Indicator table for specific physics

Collaboration diagram for Indicator table for specific physics:

Variables
integer	nmodmx
	number of specific physics
integer(c_int), dimension(:), pointer, save	ippmod
	global indicator for speciphic physics By default, all the indicators ippmod(i.....) are initialized to -1, which means that no specific physics is activated.
integer	iphpar
	ippmod(iphpar) is a global indicator for the specific physics:
integer	icod3p
	pointer for specific physics
integer	islfm
	pointer to specify steady laminar flamelet approach
integer	icoebu
	pointer to specify Eddy Break Up pre-mixed flame with indicator ippmod(icoebu)
integer	icolwc
	pointer to specify Libby-Williams pre-mixed flame withy indicator ippmod(icolwc)
integer	ieljou
	pointer to specify Joule effect module (Laplace forces not taken into account) with indicator ippmod(ieljou):
integer	ielarc
	pointer to specify Electric arcs module (Joule effect and Laplace forces) with indicator ippmod(ielarc):
integer	iccoal
	pointer to specify multi-coals and multi-classes pulverised coal combustion with indicator ippmod(iccoal). The number of different coals must be inferior or equal to ncharm = 3. The number of particle size classes nclpch(icha) for the coal icha, must be inferior or equal to ncpcmx = 10.
integer	icompf
	pointer to specify compressible module with indicator ippmod(icompf)
integer	iatmos
	pointer to specify atmospheric flow module with indicator ippmod(iatmos)
integer	iaeros
	pointer to specify cooling towers module with indicator ippmod(iaeros)
integer	igmix
	pointer to specify gas mixture module with indicator ippmod(igmix)

Detailed Description

Variable Documentation

iaeros

integer iaeros

pointer to specify cooling towers module with indicator ippmod(iaeros)

• ippmod(iaeros) =-1 module not activated
• ippmod(iaeros) >= 0 activated

iatmos

integer iatmos

pointer to specify atmospheric flow module with indicator ippmod(iatmos)

• ippmod(iatmos) =-1 module not activated
• ippmod(iatmos) = 0 standard modelling
• ippmod(iatmos) = 1 dry atmosphere
• ippmod(iatmos) = 2 humid atmosphere

iccoal

integer iccoal

pointer to specify multi-coals and multi-classes pulverised coal combustion with indicator ippmod(iccoal). The number of different coals must be inferior or equal to ncharm = 3. The number of particle size classes nclpch(icha) for the coal icha, must be inferior or equal to ncpcmx = 10.

• ippmod(iccoal) = 0 imbalance between the temperature of the continuous and the solid phases
• ippmod(iccoal) = 1 otherwise
• ippmod(iccoal) =-1 module not activated

icod3p

integer icod3p

pointer for specific physics

• ippmod(icod3p) = 0 adiabatic conditions
• ippmod(icod3p) = 1 permeatic conditions (enthalpy transport)
• ippmod(icod3p) =-1 module not activated

icoebu

integer icoebu

pointer to specify Eddy Break Up pre-mixed flame with indicator ippmod(icoebu)

• ippmod(icoebu) = 0 adiabatic conditions at constant richness
• ippmod(icoebu) = 1 permeatic conditions at constant richness
• ippmod(icoebu) = 2 adiabatic conditions at variable richness
• ippmod(icoebu) = 3 permeatic conditions at variable richness
• ippmod(icoebu) =-1 module not activated

icolwc

integer icolwc

pointer to specify Libby-Williams pre-mixed flame withy indicator ippmod(icolwc)

• ippmod(icolwc)=0 two peak model with adiabiatic conditions.
• ippmod(icolwc)=1 two peak model with permeatic conditions.
• ippmod(icolwc)=2 three peak model with adiabiatic conditions.
• ippmod(icolwc)=3 three peak model with permeatic conditions.
• ippmod(icolwc)=4 four peak model with adiabiatic conditions.
• ippmod(icolwc)=5 four peak model with permeatic conditions.
• ippmod(icolwc)=-1 module not activated.

icompf

integer icompf

pointer to specify compressible module with indicator ippmod(icompf)

• ippmod(icompf) = 2 module activated: homogeneous two phase model
• ippmod(icompf) = 1 module activated: single phase model
• ippmod(icompf) = 0 module activated: single phase barotropic model
• ippmod(icompf) =-1 module not activated

ielarc

integer ielarc

pointer to specify Electric arcs module (Joule effect and Laplace forces) with indicator ippmod(ielarc):

• ippmod(ielarc) = 1 determination of the magnetic field by means of the Ampere’ theorem (not available)
• ippmod(ielarc) = 2 determination of the magnetic field by means of the vector potential
• ippmod(ielarc) =-1 module not activated

ieljou

integer ieljou

pointer to specify Joule effect module (Laplace forces not taken into account) with indicator ippmod(ieljou):

• ippmod(ieljou) = 1 use of a real potential
• ippmod(ieljou) = 2 use of a complex potential
• ippmod(ieljou) = 3 use of real potential and specific boundary conditions for transformers.
• ippmod(ieljou) = 4 use of complex potential and specific boundary conditions for transformers.
• ippmod(ieljou) =-1 module not activated

igmix

integer igmix

pointer to specify gas mixture module with indicator ippmod(igmix)

• ippmod(igmix) =-1 module not activated
• ippmod(igmix) = 0 Air/Helium gas mixtures
• ippmod(igmix) = 1 Air/Hydrogen gas mixtures
• ippmod(igmix) = 2 Air/Steam gas mixtures
• ippmod(igmix) = 3 Air/Helium/Steam gas mixtures
• ippmod(igmix) = 4 Air/Hydrogen/Steam gas mixtures
• ippmod(igmix) = 5 Air/Helium with O2 from the air deduced

iphpar

integer iphpar

ippmod(iphpar) is a global indicator for the specific physics:

• 0: no specific physics
• 1: switch on the specific physics
• 2: switch on the specific physics plus radiative transfer with a parametric file

ippmod

integer(c_int), dimension(:), pointer, save ippmod

global indicator for speciphic physics By default, all the indicators ippmod(i.....) are initialized to -1, which means that no specific physics is activated.

• Diffusion flame in the framework of “3 points” rapid complete chemistry: indicator ippmod(icod3p)
  • ippmod(icod3p) = 0 adiabatic conditions
  • ippmod(icod3p) = 1 permeatic conditions (enthalpy transport)
  • ippmod(icod3p) =-1 module not activated
• Diffusion flames in the framework of steady laminar flamelet approach indicator ippmod(islfm)
  • ippmod(islfm) = 0 classic steady laminar flamelet model: adiabatic conditions
  • ippmod(islfm) = 1 classic steady laminar flamelet model: non-adiabatic conditions (enthalpy transport with heat loss)
  • ippmod(islfm) = 2 flamelet/progress variable model: adiabatic conditions
  • ippmod(islfm) = 3 flamelet/progress variable model: non-adiabatic conditions (enthalpy transport with heat loss)
  • ippmod(islfm) =-1 module not activated

Eddy Break Up pre-mixed flame: indicator ippmod(icoebu)

• ippmod(icoebu) = 0 adiabatic conditions at constant richness
• ippmod(icoebu) = 1 permeatic conditions at constant richness
• ippmod(icoebu) = 2 adiabatic conditions at variable richness
• ippmod(icoebu) = 3 permeatic conditions at variable richness
• ippmod(icoebu) =-1 module not activated

Libby-Williams pre-mixed flame: indicator ippmod(icolwc)

• ippmod(icolwc)=0 two peak model with adiabiatic conditions.
• ippmod(icolwc)=1 two peak model with permeatic conditions.
• ippmod(icolwc)=2 three peak model with adiabiatic conditions.
• ippmod(icolwc)=3 three peak model with permeatic conditions.
• ippmod(icolwc)=4 four peak model with adiabiatic conditions.
• ippmod(icolwc)=5 four peak model with permeatic conditions.
• ippmod(icolwc)=-1 module not activated.

Multi-coals and multi-classes pulverised coal combustion: indicator ippmod(iccoal)

The number of different coals must be inferior or equal to ncharm = 5. The number of particle size classes nclpch(icha) for the coal icha, must be inferior or equal to ncpcmx = 20.

• ippmod(iccoal) = 0 imbalance between the temperature of the continuous and the solid phases
• ippmod(iccoal) = 1 otherwise
• ippmod(iccoal) =-1 module not activated

Electric arcs module (Joule effect and Laplace forces): indicator ippmod(ielarc)

• ippmod(ielarc) = 1 determination of the magnetic field by means of the Ampere’ theorem (not available)
• ippmod(ielarc) = 2 determination of the magnetic field by means of the vector potential
• ippmod(ielarc) =-1 module not activated

Joule effect module (Laplace forces not taken into account): indicator ippmod(ieljou)

• ippmod(ieljou) = 1 use of a real potential
• ippmod(ieljou) = 2 use of a complex potential
• ippmod(ieljou) = 3 use of real potential and specific boundary conditions for transformers.
• ippmod(ieljou) = 4 use of complex potential and specific boundary conditions for transformers.
• ippmod(ieljou) =-1 module not activated

compressible flow module: indicator ippmod(icompf)

• ippmod(icompf) = 2 module activated: homogeneous two phase model
• ippmod(icompf) = 1 module activated: single phase model
• ippmod(icompf) = 0 module activated: single phase barotropic model
• ippmod(icompf) =-1 module not activated

atmospheric flow module: indicator ippmod(iatmos)

• ippmod(iatmos) =-1 module not activated
• ippmod(iatmos) = 0 standard modelling
• ippmod(iatmos) = 1 dry atmosphere
• ippmod(iatmos) = 2 humid atmosphere

islfm

integer islfm

pointer to specify steady laminar flamelet approach

• ippmod(islfm) = 0 classic steady laminar flamelet model: adiabatic conditions
• ippmod(islfm) = 1 classic steady laminar flamelet model: non-adiabatic conditions (enthalpy transport with heat loss)
• ippmod(islfm) = 2 flamelet/progress variable model: adiabatic conditions
• ippmod(islfm) = 3 flamelet/progress variable model: non-adiabatic conditions (enthalpy transport with heat loss)
• ippmod(islfm) =-1 module not activated

nmodmx

integer nmodmx

number of specific physics