Defect Correction Methods for Fluid Flows At High Reynolds Numbers

Defect Correction Methods for Fluid Flows at High Reynold's Numbers presents the mathematical development of defect correction methods (DCM) in application to fluid flow problems in various settings.

List of contents

1 Introduction 2 Artificial viscosity and defect correction 3 Deferred Correction in MagnetoHydroDynamics 4 Deferred Correction with a Turbulence Model 5 Can defect correction replace a turbulence model? 6 Deferred Correction for a Fluid-Fluid Interaction Problem 7 Large Eddy Simulation with Correction (LES-C): a New Class of Turbulence Models 8 Scale Truncation and the Energy Balance of the ADC 9 Defect-Deferred Correction: the Full ADC Model for the NSE 10 The Full ADC Model for Magnetohydrodynamics 11 Another LES-C Model for a Fluid-Fluid Interaction Problem Bibliography Index

About the author

Alexander Labovsky is an Associate Professor of Mathematical Sciences at Michigan Technological University. His research interests include high accuracy methods for PDEs, multiscale modelling and numerical analysis of turbulence models for Navier-Stokes and coupled Navier-Stokes systems (fluid-fluid interaction, magnetohydrodynamics). He also has ongoing projects in Uncertainty Quantification and modelling of compressible flows.

Product details

• Authors: Alexander Labovsky, Alexander E. Labovsky
• Publisher: Taylor & Francis Ltd.
• Languages: English
• Product format: Hardback
• Release: 18.07.2025
• EAN: 9781032410432
• ISBN: 978-1-0-3241043-2
• No. of pages: 152
• Series: Chapman & Hall/CRC Numerical Analysis and Scientific Computing Series
• Subjects: Natural sciences, medicine, IT, technology > Technology > Mechanical engineering, production engineering; TECHNOLOGY & ENGINEERING / General, TECHNOLOGY & ENGINEERING / Mechanical, MATHEMATICS / General, SCIENCE / Physics / General, SCIENCE / Mechanics / Fluids, MATHEMATICS / Number Systems, MATHEMATICS / Numerical Analysis, computer science, Mechanical Engineering, Fluid mechanics, Mechanics of fluids, Numerical analysis, Applied mathematics, Information technology: general issues, Plasma Physics, Information technology: general topics, Physics: Fluid mechanics, Engineering: Mechanics of fluids