_f_int8
_UBOUND0_8(DopeVectorType * source,
_f_int * dimptr)
{
_f_int8 iresult;
int dim;
int rank;
/* If source is a pointer/allocatable array, it must be
* associated/allocated. */
if (source->p_or_a && !source->assoc)
_lerror (_LELVL_ABORT, FENMPTAR, "UBOUND");
/* argument DIM must be within source array rank */
rank = source->n_dim;
dim = *dimptr - 1;
if (dim < 0 || dim >= rank)
_lerror (_LELVL_ABORT, FENMSCDM, "UBOUND");
/* Return low_bound+extent-1 for nonzero extent, else return zero */
if(source->dimension[dim].extent != 0)
iresult = (_f_int8) (source->dimension[dim].low_bound +
source->dimension[dim].extent) - 1;
else
iresult = (_f_int8) 0;
return(iresult);
}
_f_int4
_SIZE_4 (DopeVectorType * source,
_f_int *dimptr)
{
_f_int4 iresult;
int dim;
int rank;
int loopj;
/* If source is a pointer/allocatable array, it must be
* associated/allocated. */
if (source->p_or_a && !source->assoc)
_lerror (_LELVL_ABORT, FENMPTAR, "SIZE");
rank = source->n_dim;
if (dimptr == NULL) {
iresult = 1;
/* Retrieve product of extents */
for (loopj = 0; loopj < rank; loopj++)
iresult = iresult * source->dimension[loopj].extent;
}
else {
/* argument DIM must be within source array rank */
dim = *dimptr - 1;
if (dim < 0 || dim >= rank)
_lerror (_LELVL_ABORT, FENMSCDM, "SIZE");
/* Return extent */
iresult = source->dimension[dim].extent;
}
return(iresult);
}
_f_real8
_NEAREST(_f_real8 x, _f_real8 s)
{
#ifdef KEY /* Bug 10771 */
if (s == (_f_real8) 0.0) {
_lerror (_LELVL_ABORT, FENEARZS);
}
_f_int8 infinity =
signbit(s) ? (0x8000000000000000ull | IEEE_64_INFINITY) : IEEE_64_INFINITY;
_f_real8 result = nextafter(x, * (_f_real8 *) &infinity);
return result;
#elif 0 /* KEY Bug 3399 */
/* See comment in _NEAREST_4 */
REGISTER_8 x_reg;
int positive_s = (s > (_f_real8) 0.0);
if (s == (_f_real8) 0.0) {
_lerror (_LELVL_ABORT, FENEARZS);
}
x_reg.f = x;
if (IEEE_64_EXPO_ALL_ONES(x_reg.ui)) {
return x;
}
if (x == (_f_real8) 0.0) { /* either +0.0 or -0.0 */
x_reg.ui = positive_s ? 1 : (IEEE_64_SIGN_BIT | 1);
} else {
int increment = (positive_s == (x > (_f_real8) 0.0)) ? 1 : -1;
x_reg.ui += increment;
}
return x_reg.f;
#else
REGISTER_8 s1, s2;
s1.f = x;
if (s == 0.0) {
_lerror (_LELVL_ABORT, FENEARZS);
}
s2.ui = (s1.f > 0) ? LL_CONST(0x1) : -(LL_CONST(0x1));
if (s1.f == 0.0) {
s1.f = (s > 0.0) ? TINY_REAL8_F90 : -TINY_REAL8_F90;
} else if (s > 0.0) {
s1.ui += s2.ui;
} else {
s1.ui -= s2.ui;
}
if (isnormal64(s1.ui))
return s1.f;
if (x > 1.0 || x < -1.0)
return s1.f;
return (0.0);
#endif /* KEY */
}
void
_BOUNDS_ERROR(
char *file, /* Fortran routine containing error */
int *line, /* Line number in Fortran routine */
char *variable, /* arrayname with out-of-bounds subscript */
int *dim, /* Dimension number of the array */
int *lowerbnd, /* Lower bound of dimension dim */
int *upperbnd, /* Upper bound of dimension dim */
int sub[1], /* Out-of-bounds subscript value */
int *count) /* Count/flag for number of messages */
{
int *retcnt; /* ptr to static arg count word */
int intcnt = 0; /* local count if no count passed */
#ifdef _UNICOS
/* Use local variable if count argument not passed. */
if (_numargs() < 8)
retcnt = &intcnt;
else
#endif
retcnt = count;
if ((*retcnt)++ == 0) {
#ifdef KEY /* Bug 7969 */
if (want_abort()) {
(void) _lerror(_LELVL_MSG, FWARGSBV, sub[0], *dim, variable,
*line, file, *lowerbnd, *upperbnd);
do_abort();
}
#endif /* KEY Bug 7969 */
(void) _fwarn(FWARGSBV, sub[0], *dim, variable, *line,
file, *lowerbnd, *upperbnd);
}
return;
}
_f_real4
_NEAREST_4_16(_f_real4 x, _f_real16 s)
{
REGISTER_4 s1, s2, s3;
s1.f = x;
if (s == 0.0) {
_lerror (_LELVL_ABORT, FENEARZS);
}
#if defined (_CRAY1) && defined(_CRAYIEEE)
s3.ui = s1.ui & ~(IEEE_64_SIGN_BIT);
s2.ui = (s1.f > 0) ? LL_CONST(0x20000000) : -(LL_CONST(0x20000000));
if ((_f_real4) TINY_REAL4_F90 > s3.f)
s1.f = 0.0;
#else
s2.ui = (s1.f > 0) ? 0x1 : -(0x1);
#endif
if (s1.f == 0.0) {
s1.f = (s > 0.0) ?
(_f_real4) TINY_REAL4_F90 : (_f_real4) -TINY_REAL4_F90;
} else if (s > 0.0) {
s1.ui += s2.ui;
} else {
s1.ui -= s2.ui;
}
#if defined (_CRAY1) && defined(_CRAYIEEE)
if (isnormal64(s1.ui))
#else
if (isnormal32(s1.ui))
#endif
return s1.f;
if (x > 1.0 || x < -1.0)
return s1.f;
return (0.0);
}
void
AQWAIT(
_f_int *aqp,
_f_int *status,
_f_int *reply)
{
AQFIL *f;
struct fflistreq *nxtq;
_f_int dummy, *lreply;
/*
* UNICOS 8.0 and previous quietly permitted fewer than 2 arguments,
* even though our documentatiokn for AQWAIT has required >= 2 args
* for some time. Do the service of printing an error message if a
* dusty deck code happens to use < 2 arguments.
*/
if (_numargs() < 2)
_lerror(_LELVL_ABORT, FEARGCNT, "AQWAIT", _numargs(), "2 or 3");
/*
* reply is an optional argument.
*/
lreply = reply;
if (_numargs() < 3) lreply = &dummy;
f = (AQFIL *) *aqp;
if (f == NULL || f->aq_chk != AQ_CHK) {
*status = -FEAQBADH; /* file handle is not valid */
return;
}
if (f->aq_busy == f->aq_nxtq) {
*status = IDLE;
return;
}
*status = OK;
AQ_LOCK(aq_lkbusy);
nxtq = f->aq_nxtq;
_aqwait(f, status, lreply, nxtq);
AQ_UNLOCK(aq_lkbusy);
if (*status < 0 && _numargs() <= 1)
_lerror(_LELVL_ABORT, -(*status));
return;
}
void
_TASK_DV_GETFIRST_ERROR(
char *variable, /* allocatable array or Fortran pointer */
char *file, /* Fortran routine containing error */
int *lineno) /* Line number in Fortran routine */
{
(void) _lerror(_LELVL_ABORT, FENGFLCL, variable, file, *lineno);
return;
}
_f_real16
_NEAREST_16_8(_f_real16 x, _f_real8 s)
{
#if defined(_WORD32)
union ldble_float {
_f_real16 whole;
unsigned long long ui[1];
} f,rslt;
unsigned long long s2, s3, s4;
#else
union ldble_float {
_f_real16 whole;
unsigned long ui[1];
} f,rslt;
unsigned long s2, s3, s4;
#endif
rslt.whole = x;
f.whole = x;
if (s == 0.0) {
_lerror (_LELVL_ABORT, FENEARZS);
}
s2 = (rslt.whole > 0) ? LL_CONST(0x1) : -(LL_CONST(0x1));
if (rslt.whole > 0) {
/* if x > 0 and s > 0, check for all 7's in 2nd word */
s3 = IEEE_128_64_MANT2;
/* if x > 0 and s < 0, check for all zeros in 2nd word */
s4 = LL_CONST(0x0);
} else {
/* if x < 0 and s > 0, check for all zeros in 2nd word */
s3 = LL_CONST(0x0);
/* if x < 0 and s < 0, check for all 7's in 2nd word */
s4 = IEEE_128_64_MANT2;
}
if (rslt.whole == 0.0) {
rslt.whole = (s > 0.0) ? TINY_REAL16_F90 : -TINY_REAL16_F90;
} else if (s > 0.0) {
rslt.ui[1] += s2;
if (f.ui[1] == s3) {
rslt.ui[0] += s2;
}
} else {
rslt.ui[1] -= s2;
if (f.ui[1] == s4) {
rslt.ui[0] -= s2;
}
}
if (isnormal128(rslt.whole))
return rslt.whole;
if (x > 1.0 || x < -1.0)
return rslt.whole;
return (0.0);
}
void
__f90_bounds_check(char *procedure_name, _f_int4 line_number, char *array_name, _f_int4 axis_number)
{
char *unknown_nm = "name_unknown";
char *abort_now = NULL;
char *rtn_nm = "__f90_bounds_check";
/* note mips f90 compiler appends extra characters at
* the end of the procedure name.
*/
/* MIPSpro 7.2 and 7.2.1 documentation assumed that the
* routine would abort if this environment variable is
* is set. Otherwise, the message is just a warning.
*/
abort_now = getenv("F90_BOUNDS_CHECK_ABORT");
if (abort_now) {
if (*abort_now == 'y' || *abort_now == 'Y') {
if (array_name) {
(void) _lerror(_LELVL_MSG, FWARGSVB,
axis_number, array_name, line_number,
procedure_name, rtn_nm);
} else {
(void) _lerror(_LELVL_MSG, FWARGSVB,
axis_number, unknown_nm, line_number,
procedure_name, rtn_nm);
}
/* cleanup the fortran units before abort */
_fcleanup();
abort();
}
}
if (array_name)
(void) _fwarn(FWARGSVB,axis_number, array_name,
line_number, procedure_name, rtn_nm);
else
(void) _fwarn(FWARGSVB,axis_number, unknown_nm,
line_number, procedure_name, rtn_nm);
return;
}
void
RNLCOMM(_fcd chr, _f_int *mode)
{
int thechar;
if (_numargs() != (sizeof(_fcd) + sizeof(long *))/ sizeof(long))
_lerror(_LELVL_ABORT,FEARGLST, "RNLCOMM");
thechar = _getfchar(chr);
TOGGLE_CHAR(thechar, MRNLCOMM, *mode);
return;
}
/*
* Error handler for an array syntax conformance warning.
* This entry is called by the f90 compiler on IRIX only.
*
* Input Arguments:
* file - File name in which error occurred.
* line - Line number in file.
* dim - Dimension number which has a size mismatch.
* extent1 - One of two mismatched 64-bit extents of dimension dim.
* extent2 - One of two mismatched 64-bit extents of dimension dim.
*
* ON MIPS, if the environment varaiable is set to Y(ES), produce an
* error message with the information and then abort. Otherwise,
* produce a warning for the conformity check.
*
* When the input dimension is zero, this routine is being called
* from an inline version of a transformational function such as
* MATMUL and the use of a dimension would be confusing since the
* first dimension of one argument and the second dimension of the
* other argument are mismatched.
*
* When the input dimension is nonzero, this routine is being called
* when the specified dimension is the same for both arguments.
*
* The message contains the name of this routine for debugging.
*/
void
__f90_conform_check(
char *file,
int line,
int dim,
long long extent1,
long long extent2)
{
char *abort_now = NULL;
char *rtn_nm = "__f90_conform_check";
abort_now = getenv("F90_CONFORM_CHECK_ABORT");
if (extent1 < 0)
extent1 = 0;
if (extent2 < 0)
extent2 = 0;
/* abort only if environment variable is present and is Y(es) */
if (abort_now && (*abort_now == 'y' || *abort_now == 'Y')) {
/* Use proper message depending on value of dimension. */
if (dim != 0)
(void) _lerror(_LELVL_MSG,FWARGDMD, dim, line,
file, extent1, extent2, rtn_nm);
else
(void) _lerror(_LELVL_MSG,FWARGDMZ, line,
file, extent1, extent2, rtn_nm);
_fcleanup();
abort();
}
/* Use proper message depending on value of dimension. */
if (dim != 0)
(void) _fwarn(FWARGDMD, dim, line, file, extent1,
extent2, rtn_nm);
else
(void) _fwarn(FWARGDMZ, line, file, extent1, extent2,
rtn_nm);
}
void
RNLSEP(_fcd chr, _f_int *mode)
{
int thechar;
if (_numargs() != (sizeof(_fcd) + sizeof(long*))/sizeof(long))
_lerror(_LELVL_ABORT,FEARGLST, "RNLSEP");
thechar = _getfchar(chr);
if (thechar == ' ')
_BLNKSEP = *mode;
TOGGLE_CHAR(thechar, MRNLSEP, *mode);
return;
}
/*
* Error handler for an of out of bounds substring.
*
* Input:
* file - File name in which error occurred.
* line - Line number in file.
* variable - Name of array which had an out of bounds substring.
* size - Substring size.
* start - Out of bounds substring start.
* length - Out of bounds substring length.
* count - Static count/flag to indicate if this message was
* already given for this statement.
*/
void
_SBOUNDS_ERROR(
char *file,
int *line,
char *variable,
int *size,
int *subst,
int *subln,
int *count )
{
int *retcnt; /* ptr to static arg count word */
int intcnt = 0; /* local count if no count passed */
int endst;
#ifdef _UNICOS
/* Use local variable if count argument not passed. */
if (_numargs() < 7)
retcnt = &intcnt;
else
#endif
retcnt = count;
/* if substring length is zero or negative, not incorrect */
if ( *subln > 0) {
if ((*retcnt)++ == 0) {
/* calculate substring end.
* subln is calculated by (ln = s2 - s1 + 1)
* endst is calculated by (s2 = ln + s1 - 1)
*/
endst = *subln + *subst - 1;
#ifdef KEY /* Bug 7969 */
if (want_abort()) {
(void) _lerror(_LELVL_MSG, FWARGSTR, *subst, endst, variable,
*line, file, *size);
do_abort();
}
#endif /* KEY Bug 7969 */
(void) _fwarn (FWARGSTR, *subst, endst, variable,
*line, file, *size);
}
}
return;
}
/*
* NTON integer*32 raised to an integer*32
*/
_f_int4
_NTON( _f_int4 x,
_f_int4 y )
{
_f_int4 base, result, i;
if (x == 0) {
if (y == 0) {
#if defined(__mips) || defined(_LITTLE_ENDIAN)
return(1);
#else
_lerror(_LELVL_ABORT, FEIPOWZR);
#endif
}
return(0);
}
if (y < 0) {
result = 0;
if ((x == 1) || (x == -1)) {
result = 1;
if (((y & 1) == 1) && (x == -1))
result = -1;
}
} else {
if (y == 0)
return(1);
base = x;
if (x < 0)
base = -x;
result = 1;
i = y;
while (i != 0) {
if ((i & 1) == 1)
result *= base;
base *= base;
i = (unsigned) i >> 1;
};
if ((x < 0) && ((y & 1) == 1))
result = -result;
}
return(result);
}
_f_real8
_NEAREST_8_16(_f_real8 x, _f_real16 s)
{
REGISTER_8 s1, s2;
s1.f = x;
if (s == 0.0) {
_lerror (_LELVL_ABORT, FENEARZS);
}
s2.ui = (s1.f > 0) ? LL_CONST(0x1) : -(LL_CONST(0x1));
if (s1.f == 0.0) {
s1.f = (s > 0.0) ? TINY_REAL8_F90 : -TINY_REAL8_F90;
} else if (s > 0.0) {
s1.ui += s2.ui;
} else {
s1.ui -= s2.ui;
}
if (isnormal64(s1.ui))
return s1.f;
if (x > 1.0 || x < -1.0)
return s1.f;
return (0.0);
}
/*
* NTOI - integer*32 raised to an integer*64
*/
_f_int8
_NTOI( _f_int4 x,
_f_int8 y )
{
long base, result, i;
if (x == 0) {
if (y == 0) {
_lerror(_LELVL_ABORT, FEIPOWZR);
}
return(0);
}
if (y < 0) {
result = 0;
if ((x == 1) || (x == -1)) {
result = 1;
if (((y & 1) == 1) && (x == -1))
result = -1;
}
} else {
if (y == 0)
return(1);
base = x;
if (x < 0)
base = -x;
result = 1;
i = y;
while (i != 0) {
if ((i & 1) == 1)
result *= base;
base *= base;
i = (unsigned) i >> 1;
};
if ((x < 0) && ((y & 1) == 1))
result = -result;
};
return(result);
}
/* NEAREST - return the nearest different machine representable number in a
* given direction s for 32-bit and 64-bit values. Returns
* the argument x if s = zero. The result is undefined in f90
* when s = zero.
*/
_f_real4
_NEAREST_4(_f_real4 x, _f_real4 s)
{
#ifdef KEY /* Bug 10771 */
/* Previous approach (in "elif") didn't treat infinity correctly and didn't
* signal exceptions correctly. Let's try using the C library functions in
* hopes that they know what they're doing.
*/
if (s == (_f_real4) 0.0) {
_lerror (_LELVL_ABORT, FENEARZS);
}
_f_int4 infinity =
signbit(s) ? (0x80000000 | IEEE_32_INFINITY) : IEEE_32_INFINITY;
_f_real4 result = nextafterf(x, * (_f_real4 *) &infinity);
return result;
#elif 0 /* KEY Bug 3399 */
/*
* We want "nearest(nearest(x, s), -s) == x" to be true so long as
* IEEE infinity and NaN aren't involved. We do allow largest/smallest
* number to turn into infinity, but we don't allowe infinity to turn
* back into largest/smallest number.
*
* Here's a summary of the unsigned bit patterns for IEEE floating
* point:
*
* 1 11-11 11------11 "Largest magnitude negative" NaN
* 1 11-11 00------01 "Smallest magnitude negative" NaN
* 1 11-11 00------00 Negative infinity
* 1 11-10 11------11 Largest-magnitude negative normalized
* 1 00-01 00------00 Smallest-magnitude negative normalized
* 1 00-00 11------11 Largest-magnitude negative denorm
* 1 00-00 00------01 Smallest-magnitude negative denorm
* 1 00-00 00------00 Negative zero
* 0 11-11 11------11 "Largest positive" NaN
* 0 11-11 00------01 "Smallest positive" NaN
* 0 11-11 00------00 Positive infinity
* 0 11-10 11------11 Largest-magnitude positive normalized
* 0 00-01 00------00 Smallest-magnitude positive normalized
* 0 00-00 11------11 Largest-magnitude positive denorm
* 0 00-00 00------01 Smallest-magnitude positive denorm
* 0 00-00 00------00 Zero
*
* Our strategy is:
* 1. s == 0 is a fatal error
* 2. if x == infinity or NaN, return it unchanged
* 3. if x == +0 or -0, return smallest-magnitude denorm whose sign
* matches that of s
* 4. if the signs of x and s match, add 1 to bit pattern of x
* (increasing its floating-point magnitude); else subtract 1 from
* bit pattern of x (decreasing its magnitude)
*/
REGISTER_4 x_reg;
int positive_s = (s > (_f_real4) 0.0);
if (s == (_f_real4) 0.0) {
_lerror (_LELVL_ABORT, FENEARZS);
}
x_reg.f = x;
if (IEEE_32_EXPO_ALL_ONES(x_reg.ui)) {
return x;
}
if (x == (_f_real4) 0.0) { /* either +0.0 or -0.0 */
x_reg.ui = positive_s ? 1 : (IEEE_32_SIGN_BIT | 1);
} else {
int increment = (positive_s == (x > (_f_real4) 0.0)) ? 1 : -1;
x_reg.ui += increment;
}
return x_reg.f;
#else
REGISTER_4 s1, s2, s3;
s1.f = x;
if (s == (_f_real4) 0.0) {
_lerror (_LELVL_ABORT, FENEARZS);
}
#if defined (_CRAY1) && defined(_CRAYIEEE)
s3.ui = s1.ui & ~(IEEE_64_SIGN_BIT);
s2.ui = (s1.f > 0) ? LL_CONST(0x20000000) : -(LL_CONST(0x20000000));
if ((_f_real4) TINY_REAL4_F90 > s3.f)
s1.f = 0.0;
#else
s2.ui = (s1.f > 0) ? 0x1 : -(0x1);
#endif
if (s1.f == (_f_real4) 0.0) {
s1.f = (s > (_f_real4) 0.0) ?
(_f_real4) TINY_REAL4_F90 : (_f_real4) -TINY_REAL4_F90;
} else if (s > (_f_real4) 0.0) {
s1.ui += s2.ui;
} else {
s1.ui -= s2.ui;
}
#if defined (_CRAY1) && defined(_CRAYIEEE)
if (isnormal64(s1.ui))
#else
if (isnormal32(s1.ui))
#endif
return s1.f;
if (x > 1.0 || x < -1.0)
return (s1.f);
return (0.0);
#endif /* KEY */
}
void
__all ( DopeVectorType * result,
DopeVectorType * mask,
_f_int *dimension)
{
int c_dim; /* C form of input dimension */
int other_dim; /* other dimension in rank-2 */
int num_elts = 1; /* elts in result array */
long nbytes = 0; /* bytes to malloc */
_f_log * irptr; /* ptr to result array */
_f_log * imptr; /* ptr to mask array */
_f_log4 * i4rptr; /* ptr to result array */
_f_log4 * i4mptr; /* ptr to mask array */
_f_log8 * i8rptr; /* ptr to result array */
_f_log8 * i8mptr; /* ptr to mask array */
#ifdef _F_LOG1
_f_log1 * i1rptr; /* ptr to result array */
_f_log1 * i1mptr; /* ptr to mask array */
#endif
#ifdef _F_LOG2
_f_log2 * i2rptr; /* ptr to result array */
_f_log2 * i2mptr; /* ptr to mask array */
#endif
long i, j; /* index variables */
long indx, jndx; /* loop indices */
int done, stop; /* work done indicators */
int el_len; /* LTOB length indicator */
int mshftct=0; /* mask amount to shift index */
int rshftct=0; /* result amount to shift index */
/* Per-dimension arrays */
long current_place[MAXDIM-1]; /* current place*/
long mask_offset[MAXDIM-1]; /* mask offset */
long mask_extent[MAXDIM-1]; /* mask extent */
long mask_stride[MAXDIM-1]; /* mask stride */
long result_offset[MAXDIM-1]; /* result offset*/
long result_stride[MAXDIM-1]; /* result stride*/
long cdim_mask_stride; /* cdim stride */
/* Validate dimension variable */
if (dimension != NULL && mask->n_dim > 1) {
c_dim = *dimension - 1;
if (c_dim < 0 || c_dim >= mask->n_dim)
_lerror (_LELVL_ABORT, FESCIDIM);
} else {
c_dim = 0;
if (dimension != NULL) {
if (*dimension < 1 || *dimension > mask->n_dim)
_lerror (_LELVL_ABORT, FESCIDIM);
}
}
/* Setup dope vector for result array */
if (!result->assoc) {
int sm = 1;
if (result->base_addr.a.el_len >= BITS_PER_WORD)
sm = result->base_addr.a.el_len / BITS_PER_WORD;
if (dimension != NULL) {
for (i = 0; i < c_dim; i++) {
result->dimension[i].extent =
mask->dimension[i].extent;
result->dimension[i].low_bound = 1;
result->dimension[i].stride_mult =
num_elts * sm;
num_elts *= mask->dimension[i].extent;
}
for ( ; i < result->n_dim; i++) {
result->dimension[i].extent =
mask->dimension[i+1].extent;
result->dimension[i].low_bound = 1;
result->dimension[i].stride_mult =
num_elts * sm;
num_elts *= mask->dimension[i+1].extent;
}
}
result->base_addr.a.ptr = (void *) NULL;
nbytes = ((num_elts * result->base_addr.a.el_len) /
BITS_PER_BYTE);
if (nbytes != 0) {
result->base_addr.a.ptr = (void *) malloc (nbytes);
if (result->base_addr.a.ptr == NULL)
_lerror(_LELVL_ABORT, FENOMEMY);
result->assoc = 1;
}
/* set fields for null array as well */
result->orig_base = result->base_addr.a.ptr;
result->orig_size = nbytes * BITS_PER_BYTE;
}
/* Set pointer to result array and initialize result array to TRUE */
irptr = (void *) result->base_addr.a.ptr;
switch (result->type_lens.int_len) {
case 64 :
i8rptr = (_f_log8 *) result->base_addr.a.ptr;
#ifdef _F_LOG4
if (sizeof(_f_int) == sizeof(_f_log4))
rshftct = 1;
#endif
#ifdef _UNICOS
#pragma _CRI ivdep
#endif
for (i = 0; i < num_elts; i++) {
i8rptr[i] = (_f_log8) _btol(1);
}
break;
#ifdef _F_LOG2
case 16 :
i2rptr = (_f_log2 *) result->base_addr.a.ptr;
for (i = 0; i < num_elts; i++) {
i2rptr[i] = (_f_log2) _btol(1);
}
break;
#endif
#ifdef _F_LOG1
case 8 :
i1rptr = (_f_log1 *) result->base_addr.a.ptr;
for (i = 0; i < num_elts; i++) {
i1rptr[i] = (_f_log1) _btol(1);
}
break;
#endif
case 32 :
default :
i4rptr = (_f_log4 *) result->base_addr.a.ptr;
#ifdef _UNICOS
#pragma _CRI ivdep
#endif
for (i = 0; i < num_elts; i++) {
i4rptr[i] = (_f_log4) _btol(1);
}
}
imptr = (void *) mask->base_addr.a.ptr;
switch (mask->type_lens.int_len) {
case 64 :
el_len = sizeof(_f_log8) * BITS_PER_BYTE;
i8mptr = (_f_log8 *) imptr;
#ifdef _F_LOG4
/* Set mask shftct for ALL with no size specified since
* no size means a 64-bit logical value. A default of
* 32-bit logical has a stride_mult of two for a 64-bit
* logical on WORD32. Normally, the ALL_8 entry point
* is used. On MPP, the stride_mult is one for 32-bit
* or 64-bit logical.
*/
if (sizeof(_f_int) == sizeof(_f_log4))
mshftct = 1;
#endif
break;
#ifdef _F_LOG2
case 16 :
el_len = sizeof(_f_log2) * BITS_PER_BYTE;
i2mptr = (_f_log2 *) imptr;
break;
#endif
#ifdef _F_LOG1
case 8 :
el_len = sizeof(_f_log1) * BITS_PER_BYTE;
i1mptr = (_f_log1 *) imptr;
break;
#endif
case 32 :
default :
el_len = sizeof(_f_log4) * BITS_PER_BYTE;
i4mptr = (_f_log4 *) imptr;
}
/* check for zero-sized mask array */
for (i = 0; i < mask->n_dim; i++) {
if (mask->dimension[i].extent == 0)
return;
}
/* Handle a rank-one mask array */
if (mask->n_dim == 1) {
/* Use local mask_stride and divide by two when two-word
* logical is being done.
*/
#ifdef _F_LOG4
mask_stride[0] = (mask->dimension[0].stride_mult) >> mshftct;
#else
mask_stride[0] = mask->dimension[0].stride_mult;
#endif
/* Scan array until a FALSE element is found */
i = 0;
indx = 0;
switch (mask->type_lens.int_len) {
case 64 :
while (i < mask->dimension[0].extent) {
if (LTOB(el_len, (i8mptr + indx))) {
/* true element */
i++;
indx = i * mask_stride[0];
} else {
/* false element */
switch (result->type_lens.int_len) {
case 64 :
i8rptr[0] = (_f_log8) _btol(0);
break;
#ifdef _F_LOG2
case 16 :
i2rptr[0] = (_f_log2) _btol(0);
break;
#endif
#ifdef _F_LOG1
case 8 :
i1rptr[0] = (_f_log1) _btol(0);
break;
#endif
case 32 :
default :
i4rptr[0] = (_f_log4) _btol(0);
}
i = mask->dimension[0].extent;
}
}
break;
#ifdef _F_LOG2
case 16 :
while (i < mask->dimension[0].extent) {
if (LTOB(el_len, (i2mptr + indx))) {
/* true element */
i++;
indx = i * mask_stride[0];
} else {
/* false element */
switch (result->type_lens.int_len) {
case 64 :
i8rptr[0] = (_f_log8) _btol(0);
break;
case 16 :
i2rptr[0] = (_f_log2) _btol(0);
break;
#ifdef _F_LOG1
case 8 :
i1rptr[0] = (_f_log1) _btol(0);
break;
#endif
case 32 :
default :
i4rptr[0] = (_f_log4) _btol(0);
}
i = mask->dimension[0].extent;
}
}
break;
#endif
#ifdef _F_LOG1
case 8 :
while (i < mask->dimension[0].extent) {
if (LTOB(el_len, (i1mptr + indx))) {
/* true element */
i++;
indx = i * mask_stride[0];
} else {
/* false element */
switch (result->type_lens.int_len) {
case 64 :
i8rptr[0] = (_f_log8) _btol(0);
break;
case 16 :
i2rptr[0] = (_f_log2) _btol(0);
break;
case 8 :
i1rptr[0] = (_f_log1) _btol(0);
break;
case 32 :
default :
i4rptr[0] = (_f_log4) _btol(0);
}
i = mask->dimension[0].extent;
}
}
break;
#endif
case 32 :
default :
while (i < mask->dimension[0].extent) {
if (LTOB(el_len, (i4mptr + indx))) {
/* true element */
i++;
indx = i * mask_stride[0];
} else {
/* false element */
switch (result->type_lens.int_len) {
case 64 :
i8rptr[0] = (_f_log8) _btol(0);
break;
#ifdef _F_LOG2
case 16 :
i2rptr[0] = (_f_log2) _btol(0);
break;
#endif
#ifdef _F_LOG1
case 8 :
i1rptr[0] = (_f_log1) _btol(0);
break;
#endif
case 32 :
default :
i4rptr[0] = (_f_log4) _btol(0);
}
i = mask->dimension[0].extent;
}
}
}
/* Handle a rank-two mask array */
} else if (mask->n_dim == 2) {
void
_MERGE (DopeVectorType * result,
DopeVectorType * tsource,
DopeVectorType * fsource,
DopeVectorType * mask)
{
char *cf; /* char ptr to fsource array */
char *ct; /* char ptr to tsource array */
char *cr; /* char ptr to result array */
int chrlenf; /* length from fsource */
int chrlenr; /* length from result */
char * restrict cptr1; /* char */
unsigned long * restrict uptr1; /* unsigned */
_f_real16 * restrict dptr1; /* double */
dblcmplx * restrict xptr1; /* double cmplx */
char * restrict cptr2; /* char */
unsigned long * restrict uptr2; /* unsigned */
_f_real16 * restrict dptr2; /* double */
dblcmplx * restrict xptr2; /* double cmplx */
char * restrict cptr3; /* char */
unsigned long * restrict uptr3; /* unsigned */
_f_real16 * restrict dptr3; /* double */
dblcmplx * restrict xptr3; /* double cmplx */
_f_int * restrict iptr4; /* int */
unsigned long * restrict fptr; /* fsource */
unsigned long * restrict rptr; /* result */
unsigned long * restrict tptr; /* tsource */
unsigned long * restrict mptr; /* mask */
int bucketsize; /* size of element */
int nbytes; /* number of bytes */
int nwords; /* number of words */
int curdim[7]; /* current indices */
int bytealligned; /* byte aligned flag */
int findx; /* fsource index */
int rindx; /* result index */
int mindx; /* mask index */
int tindx; /* tsource index */
int type; /* data type */
int rank; /* rank of result matrix */
int i, j, k; /* index variables */
int fls_ext[MAXDIM]; /* extents for fsource */
int fls_strd[MAXDIM]; /* element stride for field */
int fls_incr[MAXDIM]; /* incr for each index */
int msk_ext[MAXDIM]; /* extents for fsource */
int msk_strd[MAXDIM]; /* element stride for field */
int msk_incr[MAXDIM]; /* incr for each index */
int res_ext[MAXDIM]; /* extents for fsource */
int res_strd[MAXDIM]; /* element stride for field */
int res_incr[MAXDIM]; /* incr for each index */
int tru_ext[MAXDIM]; /* extents for fsource */
int tru_strd[MAXDIM]; /* element stride for field */
int tru_incr[MAXDIM]; /* incr for each index */
int fls_cum_decr; /* fsource cumulative decrement */
int msk_cum_decr; /* mask cumulative decrement */
int res_cum_decr; /* result cumulative decrement */
int tru_cum_decr; /* tsource cumulative decrement */
int tot_ext; /* total extent counter */
int msk_0_strd; /* scaler stride variable */
int res_0_strd; /* scaler stride variable */
int tru_0_strd; /* scaler stride variable */
int fls_0_strd; /* scaler stride variable */
int one; /* index holder */
int zero; /* index holder */
/* Set type and rank global variables */
type = fsource->type_lens.type;
rank = mask->n_dim;
/*
* Initialize every element of every array to try and minimize problem
* in compiler.
*/
for (i = 0; i < MAXDIM; i++) {
fls_ext[i] = 0;
fls_strd[i] = 0;
fls_incr[i] = 0;
msk_ext[i] = 0;
msk_strd[i] = 0;
msk_incr[i] = 0;
res_ext[i] = 0;
res_strd[i] = 0;
res_incr[i] = 0;
tru_ext[i] = 0;
tru_strd[i] = 0;
tru_incr[i] = 0;
}
/* Size calculation is based on variable type */
switch (type) {
case DVTYPE_ASCII :
bytealligned = 1;
bucketsize = _fcdlen (fsource->base_addr.charptr);
break;
case DVTYPE_DERIVEDBYTE :
bytealligned = 1;
#ifndef _ADDR64
bucketsize = fsource->base_addr.a.el_len >> 3; /* bytes */
#else
bucketsize = _fcdlen (fsource->base_addr.charptr);/* bytes */
#endif
break;
case DVTYPE_DERIVEDWORD :
bytealligned = 0;
#ifndef _ADDR64
bucketsize = fsource->base_addr.a.el_len >> 6; /* words */
#else
bucketsize = _fcdlen (fsource->base_addr.charptr);/* bytes */
bucketsize >>= 3; /* words */
#endif
break;
default :
bytealligned = 0;
bucketsize = fsource->type_lens.int_len >> 6; /* words */
}
/* Set up dope vector for result array */
if (!result->assoc) {
result->base_addr.a.ptr = (void *) NULL;
result->orig_base = 0;
result->orig_size = 0;
for (i = 0; i < rank; i++) {
result->dimension[i].extent = mask->dimension[i].extent;
result->dimension[i].low_bound = 1;
result->dimension[i].stride_mult =
mask->dimension[i].stride_mult * bucketsize;
}
/* Determine size of space to allocate */
if (!bytealligned)
nbytes = bucketsize << 3;
else
nbytes = bucketsize;
for (i = 0; i < rank; i++)
nbytes *= mask->dimension[i].extent;
nwords = nbytes >> 3;
result->base_addr.a.ptr = (void *) malloc (nbytes);
if (result->base_addr.a.ptr == NULL)
_lerror (_LELVL_ABORT, FENOMEMY);
result->assoc = 1;
if (bytealligned) {
cr = (char *) result->base_addr.a.ptr;
result->base_addr.charptr = _cptofcd (cr, bucketsize);
}
result->orig_base = (void *) result->base_addr.a.ptr;
result->orig_size = nwords;
} else {
_f_real4
_NEAREST_4_8(_f_real4 x, _f_real8 s)
{
#ifdef KEY /* Bug 10771 */
if (s == (_f_real8) 0.0) {
_lerror (_LELVL_ABORT, FENEARZS);
}
_f_int4 infinity =
signbit(s) ? (0x80000000 | IEEE_32_INFINITY) : IEEE_32_INFINITY;
_f_real4 result = nextafterf(x, * (_f_real4 *) &infinity);
return result;
#elif 0 /* KEY Bug 3399 */
/* See comment in _NEAREST_4 */
REGISTER_4 x_reg;
int positive_s = (s > (_f_real8) 0.0);
if (s == (_f_real8) 0.0) {
_lerror (_LELVL_ABORT, FENEARZS);
}
x_reg.f = x;
if (IEEE_32_EXPO_ALL_ONES(x_reg.ui)) {
return x;
}
if (x == (_f_real4) 0.0) { /* either +0.0 or -0.0 */
x_reg.ui = positive_s ? 1 : (IEEE_32_SIGN_BIT | 1);
} else {
int increment = (positive_s == (x > (_f_real4) 0.0)) ? 1 : -1;
x_reg.ui += increment;
}
return x_reg.f;
#else
REGISTER_4 s1, s2, s3;
s1.f = x;
if (s == 0.0) {
_lerror (_LELVL_ABORT, FENEARZS);
}
#if defined (_CRAY1) && defined(_CRAYIEEE)
s3.ui = s1.ui & ~(IEEE_64_SIGN_BIT);
s2.ui = (s1.f > 0) ? LL_CONST(0x20000000) : -(LL_CONST(0x20000000));
if ((_f_real4) TINY_REAL4_F90 > s3.f)
s1.f = 0.0;
#else
s2.ui = (s1.f > 0) ? 0x1 : -(0x1);
#endif
if (s1.f == 0.0) {
s1.f = (s > 0.0) ?
(_f_real4) TINY_REAL4_F90 : (_f_real4) -TINY_REAL4_F90;
} else if (s > 0.0) {
s1.ui += s2.ui;
} else {
s1.ui -= s2.ui;
}
#if defined (_CRAY1) && defined(_CRAYIEEE)
if (isnormal64(s1.ui))
#else
if (isnormal32(s1.ui))
#endif
return s1.f;
if (x > 1.0 || x < -1.0)
return s1.f;
return (0.0);
#endif /* KEY */
}
void
AQRECALL(
_f_int *aqp,
_f_int *status,
_f_int *reqid,
_f_int *reply)
{
AQFIL *f;
struct fflistreq *base, *limit, *nxtq, *busy, *eptr;
int i;
int max;
int inside;
if (_numargs() < 4)
_lerror(_LELVL_ABORT, FEARGCNT, "AQRECALL", _numargs(), "4");
f = (AQFIL *) *aqp;
if (f == NULL || f->aq_chk != AQ_CHK) {
*status = -FEAQBADH; /* file handle is not valid */
return;
}
base = f->aq_base;
limit = f->aq_limit;
max = limit - base;
/*
* Lock the tail of the queue so no one can stomp on the entry for
* which we are searching.
*/
AQ_LOCK(aq_lkbusy);
busy = f->aq_busy;
/*
* Examine the entire queue, regardless of pointers
*/
for (i = 0 ; i < max ; i++) {
if ( f->aq_reqid[i] == *reqid ) {
eptr = &base[i];
/*
* Determine if the entry in question is
* between busy and nxtq.
*/
nxtq = f->aq_nxtq; /* Grab stable copy */
inside = NO;
if (busy < nxtq) {
if (busy <= eptr && eptr < nxtq)
inside = YES;
}
else {
if (eptr < nxtq || busy <= eptr)
inside = YES;
}
/*
* Now pointing to entry in question.
* Wait for its completion, _aqwait will set status
* appropriately. If not between nxtq and busy,
* assume that if we found it, it must be done.
*/
*status = IOCOMPLETE;
if (inside) {
INC_QP(eptr, limit, max);
_aqwait(f, status, reply, eptr);
}
AQ_UNLOCK(aq_lkbusy);
return;
}
}
AQ_UNLOCK(aq_lkbusy);
*status = NOTFOUND;
return;
}
void
_UBOUND (DopeVectorType * result,
DopeVectorType * source,
_f_int * dimptr)
{
int rank;
int numbytes;
int *destarry;
_f_int4 *resptr4;
_f_int8 *resptr8;
int loopj;
/* If source is a pointer/allocatable array, it must be
* associated/allocated. */
if (source->p_or_a && !source->assoc)
_lerror (_LELVL_ABORT, FENMPTAR, "UBOUND");
/* target is rank-one array with extent source.n_dim */
rank = source->n_dim;
/* If result array is not allocated */
if (!result->assoc) {
result->base_addr.a.ptr = (void *) NULL;
result->dimension[0].extent = rank;
result->dimension[0].low_bound = 1;
result->dimension[0].stride_mult =
result->type_lens.int_len / (sizeof(_f_int) *
BITS_PER_BYTE);
numbytes = rank * BYTES_PER_WORD;
/* allocate rank in bytes for temporary array */
destarry = (void *) malloc (numbytes);
if (destarry == NULL)
_lerror(_LELVL_ABORT, FENOMEMY);
result->base_addr.a.ptr = (void *) destarry;
result->assoc = 1;
}
if (result->type_lens.kind_or_star == 0) {
if (result->type_lens.int_len == 64) {
resptr8 = (_f_int8 *) result->base_addr.a.ptr;
for (loopj = 0; loopj < rank; loopj++)
if(source->dimension[loopj].extent != 0)
resptr8[loopj] = (_f_int8)
(source->dimension[loopj].low_bound +
source->dimension[loopj].extent) - 1;
else
resptr8[loopj] = (_f_int8) 0;
} else {
resptr4 = (_f_int4 *) result->base_addr.a.ptr;
for (loopj = 0; loopj < rank; loopj++)
if(source->dimension[loopj].extent != 0)
resptr4[loopj] = (_f_int4)
(source->dimension[loopj].low_bound +
source->dimension[loopj].extent) - 1;
else
resptr4[loopj] = (_f_int4) 0;
}
} else {
if (result->type_lens.dec_len == 8) {
resptr8 = (_f_int8 *) result->base_addr.a.ptr;
for (loopj = 0; loopj < rank; loopj++)
if(source->dimension[loopj].extent != 0)
resptr8[loopj] = (_f_int8)
(source->dimension[loopj].low_bound +
source->dimension[loopj].extent) - 1;
else
resptr8[loopj] = (_f_int8) 0;
} else if (result->type_lens.dec_len == 4) {
resptr4 = (_f_int4 *) result->base_addr.a.ptr;
for (loopj = 0; loopj < rank; loopj++)
if(source->dimension[loopj].extent != 0)
resptr4[loopj] = (_f_int4)
(source->dimension[loopj].low_bound +
source->dimension[loopj].extent) - 1;
else
resptr4[loopj] = (_f_int4) 0;
}
}
}
void
_PACK ( DopeVectorType * result,
DopeVectorType * source,
DopeVectorType * mask,
DopeVectorType * vector)
{
char *cs; /* char ptr to source array */
char *cr; /* char ptr to result array */
char *cv; /* char ptr to vector array */
char * restrict cptr1; /* char */
char * restrict cptr2; /* char */
char * restrict cptr3; /* char */
_f_int8 * restrict uptr1; /* 64-bit */
_f_int8 * restrict uptr2; /* 64-bit */
_f_int8 * restrict uptr3; /* 64-bit */
_f_int * restrict fptr1; /* default-size */
_f_int * restrict fptr2; /* default-size */
_f_int * restrict fptr3; /* default-size */
_f_real16 * restrict dptr1; /* 128-bit */
_f_real16 * restrict dptr2; /* 128-bit */
_f_real16 * restrict dptr3; /* 128-bit */
#ifdef _F_COMP16
dblcmplx * restrict xptr1; /* 256-bit */
dblcmplx * restrict xptr2; /* 256-bit */
dblcmplx * restrict xptr3; /* 256-bit */
#endif
_f_int4 * restrict hptr1; /* 32-bit */
_f_int4 * restrict hptr2; /* 32-bit */
_f_int4 * restrict hptr3; /* 32-bit */
_f_mask * restrict iptr4; /* def kind mask */
void * restrict sptr; /* ptr to source */
void * restrict rptr; /* ptr to result */
void * restrict mptr; /* ptr to mask */
void * restrict vptr; /* ptr to vector */
_f_int bucketsize; /* size of each data element */
long nbytes; /* # of bytes in data array */
long nwords; /* # of words in data array */
long curdim[MAXDIM]; /* current indices */
_f_int bytealligned; /* byte alligned flag */
long sindx; /* source index */
long rindx; /* result index */
long mindx; /* mask index */
long vindx; /* vector index */
_f_int type; /* type scalar */
_f_int subtype; /* sub-type */
_f_int arithmetic; /* arithmetic */
_f_int rank; /* dimension of source scalar */
long i, j, k; /* index variables */
long res_strd; /* element stride for result */
long vec_strd; /* element stride for result */
long src_ext[MAXDIM]; /* extents for source */
long src_strd[MAXDIM]; /* element stride for source */
long src_off[MAXDIM]; /* offset values for source */
long msk_strd[MAXDIM]; /* element stride for mask */
long msk_off[MAXDIM]; /* offset values for mask */
long indx1_src; /* index for dim 1 of source */
long indx2_src; /* index for dim 2 of source */
long indx1_vec; /* index for dim 1 of vector */
long indx2_vec; /* index for dim 2 of vector */
long indx1_res; /* index for dim 1 of result */
long indx2_res; /* index for dim 2 of result */
long indx1_msk; /* index for dim 1 of msk */
long indx2_msk; /* index for dim 2 of msk */
long total_ext; /* total extent counter */
long src_ext1; /* extent for dim 1 of source */
long src_ext2; /* extent for dim 1 of source */
long found; /* count of # entries in result */
long mask_el_len;
_f_int early_exit; /* early exit flag */
/* Set type and dimension global variables */
type = source->type_lens.type;
rank = source->n_dim;
mask_el_len = mask->base_addr.a.el_len;
/*
* Check to see if any of the matrices have size 0. If any do,
* return without doing anything.
*/
early_exit = 0;
#ifdef _UNICOS
#pragma _CRI shortloop
#endif
for (i = 0; i < rank; i++) {
if (!source->dimension[i].extent)
early_exit = 1;
}
if (result->assoc) {
if (!result->dimension[0].extent)
early_exit = 1;
}
if (vector) {
if (!vector->dimension[0].extent)
early_exit = 1;
}
if (mask) {
if (mask->n_dim > 1) {
#ifdef _UNICOS
#pragma _CRI shortloop
#endif
for (i = 0; i < rank; i++)
if (!mask->dimension[i].extent)
early_exit = 1;
}
}
/*
* Initialize every array element to 0.
*/
#ifdef _UNICOS
#pragma _CRI shortloop
#endif
for (i = 0; i < MAXDIM; i++) {
curdim[i] = 0;
src_ext[i] = 0;
src_strd[i] = 0;
src_off[i] = 0;
msk_strd[i] = 0;
msk_off[i] = 0;
}
/* Size calculation is based on variable type */
switch (type) {
case DVTYPE_ASCII :
bytealligned = 1;
bucketsize = _fcdlen (source->base_addr.charptr); /* bytes */
subtype = DVSUBTYPE_CHAR;
arithmetic = 0;
break;
case DVTYPE_DERIVEDBYTE :
bytealligned = 1;
bucketsize = source->base_addr.a.el_len / BITS_PER_BYTE;
subtype = DVSUBTYPE_CHAR;
arithmetic = 0;
break;
case DVTYPE_DERIVEDWORD :
bytealligned = 0;
bucketsize = source->base_addr.a.el_len / BITS_PER_WORD;
subtype = DVSUBTYPE_DERIVED;
arithmetic = 0;
break;
default :
bytealligned = 0;
bucketsize = source->type_lens.int_len / BITS_PER_WORD;
if (source->type_lens.int_len == 64) {
subtype = DVSUBTYPE_BIT64;
} else if (source->type_lens.int_len == 32) {
subtype = DVSUBTYPE_BIT32;
bucketsize = 1;
} else if (source->type_lens.int_len == 256) {
subtype = DVSUBTYPE_BIT256;
} else {
subtype = DVSUBTYPE_BIT128;
}
arithmetic = 1;
}
/* If necessary, fill result dope vector */
if (!result->assoc) {
result->base_addr.a.ptr = (void *) NULL;
result->orig_base = 0;
result->orig_size = 0;
/* Determine size of space to allocate */
if (!bytealligned) {
nbytes = bucketsize * BYTES_PER_WORD;
#ifdef _CRAYMPP
if (subtype == DVSUBTYPE_BIT32)
nbytes /= 2;
#endif
} else {
nbytes = bucketsize;
}
if (vector) {
nbytes *= vector->dimension[0].extent;
nwords = vector->dimension[0].extent;
} else {
#ifdef _UNICOS
#pragma _CRI shortloop
#endif
for (i = 0; i < rank; i++)
nbytes *= source->dimension[i].extent;
nwords = nbytes / BYTES_PER_WORD;
}
if (nbytes > 0) {
result->base_addr.a.ptr = (void *) malloc (nbytes);
if (result->base_addr.a.ptr == NULL)
_lerror (_LELVL_ABORT, FENOMEMY);
}
result->assoc = 1;
result->base_addr.a.el_len = source->base_addr.a.el_len;
if (type == DVTYPE_ASCII) {
cr = (char *) result->base_addr.a.ptr;
result->base_addr.charptr = _cptofcd (cr, bucketsize);
}
result->orig_size = nbytes * BITS_PER_BYTE;
/*
* These are initial values which may be changed when it is
* determined how big the result array actually is.
*/
result->dimension[0].low_bound = 1;
result->dimension[0].extent = nwords;
result->dimension[0].stride_mult = bucketsize;
/* if result array is already allocated */
} else {
if (!bytealligned)
nbytes = bucketsize * BYTES_PER_WORD;
else
nbytes = bucketsize;
if (vector) {
nbytes *= vector->dimension[0].extent;
nwords = vector->dimension[0].extent;
} else {
nwords = 1;
for (i = 0; i < rank; i++) {
nbytes *= source->dimension[i].extent;
nwords *= source->dimension[i].extent;
}
}
}
/* If early exit is required, exit now */
if (early_exit)
return;
if (mask) {
iptr4 = (_f_mask *) mask->base_addr.a.ptr;
if (mask->n_dim == 0 && !(vector) &&
!LTOB(mask_el_len, &iptr4[0])) {
result->dimension[0].extent = 0;
return;
}
}
/* Set up scalar pointers to all of the argument data areas */
if (mask)
mptr = (void *) mask->base_addr.a.ptr;
if (!bytealligned) {
sptr = (void *) source->base_addr.a.ptr;
rptr = (void *) result->base_addr.a.ptr;
if (vector)
vptr = (void *) vector->base_addr.a.ptr;
} else {
if (type == DVTYPE_ASCII) {
cs = _fcdtocp (source->base_addr.charptr);
cr = _fcdtocp (result->base_addr.charptr);
if (vector)
cv = _fcdtocp (vector->base_addr.charptr);
} else {
cs = (char *) source->base_addr.a.ptr;
cr = (char *) result->base_addr.a.ptr;
if (vector)
cv = (char *) vector->base_addr.a.ptr;
}
}
/* Set up some 'shortcut' variables used for index calculation */
if (bucketsize > 1 && arithmetic) {
res_strd = result->dimension[0].stride_mult / bucketsize;
if (vector)
vec_strd = vector->dimension[0].stride_mult / bucketsize;
} else {
res_strd = result->dimension[0].stride_mult;
if (vector)
vec_strd = vector->dimension[0].stride_mult;
}
#ifdef _UNICOS
#pragma _CRI shortloop
#endif
for (i = 0; i < rank; i++) {
src_ext[i] = source->dimension[i].extent;
if (bucketsize > 1 && arithmetic) {
src_strd[i] = source->dimension[i].stride_mult / bucketsize;
} else {
src_strd[i] = source->dimension[i].stride_mult;
}
}
if (mask->n_dim > 0) {
#ifdef _UNICOS
#pragma _CRI shortloop
#endif
for (i = 0; i < rank; i++) {
msk_strd[i] = mask->dimension[i].stride_mult;
iptr4 = (_f_mask *) mptr;
#ifdef _CRAYMPP
if (mask_el_len == 64 && sizeof (iptr4[0]) == 4)
msk_strd[i] <<= 1;
#endif
}
}
/*
* The program is divided up into three blocks. The first block deals
* with arrays of rank 1. Inside each block, the data types are broken
* up into groups based on container size. Integer, real, and logical
* types are all one word, and the actual value is not used, so they
* are all grouped together and treated as long. The same is
* true for double and complex, as well as ascii and derivedbyte.
*
* For each group, the mask array is checked for true values. When one
* is encountered, the corresponding value from the source array is put
* into the next available position in the result array. If no vector
* is passed, the routine is finished at this point with the result
* array length set to the number of true elements in the mask. If a
* vector is furnished, the size of the vector determines the size of
* the result array. If this size has been reached, the routine is done.
* If not, elements from the vector array are put into the result array
* until it is full.
*/
if (rank == 1) {
found = 0;
iptr4 = (_f_mask *) mptr;
switch (subtype) {
case DVSUBTYPE_BIT64 :
uptr1 = (_f_int8 *) sptr;
uptr2 = (_f_int8 *) vptr;
uptr3 = (_f_int8 *) rptr;
rindx = 0;
mindx = 0;
vindx = 0;
sindx = 0;
src_ext1 = source->dimension[0].extent;
for (i = 0; i < src_ext1; i++) {
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = i * src_strd[0];
uptr3[rindx] = uptr1[sindx];
rindx += res_strd;
found++;
}
mindx += msk_strd[0];
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
uptr3[rindx] = uptr2[vindx];
rindx += res_strd;
vindx += vec_strd;
}
}
break;
case DVSUBTYPE_BIT32 :
hptr1 = (_f_int4 *) sptr;
hptr2 = (_f_int4 *) vptr;
hptr3 = (_f_int4 *) rptr;
rindx = 0;
mindx = 0;
vindx = 0;
sindx = 0;
src_ext1 = source->dimension[0].extent;
for (i = 0; i < src_ext1; i++) {
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = i * src_strd[0];
hptr3[rindx] = hptr1[sindx];
rindx += res_strd;
found++;
}
mindx += msk_strd[0];
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
hptr3[rindx] = hptr2[vindx];
rindx += res_strd;
vindx += vec_strd;
}
}
break;
case DVSUBTYPE_BIT128 :
dptr1 = (_f_real16 *) sptr;
dptr2 = (_f_real16 *) vptr;
dptr3 = (_f_real16 *) rptr;
rindx = 0;
mindx = 0;
vindx = 0;
sindx = 0;
src_ext1 = source->dimension[0].extent;
for (i = 0; i < src_ext1; i++) {
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = i * src_strd[0];
dptr3[rindx] = dptr1[sindx];
rindx += res_strd;
found++;
}
mindx += msk_strd[0];
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
dptr3[rindx] = dptr2[vindx];
rindx += res_strd;
vindx += vec_strd;
}
}
break;
case DVSUBTYPE_CHAR :
rindx = 0;
mindx = 0;
vindx = 0;
sindx = 0;
src_ext1 = source->dimension[0].extent;
for (i = 0; i < src_ext1; i++) {
if (LTOB(mask_el_len, &iptr4[mindx])) {
cptr3 = (char *) cr + rindx;
cptr1 = (char *) cs + (i * src_strd[0]);
(void) memcpy (cptr3, cptr1, bucketsize);
rindx += res_strd;
found++;
}
mindx += msk_strd[0];
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
cptr3 = (char *) cr + rindx;
cptr2 = (char *) cv + vindx;
(void) memcpy (cptr3, cptr2, bucketsize);
rindx += res_strd;
vindx += vec_strd;
}
}
break;
case DVSUBTYPE_DERIVED :
fptr1 = (_f_int *) sptr;
fptr2 = (_f_int *) vptr;
fptr3 = (_f_int *) rptr;
src_ext1 = source->dimension[0].extent;
indx1_res = 0;
/*
* The derived word type is handled the same as the other types except
* that another loop is added. The assumption was made that extent of
* the array would be larger than the number of words in the derived
* type. Therefore, to try and make this routine optimal, the first
* loop uses the extent as its inner loop, which should provide better
* optimization. The second loop is also done this way.
*/
for (i = 0; i < bucketsize; i++) {
rindx = i;
mindx = 0;
for (j = 0; j < src_ext1; j++) {
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = i + (j * src_strd[0]);
fptr3[rindx] = fptr1[sindx];
rindx += res_strd;
if (i == 0) {
indx1_res = rindx;
found++;
}
}
mindx += msk_strd[0];
}
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
indx1_vec = found * vec_strd;
found = nwords - found;
for (i = 0; i < bucketsize; i++) {
rindx = indx1_res + i;
vindx = indx1_vec + i;
for (j = 0; j < found; j++) {
fptr3[rindx] = fptr2[vindx];
rindx += res_strd;
vindx += vec_strd;
}
}
}
break;
#ifdef _F_COMP16
case DVSUBTYPE_BIT256 :
xptr1 = (dblcmplx *) sptr;
xptr2 = (dblcmplx *) vptr;
xptr3 = (dblcmplx *) rptr;
rindx = 0;
mindx = 0;
vindx = 0;
sindx = 0;
src_ext1 = source->dimension[0].extent;
for (i = 0; i < src_ext1; i++) {
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = i * src_strd[0];
xptr3[rindx].re = xptr1[sindx].re;
xptr3[rindx].im = xptr1[sindx].im;
rindx += res_strd;
found++;
}
mindx += msk_strd[0];
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
xptr3[rindx].re = xptr2[vindx].re;
xptr3[rindx].im = xptr2[vindx].im;
rindx += res_strd;
vindx += vec_strd;
}
}
break;
#endif
default :
_lerror (_LELVL_ABORT, FEINTDTY);
}
} else if (rank == 2) {
/*
* Rank 2 matrices are handled in a manner similar to rank 1 arrays,
* except that the first loop in each data type is a nested loop, with
* the outer loop being the second dimension, and the inner loop being
* the first. This preserves the storage order which is necessary for
* pack to work. The second part of each block is not affected by the
* number of dimensions in the source matrix.
*/
found = 0;
iptr4 = (_f_mask *) mptr;
switch (subtype) {
case DVSUBTYPE_BIT64 :
uptr1 = (_f_int8 *) sptr;
uptr2 = (_f_int8 *) vptr;
uptr3 = (_f_int8 *) rptr;
indx2_msk = 0;
indx2_src = 0;
rindx = 0;
src_ext1 = src_ext[0];
src_ext2 = src_ext[1];
for (i = 0; i < src_ext2; i++) {
indx1_msk = 0;
for (j = 0; j < src_ext1; j++) {
mindx = indx1_msk + indx2_msk;
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = indx2_src + (j * src_strd[0]);
uptr3[rindx] = uptr1[sindx];
rindx += res_strd;
found++;
}
indx1_msk += msk_strd[0];
}
indx2_msk += msk_strd[1];
indx2_src += src_strd[1];
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
uptr3[rindx] = uptr2[vindx];
rindx += res_strd;
vindx += vec_strd;
}
}
break;
case DVSUBTYPE_BIT32 :
hptr1 = (_f_int4 *) sptr;
hptr2 = (_f_int4 *) vptr;
hptr3 = (_f_int4 *) rptr;
indx2_msk = 0;
indx2_src = 0;
rindx = 0;
src_ext1 = src_ext[0];
src_ext2 = src_ext[1];
for (i = 0; i < src_ext2; i++) {
indx1_msk = 0;
for (j = 0; j < src_ext1; j++) {
mindx = indx1_msk + indx2_msk;
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = indx2_src + (j * src_strd[0]);
hptr3[rindx] = hptr1[sindx];
rindx += res_strd;
found++;
}
indx1_msk += msk_strd[0];
}
indx2_msk += msk_strd[1];
indx2_src += src_strd[1];
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
hptr3[rindx] = hptr2[vindx];
rindx += res_strd;
vindx += vec_strd;
}
}
break;
case DVSUBTYPE_BIT128 :
dptr1 = (_f_real16 *) sptr;
dptr2 = (_f_real16 *) vptr;
dptr3 = (_f_real16 *) rptr;
indx2_msk = 0;
indx2_src = 0;
rindx = 0;
src_ext1 = src_ext[0];
src_ext2 = src_ext[1];
for (i = 0; i < src_ext2; i++) {
indx1_msk = 0;
for (j = 0; j < src_ext1; j++) {
mindx = indx1_msk + indx2_msk;
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = indx2_src + (j * src_strd[0]);
dptr3[rindx] = dptr1[sindx];
rindx += res_strd;
found++;
}
indx1_msk += msk_strd[0];
}
indx2_msk += msk_strd[1];
indx2_src += src_strd[1];
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
dptr3[rindx] = dptr2[vindx];
rindx += res_strd;
vindx += vec_strd;
}
}
break;
case DVSUBTYPE_CHAR :
indx2_msk = 0;
indx2_src = 0;
rindx = 0;
src_ext1 = src_ext[0];
src_ext2 = src_ext[1];
for (i = 0; i < src_ext2; i++) {
indx1_msk = 0;
for (j = 0; j < src_ext1; j++) {
mindx = indx1_msk + indx2_msk;
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = indx2_src + (j * src_strd[0]);
cptr1 = (char *) cs + sindx;
cptr3 = (char *) cr + rindx;
(void) memcpy (cptr3, cptr1, bucketsize);
rindx += res_strd;
found++;
}
indx1_msk += msk_strd[0];
}
indx2_msk += msk_strd[1];
indx2_src += src_strd[1];
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
cptr2 = (char *) cv + vindx;
cptr3 = (char *) cr + rindx;
(void) memcpy (cptr3, cptr2, bucketsize);
rindx += res_strd;
vindx += vec_strd;
}
}
break;
case DVSUBTYPE_DERIVED :
fptr1 = (_f_int *) sptr;
fptr2 = (_f_int *) vptr;
fptr3 = (_f_int *) rptr;
src_ext1 = src_ext[0];
src_ext2 = src_ext[1];
for (i = 0; i < bucketsize; i++) {
indx2_msk = 0;
indx2_src = 0;
rindx = i;
for (j = 0; j < src_ext2; j++) {
indx1_msk = 0;
for (k = 0; k < src_ext1; k++) {
mindx = indx1_msk + indx2_msk;
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = indx2_src + i + (k * src_strd[0]);
fptr3[rindx] = fptr1[sindx];
rindx += res_strd;
if (i == 0)
found++;
}
indx1_msk += msk_strd[0];
}
indx2_msk += msk_strd[1];
indx2_src += src_strd[1];
}
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
indx1_res = found * res_strd;
indx1_vec = found * vec_strd;
found = nwords - found;
for (i = 0; i < bucketsize; i++) {
rindx = indx1_res + i;
vindx = indx1_vec + i;
for (j = 0; j < found; j++) {
fptr3[rindx] = fptr2[vindx];
rindx += res_strd;
vindx += vec_strd;
}
}
}
break;
#ifdef _F_COMP16
case DVSUBTYPE_BIT256 :
xptr1 = (dblcmplx *) sptr;
xptr2 = (dblcmplx *) vptr;
xptr3 = (dblcmplx *) rptr;
indx2_msk = 0;
indx2_src = 0;
rindx = 0;
src_ext1 = src_ext[0];
src_ext2 = src_ext[1];
for (i = 0; i < src_ext2; i++) {
indx1_msk = 0;
for (j = 0; j < src_ext1; j++) {
mindx = indx1_msk + indx2_msk;
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = indx2_src + (j * src_strd[0]);
xptr3[rindx].re = xptr1[sindx].re;
xptr3[rindx].im = xptr1[sindx].im;
rindx += res_strd;
found++;
}
indx1_msk += msk_strd[0];
}
indx2_msk += msk_strd[1];
indx2_src += src_strd[1];
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
xptr3[rindx].re = xptr2[vindx].re;
xptr3[rindx].im = xptr2[vindx].im;
rindx += res_strd;
vindx += vec_strd;
}
}
break;
#endif
default :
_lerror (_LELVL_ABORT, FEINTDTY);
}
} else { /* rank 3-7 */
/*
* Ranks 3 through 7 are all handled in this last block. It was assumed
* that ranks 1 and 2 would account for the majority of calls to pack,
* and that the remaining ranks could be done in one block.
*
* The logic behind these blocks is the same as for the other ranks.
* The first part of the routine uses two nested loops, with the inner
* loop being the first dimension, and the outer loop being the product
* of all of the remaining dimensions. A array of counters keeps track
* of the values for each of the dimensions. Two macros are used in
* this block. INCREMENT are used to calculate the values of each of
* the dimension counters, and to calculate the offsets into the array
* for each index. FIND_INDX sums these offsets into one offset, which
* is used for each iteration of the inner loop. As with the other two
* blocks, the second part of each section is not affected by the number
* of dimensions in the source matrix.
*
* Calculate the product of each of the dimensions 2-n. This is the
* number of times the outer loop will be executed. Also, initialize
* the offset and dimension counter arrays.
*/
total_ext = 1;
#ifdef _UNICOS
#pragma _CRI shortloop
#endif
for (i = 0; i < MAXDIM; i++) {
curdim[i] = 0;
msk_off[i] = 0;
src_off[i] = 0;
}
#ifdef _UNICOS
#pragma _CRI shortloop
#endif
for (i = 1; i < rank; i++)
total_ext *= source->dimension[i].extent;
iptr4 = (_f_mask *) mptr;
found = 0;
switch (subtype) {
case DVSUBTYPE_BIT64 :
uptr2 = (_f_int8 *) vptr;
uptr3 = (_f_int8 *) rptr;
rindx = 0;
for (i = 0; i < total_ext; i++) {
FIND_INDX();
uptr1 = (_f_int8 *) sptr + indx1_src;
iptr4 = (_f_mask *) mptr + indx1_msk;
for (j = 0; j < src_ext[0]; j++) {
mindx = j * msk_strd[0];
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = j * src_strd[0];
uptr3[rindx] = uptr1[sindx];
rindx += res_strd;
found++;
}
}
INCREMENT();
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
uptr3[rindx] = uptr2[vindx];
rindx += res_strd;
vindx += vec_strd;
}
}
break;
case DVSUBTYPE_BIT32 :
hptr2 = (_f_int4 *) vptr;
hptr3 = (_f_int4 *) rptr;
rindx = 0;
for (i = 0; i < total_ext; i++) {
FIND_INDX();
hptr1 = (_f_int4 *) sptr + indx1_src;
iptr4 = (_f_mask *) mptr + indx1_msk;
for (j = 0; j < src_ext[0]; j++) {
mindx = j * msk_strd[0];
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = j * src_strd[0];
hptr3[rindx] = hptr1[sindx];
rindx += res_strd;
found++;
}
}
INCREMENT();
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
hptr3[rindx] = hptr2[vindx];
rindx += res_strd;
vindx += vec_strd;
}
}
break;
case DVSUBTYPE_BIT128 :
dptr2 = (_f_real16 *) vptr;
dptr3 = (_f_real16 *) rptr;
rindx = 0;
for (i = 0; i < total_ext; i++) {
FIND_INDX();
dptr1 = (_f_real16 *) sptr + indx1_src;
iptr4 = (_f_mask *) mptr + indx1_msk;
for (j = 0; j < src_ext[0]; j++) {
mindx = j * msk_strd[0];
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = j * src_strd[0];
dptr3[rindx] = dptr1[sindx];
rindx += res_strd;
found++;
}
}
INCREMENT();
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
dptr3[rindx] = dptr2[vindx];
rindx += res_strd;
vindx += vec_strd;
}
}
break;
case DVSUBTYPE_CHAR :
cptr2 = (char *) vptr;
cptr3 = (char *) rptr;
rindx = 0;
for (i = 0; i < total_ext; i++) {
FIND_INDX();
iptr4 = (_f_mask *) mptr + indx1_msk;
for (j = 0; j < src_ext[0]; j++) {
mindx = j * msk_strd[0];
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = indx1_src + (j * src_strd[0]);
cptr1 = (char *) cs + sindx;
cptr3 = (char *) cr + rindx;
(void) memcpy (cptr3, cptr1, bucketsize);
rindx += res_strd;
found++;
}
}
INCREMENT();
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
cptr3 = (char *) cr + rindx;
cptr2 = (char *) cv + vindx;
(void) memcpy (cptr3, cptr2, bucketsize);
rindx += res_strd;
vindx += vec_strd;
}
}
break;
case DVSUBTYPE_DERIVED :
fptr2 = (_f_int *) vptr;
fptr3 = (_f_int *) rptr;
for (i = 0; i < bucketsize; i++) {
rindx = i;
for (j = 0; j < rank; j++) {
msk_off[j] = 0;
src_off[j] = 0;
curdim[j] = 0;
}
for (j = 0; j < total_ext; j++) {
FIND_INDX();
fptr1 = (_f_int *) sptr + i + indx1_src;
iptr4 = (_f_mask *) mptr + indx1_msk;
for (k = 0; k < src_ext[0]; k++) {
mindx = k * msk_strd[0];
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = k * src_strd[0];
fptr3[rindx] = fptr1[sindx];
rindx += res_strd;
if (i == 0)
found++;
}
}
INCREMENT();
}
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
indx1_res = found * res_strd;
indx1_vec = found * vec_strd;
found = nwords - found;
for (i = 0; i < bucketsize; i++) {
rindx = indx1_res + i;
vindx = indx1_vec + i;
for (j = 0; j < found; j++) {
fptr3[rindx] = fptr2[vindx];
rindx += res_strd;
vindx += vec_strd;
}
}
}
break;
#ifdef _F_COMP16
case DVSUBTYPE_BIT256 :
xptr2 = (dblcmplx *) vptr;
xptr3 = (dblcmplx *) rptr;
rindx = 0;
for (i = 0; i < total_ext; i++) {
FIND_INDX();
xptr1 = (dblcmplx *) sptr + indx1_src;
iptr4 = (_f_mask *) mptr + indx1_msk;
for (j = 0; j < src_ext[0]; j++) {
mindx = j * msk_strd[0];
if (LTOB(mask_el_len, &iptr4[mindx])) {
sindx = j * src_strd[0];
xptr3[rindx].re = xptr1[sindx].re;
xptr3[rindx].im = xptr1[sindx].im;
rindx += res_strd;
found++;
}
}
INCREMENT();
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
xptr3[rindx].re = xptr2[vindx].re;
xptr3[rindx].im = xptr2[vindx].im;
rindx += res_strd;
vindx += vec_strd;
}
}
if (!vector || found == nwords) {
result->dimension[0].extent = found;
} else {
vindx = found * vec_strd;
for ( ; found < nwords; found++) {
xptr3[rindx].re = xptr2[vindx].re;
xptr3[rindx].im = xptr2[vindx].im;
rindx += res_strd;
vindx += vec_strd;
}
}
break;
#endif
default :
_lerror (_LELVL_ABORT, FEINTDTY);
}
}
}
void
PACK(
_f_int *p,
_f_int *nbits,
_f_int *u,
_f_int *count
)
{
register int nb;
register int ni;
#ifdef _UNICOS
if (_numargs() < 4)
_lerror(_LELVL_ABORT, FEPCKARG);
#endif
nb = *nbits;
ni = *count;
if (nb < 0)
_lerror(_LELVL_ABORT, FEPCKNEG);
if (nb == 0)
_lerror(_LELVL_ABORT, FEPCKPW2);
if (ni > 0) {
register short cpw; /* Chunks per word */
register short remr; /* Remainder */
register int i;
register int items; /* Number of full-word items */
register long mask; /* Mask for each item */
register long word; /* Scratch word */
cpw = 64 / nb; /* Chunks per word */
remr = (ni * nb) & 077;
items = ((ni * nb) + 63) / 64;/* Round up */
mask = (1 << nb) - 1;
switch (nb) {
case 32:
#pragma _CRI ivdep
for (i = 0; i < items; i++) {
word = (*u++ & mask) << nb;
word = word | (*u++ & mask);
*p++ = word;
}
break;
case 16:
#pragma _CRI ivdep
for (i = 0; i < items; i++) {
word = (*u++ & mask);
word = (word << nb) | (*u++ & mask);
word = (word << nb) | (*u++ & mask);
word = (word << nb) | (*u++ & mask);
*p++ = word;
}
break;
case 8:
#pragma _CRI ivdep
for (i = 0; i < items; i++) {
word = (*u++ & mask);
word = (word << nb) | (*u++ & mask);
word = (word << nb) | (*u++ & mask);
word = (word << nb) | (*u++ & mask);
word = (word << nb) | (*u++ & mask);
word = (word << nb) | (*u++ & mask);
word = (word << nb) | (*u++ & mask);
word = (word << nb) | (*u++ & mask);
*p++ = word;
}
break;
case 4:
case 2:
case 1:
for (i = 0; i < items; i++) {
register short j;
word = 0;
#pragma _CRI shortloop
for (j = 0; j < cpw; j++)
word = (word << nb) | (*u++ & mask);
*p++ = word;
}
break;
default:
_lerror(_LELVL_ABORT, FEPCKPW2);
break;
} /* switch */
if (remr != 0) {
p = p - 1;
*p = *p & (-1 << (64 - remr));
}
}
return;
}
