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Computational Science, Engineering & Technology Series
ISSN 1759-3158 CSETS: 35
COMPUTATIONAL METHODS FOR ENGINEERING TECHNOLOGY Edited by: B.H.V. Topping and P. Iványi
Chapter 7
Multi-Scale Methods for Transport Problems: Theory and Applications J. Geiser
Department of Physics, University of Greifswald, Germany J. Geiser, "Multi-Scale Methods for Transport Problems: Theory and Applications", in B.H.V. Topping and P. Iványi, (Editor), "Computational Methods for Engineering Technology", Saxe-Coburg Publications, Stirlingshire, UK, Chapter 7, pp 157-190, 2014. doi:10.4203/csets.35.7
Keywords: multi-scale methods, transport problems, deterministic–stochastic splitting,
iterative splitting, multi-scale spitting.
Summary
In recent years, multi-scale methods for transport problems have played an increasingly
important role in the numerical solution of stochastic and deterministic partial
differential equations.
Multi-scale strategies are particularly important to embed scale-dependent information
between the micro- and macro-models. Based on the ideas of matching, seaming
and averaging, we discuss methods, such as: heterogeneous multi-scale method, equation
free method and multi-scale iterative splitting method. This review paper presents
the latest research results in multi-scale splitting methods of high accuracy, efficiency
and effectiveness. Multi-scale methods for transport problems will be investigated for
important engineering and physics applications.
The paper reviews the different multi-scale methods for transport problems, which
are applied, and we concentrate on discussing:
(1) Theory of the well known multi-scale methods;
(2) Splitting methods as multi-scale solvers; and
(3) Engineering applications in computational fluid-dynamics
problems based on
deterministic and stochastic differential equations.
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