lv_val *lv_get_num_inx(sbs_blk *root, mval *key, sbs_search_status *status)
{
sbs_blk *blk, *nxt, *prev;
sbs_flt_struct *p, *top;
mval tmp ;
int4 x ;
assert(root);
prev = root;
for (blk = root; ; prev = blk, blk = nxt)
{ if (!(nxt = blk->nxt))
{ break;
}
MV_ASGN_FLT2MVAL(tmp,nxt->ptr.sbs_flt[0].flt) ;
if (key->mvtype & MV_INT & tmp.mvtype)
x = key->m[1] - tmp.m[1];
else
x = numcmp(key,&tmp) ;
if (x < 0)
{ break;
}
if (x == 0)
{ status->blk = nxt;
status->prev = blk;
status->ptr = (char*)&nxt->ptr.sbs_str[0];
return(nxt->ptr.sbs_flt[0].lv);
}
}
status->blk = blk;
status->prev = prev;
for (p = (sbs_flt_struct*)&blk->ptr.sbs_flt[0], top = (sbs_flt_struct*)&blk->ptr.sbs_flt[blk->cnt]; p < top; p++)
{
MV_ASGN_FLT2MVAL(tmp,p->flt);
if (key->mvtype & MV_INT & tmp.mvtype)
x = key->m[1] - tmp.m[1];
else
x = numcmp(key,&tmp) ;
if (x < 0)
{ break;
}
if (x == 0)
{ status->ptr = (char*)p;
return(p->lv);
}
}
status->ptr = (char*)p;
return(0);
}
static int lat_cmp(const void *a, const void *b) {
const struct latency_entry *pa, *pb;
pa = (*((struct latency_entry **)a));
pb = (*((struct latency_entry **)b));
return numcmp(pb->max, pa->max);
}
static int proc_thr_cmp(const void *a, const void *b) {
struct proc_info *pa, *pb;
pa = *((struct proc_info **)a); pb = *((struct proc_info **)b);
if (!pa && !pb) return 0;
if (!pa) return 1;
if (!pb) return -1;
return -numcmp(pa->num_threads, pb->num_threads);
}
static int proc_cpu_cmp(const void *a, const void *b) {
struct proc_info *pa, *pb;
pa = *((struct proc_info **)a); pb = *((struct proc_info **)b);
if (!pa && !pb) return 0;
if (!pa) return 1;
if (!pb) return -1;
return -numcmp(pa->delta_time, pb->delta_time);
}
/*
* sort symbol table by address
*/
void a_sort_sym(int len)
{
register int gap, i, j;
register struct sym *temp;
for (gap = len/2; gap > 0; gap /= 2)
for (i = gap; i < len; i++)
for (j = i-gap; j >= 0; j -= gap) {
if (numcmp(symarray[j]->sym_val,
symarray[j+gap]->sym_val) <= 0)
break;
temp = symarray[j];
symarray[j] = symarray[j+gap];
symarray[j+gap] = temp;
}
}
int numcmpr(const char* str1, const char* str2) {
return -1 * numcmp(str1, str2);
}
void bx_boollit_tail(triple *t, boolean_t jmp_type_one, boolean_t jmp_to_next, boolean_t sense, oprtype *addr)
/* search the Boolean in t (recursively) for literal leaves; the logic is similar to bx_tail
* the rest of the arguments parallel those in bx_boolop and used primarily handling basic Boolean operations (ON, NOR, AND, NAND)
* to get the jump target and sense right for the left-hand operand of the operation
* jmp_type_one gives the sense of the jump associated with the first operand
* jmp_to_next gives whether we need a second jump to complete the operation
* sense gives the sense of the requested operation
* *addr points the operand for the jump and is eventually used by logic back in the invocation stack to fill in a target location
*/
{
boolean_t sin[ARRAYSIZE(t->operand)], tv[ARRAYSIZE(t->operand)];
int com, comval, dummy, j, neg, num, tvr;
mval *mv, *v[ARRAYSIZE(t->operand)];
opctype c;
oprtype *i, *p;
triple *cob[ARRAYSIZE(t->operand)], *ref0, *tl[ARRAYSIZE(t->operand)];
assert(OCT_BOOL & oc_tab[t->opcode].octype);
assert(TRIP_REF == t->operand[0].oprclass);
assert((OC_COBOOL != t->opcode) && (OC_COM != t->opcode) || (TRIP_REF == t->operand[1].oprclass));
for (i = t->operand, j = 0; i < ARRAYTOP(t->operand); i++, j++)
{ /* checkout an operand to see if we can simplify it */
p = i;
com = 0;
for (tl[j] = i->oprval.tref; OCT_UNARY & oc_tab[(c = tl[j]->opcode)].octype; tl[j] = p->oprval.tref)
{ /* find the real object of affection; WARNING assignment above */
assert((TRIP_REF == tl[j]->operand[0].oprclass) && (NO_REF == tl[j]->operand[1].oprclass));
com ^= (OC_COM == c); /* if we make a recursive call below, COM matters, but NEG and FORCENUM don't */
p = &tl[j]->operand[0];
}
if (OCT_ARITH & oc_tab[c].octype)
ex_tail(p); /* chained arithmetic */
else if (OCT_BOOL & oc_tab[c].octype)
{ /* recursively check an operand */
sin[j] = sense;
p = addr;
if (!j && !(OCT_REL & oc_tab[t->opcode].octype))
{ /* left hand operand of parent */
sin[j] = jmp_type_one;
if (jmp_to_next)
{ /* left operands need extra attention to decide between jump next or to the end */
p = (oprtype *)mcalloc(SIZEOF(oprtype));
*p = put_tjmp(t);
}
}
bx_boollit(tl[j], sin[j] ^ com, p);
}
if ((OC_JMPTRUE != tl[j]->opcode) && (OC_JMPFALSE != tl[j]->opcode) && (OC_LIT != tl[j]->opcode))
return; /* this operation doesn't qualify */
com = comval = neg = num = 0;
cob[j] = NULL;
for (ref0 = i->oprval.tref; OCT_UNARY & oc_tab[(c = ref0->opcode)].octype; ref0 = ref0->operand[0].oprval.tref)
{ /* we may be able to clean up this operand; WARNING assignment above */
assert((TRIP_REF == ref0->operand[0].oprclass) && (NO_REF == ref0->operand[1].oprclass));
num += (OC_FORCENUM == c);
com += (OC_COM == c);
if (!com) /* "outside" com renders neg mute */
neg ^= (OC_NEG == c);
if (!comval && (NULL == cob[j]))
{
if (comval = (OC_COMVAL == c)) /* WARNING assignment */
{
if (ref0 != t->operand[j].oprval.tref)
dqdel(t->operand[j].oprval.tref, exorder);
t->operand[j].oprval.tref = tl[j]; /* need mval: no COBOOL needed */
}
else if (OC_COBOOL == c)
{ /* the operand needs a COBOOL in case its operator remains unresolved */
cob[j] = t->operand[j].oprval.tref;
if (ref0 == cob[j])
continue; /* already where it belongs */
cob[j]->opcode = OC_COBOOL;
cob[j]->operand[0].oprval.tref = tl[j];
} else if (ref0 == t->operand[j].oprval.tref)
continue;
}
dqdel(ref0, exorder);
}
assert(ref0 == tl[j]);
if (!comval && (NULL == cob[j]) && (tl[j] != t->operand[j].oprval.tref))
{ /* left room for a COBOOL, but there's no need */
dqdel(t->operand[j].oprval.tref, exorder);
t->operand[j].oprval.tref = tl[j];
}
if ((OC_JMPTRUE == ref0->opcode) || (OC_JMPFALSE == ref0->opcode))
{ /* switch to a literal representation of TRUE / FALSE */
assert(INDR_REF == ref0->operand[0].oprclass);
ref0->operand[1] = ref0->operand[0]; /* track info as we switch opcode */
PUT_LITERAL_TRUTH((sin[j] ? OC_JMPFALSE : OC_JMPTRUE) == ref0->opcode, ref0);
ref0->opcode = OC_LIT;
com = 0; /* already accounted for by sin */
}
assert((OC_LIT == ref0->opcode) && (MLIT_REF == ref0->operand[0].oprclass));
v[j] = &ref0->operand[0].oprval.mlit->v;
if (com)
{ /* any complement reduces the literal value to [unsigned] 1 or 0 */
unuse_literal(v[j]);
tv[j] = (0 == v[j]->m[1]);
assert(ref0 == tl[j]);
PUT_LITERAL_TRUTH(tv[j], ref0);
v[j] = &ref0->operand[0].oprval.mlit->v;
num = 0; /* any complement trumps num */
}
if (neg || num)
{ /* get literal into uniform state */
unuse_literal(v[j]);
mv = (mval *)mcalloc(SIZEOF(mval));
*mv = *v[j];
if (neg)
{
if (MV_INT & mv->mvtype)
{
if (0 != mv->m[1])
mv->m[1] = -mv->m[1];
else
mv->sgn = 0;
} else if (MV_NM & mv->mvtype)
mv->sgn = !mv->sgn;
} else
s2n(mv);
n2s(mv);
v[j] = mv;
assert(ref0 == tl[j]);
put_lit_s(v[j], ref0);
}
}
assert(tl[0] != tl[1]); /* start processing a live one */
for (tvr = j, j = 0; j < tvr; j++)
{ /* both arguments are literals, so do the operation at compile time */
if (NULL != cob[j])
dqdel(cob[j], exorder);
v[j] = &tl[j]->operand[0].oprval.mlit->v;
tv[j] = (0 != v[j]->m[1]);
unuse_literal(v[j]);
tl[j]->opcode = OC_NOOP;
tl[j]->operand[0].oprclass = NO_REF;
}
t->operand[1].oprclass = NO_REF;
switch (c = t->opcode) /* WARNING assignment */
{ /* optimize the Boolean operations here */
case OC_NAND:
case OC_AND:
tvr = (tv[0] && tv[1]);
break;
case OC_NOR:
case OC_OR:
tvr = (tv[0] || tv[1]);
break;
case OC_NCONTAIN:
case OC_CONTAIN:
tvr = 1;
(void)matchc(v[1]->str.len, (unsigned char *)v[1]->str.addr, v[0]->str.len,
(unsigned char *)v[0]->str.addr, &dummy, &tvr);
tvr ^= 1;
break;
case OC_NEQU:
case OC_EQU:
tvr = is_equ(v[0], v[1]);
break;
case OC_NFOLLOW:
case OC_FOLLOW:
tvr = 0 < memvcmp(v[0]->str.addr, v[0]->str.len, v[1]->str.addr, v[1]->str.len);
break;
case OC_NGT:
case OC_GT:
tvr = 0 < numcmp(v[0], v[1]);
break;
case OC_NLT:
case OC_LT:
tvr = 0 > numcmp(v[0], v[1]);
break;
case OC_NPATTERN:
case OC_PATTERN:
tvr = !(*(uint4 *)v[1]->str.addr) ? do_pattern(v[0], v[1]) : do_patfixed(v[0], v[1]);
break;
case OC_NSORTS_AFTER:
case OC_SORTS_AFTER:
tvr = 0 < sorts_after(v[0], v[1]);
break;
default:
assertpro(FALSE);
}
tvr ^= !sense;
t->operand[0] = put_indr(addr);
t->opcode = tvr ? OC_JMPFALSE : OC_JMPTRUE;
return;
}
int numfieldcmp( char * aline, char * bline)
{
char * a = get_field(aline, IS_NUMERIC_FIELD);
char * b = get_field(bline, IS_NUMERIC_FIELD);
return numcmp(a,b);
}
int rnumcmp(char *s1, char *s2)
{
return -numcmp(s1, s2);
}
static int licmp(const void *a, const void *b) {
return order * numcmp(
(*((struct library_info**)a))->total_usage.pss,
(*((struct library_info**)b))->total_usage.pss
);
}
int numcmp_reverse(char *s1, char *s2)
{
return (-1)*numcmp(s1, s2);
}
void op_fnorder(lv_val *src, mval *key, mval *dst)
{
int cur_subscr;
mval tmp_sbs;
int length;
sbs_blk *num, *str;
boolean_t found, is_neg;
int4 i;
lv_val **lv;
lv_sbs_tbl *tbl;
sbs_search_status status;
boolean_t is_fnnext;
is_fnnext = in_op_fnnext;
in_op_fnnext = FALSE;
found = FALSE;
if (src)
{
if (tbl = src->ptrs.val_ent.children)
{
MV_FORCE_DEFINED(key);
num = tbl->num;
str = tbl->str;
assert(tbl->ident == MV_SBS);
if ((MV_IS_STRING(key) && key->str.len == 0) || (is_fnnext && MV_IS_INT(key) && key->m[1] == MINUS_ONE))
{ /* With GT.M collation , if last subscript is null, $o returns the first subscript in that level */
if (tbl->int_flag)
{
assert(num);
for (i = 0, lv = &num->ptr.lv[0]; i < SBS_NUM_INT_ELE; i++, lv++)
{
if (*lv)
{
MV_FORCE_MVAL(dst,i);
found = TRUE;
break;
}
}
} else if (num)
{
assert(num->cnt);
MV_ASGN_FLT2MVAL((*dst),num->ptr.sbs_flt[0].flt);
found = TRUE;
}
} else
{
if (MV_IS_CANONICAL(key))
{
MV_FORCE_NUM(key);
if (tbl->int_flag)
{
assert(num);
is_neg = (key->mvtype & MV_INT) ? key->m[1] < 0 : key->sgn;
if (is_neg)
i = 0;
else
{
if (!is_fnnext && (1 == numcmp(key, (mval *)&SBS_MVAL_INT_ELE)))
i = SBS_NUM_INT_ELE;
else
{
i = MV_FORCE_INT(key);
i++;
}
}
for (lv = &num->ptr.lv[i]; i < SBS_NUM_INT_ELE; i++, lv++)
{
if (*lv)
{
MV_FORCE_MVAL(dst,i);
found = TRUE;
break;
}
}
} else if (num && lv_nxt_num_inx(num, key, &status))
{
MV_ASGN_FLT2MVAL((*dst),((sbs_flt_struct*)status.ptr)->flt);
found = TRUE;
}
} else
{
if (local_collseq)
{
ALLOC_XFORM_BUFF(&key->str);
tmp_sbs.mvtype = MV_STR;
tmp_sbs.str.len = max_lcl_coll_xform_bufsiz;
assert(NULL != lcl_coll_xform_buff);
tmp_sbs.str.addr = lcl_coll_xform_buff;
do_xform(local_collseq, XFORM, &key->str,
&tmp_sbs.str, &length);
tmp_sbs.str.len = length;
s2pool(&(tmp_sbs.str));
key = &tmp_sbs;
}
if (str && lv_nxt_str_inx(str, &key->str, &status))
{
dst->mvtype = MV_STR;
dst->str = ((sbs_str_struct *)status.ptr)->str;
} else
{
if (!is_fnnext)
{
dst->mvtype = MV_STR;
dst->str.len = 0;
} else
MV_FORCE_MVAL(dst, -1);
}
found = TRUE;
}
}
if (!found && str)
{ /* We are here because
* a. key is "" and there is no numeric subscript, OR
* b. key is numeric and it is >= the largest numeric subscript at this level implying a switch from
* numeric to string subscripts
* Either case, return the first string subscript. However, for STDNULLCOLL, skip to the next
* subscript should the first subscript be ""
*/
assert(str->cnt);
dst->mvtype = MV_STR;
dst->str = str->ptr.sbs_str[0].str;
found = TRUE;
if (local_collseq_stdnull && 0 == dst->str.len)
{
assert(lv_null_subs);
if (lv_nxt_str_inx(str, &dst->str, &status))
{
dst->str = ((sbs_str_struct*)status.ptr)->str;
} else
found = FALSE;
}
}
}
}
if (!found)
{
if (!is_fnnext)
{
dst->mvtype = MV_STR;
dst->str.len = 0;
} else
MV_FORCE_MVAL(dst, -1);
} else if (dst->mvtype == MV_STR && local_collseq)
{
ALLOC_XFORM_BUFF(&dst->str);
assert(NULL != lcl_coll_xform_buff);
tmp_sbs.str.addr = lcl_coll_xform_buff;
tmp_sbs.str.len = max_lcl_coll_xform_bufsiz;
do_xform(local_collseq, XBACK,
&dst->str, &tmp_sbs.str, &length);
tmp_sbs.str.len = length;
s2pool(&(tmp_sbs.str));
dst->str = tmp_sbs.str;
}
}
int numcmp_r(char *s1, char *s2) {
return -1 * numcmp(s1, s2);
}
/// @brief Manual test of glibc printf vs ours
/// We test for a worst case error of 1 LSB error at 15digits
/// @param[in] format: printf format string
/// @param[in] ...: list of arguments
/// @return void
MEMSPACE
void tp(const char *format, ...)
{
char str0[1024];
char fmt[1024];
char str1[1024];
char str2[1024];
int f;
int find, ind, len;
int matched;
long long error;
va_list va;
int digits;
memset(str0,sizeof(str0)-1,0);
memset(str1,sizeof(str1)-1,0);
memset(str2,sizeof(str2)-1,0);
memset(fmt,sizeof(fmt)-1,0);
// We want to save only type and type size specifiers)
find = 0;
fmt[find++] = '%';
len = strlen(format);
if(len > 0)
{
ind = len - 1;
}
else
{
printf("ERROR: empty format\n");
printf(" G[%s]\n", str1);
printf(" B[%s]\n", str2);
printf("\n");
++tp_fmt;
return;
}
// We may have a size adjustment specifier
//FIXME add more as printf gains more type size conversion specifiers
if(ind >= 2)
{
f = format[ind-2];
if(f == 'l')
fmt[find++] = f;
}
f = format[ind-1];
if(f == 'l' || f == 'h')
fmt[find++] = f;
// This should be the primary conversion type specifier
if(ind)
{
f = format[ind];
fmt[find++] = f;
}
fmt[find++] = 0;
// GLIBC printf in str0 without extra specifiers
va_start(va, format);
len = vsnprintf(str0, sizeof(str0)-1, fmt, va);
va_end(va);
fflush(stdout);
// GLIBC printf in str1
va_start(va, format);
len = vsnprintf(str1, sizeof(str1)-1, format, va);
va_end(va);
fflush(stdout);
// Our Printf in str2
va_start(va, format);
len = t_vsnprintf(str2, sizeof(str2)-1, format, va);
va_end(va);
fflush(stdout);
//FIXME add more as printf gains more conversion functions
if(f == 'g' || f == 'G' || f == 'e' || f == 'E' || f == 'f' || f == 'F')
{
/*
* Single mantissa 24bits base10 digits 7.22
* exponent 8bits base10 exponent 37
* Double mantissa 53bits base10 digits 15.95
* exponent 11bits base10 exponent 307
*/
if(sizeof(double) == 8)
digits = 16;
else if(sizeof(double) == 4)
digits = 7;
else
{
fprintf(stderr,"Unexpected size of double:%d\n", (int)sizeof(double));
exit(1);
}
// Compare results to N digit window
error = numcmp(str1,str2,digits);
// A double 1 LSB error would be 10LL
// Remember the numbers may be rounded so we use less then 15LL
if(error < 0 || error > 14LL)
{
printf("ERROR: [%s], [%s]\n", format, str0);
printf(" G[%s]\n", str1);
printf(" B[%s]\n", str2);
printf(" error:%lld\n", error);
++tp_bad;
}
else
{
++tp_good;
if(display_good)
{
printf("OK: [%s], [%s]\n", format, str0);
printf(" G[%s]\n", str1);
}
}
}
else
{
if(strcmp(str1,str2) != 0)
{
printf("ERROR: [%s], [%s]\n", format, str0);
printf(" G[%s]\n", str1);
printf(" B[%s]\n", str2);
++tp_bad;
}
else
{
++tp_good;
if(display_good)
{
printf("OK: [%s], [%s]\n", format, str0);
printf(" G[%s]\n", str1);
}
}
}
fflush(stdout);
return;
fflush(stdout);
}