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$$$$ COQ2MAS  NOTICE  PASCAL    14/01/23    21:15:01     7911           
                                             DATE     14/01/23
                                             
Procedure COQ2MAS:             Voir aussi : FOUR2TRI, POUT2MAS

      MAIL3D = COQ2MAS MOD1 MAT1 TAB1; 



Description:
------------
     COQ2MAS generates a volumetric mesh MAIL3D from a shell model
     for checking the dimensions and orientations of each layer.
     Each layer can be represented by an excentrated shell
      (meshs available in the TAB1 table) or a volumetric mesh 
     with the same  thickness as the multilayer shell element. 
     The displacement, stress and internal variable fields defined 
     on the initial shell model can also be exported onto the new 
     meshs for visualization. 

     
Input :
-------
   MOD1 : Simple or Multilayer shell Model object (MMODEL type) 
   
   MAT1:  Field of material characteristics with the material field
          and the geometrical characteristics (thickness, excentricity) 
          
   TAB1: Table with the fields to be transfered onto the meshes created 
         by COQ2MAS. The meshes can be created in a previous call 
         to the COQ2MAS operator. 
         In this case, the meshes are not generated again.

   TAB1. 'DEPLACEMENTS': Table with the displacement field defined 
                         on the shell  finite elements 
                       
   TAB1.'DEPLACEMENTS'.i:  Displacement field (CHPOINT type)
 
                         
   TAB1. 'CONTRAINTES': Table with the generalized stresses 
                        defined on the shell finite elements
                                                  
   TAB1. 'VARIABLES_INTERNES': Table with the internal variables 
                               defined on the shell finite elements
                       
   TAB1.'RELATION_3D': If this index contain the boolean VRAI, the
                       kinematic constraints between the shell model
                       and the solid mesh are created. 
                          
   Remark: Displacements, stresses and internal variables given  
          by the PASAPAS procedure can be directly used by doing:
          TAB1.'DEPLACEMENTS' = TABPASPAS . 'DEPLACEMENTS' ;
          TAB1.'CONTRAINTES' = TABPASPAS . 'CONTRAINTES' ;        
          TAB1.'VARIABLES_INTERNES' = TABPASPAS . 'VARIABLES_INTERNES';
            
Output:
------
    MAIL3D: Maillage 3D volumique ou surfacique
                                                    
    TAB1: Table with the following index:

    TAB1. 'MODELE': Table containing the model of each layer
    
    TAB1. 'MODELE' . i: Model of the layer i (MMODEL type)             
    
    TAB1. 'MATERIAU': Table containing the material characteristics
                      of each layer
                    
    TAB1. 'MATERIAU' . i: Field of Material characteristics for
                          the layer i    
    
    TAB1. 'MAILLAGE_FIBRE_MOYENNE' : Table containing the surfacic 
           meshes at the position taking into account the excentricity
           (average layer)
    TAB1. 'MAILLAGE_FIBRE_MOYENNE' . i : Mesh for the layer i                   
    
    TAB1. 'MAILLAGE_FIBRE_INFERIEURE' : Table containing the surfacic 
           meshes taking into account the excentricity and the thickness
           (lower side)
    TAB1. 'MAILLAGE_FIBRE_INFERIEURE' . i : Mesh for the layer i     

    TAB1. 'MAILLAGE_FIBRE_SUPERIEURE' : Table containing the surfacic 
           meshes taking into account the excentricity and the thickness
           (upper side)
    TAB1. 'MAILLAGE_FIBRE_SUPERIEURE' . i : Mesh for the layer i 
    
    TAB1. 'MAILLAGE_VOLUMIQUE' : Table containing the volumic meshes
           taking into account the excentricity and the thickness
    TAB1. 'MAILLAGE_VOLUMIQUE' . i : Mesh for the layer i               
                 
    TAB1. 'DEPLACEMENTS_FIBRE_MOYENNE': Table containing the 
           displacement field for the average layer
    TAB1. 'DEPLACEMENTS_FIBRE_MOYENNE'. i: Displacement field for
           the layer i   
          
    TAB1. 'DEPLACEMENTS_FIBRE_INFERIEURE': Table containing the 
           displacement  field for the lower side of the layer
    TAB1. 'DEPLACEMENTS_FIBRE_INFERIEURE'. i: Displacement field for 
           the layer i
             
    TAB1. 'DEPLACEMENTS_FIBRE_SUPERIEURE': Table containing 
           the displacement field for the upper side of the layer
    TAB1. 'DEPLACEMENTS_FIBRE_SUPERIEURE'. i: Displacement field for 
           the layer i  

    TAB1. 'DEPLACEMENTS_VOLUMIQUE': Table containing the displacement 
           field for the volumic mesh
    TAB1. 'DEPLACEMENTS_VOLUMIQUE'. i: Displacement field for 
           the layer i      

    TAB1. 'VARI_FIBRE_MOYENNE': Table containing the internal variable 
           field for the average layer
    TAB1. 'VARI_FIBRE_MOYENNE'. i: Internal variable field 
           for the layer i       

    TAB1. 'CONTRAINTES_FIBRE_MOYENNE': Table containing the stress 
           field for the average layer
    TAB1. 'CONTRAINTES_FIBRE_MOYENNE'. i: Stress field for the layer i
           (these stress fields are real stresses computed with CALP
           operator and not generalized) 
                                              
    TAB1. 'CONTRAINTES_FIBRE_INFERIEURE': Table containing the stress 
           field for the lower side of the layer
    TAB1. 'CONTRAINTES_FIBRE_INFERIEURE'. i: Stress field for 
           the layer i
             
    TAB1. 'CONTRAINTES_FIBRE_SUPERIEURE': Table containing the stress 
           field for the upper side of the layer
    TAB1. 'CONTRAINTES_FIBRE_SUPERIEURE'. i: Stress field for 
           the layer i  

    TAB1. 'CONTRAINTES_VOLUMIQUE': Table containing the stresss 
           field for the volumic mesh
    TAB1. 'CONTRAINTES_VOLUMIQUE'. i: Stress field for the layer i    
   
    TAB1.'RELATION_3D': Table containing the  kinematic constraints
           (RIGIDITE) between the shell and the solid meshes          
                     
    Remark 1: For all the previous table, the 'TOTAL' index contains 
              the mesh or the field for all the layers
       
    Remark 2: Stresses and internal variables on the surfacic and 
              volumic meshes are given at the nodes (CHPO type) 

    Remark 3: Stresses in each layer are given in the local framework
              of shell elements.
                
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