A Finite Difference Method for Irregular Geometries: Application to Dynamic Rupture on Rough Faults David Belanger (1) and Eric M. Dunham (2,Department of Mathematics, Harvard University; (2) Department of Earth a

Source URL: pangea.stanford.edu

Silent error detection in numerical time-stepping schemes Austin R. Benson1 2 Sven Schmit1

Source URL: stanford.edu

• Mathematical analysis
• Measurement
• Numerical analysis
• Mathematics
• Coding theory
• Error detection and correction
• Numerical methods for ordinary differential equations
• Truncation error
• Finite difference method
• Error
• Partial differential equation
• Numerical stability

Applied Numerical Mathematics–414 On the behavior of the total variation in CWENO methods for conservation laws Doron Levy a,∗,1 , Gabriella Puppo b,2 , Giovanni Russo c,3 a Département de Mathématiq

Source URL: www.dmi.unict.it

• Computational fluid dynamics
• Computational science
• Mathematical analysis
• Differential calculus
• Finite difference method
• CourantFriedrichsLewy condition
• Total variation diminishing
• Stencil
• Chi-Wang Shu
• RungeKutta method
• High-resolution scheme
• Shock capturing method

Convergence of a Finite Difference Scheme for the Navier-Stokes Equations Using Vorticity Boundary Conditions Author(s): Thomas Y. Hou and Brian T. R. Wetton Source: SIAM Journal on Numerical Analysis, Vol. 29, No. 3 (Ju

Source URL: users.cms.caltech.edu

• Fluid dynamics
• Physics
• Mathematical analysis
• Aerodynamics
• Calculus
• Partial differential equations
• Continuum mechanics
• NavierStokes equations
• Vorticity
• Finite difference method
• Computational fluid dynamics
• Lift

Staggered Finite Difference Schemes for Balance Laws Gabriella Puppo and Giovanni Russo Abstract. In this paper a new family of high-order finite-difference shock-capturing central schemes for hyperbolic systems with sti

Source URL: www.dmi.unict.it

• Numerical analysis
• Mathematical analysis
• Computational fluid dynamics
• Computational science
• Shock capturing method
• Finite volume method
• Partial differential equation
• Finite difference method
• CourantFriedrichsLewy condition
• RungeKutta methods
• Discretization

OptoDesigner 5 The Ultimate Photonic Design Environment 4 4

Source URL: www.europractice.stfc.ac.uk

• Photonics
• Optics
• Electrodynamics
• Computational science
• Electromagnetism
• Silicon photonics
• Waveguide
• Photonic integrated circuit
• Simulation
• Integrated circuit
• Finite-difference time-domain method
• Beam propagation method

AIAA19th AIAA Computational Fluid DynamicsJune 2009, San Antonio, Texas Interface and Boundary Schemes

Source URL: homepages.rpi.edu

• Computational fluid dynamics
• Partial differential equations
• Aerodynamics
• Finite differences
• Finite element method
• Upwind scheme
• NavierStokes equations
• Finite difference method

A High Order WENO-Z Finite Difference Based Particle-Source-in-Cell Method for Computation of Particle-Laden Flows with Shocks Gustaaf B. Jacobs ∗

Source URL: attila.sdsu.edu

• Computational fluid dynamics
• High-resolution scheme
• Particle-laden flows
• Shock capturing method
• Particle Mesh
• NavierStokes equations
• Finite volume method
• Particle-in-cell

Math 515 Fall, 2014 Homework 3, due Tuesday, September 30. Remarks. • You can send your solutions (including MATLAB code) by email. If you archive your work

Source URL: www.mathcs.emory.edu

• Numerical analysis
• Mathematical analysis
• Finite difference method
• Taylor series
• Finite difference
• Discretization
• Eikonal equation
• Finite element method

! Revised September 29, 2015 6:10 PM! 1

Source URL: kiwi.atmos.colostate.edu

• Mathematical analysis
• Mathematics
• Analysis
• Differential calculus
• Functions and mappings
• Derivative
• Rates
• Finite difference method
• Finite difference
• Differential of a function
• Compact finite difference