8.3
general documentation
Variables
Module for dimensions

Variables

integer, save nvar = 0
 number of solved variables (must be lower than nvarmx) More...
 
integer, save nscal = 0
 number of solved user scalars effective number of scalars solutions of an advection equation, apart from the variables of the turbulence model ( $ k $, $ \varepsilon $, $ R_{ij} $, $ \omega $, $ \varphi $, $ \overline{f} $, $ \alpha $, $ \nu_T $), that is to say the temperature and other scalars (passive or not, user-defined or not) These scalars can be divided into two distinct groups: nscaus user-defined scalars and nscapp scalars related to a "specific physics". nscal=nscaus+nscapp, and nscal must be inferior or equal to nscamx. More...
 
integer, save ndimfb
 fake dimension for some boundary face arrays where nfabor = 0 (to avoid issues with array bounds when multidimensional arrays have size nfabor in one dimension) More...
 

Detailed Description

Variable Documentation

◆ ndimfb

integer, save ndimfb

fake dimension for some boundary face arrays where nfabor = 0 (to avoid issues with array bounds when multidimensional arrays have size nfabor in one dimension)

◆ nscal

integer, save nscal = 0

number of solved user scalars effective number of scalars solutions of an advection equation, apart from the variables of the turbulence model ( $ k $, $ \varepsilon $, $ R_{ij} $, $ \omega $, $ \varphi $, $ \overline{f} $, $ \alpha $, $ \nu_T $), that is to say the temperature and other scalars (passive or not, user-defined or not) These scalars can be divided into two distinct groups: nscaus user-defined scalars and nscapp scalars related to a "specific physics". nscal=nscaus+nscapp, and nscal must be inferior or equal to nscamx.

◆ nvar

integer, save nvar = 0

number of solved variables (must be lower than nvarmx)