/*
* Forms union of oldtup and addtup, if union == oldtup then return NULL
*/
IndexTuple
gistgetadjusted(Relation r, IndexTuple oldtup, IndexTuple addtup, GISTSTATE *giststate)
{
bool neednew = FALSE;
GISTENTRY oldentries[INDEX_MAX_KEYS],
addentries[INDEX_MAX_KEYS];
bool oldisnull[INDEX_MAX_KEYS],
addisnull[INDEX_MAX_KEYS];
IndexTuple newtup = NULL;
int i;
if (GistTupleIsInvalid(oldtup) || GistTupleIsInvalid(addtup))
return gist_form_invalid_tuple(ItemPointerGetBlockNumber(&(oldtup->t_tid)));
gistDeCompressAtt(giststate, r, oldtup, NULL,
(OffsetNumber) 0, oldentries, oldisnull);
gistDeCompressAtt(giststate, r, addtup, NULL,
(OffsetNumber) 0, addentries, addisnull);
for (i = 0; i < r->rd_att->natts; i++)
{
gistMakeUnionKey(giststate, i,
oldentries + i, oldisnull[i],
addentries + i, addisnull[i],
attrS + i, isnullS + i);
if (neednew)
/* we already need new key, so we can skip check */
continue;
if (isnullS[i])
/* union of key may be NULL if and only if both keys are NULL */
continue;
if (!addisnull[i])
{
if (oldisnull[i] || gistKeyIsEQ(giststate, i, oldentries[i].key, attrS[i]) == false)
neednew = true;
}
}
if (neednew)
{
/* need to update key */
newtup = gistFormTuple(giststate, r, attrS, isnullS, false);
newtup->t_tid = oldtup->t_tid;
}
return newtup;
}
/*
* Forms union of oldtup and addtup, if union == oldtup then return NULL
*/
IndexTuple
gistgetadjusted(Relation r, IndexTuple oldtup, IndexTuple addtup, GISTSTATE *giststate)
{
bool neednew = false;
GISTENTRY oldentries[INDEX_MAX_KEYS],
addentries[INDEX_MAX_KEYS];
bool oldisnull[INDEX_MAX_KEYS],
addisnull[INDEX_MAX_KEYS];
Datum attr[INDEX_MAX_KEYS];
bool isnull[INDEX_MAX_KEYS];
IndexTuple newtup = NULL;
int i;
gistDeCompressAtt(giststate, r, oldtup, NULL,
(OffsetNumber) 0, oldentries, oldisnull);
gistDeCompressAtt(giststate, r, addtup, NULL,
(OffsetNumber) 0, addentries, addisnull);
for (i = 0; i < r->rd_att->natts; i++)
{
gistMakeUnionKey(giststate, i,
oldentries + i, oldisnull[i],
addentries + i, addisnull[i],
attr + i, isnull + i);
if (neednew)
/* we already need new key, so we can skip check */
continue;
if (isnull[i])
/* union of key may be NULL if and only if both keys are NULL */
continue;
if (!addisnull[i])
{
if (oldisnull[i] ||
!gistKeyIsEQ(giststate, i, oldentries[i].key, attr[i]))
neednew = true;
}
}
if (neednew)
{
/* need to update key */
newtup = gistFormTuple(giststate, r, attr, isnull, false);
newtup->t_tid = oldtup->t_tid;
}
return newtup;
}
static void
placeOne(Relation r, GISTSTATE *giststate, GistSplitVector *v, IndexTuple itup, OffsetNumber off, int attno)
{
GISTENTRY identry[INDEX_MAX_KEYS];
bool isnull[INDEX_MAX_KEYS];
bool toLeft = true;
gistDeCompressAtt(giststate, r, itup, NULL, (OffsetNumber) 0, identry, isnull);
for (; attno < giststate->tupdesc->natts; attno++)
{
float lpenalty,
rpenalty;
GISTENTRY entry;
gistentryinit(entry, v->spl_lattr[attno], r, NULL, 0, FALSE);
lpenalty = gistpenalty(giststate, attno, &entry, v->spl_lisnull[attno], identry + attno, isnull[attno]);
gistentryinit(entry, v->spl_rattr[attno], r, NULL, 0, FALSE);
rpenalty = gistpenalty(giststate, attno, &entry, v->spl_risnull[attno], identry + attno, isnull[attno]);
if (lpenalty != rpenalty)
{
if (lpenalty > rpenalty)
toLeft = false;
break;
}
}
if (toLeft)
v->splitVector.spl_left[v->splitVector.spl_nleft++] = off;
else
v->splitVector.spl_right[v->splitVector.spl_nright++] = off;
}
/*
* find entry with lowest penalty
*/
OffsetNumber
gistchoose(Relation r, Page p, IndexTuple it, /* it has compressed entry */
GISTSTATE *giststate)
{
OffsetNumber maxoff;
OffsetNumber i;
OffsetNumber which;
float sum_grow,
which_grow[INDEX_MAX_KEYS];
GISTENTRY entry,
identry[INDEX_MAX_KEYS];
bool isnull[INDEX_MAX_KEYS];
maxoff = PageGetMaxOffsetNumber(p);
*which_grow = -1.0;
which = InvalidOffsetNumber;
sum_grow = 1;
gistDeCompressAtt(giststate, r,
it, NULL, (OffsetNumber) 0,
identry, isnull);
Assert(maxoff >= FirstOffsetNumber);
Assert(!GistPageIsLeaf(p));
for (i = FirstOffsetNumber; i <= maxoff && sum_grow; i = OffsetNumberNext(i))
{
int j;
IndexTuple itup = (IndexTuple) PageGetItem(p, PageGetItemId(p, i));
if (!GistPageIsLeaf(p) && GistTupleIsInvalid(itup))
{
ereport(LOG,
(errmsg("index \"%s\" needs VACUUM or REINDEX to finish crash recovery",
RelationGetRelationName(r))));
continue;
}
sum_grow = 0;
for (j = 0; j < r->rd_att->natts; j++)
{
Datum datum;
float usize;
bool IsNull;
datum = index_getattr(itup, j + 1, giststate->tupdesc, &IsNull);
gistdentryinit(giststate, j, &entry, datum, r, p, i,
FALSE, IsNull);
usize = gistpenalty(giststate, j, &entry, IsNull,
&identry[j], isnull[j]);
if (which_grow[j] < 0 || usize < which_grow[j])
{
which = i;
which_grow[j] = usize;
if (j < r->rd_att->natts - 1 && i == FirstOffsetNumber)
which_grow[j + 1] = -1;
sum_grow += which_grow[j];
}
else if (which_grow[j] == usize)
sum_grow += usize;
else
{
sum_grow = 1;
break;
}
}
}
if (which == InvalidOffsetNumber)
which = FirstOffsetNumber;
return which;
}
/*
* Search an upper index page for the entry with lowest penalty for insertion
* of the new index key contained in "it".
*
* Returns the index of the page entry to insert into.
*/
OffsetNumber
gistchoose(Relation r, Page p, IndexTuple it, /* it has compressed entry */
GISTSTATE *giststate)
{
OffsetNumber result;
OffsetNumber maxoff;
OffsetNumber i;
float best_penalty[INDEX_MAX_KEYS];
GISTENTRY entry,
identry[INDEX_MAX_KEYS];
bool isnull[INDEX_MAX_KEYS];
int keep_current_best;
Assert(!GistPageIsLeaf(p));
gistDeCompressAtt(giststate, r,
it, NULL, (OffsetNumber) 0,
identry, isnull);
/* we'll return FirstOffsetNumber if page is empty (shouldn't happen) */
result = FirstOffsetNumber;
/*
* The index may have multiple columns, and there's a penalty value for
* each column. The penalty associated with a column that appears earlier
* in the index definition is strictly more important than the penalty of
* a column that appears later in the index definition.
*
* best_penalty[j] is the best penalty we have seen so far for column j,
* or -1 when we haven't yet examined column j. Array entries to the
* right of the first -1 are undefined.
*/
best_penalty[0] = -1;
/*
* If we find a tuple that's exactly as good as the currently best one, we
* could use either one. When inserting a lot of tuples with the same or
* similar keys, it's preferable to descend down the same path when
* possible, as that's more cache-friendly. On the other hand, if all
* inserts land on the same leaf page after a split, we're never going to
* insert anything to the other half of the split, and will end up using
* only 50% of the available space. Distributing the inserts evenly would
* lead to better space usage, but that hurts cache-locality during
* insertion. To get the best of both worlds, when we find a tuple that's
* exactly as good as the previous best, choose randomly whether to stick
* to the old best, or use the new one. Once we decide to stick to the
* old best, we keep sticking to it for any subsequent equally good tuples
* we might find. This favors tuples with low offsets, but still allows
* some inserts to go to other equally-good subtrees.
*
* keep_current_best is -1 if we haven't yet had to make a random choice
* whether to keep the current best tuple. If we have done so, and
* decided to keep it, keep_current_best is 1; if we've decided to
* replace, keep_current_best is 0. (This state will be reset to -1 as
* soon as we've made the replacement, but sometimes we make the choice in
* advance of actually finding a replacement best tuple.)
*/
keep_current_best = -1;
/*
* Loop over tuples on page.
*/
maxoff = PageGetMaxOffsetNumber(p);
Assert(maxoff >= FirstOffsetNumber);
for (i = FirstOffsetNumber; i <= maxoff; i = OffsetNumberNext(i))
{
IndexTuple itup = (IndexTuple) PageGetItem(p, PageGetItemId(p, i));
bool zero_penalty;
int j;
zero_penalty = true;
/* Loop over index attributes. */
for (j = 0; j < r->rd_att->natts; j++)
{
Datum datum;
float usize;
bool IsNull;
/* Compute penalty for this column. */
datum = index_getattr(itup, j + 1, giststate->tupdesc, &IsNull);
gistdentryinit(giststate, j, &entry, datum, r, p, i,
false, IsNull);
usize = gistpenalty(giststate, j, &entry, IsNull,
&identry[j], isnull[j]);
if (usize > 0)
zero_penalty = false;
if (best_penalty[j] < 0 || usize < best_penalty[j])
{
/*
* New best penalty for column. Tentatively select this tuple
* as the target, and record the best penalty. Then reset the
* next column's penalty to "unknown" (and indirectly, the
* same for all the ones to its right). This will force us to
* adopt this tuple's penalty values as the best for all the
* remaining columns during subsequent loop iterations.
*/
result = i;
best_penalty[j] = usize;
if (j < r->rd_att->natts - 1)
best_penalty[j + 1] = -1;
/* we have new best, so reset keep-it decision */
keep_current_best = -1;
}
else if (best_penalty[j] == usize)
{
/*
* The current tuple is exactly as good for this column as the
* best tuple seen so far. The next iteration of this loop
* will compare the next column.
*/
}
else
{
/*
* The current tuple is worse for this column than the best
* tuple seen so far. Skip the remaining columns and move on
* to the next tuple, if any.
*/
zero_penalty = false; /* so outer loop won't exit */
break;
}
}
/*
* If we looped past the last column, and did not update "result",
* then this tuple is exactly as good as the prior best tuple.
*/
if (j == r->rd_att->natts && result != i)
{
if (keep_current_best == -1)
{
/* we didn't make the random choice yet for this old best */
keep_current_best = (random() <= (MAX_RANDOM_VALUE / 2)) ? 1 : 0;
}
if (keep_current_best == 0)
{
/* we choose to use the new tuple */
result = i;
/* choose again if there are even more exactly-as-good ones */
keep_current_best = -1;
}
}
/*
* If we find a tuple with zero penalty for all columns, and we've
* decided we don't want to search for another tuple with equal
* penalty, there's no need to examine remaining tuples; just break
* out of the loop and return it.
*/
if (zero_penalty)
{
if (keep_current_best == -1)
{
/* we didn't make the random choice yet for this old best */
keep_current_best = (random() <= (MAX_RANDOM_VALUE / 2)) ? 1 : 0;
}
if (keep_current_best == 1)
break;
}
}
return result;
}
/*
* At page split, distribute tuples from the buffer of the split page to
* new buffers for the created page halves. This also adjusts the downlinks
* in 'splitinfo' to include the tuples in the buffers.
*/
void
gistRelocateBuildBuffersOnSplit(GISTBuildBuffers *gfbb, GISTSTATE *giststate,
Relation r, int level,
Buffer buffer, List *splitinfo)
{
RelocationBufferInfo *relocationBuffersInfos;
bool found;
GISTNodeBuffer *nodeBuffer;
BlockNumber blocknum;
IndexTuple itup;
int splitPagesCount = 0,
i;
GISTENTRY entry[INDEX_MAX_KEYS];
bool isnull[INDEX_MAX_KEYS];
GISTNodeBuffer oldBuf;
ListCell *lc;
/* If the splitted page doesn't have buffers, we have nothing to do. */
if (!LEVEL_HAS_BUFFERS(level, gfbb))
return;
/*
* Get the node buffer of the splitted page.
*/
blocknum = BufferGetBlockNumber(buffer);
nodeBuffer = hash_search(gfbb->nodeBuffersTab, &blocknum,
HASH_FIND, &found);
if (!found)
{
/* The page has no buffer, so we have nothing to do. */
return;
}
/*
* Make a copy of the old buffer, as we're going reuse it as the buffer
* for the new left page, which is on the same block as the old page.
* That's not true for the root page, but that's fine because we never
* have a buffer on the root page anyway. The original algorithm as
* described by Arge et al did, but it's of no use, as you might as well
* read the tuples straight from the heap instead of the root buffer.
*/
Assert(blocknum != GIST_ROOT_BLKNO);
memcpy(&oldBuf, nodeBuffer, sizeof(GISTNodeBuffer));
oldBuf.isTemp = true;
/* Reset the old buffer, used for the new left page from now on */
nodeBuffer->blocksCount = 0;
nodeBuffer->pageBuffer = NULL;
nodeBuffer->pageBlocknum = InvalidBlockNumber;
/*
* Allocate memory for information about relocation buffers.
*/
splitPagesCount = list_length(splitinfo);
relocationBuffersInfos =
(RelocationBufferInfo *) palloc(sizeof(RelocationBufferInfo) *
splitPagesCount);
/*
* Fill relocation buffers information for node buffers of pages produced
* by split.
*/
i = 0;
foreach(lc, splitinfo)
{
GISTPageSplitInfo *si = (GISTPageSplitInfo *) lfirst(lc);
GISTNodeBuffer *newNodeBuffer;
/* Decompress parent index tuple of node buffer page. */
gistDeCompressAtt(giststate, r,
si->downlink, NULL, (OffsetNumber) 0,
relocationBuffersInfos[i].entry,
relocationBuffersInfos[i].isnull);
/*
* Create a node buffer for the page. The leftmost half is on the same
* block as the old page before split, so for the leftmost half this
* will return the original buffer. The tuples on the original buffer
* were relinked to the temporary buffer, so the original one is now
* empty.
*/
newNodeBuffer = gistGetNodeBuffer(gfbb, giststate, BufferGetBlockNumber(si->buf), level);
relocationBuffersInfos[i].nodeBuffer = newNodeBuffer;
relocationBuffersInfos[i].splitinfo = si;
i++;
}
/*
* Forms union of oldtup and addtup, if union == oldtup then return NULL
*/
static IndexTuple
gistgetadjusted(Relation r, IndexTuple oldtup, IndexTuple addtup, GISTSTATE *giststate)
{
GistEntryVector *evec;
Datum datum;
int datumsize;
bool result,
neednew = false;
char isnull[INDEX_MAX_KEYS],
whatfree[INDEX_MAX_KEYS];
Datum attr[INDEX_MAX_KEYS];
GISTENTRY centry[INDEX_MAX_KEYS],
oldatt[INDEX_MAX_KEYS],
addatt[INDEX_MAX_KEYS],
*ev0p,
*ev1p;
bool olddec[INDEX_MAX_KEYS],
adddec[INDEX_MAX_KEYS];
bool oldisnull[INDEX_MAX_KEYS],
addisnull[INDEX_MAX_KEYS];
IndexTuple newtup = NULL;
int j;
evec = palloc(2 * sizeof(GISTENTRY) + GEVHDRSZ);
evec->n = 2;
ev0p = &(evec->vector[0]);
ev1p = &(evec->vector[1]);
gistDeCompressAtt(giststate, r, oldtup, NULL,
(OffsetNumber) 0, oldatt, olddec, oldisnull);
gistDeCompressAtt(giststate, r, addtup, NULL,
(OffsetNumber) 0, addatt, adddec, addisnull);
for (j = 0; j < r->rd_att->natts; j++)
{
if (oldisnull[j] && addisnull[j])
{
isnull[j] = 'n';
attr[j] = (Datum) 0;
whatfree[j] = FALSE;
}
else
{
FILLEV(
oldisnull[j], oldatt[j].key, oldatt[j].bytes,
addisnull[j], addatt[j].key, addatt[j].bytes
);
datum = FunctionCall2(&giststate->unionFn[j],
PointerGetDatum(evec),
PointerGetDatum(&datumsize));
if (oldisnull[j] || addisnull[j])
{
if (oldisnull[j])
neednew = true;
}
else
{
FunctionCall3(&giststate->equalFn[j],
ev0p->key,
datum,
PointerGetDatum(&result));
if (!result)
neednew = true;
}
if (olddec[j])
pfree(DatumGetPointer(oldatt[j].key));
if (adddec[j])
pfree(DatumGetPointer(addatt[j].key));
gistcentryinit(giststate, j, ¢ry[j], datum,
NULL, NULL, (OffsetNumber) 0,
datumsize, FALSE, FALSE);
isnull[j] = ' ';
attr[j] = centry[j].key;
if ((!isAttByVal(giststate, j)))
{
whatfree[j] = TRUE;
if (centry[j].key != datum)
pfree(DatumGetPointer(datum));
}
else
whatfree[j] = FALSE;
}
}
pfree(evec);
if (neednew)
{
/* need to update key */
newtup = (IndexTuple) index_formtuple(giststate->tupdesc, attr, isnull);
newtup->t_tid = oldtup->t_tid;
}
for (j = 0; j < r->rd_att->natts; j++)
if (whatfree[j])
pfree(DatumGetPointer(attr[j]));
return newtup;
}
/*
** find entry with lowest penalty
*/
static OffsetNumber
gistchoose(Relation r, Page p, IndexTuple it, /* it has compressed entry */
GISTSTATE *giststate)
{
OffsetNumber maxoff;
OffsetNumber i;
Datum datum;
float usize;
OffsetNumber which;
float sum_grow,
which_grow[INDEX_MAX_KEYS];
GISTENTRY entry,
identry[INDEX_MAX_KEYS];
bool IsNull,
decompvec[INDEX_MAX_KEYS],
isnull[INDEX_MAX_KEYS];
int j;
maxoff = PageGetMaxOffsetNumber(p);
*which_grow = -1.0;
which = -1;
sum_grow = 1;
gistDeCompressAtt(giststate, r,
it, NULL, (OffsetNumber) 0,
identry, decompvec, isnull);
for (i = FirstOffsetNumber; i <= maxoff && sum_grow; i = OffsetNumberNext(i))
{
IndexTuple itup = (IndexTuple) PageGetItem(p, PageGetItemId(p, i));
sum_grow = 0;
for (j = 0; j < r->rd_att->natts; j++)
{
datum = index_getattr(itup, j + 1, giststate->tupdesc, &IsNull);
gistdentryinit(giststate, j, &entry, datum, r, p, i, ATTSIZE(datum, giststate->tupdesc, j + 1, IsNull), FALSE, IsNull);
gistpenalty(giststate, j, &entry, IsNull, &identry[j], isnull[j], &usize);
if ((!isAttByVal(giststate, j)) && entry.key != datum)
pfree(DatumGetPointer(entry.key));
if (which_grow[j] < 0 || usize < which_grow[j])
{
which = i;
which_grow[j] = usize;
if (j < r->rd_att->natts - 1 && i == FirstOffsetNumber)
which_grow[j + 1] = -1;
sum_grow += which_grow[j];
}
else if (which_grow[j] == usize)
sum_grow += usize;
else
{
sum_grow = 1;
break;
}
}
}
gistFreeAtt(r, identry, decompvec);
return which;
}
/*
* Insert equivalent tuples to left or right page
* with minimize penalty
*/
static void
gistadjsubkey(Relation r,
IndexTuple *itup, /* contains compressed entry */
int *len,
GIST_SPLITVEC *v,
GISTSTATE *giststate
)
{
int curlen;
OffsetNumber *curwpos;
bool decfree[INDEX_MAX_KEYS];
GISTENTRY entry,
identry[INDEX_MAX_KEYS],
*ev0p,
*ev1p;
float lpenalty,
rpenalty;
GistEntryVector *evec;
int datumsize;
bool isnull[INDEX_MAX_KEYS];
int i,
j;
Datum datum;
/* clear vectors */
curlen = v->spl_nleft;
curwpos = v->spl_left;
for (i = 0; i < v->spl_nleft; i++)
if (v->spl_idgrp[v->spl_left[i]] == 0)
{
*curwpos = v->spl_left[i];
curwpos++;
}
else
curlen--;
v->spl_nleft = curlen;
curlen = v->spl_nright;
curwpos = v->spl_right;
for (i = 0; i < v->spl_nright; i++)
if (v->spl_idgrp[v->spl_right[i]] == 0)
{
*curwpos = v->spl_right[i];
curwpos++;
}
else
curlen--;
v->spl_nright = curlen;
evec = palloc(2 * sizeof(GISTENTRY) + GEVHDRSZ);
evec->n = 2;
ev0p = &(evec->vector[0]);
ev1p = &(evec->vector[1]);
/* add equivalent tuple */
for (i = 0; i < *len; i++)
{
if (v->spl_idgrp[i + 1] == 0) /* already inserted */
continue;
gistDeCompressAtt(giststate, r, itup[i], NULL, (OffsetNumber) 0,
identry, decfree, isnull);
v->spl_ngrp[v->spl_idgrp[i + 1]]--;
if (v->spl_ngrp[v->spl_idgrp[i + 1]] == 0 &&
(v->spl_grpflag[v->spl_idgrp[i + 1]] & BOTH_ADDED) != BOTH_ADDED)
{
/* force last in group */
rpenalty = 1.0;
lpenalty = (v->spl_grpflag[v->spl_idgrp[i + 1]] & LEFT_ADDED) ? 2.0 : 0.0;
}
else
{
/* where? */
for (j = 1; j < r->rd_att->natts; j++)
{
gistentryinit(entry, v->spl_lattr[j], r, NULL,
(OffsetNumber) 0, v->spl_lattrsize[j], FALSE);
gistpenalty(giststate, j, &entry, v->spl_lisnull[j],
&identry[j], isnull[j], &lpenalty);
gistentryinit(entry, v->spl_rattr[j], r, NULL,
(OffsetNumber) 0, v->spl_rattrsize[j], FALSE);
gistpenalty(giststate, j, &entry, v->spl_risnull[j],
&identry[j], isnull[j], &rpenalty);
if (lpenalty != rpenalty)
break;
}
}
/* add */
if (lpenalty < rpenalty)
{
v->spl_grpflag[v->spl_idgrp[i + 1]] |= LEFT_ADDED;
v->spl_left[v->spl_nleft] = i + 1;
v->spl_nleft++;
for (j = 1; j < r->rd_att->natts; j++)
{
if (isnull[j] && v->spl_lisnull[j])
{
v->spl_lattr[j] = (Datum) 0;
v->spl_lattrsize[j] = 0;
}
else
{
FILLEV(
v->spl_lisnull[j], v->spl_lattr[j], v->spl_lattrsize[j],
isnull[j], identry[j].key, identry[j].bytes
);
datum = FunctionCall2(&giststate->unionFn[j],
PointerGetDatum(evec),
PointerGetDatum(&datumsize));
if ((!isAttByVal(giststate, j)) && !v->spl_lisnull[j])
pfree(DatumGetPointer(v->spl_lattr[j]));
v->spl_lattr[j] = datum;
v->spl_lattrsize[j] = datumsize;
v->spl_lisnull[j] = false;
}
}
}
else
{
v->spl_grpflag[v->spl_idgrp[i + 1]] |= RIGHT_ADDED;
v->spl_right[v->spl_nright] = i + 1;
v->spl_nright++;
for (j = 1; j < r->rd_att->natts; j++)
{
if (isnull[j] && v->spl_risnull[j])
{
v->spl_rattr[j] = (Datum) 0;
v->spl_rattrsize[j] = 0;
}
else
{
FILLEV(
v->spl_risnull[j], v->spl_rattr[j], v->spl_rattrsize[j],
isnull[j], identry[j].key, identry[j].bytes
);
datum = FunctionCall2(&giststate->unionFn[j],
PointerGetDatum(evec),
PointerGetDatum(&datumsize));
if ((!isAttByVal(giststate, j)) && !v->spl_risnull[j])
pfree(DatumGetPointer(v->spl_rattr[j]));
v->spl_rattr[j] = datum;
v->spl_rattrsize[j] = datumsize;
v->spl_risnull[j] = false;
}
}
}
gistFreeAtt(r, identry, decfree);
}
pfree(evec);
}
