Latest Articles for Numerical Methods

asQ enhances parallel-in-time methods for faster geoscientific calculations.

Examining equations modeling heat spread and substance mixing over time.

A new method enhances numerical accuracy in convection-diffusion equations for fluid dynamics.

This article discusses methods for solving Fredholm integral equations of the second kind.

Exploring how numerical methods help solve complex stochastic differential equations.

Learn about the DG-CG method for solving wave equations and its significance.

A look into the methods that transform our understanding of quantum interactions.

Learn how symmetry helps in simplifying complex PDEs effectively.

A look at how Newton's method helps tackle nonlinear boundary value problems.

Innovative approaches enhance solutions for convection-dominated challenges.

An exploration of using cut cells in solving complex mathematical equations.

A look at first-order phase transitions and their significance in gauge theories.

Utilizing neural networks to solve complex high-order elliptic equations efficiently.

Explore how the LDG method solves heat equations in simple terms.

Learn the basics of the Klein-Gordon equation and HDG method clearly.

Breaking down equations in science and engineering for clearer answers.

Discover efficient methods for applying rotations to matrices in numerical linear algebra.

A method for solving Sobolev-type equations to study wave behaviors effectively.

Combining meta-learning and GAMs to enhance PINN solutions for complex equations.

A look at methods for integrating functions with singularities.

Discover how engineers use MPM to understand material behavior under stress.

Combining machine learning with fluid dynamics improves accuracy and efficiency in simulations.

Learn how point set registration brings order to scattered data.

Exploring how fermions and gauge fields interact in the Schwinger model.

Discover the role of interpolation in function spaces and its practical applications.

Dive into the exciting world of two-phase fluid interactions and modeling methods.

Discover clever approaches to tackle challenging mathematical equations and their significance.

Learn how strong stability preserving methods ensure reliable solutions in science and engineering.

Explore how heat transfer affects cooling, from chocolate bars to engineering.

Explore techniques to enhance calculations in sparse matrices for AI applications.

A look into how fluids behave in complex shapes using mathematics.

Exploring improved techniques for modeling nonconservative systems in various fields.

Discover new ways to tackle complex fluid and wave systems.

New arithmetic formats enhance performance in solving sparse linear systems.