-
Jean Braun authoredJean Braun authored
module_definitions.f90 13.88 KiB
module definitions
!=====[EDGE]====================================================================
!this type is to store edges in a trianglulation
! it is used to update (in a generalized Delaunay sense)
! the triangulation of the 3D points on the surfaces
! for each edge:
! n1, n2 are the node numbers defining the edge
! t1, t2 are the triangle numbers on either side of the edge
! going from n1 to n2, t1 is to the left and t2 is to the right
! m1, m2 are the node numbers of the two other nodes making t1 and t2
type edge
integer n1,n2,m1,m2,t1,t2
end type edge
!=====[SHEET]===================================================================
! this type to store surfaces tracked by particles
! nsurface is number of particles
! x,y,z and xn,yn,zn are the coordinates and normals of the particles
! r,s are the 2D positions of the particles
! levelt is the resolution level (power of 2)
! itype is the type of surface (0 not foldable, 1 foldable)
! material is the material number
type sheet
integer nsurface,nt
double precision,dimension(:),pointer::r,s,x,y,z,xn,yn,zn,u,v,w
integer levelt,itype,material,surface_type
double precision :: sp01,sp02,sp03,sp04,sp05,sp06,sp07,sp08,sp09,sp10,sp11
double precision :: sp12,activation_time
integer,dimension(:,:),pointer::icon
logical rand
integer leveloct
double precision :: stretch,anglemax,anglemaxoctree
integer :: criterion
integer spread_surface_points
end type sheet
!=====[OCTREEV]=================================================================
! octreev type to store velocity/temperature octree
! octree is octree
! noctree is onctree max size
! nnode is number of nodes on the octree
! nleaves is number of leaves in the octree
! x,y,z are the coordinates of the nodes
! unode,vnode,wnode are the velocity conponents at the nodes
! wiso is the velocity z-component due to isostasy
! temp is temperature at the nodes
! icon is connectivity array between nodes
type octreev
integer,dimension(:),pointer::octree
integer noctree,nnode,nleaves
double precision,dimension(:),pointer::x,y,z,temp
double precision,dimension(:),pointer::unode,vnode,wnode,wnodeiso
double precision,dimension(:),pointer::pressure,spressure
double precision,dimension(:),pointer::temporary_nodal_pressure
integer,dimension(:,:),pointer::icon
logical, dimension(:),pointer :: whole_leaf_in_fluid
end type octreev
!=====[OCTREELSF]===============================================================
! octreelsf type to store level set function
! octree is octree
! noctree is onctree max size
! nnode is number of nodes on the octree
! nleaves is number of leaves in the octree
! x,y,z are the coordinates of the nodes
! lsf is level set fuction values at the nodes! icon is connectivity array between nodes
type octreelsf
integer,dimension(:),pointer::octree
integer noctree,nnode,nleaves
double precision,dimension(:),pointer::x,y,z,lsf
integer,dimension(:,:),pointer::icon
end type octreelsf
!=====[OCTREESOLVE]=============================================================
! same as octreelsf except that this type can store nlsf lsfs
! total accuulated strain interpolated from a 3D cloud
! nodal velocities u,v,w, interpolated from octreev
! temperature velocities temp
! and bad faces
type octreesolve
integer,dimension(:),pointer::octree,kfix,kfixt
integer noctree,nnode,nleaves,nlsf,nface
double precision,dimension(:),pointer::x,y,z
double precision,dimension(:),pointer::strain,pressure,spressure
double precision,dimension(:),pointer::crit
double precision,dimension(:),pointer::e2d
double precision,dimension(:),pointer::e3d
double precision,dimension(:),pointer::lode
double precision,dimension(:),pointer::u,v,w,wiso,temp
double precision,dimension(:,:),pointer::lsf
double precision,dimension(:),pointer::eviscosity,q,dilatr
integer,dimension(:,:),pointer::icon,iface
logical,dimension(:),pointer::is_plastic
integer,dimension(:),pointer :: matnum
end type octreesolve
!=====[MATERIAL]================================================================
! type material to define different materials
! density is product of density by g
! viscosity is viscosity
! expon is the stress exponent in the expression for the viscosity
! activationenergy is the activation energy
! expansion is the coefficient of thermal expansion (note that the temperature is first multiplied by the
! temperature scale before it is multiplied by the expansion coefficient)
! penalty is incompressibility penalty factor
! plasticity_type is the type of plasticity (vM for von Mises)
! plasticity_parameters are the nine plasticity parameters
type material
character(len=8) plasticity_type
double precision :: plasticity_parameters(9)
double precision :: density,viscosity,penalty,expon,activationenergy
double precision :: diffusivity,heat,expansion,ztrans
integer :: transnum
end type material
!=====[VOID]====================================================================
! type void to store information on node, leaves and faces that are in the void
! node=1 for nodes that are conpletely in the void (they are taken out of the equation set)
! leaf=1 for leaves that are completely in the void
! face=1 for faces that are completely in the void
! nnode is the number of nodes to be solved for (number of nodes not in the void)
! nleaves is the number of active leaves
! nface is the number of active faces
! rtf (restricted to full) is an array that provides the connectivity
! between the restricted and full
! node numbers (j=rtf(i) where i is restricted node number (1 to vo%nnode)
! and j is full node number (1 to nnode))
! ftr (full to restricted) is the complement
! influid is true for nodes that are in the fluid
type void
integer,dimension(:),pointer::node,leaf,face,ftr,rtf logical,dimension(:),pointer::influid
integer nnode,nleaves,nface
end type void
!=====[CLOUD]===================================================================
! type cloud is to store volumetric cloud of points
! it is very simple and made of
! np : number of particles!
! x,y,z : location
! x0, y0, z0: original particle position (used to calculate F: deformation gradient
! and from it the total strain)
! strain: accumulated strain
type cloud
integer np,ntag
double precision,dimension(:),pointer::x,y,z,x0,y0,z0,strain,lsf0,temp,press
integer,dimension(:),pointer::tag
end type cloud
!=====[TOPOLOGY]================================================================
! type topology is used to store the matrix topology for the solver
type topology
integer nheight,nheightmax
integer,dimension(:),pointer::icol
end type topology
!=====[BOX]=====================================================================
! type box is used to store the geometrical information about a general box
! that is used to refine an octree in an arbitrary manner
type box
double precision x0,y0,z0,x1,y1,z1
integer level
end type box
!=====[FACE]====================================================================
! type face is used to store the refinement informations on a given face of the cube
type face
integer level
double precision t,b,l,r
end type
!=====[CROSS_SECTION]===========================================================
! this type is used to store all the parameters related to the cross sections
! the 'flag' parameters toggle on/off the associated ield cross section
! scale is the global scale of the output postscript
! xyz =1,2,3 corresponding to a cross section at constant x,y, or z (resp.)
type cross_section
integer xyz
double precision slice,scale
logical flag_spress,flag_press,flag_e2d,flag_e3d,flag_crit,flag_grid,flag_lsf
logical flag_u,flag_v,flag_w,flag_uvw,flag_q,flag_vfield,flag_strain
logical flag_colour,flag_lode,flag_mu,flag_plastic,flag_velvect,flag_temp
character(len=3) colormap
integer ncolours
end type
!=====[PARAMETERS]==============================================================
! this contains all sorts of parameters used in the code, such as flags,
! convergence parameters, octree levels, ... pretty much all parameters
! that are read in the input file.
! isobc is a boolean value used to turn on/off the use of the modified isostasy
! boundary conditions (dwhipp 12/09)
type parameters
logical compute_qpgram
logical normaladvect logical excl_vol
logical doDoRuRe
logical ref_on_faces
logical visualise_matrix
logical renumber_nodes
logical erosion
logical adaptive_tol
logical calculate_temp
logical isostasy
logical flexure
logical isobc
logical bulkvisc
logical init_e2d
logical invariants_2d
logical ismooth
logical nest
logical damp_surface
integer nmpi
integer matrule
integer levelcut
integer levelapprox
integer nstep
integer noctreemax
integer levelmax_oct
integer leveluniform_oct
integer smoothing_type
integer debug
integer npmin,npmax
integer irestart
integer refine_criterion
integer niter_move
integer griditer
integer nonlinear_iterations
integer mpe
integer nmat
integer nboxes
integer nb_iter_nl_min
integer nsections
integer ns
integer initial_refine_level
integer baselevelx0
integer baselevelx1
integer baselevely0
integer baselevely1
integer,dimension(:),pointer::materialn
double precision ztemp
double precision dt
double precision refine_ratio
double precision courant
double precision octree_refine_ratio
double precision distance_exponent
double precision tol
double precision penalty
double precision tempscale
double precision zerosion
double precision viscositymin,viscositymax
double precision velocity_scale,length_scale
double precision diffusion_erosion
double precision fluvial_erosion
double precision elastic_plate_thickness
double precision density_difference
double precision vex
double precision e2d0
character*128 restartfile
character*40 infile
end type
!=====[INTERFACE SCANFILE]======================================================
! following is a general interface to read stuff from a file
interface scanfile
subroutine iscanfile (fnme,text,res,ires)
character*(*) fnme,text
integer,intent(out)::res
integer,intent(out)::ires
end subroutine iscanfile
subroutine dscanfile (fnme,text,res,ires)
character*(*) fnme,text
double precision,intent(out)::res
integer,intent(out)::ires
end subroutine dscanfile
subroutine cscanfile (fnme,text,res,ires)
character*(*) fnme,text
character*(*),intent(out)::res
integer,intent(out)::ires
end subroutine cscanfile
end interface
!=====[INTERFACE QSORT]=========================================================
! following is a general interface to sort an array of numbers
interface qsort
subroutine iqsort (array,n,perm)
integer,intent(in) :: n
integer,dimension(n),intent(inout)::array
integer,dimension(n),intent(inout)::perm
end subroutine iqsort
subroutine rqsort (array,n,perm)
integer,intent(in) :: n
real,dimension(n),intent(inout)::array
integer,dimension(n),intent(inout)::perm
end subroutine rqsort
subroutine dpqsort (array,n,perm)
integer,intent(in) :: n
real*8,dimension(n),intent(inout)::array
integer,dimension(n),intent(inout)::perm
end subroutine dpqsort
subroutine iqsort_s (array,n)
integer,intent(in) :: n
integer,dimension(n),intent(inout)::array
end subroutine iqsort_s
subroutine rqsort_s (array,n)
integer,intent(in) :: n
real,dimension(n),intent(inout)::array
end subroutine rqsort_s
! subroutine dpqsort_s (array,n)
! integer,intent(in) :: n
! real*8,dimension(n),intent(inout)::array
! end subroutine dpqsort_s
end interface
!=====[ZISODISP]================================================================
! type ziso is used to store the isostatic deflection of the basal boundary
! due to isostasy
type ziso
double precision,dimension(:,:),pointer::zisodisp,zisoinc
end type ziso
!=====[BC_DEFINITION]===========================================================
! type bc_definition is used to store values related to the applied boundary
! conditions, including the velocity values and certain geometric parameters
type bc_definition character(len=3) :: bcorder
double precision,dimension(:,:),pointer :: zisodisp,zisoinc
double precision :: ux0,ux1,vx0,vx1,wx0,wx1,uy0,uy1,vy0,vy1,wy0,wy1
double precision :: uz0,uz1,vz0,vz1,wz0,wz1
logical :: fixux0,fixux1,fixvx0,fixvx1,fixwx0,fixwx1
logical :: fixuy0,fixuy1,fixvy0,fixvy1,fixwy0,fixwy1
logical :: fixuz0,fixuz1,fixvz0,fixvz1,fixwz0,fixwz1
end type bc_definition
!=====[NEST_INFO]===============================================================
! type nest_info is used to store information related to the LS model and
! embedded SS nest
!
! lsoutfile: file that is read to define the nest velocity B/Cs
! sselem[x,y,z]: ratio of ss element size to ls element size (should be 0-1)
! [x,y,z]minls: location of (0,0,0) in the SS model within the LS model
type nest_info
character(len=128) :: lsoutfile
double precision :: sselemx,sselemy,sselemz,xminls,yminls,zminls
end type nest_info
end module definitions