Variables
integer, save	nvar
	number of solved variables (must be lower than nvarmx) More...

integer, save	nscal
	number of solved user scalars effective number of scalars solutions of an advection equation, apart from the variables of the turbulence model ( , $\varepsilon$ , $R_{ij}$ , $\omega$ , $\varphi$ , $\overline{f}$ , $\alpha$ , $\nu_T$ ), 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

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

number of solved variables (must be lower than nvarmx)

Variables

Detailed Description

Variable Documentation

◆ ndimfb

◆ nscal

◆ nvar