
Explore particle approximation of the parabolic-parabolic Keller-Segel system in the plane, focusing on stochastic particle systems, tightness, and weak solutions for small sensitivity parameters.

Explore advanced overlapping Schwarz methods for Maxwell eigensolvers, including improved condition number bounds and a novel two-level preconditioned Helmholtz subspace iterative method for edge element approximations.

Explore Floquet engineering in condensed-matter structures, examining oscillations under various field conditions and their detection through pump-probe spectra. Uncover intriguing phenomena like the Bloch-Siegert shift.

Exploring variable speed of light in general relativity and its implications for electrodynamics, challenging conventional understanding of Maxwell's equations and fundamental constants.

Dive into the physics of Davydov's solitons and explore their fascinating applications in biological systems, from atmospheric phenomena to nanotube behavior.

Explore nonlinear wave dynamics and their manifestation in Josephson junctions, examining fundamental physics principles and advanced theoretical concepts.

Explores Casimir force between Weyl semimetals in chiral media, discussing electrodynamics, current materials, reflection matrices, and results. Offers insights into quantum electrodynamic fluctuations and their implications.

Explores nanostructured materials' optical response and its impact on Casimir-Lifshitz force, covering multilayer structures, absorption, and interference effects in quantum electrodynamics.

Explore unit quaternions as a foundation for fundamental physics, challenging conventional theories and proposing new perspectives on space and time.

Explore Faraday's Law, eddy currents, and magnetic braking in this physics lecture, featuring practical examples and problem-solving techniques.

Explore magnetic fields generated by currents in wires, loops, and solenoids. Learn calculation methods and solve practical examples to deepen understanding of electromagnetism.

Explore numerical integration to calculate electric potential of charged shapes using Scilab, with code examples and practical applications in physics.

Explore electric polarization in materials and its impact on electric fields through computational methods, focusing on potential-based solutions in electromagnetism.

Learn to solve Poisson's equation using finite differences, applying computational techniques to find electric potentials from boundary conditions in electromagnetism problems.

Explore how quantum mechanics and dimensionality shape material properties across 0D to 3D structures, from atoms to conventional materials, with Prof. Antonio Castro Neto.

Explore transient electronics for biomedical applications, focusing on bioresorbable devices that dissolve in biofluids. Learn about materials, applications, and future directions in this emerging field.

Explore Einstein's theory of relativity, spacetime diagrams, and the revolutionary concepts that challenged Newton's laws, expanding your understanding of the universe's four-dimensional nature.

Explore the physics behind light's ultimate speed limit, from historical experiments to modern proofs, and understand why it remains constant for all observers regardless of motion.

Explore topology's role in statistical physics, from Maxwell's equations to magnetic monopoles. Learn about topological quantum numbers and path integral formulation in this advanced lecture.

Explore advanced concepts in optics, from electromagnetic waves to quantum physics, through lectures, demonstrations, and simulations. Gain insights into optical phenomena in nature and technology.

Explore light as electromagnetic waves, optical phenomena, and underlying concepts through math, experiments, and simulations. Covers geometrical optics, least action principle, and introduces quantum physics.