A Numerical Method for Simulation of Microflows by Solving Directly Kinetic Equations with WENO Schemes

A numerical method for simulation of transitional-regime gas flows in microdevices is presented. The method is based on solving relaxation-type kinetic equations using high-order shock capturing weighted essentially non-oscillatory (WENO) schemes in the coordinate space and the discrete ordinate tec...

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Published inJournal of scientific computing Vol. 57; no. 1; pp. 42 - 73
Main Authors Kudryavtsev, A. N., Shershnev, A. A.
Format Journal Article
LanguageEnglish
Published Boston Springer US 01.10.2013
Springer Nature B.V
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Abstract A numerical method for simulation of transitional-regime gas flows in microdevices is presented. The method is based on solving relaxation-type kinetic equations using high-order shock capturing weighted essentially non-oscillatory (WENO) schemes in the coordinate space and the discrete ordinate techniques in the velocity space. In contrast to the direct simulation Monte Carlo (DSMC) method, this approach is not subject to statistical scattering and is equally efficient when simulating both steady and unsteady flows. The presented numerical method is used to simulate some classical problems of rarefied gas dynamics as well as some microflows of practical interest, namely shock wave propagation in a microchannel and steady and unsteady flows in a supersonic micronozzle. Computational results are compared with Navier–Stokes and DSMC solutions.
AbstractList A numerical method for simulation of transitional-regime gas flows in microdevices is presented. The method is based on solving relaxation-type kinetic equations using high-order shock capturing weighted essentially non-oscillatory (WENO) schemes in the coordinate space and the discrete ordinate techniques in the velocity space. In contrast to the direct simulation Monte Carlo (DSMC) method, this approach is not subject to statistical scattering and is equally efficient when simulating both steady and unsteady flows. The presented numerical method is used to simulate some classical problems of rarefied gas dynamics as well as some microflows of practical interest, namely shock wave propagation in a microchannel and steady and unsteady flows in a supersonic micronozzle. Computational results are compared with Navier–Stokes and DSMC solutions.
Author Shershnev, A. A.
Kudryavtsev, A. N.
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  givenname: A. A.
  surname: Shershnev
  fullname: Shershnev, A. A.
  email: antony@itam.nsc.ru
  organization: Laboratory of Computational Aerodynamics, Khristianovich Institute of Theoretical and Applied Mechanics
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Keywords Finite-difference scheme
Kinetic models
Transitional regime
Gas microflows
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Snippet A numerical method for simulation of transitional-regime gas flows in microdevices is presented. The method is based on solving relaxation-type kinetic...
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SubjectTerms Algorithms
Boundary conditions
Computation
Computational Mathematics and Numerical Analysis
Direct simulation Monte Carlo method
Equilibrium
Gas flow
Gases
Kinetic equations
Mathematical and Computational Engineering
Mathematical and Computational Physics
Mathematics
Mathematics and Statistics
Microchannels
Numerical methods
Rarefied gas dynamics
Rarefied gases
Shock capturing
Shock wave propagation
Simulation
Theoretical
Unsteady flow
Velocity
Viscosity
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Title A Numerical Method for Simulation of Microflows by Solving Directly Kinetic Equations with WENO Schemes
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