35
36
37
39 USE spmd_mod
40
41
42
43#include "implicit_f.inc"
44
45
46
47#include "spmd.inc"
48
49
50
51#include "com01_c.inc"
52#include "param_c.inc"
53#include "task_c.inc"
54
55
56
57 INTEGER NODGLOB(*),NOD_PXFEM(*),EMPSIZPL
58 INTEGER IPLY,IDPLY
60 . x(3,*),zi_ply(nplyxfe,*)
61
62
63
64#ifdef MPI
65 INTEGER MSGOFF,MSGOFF2,STAT(MPI_STATUS_SIZE,NSPMD-1), IERR
66
67 DATA msgoff/7055/
68 DATA msgoff2/7056/
69
70 INTEGER I,N,II,ND,EMPL,P,ITAG
71 INTEGER PLYSIZ
74
75 REAL , DIMENSION(:,:), ALLOCATABLE :: WRTBUF
77 * , DIMENSION(:,:), ALLOCATABLE :: fsendbuf,frecbuf
78 INTEGER, DIMENSION(:), ALLOCATABLE :: ISENDBUF,IRECBUF
79
80
81 ii = idply
82
83
84 IF (ispmd ==0) THEN
85 plysiz =
plynod(iply)%PLYNUMNODS
86 ALLOCATE(wrtbuf(3,
plysizg(iply)))
87
88
89 DO nd=1,plysiz
91 n = nod_pxfem(i)
92 norm = sqrt(vn_nod(1,n)**2+vn_nod(2,n)**2+vn_nod(3,n)**2)
94 empl =
plynod(iply)%PLYNODID(nd)-empsizpl
95
97 val = x(1,i)+zi_ply(n,iply)*vn +
ply(iply)%U(1,n)
98 wrtbuf(1,empl)= val
99
100 vn = vn_nod(2,n)*
norm
101 val = x(2,i)+zi_ply(n,iply)*vn +
ply(iply)%U(2,n)
102 wrtbuf(2,empl)= val
103
104 vn = vn_nod(3,n)*
norm
105 val = x(3,i)+zi_ply(n,iply)*vn +
ply(iply)%U(3,n)
106 wrtbuf(3,empl)= val
107 END DO
108
109 DO p=2,nspmd
113 itag=msgoff
115 . it_spmd(p),itag, spmd_comm_world, stat, ierr)
116 itag=msgoff2
118 . it_spmd(p),itag, spmd_comm_world, stat, ierr)
120 empl = irecbuf(i)-empsizpl
121 wrtbuf(1,empl)=frecbuf(1,i)
122 wrtbuf(2,empl)=frecbuf(2,i)
123 wrtbuf(3,empl)=frecbuf(3,i)
124 ENDDO
125 DEALLOCATE(irecbuf,frecbuf)
126 ENDIF
127 ENDDO
128
130 DEALLOCATE(wrtbuf)
131 empsizpl=empsizpl+
plysizg(iply)
132 ELSE
133 plysiz =
plynod(iply)%PLYNUMNODS
134 ALLOCATE (fsendbuf(3,plysiz))
135 ALLOCATE (isendbuf(plysiz))
136 IF (plysiz > 0) THEN
137 DO nd=1,plysiz
138 i =
plynod(iply)%NODES(nd)
139 n = nod_pxfem(i)
140 norm = sqrt(vn_nod(1,n)**2+vn_nod(2,n)**2+vn_nod(3,n)**2)
142 vn = vn_nod(1,n)*
norm
143 fsendbuf(1,nd) = x(1,i)+zi_ply(n,iply)*vn +
ply(iply)%U(1,n)
144 vn = vn_nod(2,n)*
norm
145 fsendbuf(2,nd) = x(2,i)+zi_ply(n,iply)*vn +
ply(iply)%U(2,n)
146 vn = vn_nod(3,n)*
norm
147 fsendbuf(3,nd) = x(3,i)+zi_ply(n,iply)*vn +
ply(iply)%U(3,n)
148 isendbuf(nd) =
plynod(iply)%PLYNODID(nd)
149 END DO
150 itag=msgoff
151 CALL mpi_send(isendbuf,plysiz,mpi_integer,it_spmd(1),
152 . itag,spmd_comm_world,ierr)
153
154 itag=msgoff2
155 CALL mpi_send(fsendbuf,plysiz*3,real,it_spmd(1),
156 . itag,spmd_comm_world,ierr)
157
158 DEALLOCATE(isendbuf,fsendbuf)
159 ENDIF
160 ENDIF
161
162
163#endif
164 RETURN
norm(diag(diag(diag(inv(mat))) -id.SOL), 2) % destroy mumps instance id.JOB
subroutine mpi_recv(buf, cnt, datatype, source, tag, comm, status, ierr)
subroutine mpi_send(buf, cnt, datatype, dest, tag, comm, ierr)
type(plynods), dimension(:), allocatable plynod
type(ply_data), dimension(:), allocatable ply
integer, dimension(:), allocatable plysizg
integer, dimension(:,:), allocatable plyiadnod
void write_r_c(float *w, int *len)