
Explore biomechanics and cutting-edge technology for enhancing human movement. Learn how computer simulations and smart sensors are revolutionizing mobility and athletic performance.

Explore Morse homology of complex Chern-Simons functional, its connections to 4D supersymmetric gauge theories, skein modules, and Donaldson-Thomas invariants in 3-manifolds.

Explore the localization principle for orbifolds in this advanced mathematical survey, featuring joint research on stringy motives and their applications.

Explore advanced mathematical concepts in quantum cohomology, Seidel elements, and Coulomb branches. Discover the interplay between equivariant cohomology and symplectic homology in Lie group manifolds.

Explore scaling and fractals in geosciences, building on Mandelbrot's work. Discover cutting-edge applications and insights at the frontiers of Earth and space sciences.

Explore fractals and their applications in geophysics with renowned mathematician Benoit Mandelbrot in this historic AGU Fall Meeting lecture from 2001.

Explore hyperbolic geometry in nature, from corals to cactuses, and its historical significance. Discover how these forms challenge traditional Euclidean concepts and their prevalence in the natural world.

Explore the composition tableau and canonical Weierstrass section construction in this advanced algebraic geometry lecture by Yasmine Fittouhi, part of a broader program on representation theory.

Explore log symplectic manifolds, their moduli space, and local Torelli theorem. Discover new components in Pn's moduli space of log symplectic structures.

Explore recent advancements in q-Gaussians with Akihiro Miyagawa, delving into operator algebras and free probability theory applications.

Explore advanced representation theory concepts in this talk by Deniz Kus, covering algebraic and combinatorial methods in infinite-dimensional Lie algebras and quantum groups.

Explore heavy-tailed distributions: properties, emergence, and applications in probability theory. Gain insights into advanced stochastic processes and their mathematical foundations.

Explore vector components, addition, subtraction, multiplication, and the right-hand rule. Learn to apply Pythagorean theorem and trigonometric functions in vector analysis for physics applications.

Explore quantum cellular automata, bosonization, and chirality pumping in 3D systems. Discover connections to quantum error correction and topological physics in this advanced physics lecture.

Explore vertex algebras and associated varieties in this advanced lecture, delving into modern representation theory and its connections to mathematics and physics.

Explore normalization errors in statistical data analysis through practical exercises, enhancing your skills in handling and interpreting complex datasets for high-energy physics research.

Explore advanced statistical techniques for point estimation, measurement combination, and data fitting in high-energy physics, enhancing analysis skills for complex experimental data.

Comprehensive introduction to statistical methods for data analysis in high-energy physics, covering fundamental concepts and practical applications through exercises and examples.

Explore 4000 years of vector algebra history, its applications in art, science, and programming, and discover the potential of Geometric Algebra as a superior alternative.

Explore a surprising mathematical concept that physics students grasp more easily than math students, challenging conventional learning expectations.

Explore the physics behind "tears of wine" phenomenon, examining undercompressive shocks in thin films and their role in the formation of wine tears using mathematical modeling and analysis.