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# Copyright(c) 1986 Association of Universities for Research in Astronomy Inc.
include <imhdr.h>
# BLKRP -- Block replicate an image.
procedure blkrpd (in, out, blkfac)
pointer in # Input IMIO pointer
pointer out # Output IMIO pointer
int blkfac[ARB] # Block replication factors
int i, j, ndim, nin, nout
pointer sp, buf, buf1, buf2, buf3, v1, v2, v3, ptrin, ptrout
pointer imgl1d(), impl1d(), imgnld(), impnld()
begin
call smark (sp)
ndim = IM_NDIM(in)
nin = IM_LEN(in, 1)
nout = nin * blkfac[1]
IM_LEN(out,1) = nout
if (ndim == 1) {
# For one dimensional images do the replication directly.
buf1 = imgl1d (in)
buf2 = impl1d (out)
ptrin = buf1
ptrout = buf2
do i = 1, nin {
do j = 1, blkfac[1] {
Memd[ptrout] = Memd[ptrin]
ptrout = ptrout + 1
}
ptrin = ptrin + 1
}
} else {
# For higher dimensional images use line access routines.
do i = 2, ndim
IM_LEN(out,i) = IM_LEN(in,i) * blkfac[i]
# Allocate memory.
call salloc (buf, nout, TY_DOUBLE)
call salloc (v1, IM_MAXDIM, TY_LONG)
call salloc (v2, IM_MAXDIM, TY_LONG)
call salloc (v3, IM_MAXDIM, TY_LONG)
# Initialize the input line vector and the output section vectors.
call amovkl (long(1), Meml[v1], IM_MAXDIM)
call amovkl (long(1), Meml[v2], IM_MAXDIM)
call amovkl (long(1), Meml[v3], IM_MAXDIM)
# For each output line compute a block replicated line from the
# input image. If the line replication factor is greater than
# 1 then simply repeat the input line. This algorithm is
# sequential in both the input and output image though the
# input image will be recycled for each repetition of higher
# dimensions.
while (impnld (out, buf2, Meml[v2]) != EOF) {
# Get the input vector corresponding to the output line.
do i = 2, ndim
Meml[v1+i-1] = (Meml[v3+i-1] - 1) / blkfac[i] + 1
i = imgnld (in, buf1, Meml[v1])
# Block replicate the columns.
if (blkfac[1] == 1)
buf3 = buf1
else {
ptrin = buf1
ptrout = buf
do i = 1, nin {
do j = 1, blkfac[1] {
Memd[ptrout] = Memd[ptrin]
ptrout = ptrout + 1
}
ptrin = ptrin + 1
}
buf3 = buf
}
# Copy the input line to the output line.
call amovd (Memd[buf3], Memd[buf2], nout)
# Repeat for each repetition of the input line.
for (i=2; i <= blkfac[2]; i=i+1) {
j = impnld (out, buf2, Meml[v2])
call amovd (Memd[buf3], Memd[buf2], nout)
}
call amovl (Meml[v2], Meml[v3], IM_MAXDIM)
}
}
call sfree (sp)
end
# BLKRP -- Block replicate an image.
procedure blkrpl (in, out, blkfac)
pointer in # Input IMIO pointer
pointer out # Output IMIO pointer
int blkfac[ARB] # Block replication factors
int i, j, ndim, nin, nout
pointer sp, buf, buf1, buf2, buf3, v1, v2, v3, ptrin, ptrout
pointer imgl1l(), impl1l(), imgnll(), impnll()
begin
call smark (sp)
ndim = IM_NDIM(in)
nin = IM_LEN(in, 1)
nout = nin * blkfac[1]
IM_LEN(out,1) = nout
if (ndim == 1) {
# For one dimensional images do the replication directly.
buf1 = imgl1l (in)
buf2 = impl1l (out)
ptrin = buf1
ptrout = buf2
do i = 1, nin {
do j = 1, blkfac[1] {
Meml[ptrout] = Meml[ptrin]
ptrout = ptrout + 1
}
ptrin = ptrin + 1
}
} else {
# For higher dimensional images use line access routines.
do i = 2, ndim
IM_LEN(out,i) = IM_LEN(in,i) * blkfac[i]
# Allocate memory.
call salloc (buf, nout, TY_LONG)
call salloc (v1, IM_MAXDIM, TY_LONG)
call salloc (v2, IM_MAXDIM, TY_LONG)
call salloc (v3, IM_MAXDIM, TY_LONG)
# Initialize the input line vector and the output section vectors.
call amovkl (long(1), Meml[v1], IM_MAXDIM)
call amovkl (long(1), Meml[v2], IM_MAXDIM)
call amovkl (long(1), Meml[v3], IM_MAXDIM)
# For each output line compute a block replicated line from the
# input image. If the line replication factor is greater than
# 1 then simply repeat the input line. This algorithm is
# sequential in both the input and output image though the
# input image will be recycled for each repetition of higher
# dimensions.
while (impnll (out, buf2, Meml[v2]) != EOF) {
# Get the input vector corresponding to the output line.
do i = 2, ndim
Meml[v1+i-1] = (Meml[v3+i-1] - 1) / blkfac[i] + 1
i = imgnll (in, buf1, Meml[v1])
# Block replicate the columns.
if (blkfac[1] == 1)
buf3 = buf1
else {
ptrin = buf1
ptrout = buf
do i = 1, nin {
do j = 1, blkfac[1] {
Meml[ptrout] = Meml[ptrin]
ptrout = ptrout + 1
}
ptrin = ptrin + 1
}
buf3 = buf
}
# Copy the input line to the output line.
call amovl (Meml[buf3], Meml[buf2], nout)
# Repeat for each repetition of the input line.
for (i=2; i <= blkfac[2]; i=i+1) {
j = impnll (out, buf2, Meml[v2])
call amovl (Meml[buf3], Meml[buf2], nout)
}
call amovl (Meml[v2], Meml[v3], IM_MAXDIM)
}
}
call sfree (sp)
end
# BLKRP -- Block replicate an image.
procedure blkrpr (in, out, blkfac)
pointer in # Input IMIO pointer
pointer out # Output IMIO pointer
int blkfac[ARB] # Block replication factors
int i, j, ndim, nin, nout
pointer sp, buf, buf1, buf2, buf3, v1, v2, v3, ptrin, ptrout
pointer imgl1r(), impl1r(), imgnlr(), impnlr()
begin
call smark (sp)
ndim = IM_NDIM(in)
nin = IM_LEN(in, 1)
nout = nin * blkfac[1]
IM_LEN(out,1) = nout
if (ndim == 1) {
# For one dimensional images do the replication directly.
buf1 = imgl1r (in)
buf2 = impl1r (out)
ptrin = buf1
ptrout = buf2
do i = 1, nin {
do j = 1, blkfac[1] {
Memr[ptrout] = Memr[ptrin]
ptrout = ptrout + 1
}
ptrin = ptrin + 1
}
} else {
# For higher dimensional images use line access routines.
do i = 2, ndim
IM_LEN(out,i) = IM_LEN(in,i) * blkfac[i]
# Allocate memory.
call salloc (buf, nout, TY_REAL)
call salloc (v1, IM_MAXDIM, TY_LONG)
call salloc (v2, IM_MAXDIM, TY_LONG)
call salloc (v3, IM_MAXDIM, TY_LONG)
# Initialize the input line vector and the output section vectors.
call amovkl (long(1), Meml[v1], IM_MAXDIM)
call amovkl (long(1), Meml[v2], IM_MAXDIM)
call amovkl (long(1), Meml[v3], IM_MAXDIM)
# For each output line compute a block replicated line from the
# input image. If the line replication factor is greater than
# 1 then simply repeat the input line. This algorithm is
# sequential in both the input and output image though the
# input image will be recycled for each repetition of higher
# dimensions.
while (impnlr (out, buf2, Meml[v2]) != EOF) {
# Get the input vector corresponding to the output line.
do i = 2, ndim
Meml[v1+i-1] = (Meml[v3+i-1] - 1) / blkfac[i] + 1
i = imgnlr (in, buf1, Meml[v1])
# Block replicate the columns.
if (blkfac[1] == 1)
buf3 = buf1
else {
ptrin = buf1
ptrout = buf
do i = 1, nin {
do j = 1, blkfac[1] {
Memr[ptrout] = Memr[ptrin]
ptrout = ptrout + 1
}
ptrin = ptrin + 1
}
buf3 = buf
}
# Copy the input line to the output line.
call amovr (Memr[buf3], Memr[buf2], nout)
# Repeat for each repetition of the input line.
for (i=2; i <= blkfac[2]; i=i+1) {
j = impnlr (out, buf2, Meml[v2])
call amovr (Memr[buf3], Memr[buf2], nout)
}
call amovl (Meml[v2], Meml[v3], IM_MAXDIM)
}
}
call sfree (sp)
end
# BLKRP -- Block replicate an image.
procedure blkrps (in, out, blkfac)
pointer in # Input IMIO pointer
pointer out # Output IMIO pointer
int blkfac[ARB] # Block replication factors
int i, j, ndim, nin, nout
pointer sp, buf, buf1, buf2, buf3, v1, v2, v3, ptrin, ptrout
pointer imgl1s(), impl1s(), imgnls(), impnls()
begin
call smark (sp)
ndim = IM_NDIM(in)
nin = IM_LEN(in, 1)
nout = nin * blkfac[1]
IM_LEN(out,1) = nout
if (ndim == 1) {
# For one dimensional images do the replication directly.
buf1 = imgl1s (in)
buf2 = impl1s (out)
ptrin = buf1
ptrout = buf2
do i = 1, nin {
do j = 1, blkfac[1] {
Mems[ptrout] = Mems[ptrin]
ptrout = ptrout + 1
}
ptrin = ptrin + 1
}
} else {
# For higher dimensional images use line access routines.
do i = 2, ndim
IM_LEN(out,i) = IM_LEN(in,i) * blkfac[i]
# Allocate memory.
call salloc (buf, nout, TY_SHORT)
call salloc (v1, IM_MAXDIM, TY_LONG)
call salloc (v2, IM_MAXDIM, TY_LONG)
call salloc (v3, IM_MAXDIM, TY_LONG)
# Initialize the input line vector and the output section vectors.
call amovkl (long(1), Meml[v1], IM_MAXDIM)
call amovkl (long(1), Meml[v2], IM_MAXDIM)
call amovkl (long(1), Meml[v3], IM_MAXDIM)
# For each output line compute a block replicated line from the
# input image. If the line replication factor is greater than
# 1 then simply repeat the input line. This algorithm is
# sequential in both the input and output image though the
# input image will be recycled for each repetition of higher
# dimensions.
while (impnls (out, buf2, Meml[v2]) != EOF) {
# Get the input vector corresponding to the output line.
do i = 2, ndim
Meml[v1+i-1] = (Meml[v3+i-1] - 1) / blkfac[i] + 1
i = imgnls (in, buf1, Meml[v1])
# Block replicate the columns.
if (blkfac[1] == 1)
buf3 = buf1
else {
ptrin = buf1
ptrout = buf
do i = 1, nin {
do j = 1, blkfac[1] {
Mems[ptrout] = Mems[ptrin]
ptrout = ptrout + 1
}
ptrin = ptrin + 1
}
buf3 = buf
}
# Copy the input line to the output line.
call amovs (Mems[buf3], Mems[buf2], nout)
# Repeat for each repetition of the input line.
for (i=2; i <= blkfac[2]; i=i+1) {
j = impnls (out, buf2, Meml[v2])
call amovs (Mems[buf3], Mems[buf2], nout)
}
call amovl (Meml[v2], Meml[v3], IM_MAXDIM)
}
}
call sfree (sp)
end
|
