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|
! Mask modification functions.
! The grid function eh_mask is used to encode excision and boundary
! information. An excised point has the value -1, while an active point
! is 0 or positive. If it is zero the point has neighbours in all
! directions while if it is positive the value encodes which neighbours are
! missing. The mask uses 6 bits of an integer to encode this information.
! If the neighbour in the -x-direction is missing the mask is set
! to 1 (b000001). If the neighbour in the +x-direction is missing the mask
! is set to 2 (b000010). For the y-directions the values are 4 (b000100) and
! 8 (b001000). For the z-direction they are 16 (b010000) and 32 (b100000).
! For example a point with no active neighbours in the +x, -y and +z direction
! will have a mask value of 38 (b100110).
! $Header$
#include "cctk.h"
#include "cctk_Parameters.h"
#include "cctk_Arguments.h"
! This routine is called only once to initialise the mask at the physical
! outer boundaries. The value of the mask in these points should never
! be changed again.
subroutine EHFinder_MaskInit(CCTK_ARGUMENTS)
use EHFinder_mod
implicit none
DECLARE_CCTK_PARAMETERS
DECLARE_CCTK_ARGUMENTS
DECLARE_CCTK_FUNCTIONS
CCTK_INT :: i, j, k
! Initialise the mask to 0.
eh_mask = 0
! Figure out the local dimensions of the grid excluding ghostzones and
! symmetry zones.
# include "include/physical_part.h"
! Check if the point is located at a physical outer boundary and set the
! eh_mask appropriately. The array ll is defined in EHFinder_mod.F90
! and contains the values ( 1, 2, 4, 8, 16, 32 ).
if ( ( cctk_bbox(1) .eq. 1 ) .and. ( ixl .eq. 1 ) ) then
eh_mask(1,:,:) = eh_mask(1,:,:) + ll(0)
end if
if ( ( cctk_bbox(2) .eq. 1 ) .and. ( ixr .eq. nx ) ) then
eh_mask(nx,:,:) = eh_mask(nx,:,:) + ll(1)
end if
if ( ( cctk_bbox(3) .eq. 1 ) .and. ( jyl .eq. 1 ) ) then
eh_mask(:,1,:) = eh_mask(:,1,:) + ll(2)
end if
if ( ( cctk_bbox(4) .eq. 1 ) .and. ( jyr .eq. ny ) ) then
eh_mask(:,ny,:) = eh_mask(:,ny,:) + ll(3)
end if
if ( ( cctk_bbox(5) .eq. 1 ) .and. ( kzl .eq. 1 ) ) then
eh_mask(:,:,1) = eh_mask(:,:,1) + ll(4)
end if
if ( ( cctk_bbox(6) .eq. 1 ) .and. ( kzr .eq. nz ) ) then
eh_mask(:,:,nz) = eh_mask(:,:,nz) + ll(5)
end if
return
end subroutine EHFinder_MaskInit
! This routine will excise points and re-activate excised points
! after need. EHFinder_Setmask2 will then find the boundary of the
! excsion region and make sure that the mask is correct there.
subroutine EHFinder_SetMask1(CCTK_ARGUMENTS)
use EHFinder_mod
implicit none
DECLARE_CCTK_PARAMETERS
DECLARE_CCTK_ARGUMENTS
DECLARE_CCTK_FUNCTIONS
CCTK_INT :: i, j, k, i1, i2, j1, j2, k1, k2
logical :: active
CCTK_INT, dimension(3) :: imin_loc, imax_loc, imin_n, imax_n
CCTK_REAL, dimension(3) :: fimin_loc, fimax_loc
active = .false.
! If the mask has not been set before, we should do it now so
! we set active=.true.
! mask_first is initialized to .true. in EHFinder_mod.F90
if ( mask_first ) active = .true.
! If re-parametrization has just been done, we should reset the mask so we
! set active=.true.
if ( CCTK_EQUALS(re_param_method,'approx') .or. &
CCTK_EQUALS(re_param_method,'mixed') ) then
if ( reparametrize_every_approx .gt. 0 ) then
if ( mod(cctk_iteration,reparametrize_every_approx) .eq. 0 ) then
active = .true.
end if
end if
end if
if ( CCTK_EQUALS(re_param_method,'pde') .or. &
CCTK_EQUALS(re_param_method,'mixed') ) then
if ( reparametrize_every_pde .gt. 0 ) then
if ( mod(cctk_iteration,reparametrize_every_pde) .eq. 0 ) active = .true.
end if
end if
! If the reparametrization was not undone...
if ( active .and. .not.reparam_undone ) then
! Get the minimum and maximum index excluding ghost and symmetry cells.
# include "include/physical_part.h"
! Store the current mask and level set function
tm_mask(ixl:ixr,jyl:jyr,kzl:kzr) = eh_mask(ixl:ixr,jyl:jyr,kzl:kzr)
ftmp(ixl:ixr,jyl:jyr,kzl:kzr) = f(ixl:ixr,jyl:jyr,kzl:kzr)
! Next we try to locate the minimum and maximum of the global indeces of
! the currently active cells giving us the smallest rectangular box
! containing all active cells.
if ( use_outer_excision .gt. 0 ) then
! First initialize some variables.
! fimin_loc, and fimax_loc are 3 element arrays that will contain the
! minimum value of f on the boundaries of this rectangular box. They
! will be used to decide if the box should be changed. They are
! initialized to the negative of the value used in excised cells.
! The 3 element arrays imin_loc and imax_loc will contain the min and
! max global indices of the ractangular box. They are initialised to
! the maximum global index and 0, respectively.
fimin_loc = -ex_value; fimax_loc = -ex_value
imin_loc = cctk_gsh; imax_loc = 0
! Find all cells with f<shell_width*delta and find their minimum
! and maximum global cell index.
do k = kzl, kzr
do j = jyl, jyr
do i = ixl, ixr
if ( eh_mask(i,j,k) .ge. 0 ) then
if ( f(i,j,k) .lt. shell_width * delta ) then
if ( i+cctk_lbnd(1) .le. imin_loc(1) ) then
imin_loc(1) = i+cctk_lbnd(1)
end if
if ( i+cctk_lbnd(1) .ge. imax_loc(1) ) then
imax_loc(1) = i+cctk_lbnd(1)
end if
if ( j+cctk_lbnd(2) .le. imin_loc(2) ) then
imin_loc(2) = j+cctk_lbnd(2)
end if
if ( j+cctk_lbnd(2) .ge. imax_loc(2) ) then
imax_loc(2) = j+cctk_lbnd(2)
end if
if ( k+cctk_lbnd(3) .le. imin_loc(3) ) then
imin_loc(3) = k+cctk_lbnd(3)
end if
if ( k+cctk_lbnd(3) .ge. imax_loc(3) ) then
imax_loc(3) = k+cctk_lbnd(3)
end if
end if
end if
end do
end do
end do
! Reduce over all processors to get the global indeces of the
! rectangular box containing all cells with f<shell_width*delta
call CCTK_ReduceLocArrayToArray1D ( ierr, cctkGH, -1, min_handle, &
imin_loc, imin_glob, 3, CCTK_VARIABLE_INT )
if ( ierr .ne. zero ) then
call CCTK_WARN ( 0, 'Reduction of array imin_loc failed' )
end if
call CCTK_ReduceLocArrayToArray1D ( ierr, cctkGH, -1, max_handle, &
imax_loc, imax_glob, 3, CCTK_VARIABLE_INT )
if ( ierr .ne. zero ) then
call CCTK_WARN ( 0, 'Reduction of array imax_loc failed' )
end if
! Convert into local indeces. Note that these might be less than 1 or
! larger than the local grid size if the box does not overlap with the
! local grid.
i1 = imin_glob(1)-cctk_lbnd(1)
i2 = imax_glob(1)-cctk_lbnd(1)
j1 = imin_glob(2)-cctk_lbnd(2)
j2 = imax_glob(2)-cctk_lbnd(2)
k1 = imin_glob(3)-cctk_lbnd(3)
k2 = imax_glob(3)-cctk_lbnd(3)
! Find the minimum value of f on the various faces of the rectangular box
! if part of the face is present on the current grid.
if ( ( 1 .le. i1 ) .and. ( i1 .le. nx ) ) then
fimin_loc(1) = minval ( f(i1,jyl:jyr,kzl:kzr) )
end if
if ( ( 1 .le. i2 ) .and. ( i2 .le. nx ) ) then
fimax_loc(1) = minval ( f(i2,jyl:jyr,kzl:kzr) )
end if
if ( ( 1 .le. j1 ) .and. ( j1 .le. ny ) ) then
fimin_loc(2) = minval ( f(ixl:ixr,j1,kzl:kzr) )
end if
if ( ( 1 .le. j2 ) .and. ( j2 .le. ny ) ) then
fimax_loc(2) = minval ( f(ixl:ixr,j2,kzl:kzr) )
end if
if ( ( 1 .le. k1 ) .and. ( k1 .le. nz ) ) then
fimin_loc(3) = minval ( f(ixl:ixr,jyl:jyr,k1) )
end if
if ( ( 1 .le. k2 ) .and. ( k2 .le. nz ) ) then
fimax_loc(3) = minval ( f(ixl:ixr,jyl:jyr,k2) )
end if
! Reduce to get the minimum values of f on the faces of the box
call CCTK_ReduceLocArrayToArray1D ( ierr, cctkGH, -1, min_handle, &
fimin_loc, fimin_glob, 3, CCTK_VARIABLE_REAL )
if ( ierr .ne. zero ) then
call CCTK_WARN ( 0, 'Reduction of array fimin_loc failed' )
end if
call CCTK_ReduceLocArrayToArray1D ( ierr, cctkGH, -1, min_handle, &
fimax_loc, fimax_glob, 3, CCTK_VARIABLE_REAL )
if ( ierr .ne. zero ) then
call CCTK_WARN ( 0, 'Reduction of array fimax_loc failed' )
end if
print*, imin_glob(1), imax_glob(1), fimin_glob(1), fimax_glob(1)
print*, imin_glob(2), imax_glob(2), fimin_glob(2), fimax_glob(2)
print*, imin_glob(3), imax_glob(3), fimin_glob(3), fimax_glob(3)
end if
! Now check and see if any interior excised points need to be activated.
if ( use_inner_excision .gt. 0 ) then
do k = kzl, kzr
do j = jyl, jyr
do i = ixl, ixr
! If an interior excised point has a non-excised neighbour where
! f-delta>-shell_width*delta then activate the point by setting
! the temporary mask to zero. The new value of f will be the value
! if f in its neighbour point - delta. Do this for all directions.
if ( ( eh_mask(i,j,k) .eq. -1 ) .and. ( f(i,j,k) .lt. 0 ) ) then
if ( eh_mask(i-1,j,k) .ge. 0 ) then
if ( f(i-1,j,k) - delta .gt. -shell_width * delta ) then
tm_mask(i,j,k) = 0
ftmp(i,j,k) = f(i-1,j,k) - delta
end if
end if
if ( eh_mask(i+1,j,k) .ge. 0 ) then
if ( f(i+1,j,k) - delta .gt. -shell_width * delta ) then
tm_mask(i,j,k) = 0
ftmp(i,j,k) = f(i+1,j,k) - delta
end if
end if
if ( eh_mask(i,j-1,k) .ge. 0 ) then
if ( f(i,j-1,k) - delta .gt. -shell_width * delta ) then
tm_mask(i,j,k) = 0
ftmp(i,j,k) = f(i,j-1,k) - delta
end if
end if
if ( eh_mask(i,j+1,k) .ge. 0 ) then
if ( f(i,j+1,k) - delta .gt. -shell_width * delta ) then
tm_mask(i,j,k) = 0
ftmp(i,j,k) = f(i,j+1,k) - delta
end if
end if
if ( eh_mask(i,j,k-1) .ge. 0 ) then
if ( f(i,j,k-1) - delta .gt. -shell_width * delta ) then
tm_mask(i,j,k) = 0
ftmp(i,j,k) = f(i,j,k-1) - delta
end if
end if
if ( eh_mask(i,j,k+1) .ge. 0 ) then
if ( f(i,j,k+1) - delta .gt. -shell_width * delta ) then
tm_mask(i,j,k) = 0
ftmp(i,j,k) = f(i,j,k+1) - delta
end if
end if
end if
end do
end do
end do
end if
! Check and see if the boundary of the exterior excision region should
! be changed and if so find the indices describing the new excision region.
if ( use_outer_excision .gt. 0 ) then
do i = 1, 3
imin_n(i) = imin_glob(i)
imax_n(i) = imax_glob(i)
! If the minimum value of f on a face on the box plus delta is less
! than shell_width * delta then the active region has to be increased
! in size in the corresponding region, i.e. inactive cells has to be
! activated.
if ( fimin_glob(i) + delta .lt. shell_width * delta ) then
if ( imin_glob(i) .gt. 1 ) then
imin_n(i) = imin_glob(i) - 1
endif
end if
if ( fimax_glob(i) + delta .lt. shell_width * delta ) then
if ( imax_glob(i) .lt. cctk_gsh(i) ) then
imax_n(i) = imax_glob(i) + 1
endif
end if
end do
print*,'New range'
print*,imin_n(1),imax_n(1)
print*,imin_n(2),imax_n(2)
print*,imin_n(3),imax_n(3)
! Use the new indices to actually activate points, taking care to
! activate points that are actually on the local grid. First do the
! faces of the rectangular box.
if ( imin_n(1) .ne. imin_glob(1) ) then
i1 = imin_n(1) - cctk_lbnd(1)
if ( ( max(ixl,2) .le. i1 ) .and. ( i1 .le. ixr ) ) then
j1 = max ( max ( imin_n(2), imin_glob(2) ) - cctk_lbnd(2), jyl )
j2 = min ( min ( imax_n(2), imax_glob(2) ) - cctk_lbnd(2), jyr )
k1 = max ( max ( imin_n(3), imin_glob(3) ) - cctk_lbnd(3), kzl )
k2 = min ( min ( imax_n(3), imax_glob(3) ) - cctk_lbnd(3), kzr )
! print*,'x1 ',i1,j1,j2,k1,k2
if ( ( j1 .le. j2 ) .and. ( k1 .le. k2 ) ) then
tm_mask(i1,j1:j2,k1:k2) = 0
ftmp(i1,j1:j2,k1:k2) = f(i1+1,j1:j2,k1:k2) + delta
! print*,'done'
end if
end if
end if
if ( imax_n(1) .ne. imax_glob(1) ) then
i2 = imax_n(1) - cctk_lbnd(1)
if ( ( ixl .le. i2 ) .and. ( i2 .le. min(ixr,nx-1) ) ) then
j1 = max ( max ( imin_n(2), imin_glob(2) ) - cctk_lbnd(2), jyl )
j2 = min ( min ( imax_n(2), imax_glob(2) ) - cctk_lbnd(2), jyr )
k1 = max ( max ( imin_n(3), imin_glob(3) ) - cctk_lbnd(3), kzl )
k2 = min ( min ( imax_n(3), imax_glob(3) ) - cctk_lbnd(3), kzr )
! print*,'x2 ',i2,j1,j2,k1,k2
if ( ( j1 .le. j2 ) .and. ( k1 .le. k2 ) ) then
tm_mask(i2,j1:j2,k1:k2) = 0
ftmp(i2,j1:j2,k1:k2) = f(i2-1,j1:j2,k1:k2) + delta
! print*,'done'
end if
end if
end if
if ( imin_n(2) .ne. imin_glob(2) ) then
j1 = imin_n(2) - cctk_lbnd(2)
if ( ( max(jyl,2) .le. j1 ) .and. ( j1 .le. jyr ) ) then
i1 = max ( max ( imin_n(1), imin_glob(1) ) - cctk_lbnd(1), ixl )
i2 = min ( min ( imax_n(1), imax_glob(1) ) - cctk_lbnd(1), ixr )
k1 = max ( max ( imin_n(3), imin_glob(3) ) - cctk_lbnd(3), kzl )
k2 = min ( min ( imax_n(3), imax_glob(3) ) - cctk_lbnd(3), kzr )
! print*,'y1 ',j1,i1,i2,k1,k2
if ( ( i1 .le. i2 ) .and. ( k1 .le. k2 ) ) then
tm_mask(i1:i2,j1,k1:k2) = 0
ftmp(i1:i2,j1,k1:k2) = f(i1:i2,j1+1,k1:k2) + delta
! print*,'done'
end if
end if
end if
if ( imax_n(2) .ne. imax_glob(2) ) then
j2 = imax_n(2) - cctk_lbnd(2)
if ( ( jyl .le. j2 ) .and. ( j2 .le. min(jyr,ny-1) ) ) then
i1 = max ( max ( imin_n(1), imin_glob(1) ) - cctk_lbnd(1), ixl )
i2 = min ( min ( imax_n(1), imax_glob(1) ) - cctk_lbnd(1), ixr )
k1 = max ( max ( imin_n(3), imin_glob(3) ) - cctk_lbnd(3), kzl )
k2 = min ( min ( imax_n(3), imax_glob(3) ) - cctk_lbnd(3), kzr )
! print*,'y2 ',j2,i1,i2,k1,k2
if ( ( i1 .le. i2 ) .and. ( k1 .le. k2 ) ) then
tm_mask(i1:i2,j2,k1:k2) = 0
ftmp(i1:i2,j2,k1:k2) = f(i1:i2,j2-1,k1:k2) + delta
! print*,'done'
end if
end if
end if
if ( imin_n(3) .ne. imin_glob(3) ) then
k1 = imin_n(3) - cctk_lbnd(3)
print*,'Debug 1 : ', imin_n(3), imin_glob(3), k1, kzl, nz
if ( ( max(kzl,2) .le. k1 ) .and. ( k1 .le. kzr ) ) then
i1 = max ( max ( imin_n(1), imin_glob(1) ) - cctk_lbnd(1), ixl )
i2 = min ( min ( imax_n(1), imax_glob(1) ) - cctk_lbnd(1), ixr )
j1 = max ( max ( imin_n(2), imin_glob(2) ) - cctk_lbnd(2), jyl )
j2 = min ( min ( imax_n(2), imax_glob(2) ) - cctk_lbnd(2), jyr )
print*,'z1 ',k1,i1,i2,j1,j2
if ( ( i1 .le. i2 ) .and. ( j1 .le. j2 ) ) then
tm_mask(i1:i2,j1:j2,k1) = 0
ftmp(i1:i2,j1:j2,k1) = f(i1:i2,j1:j2,k1+1) + delta
! print*,'done'
end if
end if
end if
if ( imax_n(3) .ne. imax_glob(3) ) then
k2 = imax_n(3) - cctk_lbnd(3)
print*, 'Debug 2 : ', imax_n(3), imax_glob(3), k2, kzl, nz-1
if ( ( kzl .le. k2 ) .and. ( k2 .le. min(kzr,nz-1) ) ) then
i1 = max ( max ( imin_n(1), imin_glob(1) ) - cctk_lbnd(1), ixl )
i2 = min ( min ( imax_n(1), imax_glob(1) ) - cctk_lbnd(1), ixr )
j1 = max ( max ( imin_n(2), imin_glob(2) ) - cctk_lbnd(2), jyl )
j2 = min ( min ( imax_n(2), imax_glob(2) ) - cctk_lbnd(2), jyr )
print*,'z2 ',k2,i1,i2,j1,j2
if ( ( i1 .le. i2 ) .and. ( j1 .le. j2 ) ) then
tm_mask(i1:i2,j1:j2,k2) = 0
ftmp(i1:i2,j1:j2,k2) = f(i1:i2,j1:j2,k2-1) + delta
! print*,'done'
end if
end if
end if
! Then do the edges of the box.
if ( ( imin_n(1) .ne. imin_glob(1) ) .and. &
( imin_n(2) .ne. imin_glob(2) ) ) then
i1 = imin_n(1) - cctk_lbnd(1)
j1 = imin_n(2) - cctk_lbnd(2)
if ( ( max(ixl,2) .le. i1 ) .and. ( i1 .le. ixr ) .and. &
( max(jyl,2) .le. j1 ) .and. ( j1 .le. jyr ) ) then
k1 = max ( max ( imin_n(3), imin_glob(3) ) - cctk_lbnd(3), kzl )
k2 = min ( min ( imax_n(3), imax_glob(3) ) - cctk_lbnd(3), kzr )
if ( k1 .le. k2 ) then
tm_mask(i1,j1,k1:k2) = 0
ftmp(i1,j1,k1:k2) = f(i1+1,j1+1,k1:k2) + sqrt(two)*delta
end if
end if
end if
if ( ( imin_n(1) .ne. imin_glob(1) ) .and. &
( imax_n(2) .ne. imax_glob(2) ) ) then
i1 = imin_n(1) - cctk_lbnd(1)
j2 = imax_n(2) - cctk_lbnd(2)
if ( ( max(ixl,2) .le. i1 ) .and. ( i1 .le. ixr ) .and. &
( jyl .le. j2 ) .and. ( j2 .le. min(jyr,ny-1) ) ) then
k1 = max ( max ( imin_n(3), imin_glob(3) ) - cctk_lbnd(3), kzl )
k2 = min ( min ( imax_n(3), imax_glob(3) ) - cctk_lbnd(3), kzr )
if ( k1 .le. k2 ) then
tm_mask(i1,j2,k1:k2) = 0
ftmp(i1,j2,k1:k2) = f(i1+1,j2-1,k1:k2) + sqrt(two)*delta
end if
end if
end if
if ( ( imin_n(1) .ne. imin_glob(1) ) .and. &
( imin_n(3) .ne. imin_glob(3) ) ) then
i1 = imin_n(1) - cctk_lbnd(1)
k1 = imin_n(3) - cctk_lbnd(3)
if ( ( max(ixl,2) .le. i1 ) .and. ( i1 .le. ixr ) .and. &
( max(kzl,2) .le. k1 ) .and. ( k1 .le. kzr ) ) then
j1 = max ( max ( imin_n(2), imin_glob(2) ) - cctk_lbnd(2), jyl )
j2 = min ( min ( imax_n(2), imax_glob(2) ) - cctk_lbnd(2), jyr )
if ( j1 .le. j2 ) then
tm_mask(i1,j1:j2,k1) = 0
ftmp(i1,j1:j2,k1) = f(i1+1,j1:j2,k1+1) + sqrt(two)*delta
end if
end if
end if
if ( ( imin_n(1) .ne. imin_glob(1) ) .and. &
( imax_n(3) .ne. imax_glob(3) ) ) then
i1 = imin_n(1) - cctk_lbnd(1)
k2 = imax_n(3) - cctk_lbnd(3)
if ( ( max(ixl,2) .le. i1 ) .and. ( i1 .le. ixr ) .and. &
( kzl .le. k2 ) .and. ( k2 .le. min(kzr,nz-1) ) ) then
j1 = max ( max ( imin_n(2), imin_glob(2) ) - cctk_lbnd(2), jyl )
j2 = min ( min ( imax_n(2), imax_glob(2) ) - cctk_lbnd(2), jyr )
if ( j1 .le. j2 ) then
tm_mask(i1,j1:j2,k2) = 0
ftmp(i1,j1:j2,k2) = f(i1+1,j1:j2,k2-1) + sqrt(two)*delta
end if
end if
end if
if ( ( imax_n(1) .ne. imax_glob(1) ) .and. &
( imin_n(2) .ne. imin_glob(2) ) ) then
i2 = imax_n(1) - cctk_lbnd(1)
j1 = imin_n(2) - cctk_lbnd(2)
if ( ( ixl .le. i2 ) .and. ( i2 .le. min(ixr,nx-1) ) .and. &
( max(jyl,2) .le. j1 ) .and. ( j1 .le. jyr ) ) then
k1 = max ( max ( imin_n(3), imin_glob(3) ) - cctk_lbnd(3), kzl )
k2 = min ( min ( imax_n(3), imax_glob(3) ) - cctk_lbnd(3), kzr )
if ( k1 .le. k2 ) then
tm_mask(i2,j1,k1:k2) = 0
ftmp(i2,j1,k1:k2) = f(i2-1,j1+1,k1:k2) + sqrt(two)*delta
end if
end if
end if
if ( ( imax_n(1) .ne. imax_glob(1) ) .and. &
( imax_n(2) .ne. imax_glob(2) ) ) then
i2 = imax_n(1) - cctk_lbnd(1)
j2 = imax_n(2) - cctk_lbnd(2)
if ( ( ixl .le. i2 ) .and. ( i2 .le. min(ixr,nx-1) ) .and. &
( jyl .le. j2 ) .and. ( j2 .le. min(jyr,ny-1) ) ) then
k1 = max ( max ( imin_n(3), imin_glob(3) ) - cctk_lbnd(3), kzl )
k2 = min ( min ( imax_n(3), imax_glob(3) ) - cctk_lbnd(3), kzr )
if ( k1 .le. k2 ) then
tm_mask(i2,j2,k1:k2) = 0
ftmp(i2,j2,k1:k2) = f(i2-1,j2-1,k1:k2) + sqrt(two)*delta
end if
end if
end if
if ( ( imax_n(1) .ne. imax_glob(1) ) .and. &
( imin_n(3) .ne. imin_glob(3) ) ) then
i2 = imax_n(1) - cctk_lbnd(1)
k1 = imin_n(3) - cctk_lbnd(3)
if ( ( ixl .le. i2 ) .and. ( i2 .le. min(ixr,nx-1) ) .and. &
( max(kzl,2) .le. k1 ) .and. ( k1 .le. kzr ) ) then
j1 = max ( max ( imin_n(2), imin_glob(2) ) - cctk_lbnd(2), jyl )
j2 = min ( min ( imax_n(2), imax_glob(2) ) - cctk_lbnd(2), jyr )
if ( j1 .le. j2 ) then
tm_mask(i2,j1:j2,k1) = 0
ftmp(i2,j1:j2,k1) = f(i2-1,j1:j2,k1+1) + sqrt(two)*delta
end if
end if
end if
if ( ( imax_n(1) .ne. imax_glob(1) ) .and. &
( imax_n(3) .ne. imax_glob(3) ) ) then
i2 = imax_n(1) - cctk_lbnd(1)
k2 = imax_n(3) - cctk_lbnd(3)
if ( ( ixl .le. i2 ) .and. ( i2 .le. min(ixr,nx-1) ) .and. &
( kzl .le. k2 ) .and. ( k2 .le. min(kzr,nz-1) ) ) then
j1 = max ( max ( imin_n(2), imin_glob(2) ) - cctk_lbnd(2), jyl )
j2 = min ( min ( imax_n(2), imax_glob(2) ) - cctk_lbnd(2), jyr )
if ( j1 .le. j2 ) then
tm_mask(i2,j1:j2,k2) = 0
ftmp(i2,j1:j2,k2) = f(i2-1,j1:j2,k2-1) + sqrt(two)*delta
end if
end if
end if
if ( ( imin_n(2) .ne. imin_glob(2) ) .and. &
( imin_n(3) .ne. imin_glob(3) ) ) then
j1 = imin_n(2) - cctk_lbnd(2)
k1 = imin_n(3) - cctk_lbnd(3)
if ( ( max(jyl,2) .le. j1 ) .and. ( j1 .le. jyr ) .and. &
( max(kzl,2) .le. k1 ) .and. ( k1 .le. kzr ) ) then
i1 = max ( max ( imin_n(1), imin_glob(1) ) - cctk_lbnd(1), ixl )
i2 = min ( min ( imax_n(1), imax_glob(1) ) - cctk_lbnd(1), ixr )
if ( i1 .le. i2 ) then
tm_mask(i1:i2,j1,k1) = 0
ftmp(i1:i2,j1,k1) = f(i1:i2,j1+1,k1+1) + sqrt(two)*delta
end if
end if
end if
if ( ( imin_n(2) .ne. imin_glob(2) ) .and. &
( imax_n(3) .ne. imax_glob(3) ) ) then
j1 = imin_n(2) - cctk_lbnd(2)
k2 = imax_n(3) - cctk_lbnd(3)
if ( ( max(jyl,2) .le. j1 ) .and. ( j1 .le. jyr ) .and. &
( kzl .le. k2 ) .and. ( k2 .le. min(kzr,nz-1) ) ) then
i1 = max ( max ( imin_n(1), imin_glob(1) ) - cctk_lbnd(1), ixl )
i2 = min ( min ( imax_n(1), imax_glob(1) ) - cctk_lbnd(1), ixr )
if ( i1 .le. i2 ) then
tm_mask(i1:i2,j1,k2) = 0
ftmp(i1:i2,j1,k2) = f(i1:i2,j1+1,k2-1) + sqrt(two)*delta
end if
end if
end if
if ( ( imax_n(2) .ne. imax_glob(2) ) .and. &
( imin_n(3) .ne. imin_glob(3) ) ) then
j2 = imax_n(2) - cctk_lbnd(2)
k1 = imin_n(3) - cctk_lbnd(3)
if ( ( jyl .le. j2 ) .and. ( j2 .le. min(jyr,ny-1) ) .and. &
( max(kzl,2) .le. k1 ) .and. ( k1 .le. kzr ) ) then
i1 = max ( max ( imin_n(1), imin_glob(1) ) - cctk_lbnd(1), ixl )
i2 = min ( min ( imax_n(1), imax_glob(1) ) - cctk_lbnd(1), ixr )
if ( i1 .le. i2 ) then
tm_mask(i1:i2,j2,k1) = 0
ftmp(i1:i2,j2,k1) = f(i1:i2,j2-1,k1+1) + sqrt(two)*delta
end if
end if
end if
if ( ( imax_n(2) .ne. imax_glob(2) ) .and. &
( imax_n(3) .ne. imax_glob(3) ) ) then
j2 = imax_n(2) - cctk_lbnd(2)
k2 = imax_n(3) - cctk_lbnd(3)
if ( ( jyl .le. j2 ) .and. ( j2 .le. min(jyr,ny-1) ) .and. &
( kzl .le. k2 ) .and. ( k2 .le. min(kzr,nz-1) ) ) then
i1 = max ( max ( imin_n(1), imin_glob(1) ) - cctk_lbnd(1), ixl )
i2 = min ( min ( imax_n(1), imax_glob(1) ) - cctk_lbnd(1), ixr )
if ( i1 .le. i2 ) then
tm_mask(i1:i2,j2,k2) = 0
ftmp(i1:i2,j2,k2) = f(i1:i2,j2-1,k2-1) + sqrt(two)*delta
end if
end if
end if
! And finally do the corners.
if ( ( imin_n(1) .ne. imin_glob(1) ) .and. &
( imin_n(2) .ne. imin_glob(2) ) .and. &
( imin_n(3) .ne. imin_glob(3) ) ) then
i1 = imin_n(1) - cctk_lbnd(1)
j1 = imin_n(2) - cctk_lbnd(2)
k1 = imin_n(3) - cctk_lbnd(3)
if ( ( max(ixl,2) .le. i1 ) .and. ( i1 .le. ixr ) .and. &
( max(jyl,2) .le. j1 ) .and. ( j1 .le. jyr ) .and. &
( max(kzl,2) .le. k1 ) .and. ( k1 .le. kzr ) ) then
tm_mask(i1,j1,k1) = 0
ftmp(i1,j1,k1) = f(i1+1,j1+1,k1+1) + sqrt(three)*delta
end if
end if
if ( ( imin_n(1) .ne. imin_glob(1) ) .and. &
( imin_n(2) .ne. imin_glob(2) ) .and. &
( imax_n(3) .ne. imax_glob(3) ) ) then
i1 = imin_n(1) - cctk_lbnd(1)
j1 = imin_n(2) - cctk_lbnd(2)
k2 = imax_n(3) - cctk_lbnd(3)
if ( ( max(ixl,2) .le. i1 ) .and. ( i1 .le. ixr ) .and. &
( max(jyl,2) .le. j1 ) .and. ( j1 .le. jyr ) .and. &
( kzl .le. k2 ) .and. ( k2 .le. min(kzr,nz-1) ) ) then
tm_mask(i1,j1,k2) = 0
ftmp(i1,j1,k2) = f(i1+1,j1+1,k2-1) + sqrt(three)*delta
end if
end if
if ( ( imin_n(1) .ne. imin_glob(1) ) .and. &
( imax_n(2) .ne. imax_glob(2) ) .and. &
( imin_n(3) .ne. imin_glob(3) ) ) then
i1 = imin_n(1) - cctk_lbnd(1)
j2 = imax_n(2) - cctk_lbnd(2)
k1 = imin_n(3) - cctk_lbnd(3)
if ( ( max(ixl,2) .le. i1 ) .and. ( i1 .le. ixr ) .and. &
( jyl .le. j2 ) .and. ( j2 .le. min(jyr,ny-1) ) .and. &
( max(kzl,2) .le. k1 ) .and. ( k1 .le. kzr ) ) then
tm_mask(i1,j2,k1) = 0
ftmp(i1,j2,k1) = f(i1+1,j2-1,k1+1) + sqrt(three)*delta
end if
end if
if ( ( imin_n(1) .ne. imin_glob(1) ) .and. &
( imax_n(2) .ne. imax_glob(2) ) .and. &
( imax_n(3) .ne. imax_glob(3) ) ) then
i1 = imin_n(1) - cctk_lbnd(1)
j2 = imax_n(2) - cctk_lbnd(2)
k2 = imax_n(3) - cctk_lbnd(3)
if ( ( max(ixl,2) .le. i1 ) .and. ( i1 .le. ixr ) .and. &
( jyl .le. j2 ) .and. ( j2 .le. min(jyr,ny-1) ) .and. &
( kzl .le. k2 ) .and. ( k2 .le. min(kzr,nz-1) ) ) then
tm_mask(i1,j2,k2) = 0
ftmp(i1,j2,k2) = f(i1+1,j2-1,k2-1) + sqrt(three)*delta
end if
end if
if ( ( imax_n(1) .ne. imax_glob(1) ) .and. &
( imin_n(2) .ne. imin_glob(2) ) .and. &
( imin_n(3) .ne. imin_glob(3) ) ) then
i2 = imax_n(1) - cctk_lbnd(1)
j1 = imin_n(2) - cctk_lbnd(2)
k1 = imin_n(3) - cctk_lbnd(3)
if ( ( ixl .le. i2 ) .and. ( i2 .le. min(ixr,nx-1) ) .and. &
( max(jyl,2) .le. j1 ) .and. ( j1 .le. jyr ) .and. &
( max(kzl,2) .le. k1 ) .and. ( k1 .le. kzr ) ) then
tm_mask(i2,j1,k1) = 0
ftmp(i2,j1,k1) = f(i2-1,j1+1,k1+1) + sqrt(three)*delta
end if
end if
if ( ( imax_n(1) .ne. imax_glob(1) ) .and. &
( imin_n(2) .ne. imin_glob(2) ) .and. &
( imax_n(3) .ne. imax_glob(3) ) ) then
i2 = imax_n(1) - cctk_lbnd(1)
j1 = imin_n(2) - cctk_lbnd(2)
k2 = imax_n(3) - cctk_lbnd(3)
if ( ( ixl .le. i2 ) .and. ( i2 .le. min(ixr,nx-1) ) .and. &
( max(jyl,2) .le. j1 ) .and. ( j1 .le. jyr ) .and. &
( kzl .le. k2 ) .and. ( k2 .le. min(kzr,nz-1) ) ) then
tm_mask(i2,j1,k2) = 0
ftmp(i2,j1,k2) = f(i2-1,j1+1,k2-1) + sqrt(three)*delta
end if
end if
if ( ( imax_n(1) .ne. imax_glob(1) ) .and. &
( imax_n(2) .ne. imax_glob(2) ) .and. &
( imin_n(3) .ne. imin_glob(3) ) ) then
i2 = imax_n(1) - cctk_lbnd(1)
j2 = imax_n(2) - cctk_lbnd(2)
k1 = imin_n(3) - cctk_lbnd(3)
if ( ( ixl .le. i2 ) .and. ( i2 .le. min(ixr,nx-1) ) .and. &
( jyl .le. j2 ) .and. ( j2 .le. min(jyr,ny-1) ) .and. &
( max(kzl,2) .le. k1 ) .and. ( k1 .le. kzr ) ) then
tm_mask(i2,j2,k1) = 0
ftmp(i2,j2,k1) = f(i2-1,j2-1,k1+1) + sqrt(three)*delta
end if
end if
if ( ( imax_n(1) .ne. imax_glob(1) ) .and. &
( imax_n(2) .ne. imax_glob(2) ) .and. &
( imax_n(3) .ne. imax_glob(3) ) ) then
i2 = imax_n(1) - cctk_lbnd(1)
j2 = imax_n(2) - cctk_lbnd(2)
k2 = imax_n(3) - cctk_lbnd(3)
print*,'Debug 3 : ',i2,j2,k2
if ( ( ixl .le. i2 ) .and. ( i2 .le. min(ixr,nx-1) ) .and. &
( jyl .le. j2 ) .and. ( j2 .le. min(jyr,ny-1) ) .and. &
( kzl .le. k2 ) .and. ( k2 .le. min(kzr,nz-1) ) ) then
tm_mask(i2,j2,k2) = 0
ftmp(i2,j2,k2) = f(i2-1,j2-1,k2-1) + sqrt(three)*delta
end if
end if
end if
! print*,'Debug 4'
! print*,ftmp(imin_n(1),imin_n(2),imin_n(3))
! print*,ftmp(imin_n(1),imin_n(2),imax_n(3))
! print*,ftmp(imin_n(1),imax_n(2),imin_n(3))
! print*,ftmp(imin_n(1),imax_n(2),imax_n(3))
! print*,ftmp(imax_n(1),imin_n(2),imin_n(3))
! print*,ftmp(imax_n(1),imin_n(2),imax_n(3))
! print*,ftmp(imax_n(1),imax_n(2),imin_n(3))
! print*,ftmp(imax_n(1),imax_n(2),imax_n(3))
! Copy the modified mask and level set function into the proper place.
eh_mask(ixl:ixr,jyl:jyr,kzl:kzr) = tm_mask(ixl:ixr,jyl:jyr,kzl:kzr)
f(ixl:ixr,jyl:jyr,kzl:kzr) = ftmp(ixl:ixr,jyl:jyr,kzl:kzr)
! Now check if any interior points are far enough away from the f=0
! surface and if so excise them.
if ( use_inner_excision .gt. 0 ) then
where ( ( eh_mask(ixl:ixr,jyl:jyr,kzl:kzr) .ge. 0 ) .and. &
( f(ixl:ixr,jyl:jyr,kzl:kzr) .lt. -shell_width*delta ) )
eh_mask(ixl:ixr,jyl:jyr,kzl:kzr) = -1
f(ixl:ixr,jyl:jyr,kzl:kzr) = ex_value
end where
end if
! Now check if any remaining active points where actually excised in the
! numerical run generating the metric data.
if ( use_mask .gt. 0 ) then
where ( emask(ixl:ixr,jyl:jyr,kzl:kzr) .lt. three*quarter )
eh_mask(ixl:ixr,jyl:jyr,kzl:kzr) = -1
f(ixl:ixr,jyl:jyr,kzl:kzr) = ex_value
end where
end if
! Make sure to mark all points outside of the rectangular box as excised
! points and set the value of f to -ex_value.
if ( use_outer_excision .gt. 0 ) then
do k = kzl, kzr
do j = jyl, jyr
do i = ixl, ixr
if ( ( ( i + cctk_lbnd(1) .lt. imin_n(1) ) .or. &
( i + cctk_lbnd(1) .gt. imax_n(1) ) .or. &
( j + cctk_lbnd(2) .lt. imin_n(2) ) .or. &
( j + cctk_lbnd(2) .gt. imax_n(2) ) .or. &
( k + cctk_lbnd(3) .lt. imin_n(3) ) .or. &
( k + cctk_lbnd(3) .gt. imax_n(3) ) ) .and. &
( eh_mask(i,j,k) .ge. 0 ) ) then
eh_mask(i,j,k) = -1
f(i,j,k) = -ex_value
end if
end do
end do
end do
end if
end if
end subroutine EHFinder_SetMask1
! This routine finds the excision boundary after it has been changed and
! makes sure that it has the right mask value.
subroutine EHFinder_SetMask2(CCTK_ARGUMENTS)
use EHFinder_mod
implicit none
DECLARE_CCTK_PARAMETERS
DECLARE_CCTK_ARGUMENTS
DECLARE_CCTK_FUNCTIONS
CCTK_INT :: i, j, k
logical :: active
active = .false.
! If re-parametrization has just been done, we are in the process of
! resetting the mask so we set active=.true.
if ( mask_first ) active = .true.
if ( CCTK_EQUALS(re_param_method,'approx') .or. &
CCTK_EQUALS(re_param_method,'mixed') ) then
if ( reparametrize_every_approx .gt. 0 ) then
if ( mod(cctk_iteration,reparametrize_every_approx) .eq. 0 ) then
active = .true.
end if
end if
end if
if ( CCTK_EQUALS(re_param_method,'pde') .or. &
CCTK_EQUALS(re_param_method,'mixed') ) then
if ( reparametrize_every_pde .gt. 0 ) then
if ( mod(cctk_iteration,reparametrize_every_pde) .eq. 0 ) active = .true.
end if
end if
! If the reparametrization was not undone...
if ( active .and. .not.reparam_undone ) then
! Get the minimum and maximum index excluding ghost and symmetry cells.
# include "include/physical_part.h"
! Make sure we are not on the physical outer boundary.
if ( ixl .eq. 1 ) ixl = 2
if ( ixr .eq. nx ) ixr = nx - 1
if ( jyl .eq. 1 ) jyl = 2
if ( jyr .eq. ny ) jyr = ny - 1
if ( kzl .eq. 1 ) kzl = 2
if ( kzr .eq. nz ) kzr = nz - 1
! Initialize the temporary mask to zero.
tm_mask(ixl:ixr,jyl:jyr,kzl:kzr) = 0
! We loop over all points and adjust the mask if the point is
! on the excision boundary.
do k = kzl, kzr
do j = jyl, jyr
do i = ixl, ixr
! If the point is active.....
if ( eh_mask(i,j,k) .ge. 0 ) then
! If the neighbour in the -x-directions is excised....
if ( eh_mask(i-1,j,k) .eq. -1 ) then
tm_mask(i,j,k) = tm_mask(i,j,k) + ll(0)
end if
! If the neighbour in the +x-directions is excised....
if ( eh_mask(i+1,j,k) .eq. -1 ) then
tm_mask(i,j,k) = tm_mask(i,j,k) + ll(1)
end if
! If the neighbour in the -y-directions is excised....
if ( eh_mask(i,j-1,k) .eq. -1 ) then
tm_mask(i,j,k) = tm_mask(i,j,k) + ll(2)
end if
! If the neighbour in the +y-directions is excised....
if ( eh_mask(i,j+1,k) .eq. -1 ) then
tm_mask(i,j,k) = tm_mask(i,j,k) + ll(3)
end if
! If the neighbour in the -z-directions is excised....
if ( eh_mask(i,j,k-1) .eq. -1 ) then
tm_mask(i,j,k) = tm_mask(i,j,k) + ll(4)
end if
! If the neighbour in the +z-directions is excised....
if ( eh_mask(i,j,k+1) .eq. -1 ) then
tm_mask(i,j,k) = tm_mask(i,j,k) + ll(5)
end if
end if
end do
end do
end do
! Copy the changes back into eh_mask
where ( eh_mask(ixl:ixr,jyl:jyr,kzl:kzr) .ge. 0 )
eh_mask(ixl:ixr,jyl:jyr,kzl:kzr) = &
tm_mask(ixl:ixr,jyl:jyr,kzl:kzr)
end where
call CCTK_INFO('Mask modified')
! Indicate that it is not anymore the first time the mask is set.
mask_first = .false.
end if
end subroutine EHFinder_SetMask2
subroutine EHFinder_SetMask3(CCTK_ARGUMENTS)
use EHFinder_mod
implicit none
DECLARE_CCTK_PARAMETERS
DECLARE_CCTK_ARGUMENTS
DECLARE_CCTK_FUNCTIONS
CCTK_INT :: i, j, k
logical active, mask_modified
active = .false.
! If re-parametrization has just been done, we are in the process of
! resetting the mask so we set active=.true.
if ( mask_first ) active = .true.
if ( CCTK_EQUALS(re_param_method,'approx') .or. &
CCTK_EQUALS(re_param_method,'mixed') ) then
if ( reparametrize_every_approx .gt. 0 ) then
if ( mod(cctk_iteration,reparametrize_every_approx) .eq. 0 ) then
active = .true.
end if
end if
end if
if ( CCTK_EQUALS(re_param_method,'pde') .or. &
CCTK_EQUALS(re_param_method,'mixed') ) then
if ( reparametrize_every_pde .gt. 0 ) then
if ( mod(cctk_iteration,reparametrize_every_pde) .eq. 0 ) active = .true.
end if
end if
! If the reparametrization was not undone...
if ( active .and. .not.reparam_undone ) then
mask_modified = .false.
# include "include/physical_part.h"
! Make sure we are not on the physical outer boundary.
if ( ixl .eq. 1 ) ixl = 2
if ( ixr .eq. nx ) ixr = nx - 1
if ( jyl .eq. 1 ) jyl = 2
if ( jyr .eq. ny ) jyr = ny - 1
if ( kzl .eq. 1 ) kzl = 2
if ( kzr .eq. nz ) kzr = nz - 1
tm_mask = eh_mask
do k = kzl, kzr
do j = jyl, jyr
do i = ixl, ixr
if ( eh_mask(i,j,k) .ge. 0 ) then
! If we are on an excision boundary in the -x-direction...
if ( btest(eh_mask(i,j,k),0) ) then
! If any of the two closest neighbours in the +x-direction is
! excised we have to excise this point
if ( ( eh_mask(i+1,j,k) .eq. -1 ) .or. &
( eh_mask(i+2,j,k) .eq. -1 ) ) then
tm_mask(i,j,k) = -1
mask_modified = .true.
print*, i, j, k, 'x-'
print*, eh_mask(i:i+2,j,k)
end if
end if
! If we are on an excision boundary in the +x-direction...
if ( btest(eh_mask(i,j,k),1) ) then
! If any of the two closest neighbours in the -x-direction is
! excised we have to excise this point
if ( ( eh_mask(i-1,j,k) .eq. -1 ) .or. &
( eh_mask(i-2,j,k) .eq. -1 ) ) then
tm_mask(i,j,k) = -1
mask_modified = .true.
print*, i, j, k, 'x+'
print*, eh_mask(i:i-2,j,k)
end if
end if
! If we are on an excision boundary in the -y-direction...
if ( btest(eh_mask(i,j,k),2) ) then
! If any of the two closest neighbours in the +y-direction is
! excised we have to excise this point
if ( ( eh_mask(i,j+1,k) .eq. -1 ) .or. &
( eh_mask(i,j+2,k) .eq. -1 ) ) then
tm_mask(i,j,k) = -1
mask_modified = .true.
print*, i, j, k, 'y-'
print*, eh_mask(i,j:j+2,k)
end if
end if
! If we are on an excision boundary in the +y-direction...
if ( btest(eh_mask(i,j,k),3) ) then
! If any of the two closest neighbours in the -y-direction is
! excised we have to excise this point
if ( ( eh_mask(i,j-1,k) .eq. -1 ) .or. &
( eh_mask(i,j-2,k) .eq. -1 ) ) then
tm_mask(i,j,k) = -1
mask_modified = .true.
print*, i, j, k, 'y+'
print*, eh_mask(i,j:j-2,k)
end if
end if
! If we are on an excision boundary in the -z-direction...
if ( btest(eh_mask(i,j,k),4) ) then
! If any of the two closest neighbours in the +z-direction is
! excised we have to excise this point
if ( ( eh_mask(i,j,k+1) .eq. -1 ) .or. &
( eh_mask(i,j,k+2) .eq. -1 ) ) then
tm_mask(i,j,k) = -1
mask_modified = .true.
print*, i, j, k, 'z-'
print*, eh_mask(i,j,k:k+2)
end if
end if
! If we are on an excision boundary in the +z-direction...
if ( btest(eh_mask(i,j,k),5) ) then
! If any of the two closest neighbours in the -z-direction is
! excised we have to excise this point
if ( ( eh_mask(i,j,k-1) .eq. -1 ) .or. &
( eh_mask(i,j,k-2) .eq. -1 ) ) then
tm_mask(i,j,k) = -1
mask_modified = .true.
print*, i, j, k, 'z+'
print*, eh_mask(i,j,k:k-2)
end if
end if
end if
end do
end do
end do
if ( mask_modified ) then
call CCTK_WARN ( 1, "Mask modified because it was not convex" )
end if
eh_mask = tm_mask
end if
end subroutine EHFinder_SetMask3
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