Modules

Module containing subroutines for building MUSUBI specific absorbLayer source variables

This module contains routine to retrieve auxiliary field variables for getElement, getPoint, setupIndices and getValOfIndex. Auxilary field variables are: * density and velocity for fluid * species desity and velocity for multispecies * potential for poisson

Boundary condition treatment routines for Poisson equation

This module provides the definition and methods for musubi-specific communication. It includes the wrapper functions for the actual communication, which is defined in tem_comm_module.

In this module, the control structure for computing each time step is established.

This module contains the type defintion which stores position of all derive variables in global varSys.

This module contains an interface for external C++ code to compute liquid mixture property like thermodynamic factor and Maxwell-Stefan Diffusivity coefficients

This module contains mus_field_prop_type and modules related to fiels properties.

This module contains the definition of geometry type and routines to geometry information like mesh, boundary, immersed_boundary and restart

This module provides the definitions of M and Minv for MRT advection relaxation scheme for all stencils.

In this module, all parameter files are read in as lua script or a sample configuration is being loaded

This module contains routines which initiliaze advection relaxation and flow field for lbm model.

This module contains routines which initiliaze advection relaxation and flow field for lbm model for acoustic equations.

This module contains routines which initiliaze advection relaxation and flow field for multispecies lbm gas model and liquid model.

This module contains routines which initiliaze advection relaxation and flow field for lbm incompressible model.

This module contains the code responsible for adaptively refining the mesh during run time.

This module deals with the calculation of moments from pdfs

This module provides the definitions of M and Minv for MRT advection relaxation scheme for all stencils.

This module provides the definition and methods for boundarys.

This module contains data type and modules related to musubi lattice to physical unit convertion and vice versa. \n physics data type is global for all scheme, it is defined in the following format: \n

This module contains the data type for MRT.

This module contains data types, function and routines for gradient computation.

scheme_layout module, providing the scheme_layout datatype and the functionality to read the lua files and to set the predefined stencils.

This module contains the type definition(s) required in the scheme routines In addition depend type and condition type for geometry increase routine are defined. Compute kernel definition is also defined in this module

Module containing subroutines for initialize Musubi source variables and update source terms

Module containing subroutines for building MUSUBI specific source variables

This module contains mus_species_type and routines to load species table from config file.

This module contains time definition needed for musubi

Some generic handy check routines to check the properties of the flow field and the current run

Module containing subroutines for building MUSUBI specific transport variables to use in compute kernels and source update

This module contains turbulent wall function type and routines to calculate friction velocity and stream-wise velocity component.

This module provides all possible 'pure variables' (= no prefixes) for a given kind of simulation.

This module contains function to compute eddy viscosity for Wall-Adapting Local Eddy-Viscosity turbulence model. This implementation follows the LES described by Weickert et al. Weickert, M., Teike, G., Schmidt, O., & Sommerfeld, M. (2010). Investigation of the LES WALE turbulence model within the lattice Boltzmann framework. Computers and Mathematics with Applications, 59(7), 2200–2214. author: Kannan Masilamani

This module contains data types, function and routines for wall function computations relative to Musker profile. Haussmann, Marc; BARRETO, Alejandro CLARO; KOUYI, Gislain LIPEME; Rivière, Nicolas; Nirschl, Hermann; Krause, Mathias J. (2019): Large-eddy simulation coupled with wall models for turbulent channel flows at high Reynolds numbers with a lattice Boltzmann method — Application to Coriolis mass flowmeter. In Computers & Mathematics with Applications 78 (10), pp. 3285–3302. DOI: 10.1016/j.camwa.2019.04.033.

This module contains data types, function and routines for wall function computations relative to Schmitt profile. Ref to following paper for Schmitt three layer equations. Haussmann, M. et al. (2019) ‘Large-eddy simulation coupled with wall models for turbulent channel flows at high Reynolds numbers with a lattice Boltzmann method — Application to Coriolis mass flowmeter’, Computers & Mathematics with Applications. Elsevier Ltd, 78(10), pp. 3285–3302.