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Standard pgindent run for 8.1.

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This commit is contained in:
Bruce Momjian
2005-10-15 02:49:52 +00:00
parent 790c01d280
commit 1dc3498251
770 changed files with 34334 additions and 32507 deletions
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71
contrib/seg/seg.c
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@ -124,8 +124,7 @@ seg_out(SEG * seg)
if (seg->lower == seg->upper && seg->l_ext == seg->u_ext)
{
/*
* indicates that this interval was built by seg_in off a single
* point
* indicates that this interval was built by seg_in off a single point
*/
p += restore(p, seg->lower, seg->l_sigd);
}
@ -349,8 +348,7 @@ gseg_picksplit(GistEntryVector *entryvec,
size_waste = size_union - size_inter;
/*
* are these a more promising split that what we've already
* seen?
* are these a more promising split that what we've already seen?
*/
if (size_waste > waste || firsttime)
{
@ -375,24 +373,24 @@ gseg_picksplit(GistEntryVector *entryvec,
rt_seg_size(datum_r, &size_r);
/*
* Now split up the regions between the two seeds. An important
* property of this split algorithm is that the split vector v has the
* indices of items to be split in order in its left and right
* vectors. We exploit this property by doing a merge in the code
* that actually splits the page.
* Now split up the regions between the two seeds. An important property
* of this split algorithm is that the split vector v has the indices of
* items to be split in order in its left and right vectors. We exploit
* this property by doing a merge in the code that actually splits the
* page.
*
* For efficiency, we also place the new index tuple in this loop. This
* is handled at the very end, when we have placed all the existing
* tuples and i == maxoff + 1.
* For efficiency, we also place the new index tuple in this loop. This is
* handled at the very end, when we have placed all the existing tuples
* and i == maxoff + 1.
*/
maxoff = OffsetNumberNext(maxoff);
for (i = FirstOffsetNumber; i <= maxoff; i = OffsetNumberNext(i))
{
/*
* If we've already decided where to place this item, just put it
* on the right list. Otherwise, we need to figure out which page
* needs the least enlargement in order to store the item.
* If we've already decided where to place this item, just put it on
* the right list. Otherwise, we need to figure out which page needs
* the least enlargement in order to store the item.
*/
if (i == seed_1)
@ -742,8 +740,8 @@ seg_cmp(SEG * a, SEG * b)
* a->lower == b->lower, so consider type of boundary.
*
* A '-' lower bound is < any other kind (this could only be relevant if
* -HUGE_VAL is used as a regular data value). A '<' lower bound is <
* any other kind except '-'. A '>' lower bound is > any other kind.
* -HUGE_VAL is used as a regular data value). A '<' lower bound is < any
* other kind except '-'. A '>' lower bound is > any other kind.
*/
if (a->l_ext != b->l_ext)
{
@ -764,8 +762,7 @@ seg_cmp(SEG * a, SEG * b)
/*
* For other boundary types, consider # of significant digits first.
*/
if (a->l_sigd < b->l_sigd) /* (a) is blurred and is likely to include
* (b) */
if (a->l_sigd < b->l_sigd) /* (a) is blurred and is likely to include (b) */
return -1;
if (a->l_sigd > b->l_sigd) /* (a) is less blurred and is likely to be
* included in (b) */
@ -800,8 +797,8 @@ seg_cmp(SEG * a, SEG * b)
* a->upper == b->upper, so consider type of boundary.
*
* A '-' upper bound is > any other kind (this could only be relevant if
* HUGE_VAL is used as a regular data value). A '<' upper bound is <
* any other kind. A '>' upper bound is > any other kind except '-'.
* HUGE_VAL is used as a regular data value). A '<' upper bound is < any
* other kind. A '>' upper bound is > any other kind except '-'.
*/
if (a->u_ext != b->u_ext)
{
@ -820,11 +817,10 @@ seg_cmp(SEG * a, SEG * b)
}
/*
* For other boundary types, consider # of significant digits first.
* Note result here is converse of the lower-boundary case.
* For other boundary types, consider # of significant digits first. Note
* result here is converse of the lower-boundary case.
*/
if (a->u_sigd < b->u_sigd) /* (a) is blurred and is likely to include
* (b) */
if (a->u_sigd < b->u_sigd) /* (a) is blurred and is likely to include (b) */
return 1;
if (a->u_sigd > b->u_sigd) /* (a) is less blurred and is likely to be
* included in (b) */
@ -908,17 +904,17 @@ restore(char *result, float val, int n)
sign;
/*
* put a cap on the number of siugnificant digits to avoid nonsense in
* the output
* put a cap on the number of siugnificant digits to avoid nonsense in the
* output
*/
n = Min(n, FLT_DIG);
/* remember the sign */
sign = (val < 0 ? 1 : 0);
efmt[5] = '0' + (n - 1) % 10; /* makes %-15.(n-1)e -- this
* format guarantees that the
* exponent is always present */
efmt[5] = '0' + (n - 1) % 10; /* makes %-15.(n-1)e -- this format
* guarantees that the exponent is
* always present */
sprintf(result, efmt, val);
@ -940,8 +936,8 @@ restore(char *result, float val, int n)
if (Abs(exp) <= 4)
{
/*
* remove the decimal point from the mantyssa and write the
* digits to the buf array
* remove the decimal point from the mantyssa and write the digits
* to the buf array
*/
for (p = result + sign, i = 10, dp = 0; *p != 'e'; p++, i++)
{
@ -960,10 +956,9 @@ restore(char *result, float val, int n)
if (dp - 10 + exp >= n)
{
/*
* the decimal point is behind the last significant
* digit; the digits in between must be converted to
* the exponent and the decimal point placed after the
* first digit
* the decimal point is behind the last significant digit;
* the digits in between must be converted to the exponent
* and the decimal point placed after the first digit
*/
exp = dp - 10 + exp - n;
buf[10 + n] = '\0';
@ -978,8 +973,8 @@ restore(char *result, float val, int n)
}
/*
* adjust the exponent by the number of digits after
* the decimal point
* adjust the exponent by the number of digits after the
* decimal point
*/
if (n > 1)
sprintf(&buf[11 + n], "e%d", exp + n - 1);