mirror of
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6298988642
{{{
svn merge -r3272:3320 https://svn.tokutek.com/tokudb/tokudb.558
}}}
No conflicts.
git-svn-id: file:///svn/tokudb@3322 c7de825b-a66e-492c-adef-691d508d4ae1
626 lines
21 KiB
C
626 lines
21 KiB
C
#ident "Copyright (c) 2007, 2008 Tokutek Inc. All rights reserved."
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#include "brttypes.h"
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#include "crc.h"
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#include "leafentry.h"
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#include "memory.h"
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#include "toku_assert.h"
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#include "log.h"
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#include "wbuf.h"
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#include <arpa/inet.h>
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#include <inttypes.h>
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#include <stdlib.h>
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#include <string.h>
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struct leafentry {
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enum typ_tag tag; // Delete this later
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char state;
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char contents[0];
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} __attribute__((packed));
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struct contents_committed {
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u_int32_t keylen;
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u_int32_t vallen;
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char data[0];
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} __attribute__((packed));
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struct contents_both {
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TXNID xid;
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u_int32_t keylen;
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u_int32_t committed_vallen;
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u_int32_t prov_vallen;
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char data[0];
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} __attribute__((packed));
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struct contents_provdelorpair { // The PROVDEL or PROVPAIR cases
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TXNID xid;
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u_int32_t keylen;
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u_int32_t vallen;
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char data[0];
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} __attribute__((packed));
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enum le_state get_le_state(LEAFENTRY le) {
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return le->state;
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}
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void* get_le_contents(LEAFENTRY le) {
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return &le->contents[0];
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}
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enum typ_tag get_le_tag(LEAFENTRY le) {
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return le->tag;
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}
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u_int32_t committed_keylen (void*cev) {
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struct contents_committed *ce=cev;
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return ce->keylen;
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}
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void* committed_key (void*cev) {
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struct contents_committed *ce=cev;
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return &ce->data[0];
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}
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u_int32_t committed_vallen (struct contents_committed *ce) {
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return ce->vallen;
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}
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void* committed_val (struct contents_committed *ce) {
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return &ce->data[ce->keylen];
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}
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TXNID both_xid (struct contents_both *ce) {
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return ce->xid;
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}
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u_int32_t both_keylen (struct contents_both *ce) {
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return ce->keylen;
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}
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u_int32_t both_committed_vallen (struct contents_both *ce) {
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return ce->committed_vallen;
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}
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u_int32_t both_prov_vallen (struct contents_both *ce) {
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return ce->prov_vallen;
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}
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void* both_key (struct contents_both *ce) {
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return &ce->data[0];
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}
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void* both_committed_val (struct contents_both *ce) {
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return &ce->data[ce->keylen];
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}
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void* both_prov_val (struct contents_both*ce) {
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return &ce->data[ce->keylen+ce->committed_vallen];
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}
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TXNID provdelorpair_xid (struct contents_provdelorpair *ce) {
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return ce->xid;
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}
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u_int32_t provdelorpair_keylen (struct contents_provdelorpair *ce) {
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return ce->keylen;
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}
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u_int32_t provdelorpair_vallen (struct contents_provdelorpair *ce) {
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return ce->vallen;
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}
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void* provdelorpair_key (struct contents_provdelorpair *ce) {
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return &ce->data[0];
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}
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void* provdelorpair_val (struct contents_provdelorpair *ce) {
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return &ce->data[ce->keylen];
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}
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static u_int32_t crc_uint32_t (u_int32_t crc, u_int32_t v) {
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u_int32_t i = htonl(v);
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return toku_crc32(crc, &i, 4);
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}
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static u_int32_t crc_uint64_t (u_int32_t crc, u_int64_t v) {
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crc = crc_uint32_t (crc, (u_int32_t)(v>>32));
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crc = crc_uint32_t (crc, (u_int32_t)(v&0xffffffff));
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return crc;
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}
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static u_int32_t crc_dbt (u_int32_t crc, u_int32_t len, void *data) {
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crc = crc_uint32_t(crc, len);
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crc = toku_crc32(crc, data, len);
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return crc;
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}
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static u_int32_t crc_le_committed(u_int32_t keylen, void *key, u_int32_t vallen, void *val, u_int32_t crc) {
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crc = crc_dbt(crc, keylen, key);
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crc = crc_dbt(crc, vallen, val);
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return crc;
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}
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static u_int32_t crc_le_both(TXNID xid, u_int32_t keylen, void *key, u_int32_t cvallen, void *cval, u_int32_t pvallen, void *pval, u_int32_t crc) {
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crc = crc_uint64_t(crc, xid);
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crc = crc_dbt(crc, keylen, key);
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crc = crc_dbt(crc, cvallen, cval);
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crc = crc_dbt(crc, pvallen, pval);
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return crc;
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}
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static u_int32_t crc_le_provdel(TXNID xid, u_int32_t keylen, void *key, u_int32_t vallen, void *val, u_int32_t crc) {
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crc = crc_uint64_t(crc, xid);
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crc = crc_dbt(crc, keylen, key);
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crc = crc_dbt(crc, vallen, val);
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return crc;
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}
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static u_int32_t crc_le_provpair(TXNID xid, u_int32_t keylen, void *key, u_int32_t vallen, void *val, u_int32_t crc) {
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return crc_le_provdel(xid, keylen, key, vallen, val, crc);
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}
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u_int32_t toku_le_crc(LEAFENTRY v) {
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u_int32_t crc = toku_null_crc;
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crc = toku_crc32(crc, &v->state, 1);
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LESWITCHCALL(v, crc, crc);
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}
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int le_committed (u_int32_t klen, void* kval, u_int32_t dlen, void* dval, u_int32_t *resultsize, u_int32_t *disksize, LEAFENTRY *result) {
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struct contents_committed *ce;
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LEAFENTRY le;
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size_t size = sizeof(*le)+sizeof(*ce)+klen+dlen;
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le=toku_malloc(size);
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le->tag = TYP_LEAFENTRY;
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le->state= LE_COMMITTED;
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ce=(struct contents_committed*)&le->contents[0];
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ce->keylen = klen;
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ce->vallen = dlen;
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memcpy(&ce->data[0], kval, (size_t)klen);
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memcpy(&ce->data[klen], dval, (size_t)dlen);
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*resultsize=size;
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*disksize = 1 + 4 + 4 + klen + dlen;
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*result=le;
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return 0;
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}
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int le_both (TXNID xid, u_int32_t klen, void* kval, u_int32_t clen, void* cval, u_int32_t plen, void* pval,
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u_int32_t *resultsize, u_int32_t *disksize, LEAFENTRY *result) {
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struct contents_both *ce;
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LEAFENTRY le;
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size_t size = sizeof(*le)+sizeof(*ce)+klen+plen+clen;
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le=toku_malloc(size);
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le->tag = TYP_LEAFENTRY;
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le->state= LE_BOTH;
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ce=(struct contents_both*)&le->contents[0];
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ce->xid = xid;
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ce->keylen = klen;
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ce->committed_vallen = clen;
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ce->prov_vallen = plen;
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memcpy(&ce->data[0], kval, (size_t)klen);
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memcpy(&ce->data[klen], cval, (size_t)clen);
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memcpy(&ce->data[klen+clen], pval, (size_t)plen);
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*resultsize=size;
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*disksize = 1 + 8 + 4*3 + klen + clen + plen;
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*result=le;
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return 0;
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}
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int le_provdel (TXNID xid, u_int32_t klen, void* kval, u_int32_t dlen, void* dval,
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u_int32_t *memsize, u_int32_t *disksize, LEAFENTRY *result) {
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struct contents_provdelorpair *ce;
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LEAFENTRY le;
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size_t size = sizeof(*le)+sizeof(*ce)+klen+dlen;
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le=toku_malloc(size);
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le->tag = TYP_LEAFENTRY;
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le->state= LE_PROVDEL;
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ce=(struct contents_provdelorpair*)&le->contents[0];
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ce->xid = xid;
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ce->keylen = klen;
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ce->vallen = dlen;
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memcpy(&ce->data[0], kval, (size_t)klen);
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memcpy(&ce->data[klen], dval, (size_t)dlen);
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*memsize=size;
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*disksize = 1 + 4 + 4 + 8 + klen + dlen;
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*result=le;
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return 0;
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}
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int le_provpair (TXNID xid, u_int32_t klen, void* kval, u_int32_t dlen, void* dval, u_int32_t *resultsize, u_int32_t *disksize, LEAFENTRY *result) {
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struct contents_provdelorpair *ce;
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LEAFENTRY le;
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size_t size = sizeof(*le)+sizeof(*ce)+klen+dlen;
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le=toku_malloc(size);
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le->tag = TYP_LEAFENTRY;
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le->state= LE_PROVPAIR;
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ce=(struct contents_provdelorpair*)&le->contents[0];
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ce->xid = xid;
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ce->keylen = klen;
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ce->vallen = dlen;
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memcpy(&ce->data[0], kval, (size_t)klen);
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memcpy(&ce->data[klen], dval, (size_t)dlen);
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*resultsize=size;
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*disksize = 1 + 4 + 4 + 8 + klen + dlen;
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*result=le;
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return 0;
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}
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static u_int32_t memsize_le_committed (u_int32_t keylen, void *key __attribute__((__unused__)),
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u_int32_t vallen, void *val __attribute__((__unused__))) {
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return sizeof(struct leafentry) + sizeof(struct contents_committed) + keylen + vallen;
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}
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static u_int32_t memsize_le_both (TXNID txnid __attribute__((__unused__)),
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u_int32_t klen, void *kval __attribute__((__unused__)),
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u_int32_t clen, void *cval __attribute__((__unused__)),
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u_int32_t plen, void *pval __attribute__((__unused__))) {
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return sizeof(struct leafentry) + sizeof(struct contents_both) + klen + clen + plen;
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}
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static u_int32_t memsize_le_provdel (TXNID txnid __attribute__((__unused__)),
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u_int32_t klen, void *kval __attribute__((__unused__)),
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u_int32_t clen, void *cval __attribute__((__unused__))) {
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return sizeof(struct leafentry) + sizeof(struct contents_provdelorpair) + klen + clen;
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}
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static u_int32_t memsize_le_provpair (TXNID txnid __attribute__((__unused__)),
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u_int32_t klen, void *kval __attribute__((__unused__)),
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u_int32_t plen, void *pval __attribute__((__unused__))) {
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return sizeof(struct leafentry) + sizeof(struct contents_provdelorpair) + klen + plen;
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}
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u_int32_t leafentry_memsize (LEAFENTRY le) {
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LESWITCHCALL(le, memsize);
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}
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static u_int32_t disksize_le_committed (u_int32_t keylen, void *key __attribute__((__unused__)),
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u_int32_t vallen, void *val __attribute__((__unused__))) {
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return 1 + 4 + 4 + keylen + vallen;
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}
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static u_int32_t disksize_le_both (TXNID txnid __attribute__((__unused__)),
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u_int32_t klen, void *kval __attribute__((__unused__)),
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u_int32_t clen, void *cval __attribute__((__unused__)),
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u_int32_t plen, void *pval __attribute__((__unused__))) {
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return 1 + 8 + 4*3 + klen + clen + plen;
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}
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static u_int32_t disksize_le_provdel (TXNID txnid __attribute__((__unused__)),
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u_int32_t klen, void *kval __attribute__((__unused__)),
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u_int32_t clen, void *cval __attribute__((__unused__))) {
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return 1 + 8 + 4 + 4 + klen + clen;
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}
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static u_int32_t disksize_le_provpair (TXNID txnid __attribute__((__unused__)),
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u_int32_t klen, void *kval __attribute__((__unused__)),
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u_int32_t plen, void *pval __attribute__((__unused__))) {
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return 1 + 8 + 4 + 4 + klen + plen;
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}
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u_int32_t leafentry_disksize (LEAFENTRY le) {
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LESWITCHCALL(le, disksize);
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}
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u_int32_t toku_logsizeof_LEAFENTRY (LEAFENTRY le) {
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return leafentry_disksize(le);
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}
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int toku_fread_LEAFENTRY(FILE *f, LEAFENTRY *le, u_int32_t *crc, u_int32_t *len) {
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u_int8_t state;
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int r = toku_fread_u_int8_t (f, &state, crc, len); if (r!=0) return r;
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TXNID xid;
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BYTESTRING a,b,c;
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u_int32_t memsize, disksize;
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switch ((enum le_state)state) {
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case LE_COMMITTED:
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r = toku_fread_BYTESTRING(f, &a, crc, len); if (r!=0) return r;
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r = toku_fread_BYTESTRING(f, &b, crc, len); if (r!=0) return r;
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r = le_committed(a.len, a.data, b.len, b.data,
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&memsize, &disksize, le);
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toku_free_BYTESTRING(a);
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toku_free_BYTESTRING(b);
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return r;
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case LE_BOTH:
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r = toku_fread_TXNID(f, &xid, crc, len);
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r = toku_fread_BYTESTRING(f, &a, crc, len); if (r!=0) return r;
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r = toku_fread_BYTESTRING(f, &b, crc, len); if (r!=0) return r;
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r = toku_fread_BYTESTRING(f, &c, crc, len); if (r!=0) return r;
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r = le_both(xid, a.len, a.data, b.len, b.data, c.len, c.data,
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&memsize, &disksize, le);
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toku_free_BYTESTRING(a);
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toku_free_BYTESTRING(b);
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toku_free_BYTESTRING(c);
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return r;
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case LE_PROVDEL:
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r = toku_fread_TXNID(f, &xid, crc, len);
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r = toku_fread_BYTESTRING(f, &a, crc, len); if (r!=0) return r;
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r = toku_fread_BYTESTRING(f, &b, crc, len); if (r!=0) return r;
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r = le_provdel(xid, a.len, a.data, b.len, b.data,
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&memsize, &disksize, le);
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toku_free_BYTESTRING(a);
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toku_free_BYTESTRING(b);
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return r;
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case LE_PROVPAIR:
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r = toku_fread_TXNID(f, &xid, crc, len);
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r = toku_fread_BYTESTRING(f, &a, crc, len); if (r!=0) return r;
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r = toku_fread_BYTESTRING(f, &b, crc, len); if (r!=0) return r;
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r = le_provpair(xid, a.len, a.data, b.len, b.data,
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&memsize, &disksize, le);
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toku_free_BYTESTRING(a);
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toku_free_BYTESTRING(b);
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return r;
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}
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return DB_BADFORMAT;
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}
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static int print_le_committed (u_int32_t keylen, void *key, u_int32_t vallen, void *val, FILE *outf) {
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fprintf(outf, "{C: ");
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toku_print_BYTESTRING(outf, keylen, key);
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toku_print_BYTESTRING(outf, vallen, val);
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fprintf(outf, "}");
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return 0;
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}
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static int print_le_both (TXNID xid, u_int32_t klen, void *kval, u_int32_t clen, void *cval, u_int32_t plen, void *pval, FILE *outf) {
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fprintf(outf, "{B: ");
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fprintf(outf, " xid=%" PRId64, xid);
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fprintf(outf, " key=");
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toku_print_BYTESTRING(outf, klen, kval);
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toku_print_BYTESTRING(outf, clen, cval);
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fprintf(outf, " provisional=");
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toku_print_BYTESTRING(outf, plen, pval);
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fprintf(outf, "}");
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return 0;
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}
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static int print_le_provdel (TXNID xid, u_int32_t klen, void *kval, u_int32_t clen, void *cval, FILE *outf) {
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fprintf(outf, "{D: ");
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fprintf(outf, " xid=%" PRId64, xid);
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fprintf(outf, " key=");
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toku_print_BYTESTRING(outf, klen, kval);
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fprintf(outf, " committed=");
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toku_print_BYTESTRING(outf, clen, cval);
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fprintf(outf, "}");
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return 0;
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}
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static int print_le_provpair (TXNID xid, u_int32_t klen, void *kval, u_int32_t plen, void *pval, FILE *outf) {
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fprintf(outf, "{P: ");
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fprintf(outf, " xid=%" PRId64, xid);
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fprintf(outf, " key=");
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toku_print_BYTESTRING(outf, klen, kval);
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fprintf(outf, " provisional=");
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toku_print_BYTESTRING(outf, plen, pval);
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fprintf(outf, "}");
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return 0;
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}
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int print_leafentry (FILE *outf, LEAFENTRY v) {
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if (!v) return 0;
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LESWITCHCALL(v, print, outf);
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}
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int toku_logprint_LEAFENTRY (FILE *outf, FILE *inf, const char *fieldname, u_int32_t *crc, u_int32_t *len, const char *format __attribute__((__unused__))) {
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LEAFENTRY v;
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int r = toku_fread_LEAFENTRY(inf, &v, crc, len);
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if (r!=0) return r;
|
|
fprintf(outf, " %s=", fieldname);
|
|
print_leafentry(outf, v);
|
|
toku_free(v);
|
|
return 0;
|
|
}
|
|
|
|
static int wbuf_le_committed (u_int32_t keylen, void *key, u_int32_t vallen, void *val, struct wbuf *w) {
|
|
wbuf_bytes(w, key, keylen);
|
|
wbuf_bytes(w, val, vallen);
|
|
return 0;
|
|
}
|
|
|
|
static int wbuf_le_both (TXNID xid, u_int32_t klen, void *kval, u_int32_t clen, void *cval, u_int32_t plen, void *pval, struct wbuf *w) {
|
|
wbuf_TXNID(w, xid);
|
|
wbuf_bytes(w, kval, klen);
|
|
wbuf_bytes(w, cval, clen);
|
|
wbuf_bytes(w, pval, plen);
|
|
return 0;
|
|
}
|
|
|
|
static int wbuf_le_provdel (TXNID xid, u_int32_t klen, void *kval, u_int32_t clen, void *cval, struct wbuf *w) {
|
|
wbuf_TXNID(w, xid);
|
|
wbuf_bytes(w, kval, klen);
|
|
wbuf_bytes(w, cval, clen);
|
|
return 0;
|
|
}
|
|
static int wbuf_le_provpair (TXNID xid, u_int32_t klen, void *kval, u_int32_t plen, void *pval, struct wbuf *w) {
|
|
wbuf_TXNID(w, xid);
|
|
wbuf_bytes(w, kval, klen);
|
|
wbuf_bytes(w, pval, plen);
|
|
return 0;
|
|
}
|
|
|
|
static int do_wbuf_le (struct wbuf *w, LEAFENTRY le) {
|
|
LESWITCHCALL(le, wbuf, w);
|
|
}
|
|
void wbuf_LEAFENTRY(struct wbuf *w, LEAFENTRY le) {
|
|
wbuf_char(w, (unsigned int)le->state);
|
|
do_wbuf_le(w,le);
|
|
}
|
|
|
|
void rbuf_LEAFENTRY(struct rbuf *r, u_int32_t *resultsize, u_int32_t *disksize, LEAFENTRY *le) {
|
|
enum le_state state = rbuf_char(r);
|
|
switch (state) {
|
|
case LE_COMMITTED: {
|
|
//printf("%s:%d reading committed\n", __FILE__, __LINE__);
|
|
bytevec key, val;
|
|
u_int32_t keylen, vallen;
|
|
rbuf_bytes(r, &key, &keylen);
|
|
rbuf_bytes(r, &val, &vallen);
|
|
le_committed(keylen, (void*)key, vallen, (void*)val, resultsize, disksize, le);
|
|
return;
|
|
}
|
|
case LE_BOTH: {
|
|
//printf("%s:%d reading both\n", __FILE__, __LINE__);
|
|
bytevec kval, cval, pval;
|
|
u_int32_t klen, clen, plen;
|
|
TXNID xid = rbuf_ulonglong(r);
|
|
rbuf_bytes(r, &kval, &klen);
|
|
rbuf_bytes(r, &cval, &clen);
|
|
rbuf_bytes(r, &pval, &plen);
|
|
le_both(xid, klen, (void*)kval, clen, (void*)cval, plen, (void*)pval, resultsize, disksize, le);
|
|
return;
|
|
}
|
|
case LE_PROVDEL: {
|
|
//printf("%s:%d reading provdel\n", __FILE__, __LINE__);
|
|
bytevec kval, cval;
|
|
u_int32_t klen, clen;
|
|
TXNID xid = rbuf_ulonglong(r);
|
|
rbuf_bytes(r, &kval, &klen);
|
|
rbuf_bytes(r, &cval, &clen);
|
|
le_provdel(xid, klen, (void*)kval, clen, (void*)cval, resultsize, disksize, le);
|
|
return;
|
|
}
|
|
case LE_PROVPAIR: {
|
|
//printf("%s:%d reading both\n", __FILE__, __LINE__);
|
|
bytevec kval, pval;
|
|
u_int32_t klen, plen;
|
|
TXNID xid = rbuf_ulonglong(r);
|
|
rbuf_bytes(r, &kval, &klen);
|
|
rbuf_bytes(r, &pval, &plen);
|
|
le_provpair(xid, klen, (void*)kval, plen, (void*)pval, resultsize, disksize, le);
|
|
return;
|
|
}
|
|
}
|
|
assert(0);
|
|
}
|
|
|
|
// Use toku_free()
|
|
void toku_free_LEAFENTRY(LEAFENTRY le) {
|
|
toku_free(le);
|
|
}
|
|
|
|
int le_is_provdel(LEAFENTRY le) {
|
|
return le->state==LE_PROVDEL;
|
|
}
|
|
|
|
void* latest_key_le_committed (u_int32_t UU(keylen), void *key, u_int32_t UU(vallen), void *UU(val)) {
|
|
return key;
|
|
}
|
|
void* latest_key_le_both (TXNID UU(xid), u_int32_t UU(klen), void *kval, u_int32_t UU(clen), void *UU(cval), u_int32_t UU(plen), void *UU(pval)) {
|
|
return kval;
|
|
}
|
|
void* latest_key_le_provdel (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t UU(clen), void *UU(cval)) {
|
|
return 0; // for provisional delete, there is no *latest* key, so return NULL
|
|
}
|
|
void* latest_key_le_provpair (TXNID UU(xid), u_int32_t UU(klen), void *kval, u_int32_t UU(plen), void *UU(pval)) {
|
|
return kval;
|
|
}
|
|
void* le_latest_key (LEAFENTRY le) {
|
|
LESWITCHCALL(le, latest_key);
|
|
}
|
|
|
|
u_int32_t latest_keylen_le_committed (u_int32_t keylen, void *UU(key), u_int32_t UU(vallen), void *UU(val)) {
|
|
return keylen;
|
|
}
|
|
u_int32_t latest_keylen_le_both (TXNID UU(xid), u_int32_t klen, void *UU(kval), u_int32_t UU(clen), void *UU(cval), u_int32_t UU(plen), void *UU(pval)) {
|
|
return klen;
|
|
}
|
|
u_int32_t latest_keylen_le_provdel (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t UU(clen), void *UU(cval)) {
|
|
return 0; // for provisional delete, there is no *latest* key, so return 0. What else can we do?
|
|
}
|
|
u_int32_t latest_keylen_le_provpair (TXNID UU(xid), u_int32_t klen, void *UU(kval), u_int32_t UU(plen), void *UU(pval)) {
|
|
return klen;
|
|
}
|
|
u_int32_t le_latest_keylen (LEAFENTRY le) {
|
|
LESWITCHCALL(le, latest_keylen);
|
|
}
|
|
|
|
void* latest_val_le_committed (u_int32_t UU(keylen), void *UU(key), u_int32_t UU(vallen), void *UU(val)) {
|
|
return val;
|
|
}
|
|
void* latest_val_le_both (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t UU(clen), void *cval, u_int32_t UU(plen), void *UU(pval)) {
|
|
return cval;
|
|
}
|
|
void* latest_val_le_provdel (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t UU(clen), void *UU(cval)) {
|
|
return 0; // for provisional delete, there is no *latest* key, so return NULL
|
|
}
|
|
void* latest_val_le_provpair (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t UU(plen), void *pval) {
|
|
return pval;
|
|
}
|
|
void* le_latest_val (LEAFENTRY le) {
|
|
LESWITCHCALL(le, latest_val);
|
|
}
|
|
|
|
u_int32_t latest_vallen_le_committed (u_int32_t UU(keylen), void *UU(key), u_int32_t vallen, void *UU(val)) {
|
|
return vallen;
|
|
}
|
|
u_int32_t latest_vallen_le_both (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t UU(clen), void *UU(cval), u_int32_t plen, void *UU(pval)) {
|
|
return plen;
|
|
}
|
|
u_int32_t latest_vallen_le_provdel (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t UU(clen), void *UU(cval)) {
|
|
return 0; // for provisional delete, there is no *latest* key, so return 0. What else can we do?
|
|
}
|
|
u_int32_t latest_vallen_le_provpair (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t plen, void *UU(pval)) {
|
|
return plen;
|
|
}
|
|
u_int32_t le_latest_vallen (LEAFENTRY le) {
|
|
LESWITCHCALL(le, latest_vallen);
|
|
}
|
|
|
|
void* any_key_le_committed (u_int32_t UU(keylen), void *key, u_int32_t UU(vallen), void *UU(val)) {
|
|
return key;
|
|
}
|
|
void* any_key_le_both (TXNID UU(xid), u_int32_t UU(klen), void *kval, u_int32_t UU(clen), void *UU(cval), u_int32_t UU(plen), void *UU(pval)) {
|
|
return kval;
|
|
}
|
|
void* any_key_le_provdel (TXNID UU(xid), u_int32_t UU(klen), void *kval, u_int32_t UU(clen), void *UU(cval)) {
|
|
return kval;
|
|
}
|
|
void* any_key_le_provpair (TXNID UU(xid), u_int32_t UU(klen), void *kval, u_int32_t UU(plen), void *UU(pval)) {
|
|
return kval;
|
|
}
|
|
void* le_any_key (LEAFENTRY le) {
|
|
LESWITCHCALL(le, any_key);
|
|
}
|
|
|
|
u_int32_t any_keylen_le_committed (u_int32_t keylen, void *UU(key), u_int32_t UU(vallen), void *UU(val)) {
|
|
return keylen;
|
|
}
|
|
u_int32_t any_keylen_le_both (TXNID UU(xid), u_int32_t klen, void *UU(kval), u_int32_t UU(clen), void *UU(cval), u_int32_t UU(plen), void *UU(pval)) {
|
|
return klen;
|
|
}
|
|
u_int32_t any_keylen_le_provdel (TXNID UU(xid), u_int32_t klen, void *UU(kval), u_int32_t UU(clen), void *UU(cval)) {
|
|
return klen;
|
|
}
|
|
u_int32_t any_keylen_le_provpair (TXNID UU(xid), u_int32_t klen, void *UU(kval), u_int32_t UU(plen), void *UU(pval)) {
|
|
return klen;
|
|
}
|
|
u_int32_t le_any_keylen (LEAFENTRY le) {
|
|
LESWITCHCALL(le, any_keylen);
|
|
}
|
|
|
|
void* any_val_le_committed (u_int32_t UU(keylen), void *UU(key), u_int32_t UU(vallen), void *UU(val)) {
|
|
return val;
|
|
}
|
|
void* any_val_le_both (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t UU(clen), void *cval, u_int32_t UU(plen), void *UU(pval)) {
|
|
return cval;
|
|
}
|
|
void* any_val_le_provdel (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t UU(clen), void *cval) {
|
|
return cval;
|
|
}
|
|
void* any_val_le_provpair (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t UU(plen), void *pval) {
|
|
return pval;
|
|
}
|
|
void* le_any_val (LEAFENTRY le) {
|
|
LESWITCHCALL(le, any_val);
|
|
}
|
|
|
|
u_int32_t any_vallen_le_committed (u_int32_t UU(keylen), void *UU(key), u_int32_t vallen, void *UU(val)) {
|
|
return vallen;
|
|
}
|
|
u_int32_t any_vallen_le_both (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t UU(clen), void *UU(cval), u_int32_t plen, void *UU(pval)) {
|
|
return plen;
|
|
}
|
|
u_int32_t any_vallen_le_provdel (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t clen, void *UU(cval)) {
|
|
return clen; // for provisional delete, there is no *any* key, so return 0. What else can we do?
|
|
}
|
|
u_int32_t any_vallen_le_provpair (TXNID UU(xid), u_int32_t UU(klen), void *UU(kval), u_int32_t plen, void *UU(pval)) {
|
|
return plen;
|
|
}
|
|
u_int32_t le_any_vallen (LEAFENTRY le) {
|
|
LESWITCHCALL(le, any_vallen);
|
|
}
|