
Explore the divergence theorem's applications in PDEs, geometry, physics, and engineering, including proofs of Archimedean principle and multidimensional Pythagorean theorem.

Explore classical and modern approaches to resurgence theory, gaining insights into its mathematical foundations and recent developments.

Explore advancements in hybridizable discontinuous Galerkin methods for high-order finite element calculations, featuring flexible implementations for diverse PDEs and applications.

Explore the evolution of infectious disease modeling, from early Kermack-McKendrick theories to modern multi-compartment approaches, enhancing understanding of epidemiological dynamics.

Explore level set shape optimization using polytopic meshes and Discontinuous Galerkin methods for improved boundary tracking and computational efficiency in structural optimization.

Explore Michaelis-Menten kinetics and singular perturbation methods in mathematical oncology, enhancing understanding of enzyme-substrate interactions and complex systems.

Explore mathematical modeling in disease spread: capabilities, limitations, and insights for understanding epidemic dynamics and informing public health strategies.

Explore convergent evolving surface finite element algorithms for geometric evolution equations, presented by Prof. Christian Lubich from University of Tübingen.

Explore a mathematical model for TCR-T cell therapy in cervical cancer treatment, focusing on its applications and implications in oncology research.

Explore chaotic systems for audio generation and transformation. Learn about fixed points, bifurcation, and practical applications with interactive visualizations and code examples.

Explore radiation boundary conditions in 2D finite element methods. Learn key concepts and applications for advanced numerical analysis in electromagnetic simulations.

Explore the fundamental concepts and framework of the Finite Element Method (FEM) in this introductory video lecture.

Explore basis and testing functions for 1D Finite Element Method in solving the 1D Wave Equation, enhancing understanding of numerical methods in computational physics.

Explore 1D basis functions in finite element method. Learn key concepts and applications for numerical analysis and engineering problem-solving.

Explore boundary conditions for 1D wave equation using finite element method. Gain insights into solving complex mathematical problems in engineering and physics.

Explore 2D FEM shape functions in finite element analysis. Learn key concepts and applications for solving complex engineering problems.

Explore advanced concepts of the weak form in 1D Finite Element Method, building on previous knowledge to deepen understanding of this numerical analysis technique.

Explore the weak form of 1D Finite Element Method in this concise tutorial, focusing on fundamental concepts and practical applications in numerical analysis.

Explore 2D basis functions in finite element method. Learn key concepts and applications for advanced numerical analysis and engineering problem-solving.

Explore the 2D Finite Element Method procedure, covering key steps and applications in engineering analysis. Gain insights into this powerful numerical technique for solving complex problems.

Explore matrix assembly techniques for the 1D Finite Element Method applied to the 1D Wave Equation, enhancing understanding of numerical solutions in computational physics.