time.

Explore phonon scattering spectroscopy, from theory to experiments. Discover non-equilibrium heat conduction, quasiballistic transport, and surface scattering in thin films. Gain insights into cutting-edge thermal conductivity research.

Explore the physics of biological membranes, covering lipid bilayers, surface energy, curvature, fluctuations, and non-equilibrium processes in this comprehensive lecture on membrane biophysics.

Exploring the future of general relativity and quantum gravity, discussing challenges, connections with thermodynamics, and new paradigms in spacetime physics over the next century.

Explores hydrodynamic scale in integrable classical many-body systems, covering generalized free energy, CMV matrices, and operator image. Offers insights into non-equilibrium physics and universality classes.

Explore thermalization in quantum chromodynamics, focusing on ab initio approaches and interdisciplinary connections. Discover universal phenomena and the effectiveness of hydrodynamics in various physical systems.

Explore universal dynamics and non-thermal fixed points in many-body physics, covering topics like random defect models, deformation solutions, and scaling analysis in isolated systems and condensates.

Exploring non-equilibrium dynamics in dipole- and higher-moment conserving systems, focusing on universal behaviors, fractal excitations, and novel phases of matter far from equilibrium.

Explore quantum simulators and non-equilibrium many-body physics in optical lattices using sound. Discover novel phases of matter, universality classes, and connections between diverse fields of physics.

Explores topological pumping in strongly correlated quantum systems, focusing on experimental results with dysprosium atoms in optical lattices and their implications for prethermal states and quantum scars.

Explores inelastic photon scattering in Josephson junctions near the Schmid transition, examining dissipative environments, circuit QED applications, and experimental observations in long junction arrays.

Explore non-ergodicity and Hilbert-space fragmentation in tilted Fermi-Hubbard chains, covering theoretical concepts, simulations, and experimental results in quantum systems away from equilibrium.