Computational Fluid Dynamics Library

Kashiwa, B. A.; Padial, N. T.; Rauenzahn, R. M.; VanderHeyden, & W.B.

Title: Computational Fluid Dynamics Library

Abstract

CFDLib05 is the Los Alamos Computational Fluid Dynamics LIBrary. This is a collection of hydrocodes using a common data structure and a common numerical method, for problems ranging from single-field, incompressible flow, to multi-species, multi-field, compressible flow. The data structure is multi-block, with a so-called structured grid in each block. The numerical method is a Finite-Volume scheme employing a state vector that is fully cell-centered. This means that the integral form of the conservation laws is solved on the physical domain that is represented by a mesh of control volumes. The typical control volume is an arbitrary quadrilateral in 2D and an arbitrary hexahedron in 3D. The Finite-Volume scheme is for time-unsteady flow and remains well coupled by means of time and space centered fluxes; if a steady state solution is required, the problem is integrated forward in time until the user is satisfied that the state is stationary.

Authors:: Kashiwa, B. A.; Padial, N. T.; Rauenzahn, R. M.; VanderHeyden, & W.B.

Publication Date:: Fri Mar 04 00:00:00 EST 2005

Research Org.:: Los Alamos National Laboratory (LANL), Los Alamos, NM (United States)

Sponsoring Org.:: DOE/DP; USDOD

OSTI Identifier:: 1230634

Report Number(s):: CFDLib05; 000663SUN0002

DOE Contract Number:: W-7405-ENG-36

Resource Type:: Software

Software Revision:: 02

Software Package Number:: 000663

Software Package Contents:: Software Abstract; Program note for CFDLib05; LA-UR-93-3922; Media Includes Media Directory, Source Code, Auxiliary Material; Compilation Instructions, Linking Instructions; Object Module; Sample Problem Input and Output;\ 1 CD ROM

Software CPU:: SUN00

Open Source:: No

Source Code Available:: Yes

Other Software Info:: The following codes are included in this package: CAVEAT and, compressible, single-velocity, explicit Godunov hydro, van Leer advection, mixed-cell interface tracking, numerous physics packages (HE burn, compressible turbulence transport, etc.). CCMAC, incompressible, single-fluid, ALE, semi-implicit, TVD hydro. CCICE, compressible, single-fluid, ALE semi-implicit, TVD hydro. MSMAC, incompressible, multi-species, ALE, semi-implicit, TVD hydro. MSICE, compressible, multi-species, ALE, implicit, TVD hydro, optional N-species, M-reaction, gas-phase finite-rate chemical kinetics. MFMAC, incompressible, multiphase, ALE, semi-implicit, TVD hydro. MFICE, compressible, multiphase, ALE semi-implicit, TVD hydro. MFMHD, compressible, multifluid, magnetohydrodynamic, semi-implicit, TVD hydro, Lagrangean or Eulerian, N-species, M-reaction gas-phase chemical kinetics, global remapping. CFDSET, general interactive mesh generator.

Country of Publication:: United States

Citation Formats


                    Kashiwa, B. A., Padial, N. T., Rauenzahn, R. M., and VanderHeyden, & W.B. Computational Fluid Dynamics Library.  
        Computer software.   Vers. 02. DOE/DP; USDOD. 4 Mar. 2005.  
        Web.

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                    Kashiwa, B. A., Padial, N. T., Rauenzahn, R. M., & VanderHeyden, & W.B. (2005, March 4).  Computational Fluid Dynamics Library (Version 02) [Computer software].

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                    Kashiwa, B. A., Padial, N. T., Rauenzahn, R. M., and VanderHeyden, & W.B. Computational Fluid Dynamics Library.  
        Computer software.   Version 02. March 4, 2005.

Copy to clipboard


                    
@misc{osti_1230634,

  title        = {Computational Fluid Dynamics Library, Version 02},

  author       = {Kashiwa, B. A. and Padial, N. T. and Rauenzahn, R. M. and VanderHeyden, & W.B.},

  abstractNote = {CFDLib05 is the Los Alamos Computational Fluid Dynamics LIBrary. This is a collection of hydrocodes using a common data structure and a common numerical method, for problems ranging from single-field, incompressible flow, to multi-species, multi-field, compressible flow. The data structure is multi-block, with a so-called structured grid in each block. The numerical method is a Finite-Volume scheme employing a state vector that is fully cell-centered. This means that the integral form of the conservation laws is solved on the physical domain that is represented by a mesh of control volumes. The typical control volume is an arbitrary quadrilateral in 2D and an arbitrary hexahedron in 3D. The Finite-Volume scheme is for time-unsteady flow and remains well coupled by means of time and space centered fluxes; if a steady state solution is required, the problem is integrated forward in time until the user is satisfied that the state is stationary.},

  
  doi          = {},

  url          = {https://www.osti.gov/biblio/1230634},
  year         = {Fri Mar 04 00:00:00 EST 2005},

  month        = {Fri Mar 04 00:00:00 EST 2005},

  note         = 

}

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