mariadb/newbrt/pma-test.c

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#include "../include/ydb-constants.h"
#include "memory.h"
#include "key.h"
#include <assert.h>
#include <string.h>
#include <stdlib.h>
#include <stdio.h>
#include <arpa/inet.h>
#include "list.h"
#include "kv-pair.h"
#include "pma-internal.h"
static void test_make_space_at (void) {
PMA pma;
char *key;
int r;
struct kv_pair *key_A, *key_B;
key = "A";
key_A = kv_pair_malloc(key, strlen(key)+1, 0, 0);
key = "B";
key_B = kv_pair_malloc(key, strlen(key)+1, 0, 0);
r=pma_create(&pma, default_compare_fun);
assert(r==0);
assert(pma_n_entries(pma)==0);
r=pmainternal_make_space_at(pma, 2);
assert(pma_index_limit(pma)==4);
assert((unsigned long)pma->pairs[pma_index_limit(pma)]==0xdeadbeefL);
print_pma(pma);
pma->pairs[2] = key_A;
pma->n_pairs_present++;
r=pmainternal_make_space_at(pma,2);
printf("Requested space at 2, got space at %d\n", r);
print_pma(pma);
assert(pma->pairs[r]==0);
assert((unsigned long)pma->pairs[pma_index_limit(pma)]==0xdeadbeefL);
assert(pma_index_limit(pma)==4);
pma->pairs[0] = key_A;
pma->pairs[1] = key_B;
pma->pairs[2] = 0;
pma->pairs[3] = 0;
pma->n_pairs_present=2;
print_pma(pma);
r=pmainternal_make_space_at(pma,0);
printf("Requested space at 0, got space at %d\n", r);
print_pma(pma);
assert((unsigned long)pma->pairs[pma_index_limit(pma)]==0xdeadbeefL); // make sure it doesn't go off the end.
assert(pma_index_limit(pma)==8);
pma->pairs[0] = key_A;
pma->pairs[1] = 0;
pma->pairs[2] = 0;
pma->pairs[3] = 0;
pma->pairs[4] = key_B;
pma->pairs[5] = 0;
pma->pairs[6] = 0;
pma->pairs[7] = 0;
pma->n_pairs_present=2;
print_pma(pma);
r=pmainternal_make_space_at(pma,5);
print_pma(pma);
printf("r=%d\n", r);
{
int i;
for (i=0; i<pma_index_limit(pma); i++) {
if (pma->pairs[i]) {
assert(i<r);
pma->pairs[i] = 0;
}
}
}
r=pma_free(&pma); assert(r==0);
assert(pma==0);
kv_pair_free(key_A);
kv_pair_free(key_B);
}
static void test_pma_find (void) {
PMA pma;
int i;
int r;
const int N = 16;
DBT k;
MALLOC(pma);
MALLOC_N(N,pma->pairs);
// All that is needed to test pma_find is N and pairs.
pma->N = N;
for (i=0; i<N; i++) pma->pairs[i]=0;
assert(pma_index_limit(pma)==N);
pma->compare_fun = default_compare_fun;
r=pmainternal_find(pma, fill_dbt(&k, "hello", 5), 0);
assert(r==0);
pma->pairs[5] = kv_pair_malloc("hello", 5, 0, 0);
assert(pma_index_limit(pma)==N);
r=pmainternal_find(pma, fill_dbt(&k, "hello", 5), 0);
assert(pma_index_limit(pma)==N);
assert(r==5);
r=pmainternal_find(pma, fill_dbt(&k, "there", 5), 0);
assert(r==6);
r=pmainternal_find(pma, fill_dbt(&k, "aaa", 3), 0);
assert(r==0);
pma->pairs[N-1] = kv_pair_malloc("there", 5, 0, 0);
r=pmainternal_find(pma, fill_dbt(&k, "hello", 5), 0);
assert(r==5);
r=pmainternal_find(pma, fill_dbt(&k, "there", 5), 0);
assert(r==N-1);
r=pmainternal_find(pma, fill_dbt(&k, "aaa", 3), 0);
assert(r==0);
r=pmainternal_find(pma, fill_dbt(&k, "hellob", 6), 0);
assert(r==6);
r=pmainternal_find(pma, fill_dbt(&k, "zzz", 3), 0);
assert(r==N);
for (i=0; i<N; i++)
if (pma->pairs[i])
kv_pair_free(pma->pairs[i]);
toku_free(pma->pairs);
toku_free(pma);
}
void test_smooth_region_N (int N) {
struct kv_pair *pairs[N];
struct kv_pair *strings[N];
char string[N];
int i;
int len;
if (N<10) len=1;
else if (N<100) len=2;
else len=8;
for (i=0; i<N; i++) {
snprintf(string, 10, "%0*d", len, i);
strings[i] = kv_pair_malloc(string, len+1, 0, 0);
}
assert(N<30);
for (i=0; i<(1<<N)-1; i++) {
int insertat;
for (insertat=0; insertat<=N; insertat++) {
int j;
int r;
for (j=0; j<N; j++) {
if ((1<<j)&i) {
pairs[j] = strings[j];
} else {
pairs[j] = 0;
}
}
pmainternal_printpairs(pairs, N); printf(" at %d becomes f", insertat);
r = pmainternal_smooth_region(pairs, N, insertat, 0, 0);
pmainternal_printpairs(pairs, N); printf(" at %d\n", r);
assert(0<=r); assert(r<N);
assert(pairs[r]==0);
/* Now verify that things are in the right place:
* everything before r should be smaller than keys[insertat].
* everything after is bigger.
* Also, make sure everything appeared. */
{
int cleari = i;
for (j=0; j<N; j++) {
if (pairs[j]) {
int whichkey = atoi(pairs[j]->key);
assert(cleari&(1<<whichkey));
cleari &= ~(1<<whichkey);
if (whichkey<insertat) assert(j<r);
else assert(j>r);
}
}
assert(cleari==0);
}
}
}
for (i=0; i<N; i++) {
kv_pair_free(strings[i]);
}
}
void test_smooth_region6 (void) {
enum {N=7};
struct kv_pair *pairs[N];
char *key;
int i;
for (i=0; i<N; i++)
pairs[i] = 0;
key = "A";
pairs[0] = kv_pair_malloc(key, strlen(key)+1, 0, 0);
key = "B";
pairs[1] = kv_pair_malloc(key, strlen(key)+1, 0, 0);
int r = pmainternal_smooth_region(pairs, N, 2, 0, 0);
printf("{ ");
for (i=0; i<N; i++)
printf("%s ", pairs[i] ? pairs[i]->key : "?");
printf("} %d\n", r);
for (i=0; i<7; i++)
if (pairs[i])
kv_pair_free(pairs[i]);
}
static void test_smooth_region (void) {
test_smooth_region_N(4);
test_smooth_region_N(5);
test_smooth_region6();
}
static void test_calculate_parameters (void) {
struct pma pma;
pma.N=4; pmainternal_calculate_parameters(&pma); assert(pma.uplgN==2); assert(pma.densitystep==0.5);
pma.N=8; pmainternal_calculate_parameters(&pma); assert(pma.uplgN==4); assert(pma.densitystep==0.5);
}
static void test_count_region (void) {
const int N = 4;
struct kv_pair *pairs[N];
int i;
char *key;
for (i=0; i<N; i++)
pairs[i] = 0;
assert(pmainternal_count_region(pairs,0,4)==0);
assert(pmainternal_count_region(pairs,2,4)==0);
assert(pmainternal_count_region(pairs,0,2)==0);
key = "A";
pairs[2] = kv_pair_malloc(key, strlen(key)+1, 0, 0);
assert(pmainternal_count_region(pairs,0,4)==1);
assert(pmainternal_count_region(pairs,2,4)==1);
assert(pmainternal_count_region(pairs,0,2)==0);
assert(pmainternal_count_region(pairs,2,2)==0);
assert(pmainternal_count_region(pairs,2,3)==1);
key = "B";
pairs[3] = kv_pair_malloc(key, strlen(key)+1, 0, 0);
key = "a";
pairs[0] = kv_pair_malloc(key, strlen(key)+1, 0, 0);
assert(pmainternal_count_region(pairs,0,4)==3);
for (i=0; i<N; i++)
if (pairs[i])
kv_pair_free(pairs[i]);
}
static void test_pma_random_pick (void) {
PMA pma;
int r = pma_create(&pma, default_compare_fun);
bytevec key,val;
ITEMLEN keylen,vallen;
DBT k,v;
assert(r==0);
r = pma_random_pick(pma, &key, &keylen, &val, &vallen);
assert(r==DB_NOTFOUND);
r = pma_insert(pma, fill_dbt(&k, "hello", 6), fill_dbt(&v, "there", 6), 0);
assert(r==BRT_OK);
r = pma_random_pick(pma, &key, &keylen, &val, &vallen);
assert(r==0);
assert(keylen==6); assert(vallen==6);
assert(strcmp(key,"hello")==0);
assert(strcmp(val,"there")==0);
r = pma_delete(pma, fill_dbt(&k, "nothello", 9), 0);
assert(r==DB_NOTFOUND);
r = pma_delete(pma, fill_dbt(&k, "hello", 6), 0);
assert(r==BRT_OK);
r = pma_random_pick(pma, &key, &keylen, &val, &vallen);
assert(r==DB_NOTFOUND);
r = pma_insert(pma, fill_dbt(&k, "hello", 6), fill_dbt(&v, "there", 6), 0);
assert(r==BRT_OK);
r = pma_random_pick(pma, &key, &keylen, &val, &vallen);
assert(r==0);
assert(keylen==6); assert(vallen==6);
assert(strcmp(key,"hello")==0);
assert(strcmp(val,"there")==0);
r = pma_insert(pma, fill_dbt(&k, "aaa", 4), fill_dbt(&v, "athere", 7), 0); assert(r==BRT_OK);
r = pma_insert(pma, fill_dbt(&k, "aab", 4), fill_dbt(&v, "bthere", 7), 0); assert(r==BRT_OK);
r = pma_insert(pma, fill_dbt(&k, "aac", 4), fill_dbt(&v, "cthere", 7), 0); assert(r==BRT_OK);
r = pma_insert(pma, fill_dbt(&k, "aad", 4), fill_dbt(&v, "dthere", 7), 0); assert(r==BRT_OK);
r = pma_insert(pma, fill_dbt(&k, "aae", 4), fill_dbt(&v, "ethere", 7), 0); assert(r==BRT_OK);
r = pma_insert(pma, fill_dbt(&k, "aaf", 4), fill_dbt(&v, "fthere", 7), 0); assert(r==BRT_OK);
r = pma_insert(pma, fill_dbt(&k, "aag", 4), fill_dbt(&v, "gthere", 7), 0); assert(r==BRT_OK);
r = pma_delete(pma, fill_dbt(&k, "aaa", 4), 0); assert(r==BRT_OK);
r = pma_delete(pma, fill_dbt(&k, "aab", 4), 0); assert(r==BRT_OK);
r = pma_delete(pma, fill_dbt(&k, "aac", 4), 0); assert(r==BRT_OK);
r = pma_delete(pma, fill_dbt(&k, "aad", 4), 0); assert(r==BRT_OK);
r = pma_delete(pma, fill_dbt(&k, "aae", 4), 0); assert(r==BRT_OK);
r = pma_delete(pma, fill_dbt(&k, "aag", 4), 0); assert(r==BRT_OK);
r = pma_delete(pma, fill_dbt(&k, "hello", 6), 0); assert(r==BRT_OK);
r = pma_random_pick(pma, &key, &keylen, &val, &vallen);
assert(r==0);
assert(keylen==4); assert(vallen==7);
assert(strcmp(key,"aaf")==0);
assert(strcmp(val,"fthere")==0);
r=pma_free(&pma); assert(r==0);
assert(pma==0);
}
static void test_find_insert (void) {
PMA pma;
int r;
DBT k,v;
pma_create(&pma, default_compare_fun);
r=pma_lookup(pma, fill_dbt(&k, "aaa", 3), &v, 0);
assert(r==DB_NOTFOUND);
r=pma_insert(pma, fill_dbt(&k, "aaa", 3), fill_dbt(&v, "aaadata", 7), 0);
assert(r==BRT_OK);
init_dbt(&v);
r=pma_lookup(pma, fill_dbt(&k, "aaa", 3), &v, 0);
assert(r==BRT_OK);
assert(v.size==7);
assert(keycompare(v.data,v.size,"aaadata", 7)==0);
//toku_free(v.data); v.data=0;
r=pma_insert(pma, fill_dbt(&k, "bbb", 4), fill_dbt(&v, "bbbdata", 8), 0);
assert(r==BRT_OK);
init_dbt(&v);
r=pma_lookup(pma, fill_dbt(&k, "aaa", 3), &v, 0);
assert(r==BRT_OK);
assert(keycompare(v.data,v.size,"aaadata", 7)==0);
init_dbt(&v);
r=pma_lookup(pma, fill_dbt(&k, "bbb", 4), &v, 0);
assert(r==BRT_OK);
assert(keycompare(v.data,v.size,"bbbdata", 8)==0);
assert((unsigned long)pma->pairs[pma_index_limit(pma)]==0xdeadbeefL);
r=pma_insert(pma, fill_dbt(&k, "00000", 6), fill_dbt(&v, "d0", 3), 0);
assert(r==BRT_OK);
assert((unsigned long)pma->pairs[pma_index_limit(pma)]==0xdeadbeefL);
r=pma_free(&pma); assert(r==0); assert(pma==0);
pma_create(&pma, default_compare_fun); assert(pma!=0);
{
int i;
for (i=0; i<100; i++) {
char string[10];
char dstring[10];
snprintf(string,10,"%05d",i);
snprintf(dstring,10,"d%d", i);
printf("Inserting %d: string=%s dstring=%s\n", i, string, dstring);
r=pma_insert(pma, fill_dbt(&k, string, strlen(string)+1), fill_dbt(&v, dstring, strlen(dstring)+1), 0);
assert(r==BRT_OK);
}
}
r=pma_free(&pma); assert(r==0); assert(pma==0);
}
static int tpi_k,tpi_v;
static void do_sum_em (bytevec key, ITEMLEN keylen, bytevec val, ITEMLEN vallen, void *v) {
assert((unsigned long)v==0xdeadbeefL);
assert(strlen(key)+1==keylen);
assert(strlen(val)+1==vallen);
tpi_k += atoi(key);
tpi_v += atoi(val);
}
static void test_pma_iterate_internal (PMA pma, int expected_k, int expected_v) {
tpi_k=tpi_v=0;
pma_iterate(pma, do_sum_em, (void*)0xdeadbeefL);
assert(tpi_k==expected_k);
assert(tpi_v==expected_v);
}
static void test_pma_iterate (void) {
PMA pma;
int r;
DBT k,v;
pma_create(&pma, default_compare_fun);
r=pma_insert(pma, fill_dbt(&k, "42", 3), fill_dbt(&v, "-19", 4), 0);
assert(r==BRT_OK);
test_pma_iterate_internal(pma, 42, -19);
r=pma_insert(pma, fill_dbt(&k, "12", 3), fill_dbt(&v, "-100", 5), 0);
assert(r==BRT_OK);
test_pma_iterate_internal(pma, 42+12, -19-100);
r=pma_free(&pma); assert(r==0); assert(pma==0);
}
static void test_pma_iterate2 (void) {
PMA pma0,pma1;
int r;
int sum=0;
int n_items=0;
DBT k,v;
r=pma_create(&pma0, default_compare_fun); assert(r==0);
r=pma_create(&pma1, default_compare_fun); assert(r==0);
pma_insert(pma0, fill_dbt(&k, "a", 2), fill_dbt(&v, "aval", 5), 0);
pma_insert(pma0, fill_dbt(&k, "b", 2), fill_dbt(&v, "bval", 5), 0);
pma_insert(pma1, fill_dbt(&k, "x", 2), fill_dbt(&v, "xval", 5), 0);
PMA_ITERATE(pma0,kv __attribute__((__unused__)),kl,dv __attribute__((__unused__)),dl, (n_items++,sum+=kl+dl));
PMA_ITERATE(pma1,kv __attribute__((__unused__)),kl,dv __attribute__((__unused__)), dl, (n_items++,sum+=kl+dl));
assert(sum==21);
assert(n_items==3);
r=pma_free(&pma0); assert(r==0); assert(pma0==0);
r=pma_free(&pma1); assert(r==0); assert(pma1==0);
}
/* Check to see if we can create and kill a cursor. */
void test_pma_cursor_0 (void) {
PMA pma;
PMA_CURSOR c=0;
int r;
r=pma_create(&pma, default_compare_fun); assert(r==0);
r=pma_cursor(pma, &c); assert(r==0); assert(c!=0);
printf("%s:%d\n", __FILE__, __LINE__);
r=pma_free(&pma); assert(r!=0); /* didn't deallocate the cursor. */
printf("%s:%d\n", __FILE__, __LINE__);
r=pma_cursor_free(&c); assert(r==0);
printf("%s:%d\n", __FILE__, __LINE__);
r=pma_free(&pma); assert(r==0); /* did deallocate the cursor. */
}
/* Make sure we can free the cursors in any order. There is a doubly linked list of cursors
* and if we free them in a different order, then different unlinking code is invoked. */
void test_pma_cursor_1 (void) {
PMA pma;
PMA_CURSOR c0=0,c1=0,c2=0;
int r;
int order;
for (order=0; order<6; order++) {
r=pma_create(&pma, default_compare_fun); assert(r==0);
r=pma_cursor(pma, &c0); assert(r==0); assert(c0!=0);
r=pma_cursor(pma, &c1); assert(r==0); assert(c1!=0);
r=pma_cursor(pma, &c2); assert(r==0); assert(c2!=0);
r=pma_free(&pma); assert(r!=0);
if (order<2) { r=pma_cursor_free(&c0); assert(r==0); c0=c1; c1=c2; }
else if (order<4) { r=pma_cursor_free(&c1); assert(r==0); c1=c2; }
else { r=pma_cursor_free(&c2); assert(r==0); }
r=pma_free(&pma); assert(r!=0);
if (order%2==0) { r=pma_cursor_free(&c0); assert(r==0); c0=c1; }
else { r=pma_cursor_free(&c1); assert(r==0); }
r=pma_free(&pma); assert(r!=0);
r = pma_cursor_free(&c0); assert(r==0);
r=pma_free(&pma); assert(r==0);
}
}
void test_pma_cursor_2 (void) {
PMA pma;
PMA_CURSOR c=0;
int r;
DBT key,val;
init_dbt(&key); key.flags=DB_DBT_REALLOC;
init_dbt(&val); val.flags=DB_DBT_REALLOC;
r=pma_create(&pma, default_compare_fun); assert(r==0);
r=pma_cursor(pma, &c); assert(r==0); assert(c!=0);
r=pma_cursor_set_position_last(c); assert(r==DB_NOTFOUND);
r=pma_cursor_free(&c); assert(r==0);
r=pma_free(&pma); assert(r==0);
}
void test_pma_cursor_3 (void) {
PMA pma;
PMA_CURSOR c=0;
int r;
DBT key,val;
DBT k,v;
r=pma_create(&pma, default_compare_fun); assert(r==0);
r=pma_insert(pma, fill_dbt(&k, "x", 2), fill_dbt(&v, "xx", 3), 0); assert(r==BRT_OK);
r=pma_insert(pma, fill_dbt(&k, "m", 2), fill_dbt(&v, "mm", 3), 0); assert(r==BRT_OK);
r=pma_insert(pma, fill_dbt(&k, "aa", 3), fill_dbt(&v,"a", 2), 0); assert(r==BRT_OK);
init_dbt(&key); key.flags=DB_DBT_REALLOC;
init_dbt(&val); val.flags=DB_DBT_REALLOC;
r=pma_cursor(pma, &c); assert(r==0); assert(c!=0);
r=pma_cursor_set_position_first(c); assert(r==0);
r=pma_cget_current(c, &key, &val); assert(r==0);
assert(key.size=3); assert(memcmp(key.data,"aa",3)==0);
assert(val.size=2); assert(memcmp(val.data,"a",2)==0);
r=pma_cursor_set_position_next(c); assert(r==0);
r=pma_cget_current(c, &key, &val); assert(r==0);
assert(key.size=2); assert(memcmp(key.data,"m",2)==0);
assert(val.size=3); assert(memcmp(val.data,"mm",3)==0);
r=pma_cursor_set_position_next(c); assert(r==0);
r=pma_cget_current(c, &key, &val); assert(r==0);
assert(key.size=2); assert(memcmp(key.data,"x",2)==0);
assert(val.size=3); assert(memcmp(val.data,"xx",3)==0);
r=pma_cursor_set_position_next(c); assert(r==DB_NOTFOUND);
/* After an error, the cursor should still point at the same thing. */
r=pma_cget_current(c, &key, &val); assert(r==0);
assert(key.size=2); assert(memcmp(key.data,"x",2)==0);
assert(val.size=3); assert(memcmp(val.data,"xx",3)==0);
r=pma_cursor_set_position_next(c); assert(r==DB_NOTFOUND);
toku_free(key.data);
toku_free(val.data);
r=pma_cursor_free(&c); assert(r==0);
r=pma_free(&pma); assert(r==0);
}
void assert_cursor_val(PMA_CURSOR cursor, int v) {
DBT key, val;
int error;
init_dbt(&key); key.flags = DB_DBT_MALLOC;
init_dbt(&val); val.flags = DB_DBT_MALLOC;
error = pma_cget_current(cursor, &key, &val);
assert(error == 0);
assert( v == *(int *)val.data);
toku_free(key.data);
toku_free(val.data);
}
/* make sure cursors are adjusted when the pma grows */
void test_pma_cursor_4 (void) {
int error;
PMA pma;
PMA_CURSOR cursora, cursorb, cursorc;
int i;
printf("test_pma_cursor_4\n");
error = pma_create(&pma, default_compare_fun);
assert(error == 0);
for (i=1; i<=4; i += 1) {
DBT dbtk, dbtv;
char k[5]; int v;
sprintf(k, "%4.4d", i);
fill_dbt(&dbtk, &k, strlen(k)+1);
v = i;
fill_dbt(&dbtv, &v, sizeof v);
error = pma_insert(pma, &dbtk, &dbtv, 0);
assert(error == BRT_OK);
}
assert(pma_n_entries(pma) == 4);
printf("a:"); print_pma(pma);
error = pma_cursor(pma, &cursora);
assert(error == 0);
error = pma_cursor_set_position_first(cursora);
assert(error == 0);
assert_cursor_val(cursora, 1);
error = pma_cursor(pma, &cursorb);
assert(error == 0);
error = pma_cursor_set_position_first(cursorb);
assert(error == 0);
assert_cursor_val(cursorb, 1);
error = pma_cursor_set_position_next(cursorb);
assert(error == 0);
assert_cursor_val(cursorb, 2);
error = pma_cursor(pma, &cursorc);
assert(error == 0);
error = pma_cursor_set_position_last(cursorc);
assert(error == 0);
assert_cursor_val(cursorc, 4);
for (i=5; i<=8; i += 1) {
DBT dbtk, dbtv;
char k[5]; int v;
sprintf(k, "%4.4d", i);
fill_dbt(&dbtk, &k, strlen(k)+1);
v = i;
fill_dbt(&dbtv, &v, sizeof v);
error = pma_insert(pma, &dbtk, &dbtv, 0);
assert(error == BRT_OK);
}
assert(pma_n_entries(pma) == 8);
printf("a:"); print_pma(pma);
assert_cursor_val(cursora, 1);
assert_cursor_val(cursorb, 2);
assert_cursor_val(cursorc, 4);
error = pma_cursor_free(&cursora);
assert(error == 0);
error = pma_cursor_free(&cursorb);
assert(error == 0);
error = pma_cursor_free(&cursorc);
assert(error == 0);
error = pma_free(&pma);
assert(error == 0);
}
void test_pma_cursor (void) {
test_pma_cursor_0();
test_pma_cursor_1();
test_pma_cursor_2();
test_pma_cursor_3();
test_pma_cursor_4();
}
int wrong_endian_compare_fun (DB *ignore __attribute__((__unused__)),
const DBT *a, const DBT *b) {
unsigned int i;
unsigned char *ad=a->data;
unsigned char *bd=b->data;
int siz = a->size;
assert(a->size==b->size); // This function requires that the keys be the same size.
for (i=0; i<a->size; i++) {
if (ad[siz-1-i]<bd[siz-1-i]) return -1;
if (ad[siz-1-i]>bd[siz-1-i]) return +1;
}
return 0;
}
void test_pma_compare_fun (int wrong_endian_p) {
PMA pma;
PMA_CURSOR c = 0;
DBT key,val;
int r;
char *wrong_endian_expected_keys[] = {"00", "10", "01", "11"}; /* Sorry for being judgemental. But it's wrong. */
char *right_endian_expected_keys[] = {"00", "01", "10", "11"};
char **expected_keys = wrong_endian_p ? wrong_endian_expected_keys : right_endian_expected_keys;
int i;
DBT k,v;
r = pma_create(&pma, wrong_endian_p ? wrong_endian_compare_fun : default_compare_fun); assert(r==0);
r = pma_insert(pma, fill_dbt(&k, "10", 3), fill_dbt(&v, "10v", 4), 0); assert(r==BRT_OK);
r = pma_insert(pma, fill_dbt(&k, "00", 3), fill_dbt(&v, "00v", 4), 0); assert(r==BRT_OK);
r = pma_insert(pma, fill_dbt(&k, "01", 3), fill_dbt(&v, "01v", 4), 0); assert(r==BRT_OK);
r = pma_insert(pma, fill_dbt(&k, "11", 3), fill_dbt(&v, "11v", 4), 0); assert(r==BRT_OK);
init_dbt(&key); key.flags=DB_DBT_REALLOC;
init_dbt(&val); val.flags=DB_DBT_REALLOC;
r=pma_cursor(pma, &c); assert(r==0); assert(c!=0);
for (i=0; i<4; i++) {
if (i==0) {
r=pma_cursor_set_position_first(c); assert(r==0);
} else {
r=pma_cursor_set_position_next(c); assert(r==0);
}
r=pma_cget_current(c, &key, &val); assert(r==0);
//printf("Got %s, expect %s\n", (char*)key.data, expected_keys[i]);
assert(key.size=3); assert(memcmp(key.data,expected_keys[i],3)==0);
assert(val.size=4); assert(memcmp(val.data,expected_keys[i],2)==0);
assert(memcmp(2+(char*)val.data,"v",2)==0);
}
r=pma_cursor_set_position_next(c); assert(r==DB_NOTFOUND);
toku_free(key.data);
toku_free(val.data);
r=pma_cursor_free(&c); assert(r==0);
r=pma_free(&pma); assert(r==0);
}
void test_pma_split_n(int n) {
PMA pmaa, pmab, pmac;
int error;
int i;
int na, nb, nc;
printf("test_pma_split_n:%d\n", n);
error = pma_create(&pmaa, default_compare_fun);
assert(error == 0);
error = pma_create(&pmab, default_compare_fun);
assert(error == 0);
error = pma_create(&pmac, default_compare_fun);
assert(error == 0);
/* insert some kv pairs */
for (i=0; i<n; i++) {
DBT dbtk, dbtv;
char k[5]; int v;
sprintf(k, "%4.4d", i);
fill_dbt(&dbtk, &k, strlen(k)+1);
v = i;
fill_dbt(&dbtv, &v, sizeof v);
error = pma_insert(pmaa, &dbtk, &dbtv, 0);
assert(error == BRT_OK);
}
printf("a:"); print_pma(pmaa);
error = pma_split(pmaa, 0, pmab, 0, pmac, 0);
assert(error == 0);
printf("a:"); print_pma(pmaa);
na = pma_n_entries(pmaa);
printf("b:"); print_pma(pmab);
nb = pma_n_entries(pmab);
printf("c:"); print_pma(pmac);
nc = pma_n_entries(pmac);
assert(na == 0);
assert(nb + nc == n);
error = pma_free(&pmaa);
assert(error == 0);
error = pma_free(&pmab);
assert(error == 0);
error = pma_free(&pmac);
assert(error == 0);
}
void test_pma_split_varkey(void) {
char *keys[] = {
"this", "is", "a", "key", "this is a really really big key", "zz", 0 };
PMA pmaa, pmab, pmac;
int error;
int i;
int n, na, nb, nc;
printf("test_pma_split_varkey\n");
error = pma_create(&pmaa, default_compare_fun);
assert(error == 0);
error = pma_create(&pmab, default_compare_fun);
assert(error == 0);
error = pma_create(&pmac, default_compare_fun);
assert(error == 0);
/* insert some kv pairs */
for (i=0; keys[i]; i++) {
DBT dbtk, dbtv;
char v;
fill_dbt(&dbtk, keys[i], strlen(keys[i])+1);
v = i;
fill_dbt(&dbtv, &v, sizeof v);
error = pma_insert(pmaa, &dbtk, &dbtv, 0);
assert(error == BRT_OK);
}
n = i;
printf("a:"); print_pma(pmaa);
error = pma_split(pmaa, 0, pmab, 0, pmac, 0);
assert(error == 0);
printf("a:"); print_pma(pmaa);
na = pma_n_entries(pmaa);
printf("b:"); print_pma(pmab);
nb = pma_n_entries(pmab);
printf("c:"); print_pma(pmac);
nc = pma_n_entries(pmac);
assert(na == 0);
assert(nb + nc == n);
error = pma_free(&pmaa);
assert(error == 0);
error = pma_free(&pmab);
assert(error == 0);
error = pma_free(&pmac);
assert(error == 0);
}
void print_cursor(const char *str, PMA_CURSOR cursor) {
DBT key, val;
int error;
printf("cursor %s: ", str);
init_dbt(&key); key.flags = DB_DBT_MALLOC;
init_dbt(&val); val.flags = DB_DBT_MALLOC;
error = pma_cget_current(cursor, &key, &val);
assert(error == 0);
printf("%s ", (char*)key.data);
toku_free(key.data);
toku_free(val.data);
printf("\n");
}
void walk_cursor(const char *str, PMA_CURSOR cursor) {
DBT key, val;
int error;
printf("walk %s: ", str);
for (;;) {
init_dbt(&key); key.flags = DB_DBT_MALLOC;
init_dbt(&val); val.flags = DB_DBT_MALLOC;
error = pma_cget_current(cursor, &key, &val);
assert(error == 0);
printf("%s ", (char*)key.data);
toku_free(key.data);
toku_free(val.data);
error = pma_cursor_set_position_next(cursor);
if (error != 0)
break;
}
printf("\n");
}
void walk_cursor_reverse(const char *str, PMA_CURSOR cursor) {
DBT key, val;
int error;
printf("walk %s: ", str);
for (;;) {
init_dbt(&key); key.flags = DB_DBT_MALLOC;
init_dbt(&val); val.flags = DB_DBT_MALLOC;
error = pma_cget_current(cursor, &key, &val);
assert(error == 0);
printf("%s ", (char*)key.data);
toku_free(key.data);
toku_free(val.data);
error = pma_cursor_set_position_prev(cursor);
if (error != 0)
break;
}
printf("\n");
}
void test_pma_split_cursor(void) {
PMA pmaa, pmab, pmac;
PMA_CURSOR cursora, cursorb, cursorc;
int error;
int i;
int na, nb, nc;
printf("test_pma_split_cursor\n");
error = pma_create(&pmaa, default_compare_fun);
assert(error == 0);
error = pma_create(&pmab, default_compare_fun);
assert(error == 0);
error = pma_create(&pmac, default_compare_fun);
assert(error == 0);
/* insert some kv pairs */
for (i=1; i<=16; i += 1) {
DBT dbtk, dbtv;
char k[5]; int v;
sprintf(k, "%4.4d", i);
fill_dbt(&dbtk, &k, strlen(k)+1);
v = i;
fill_dbt(&dbtv, &v, sizeof v);
error = pma_insert(pmaa, &dbtk, &dbtv, 0);
assert(error == BRT_OK);
}
assert(pma_n_entries(pmaa) == 16);
printf("a:"); print_pma(pmaa);
error = pma_cursor(pmaa, &cursora);
assert(error == 0);
error = pma_cursor_set_position_first(cursora);
assert(error == 0);
// print_cursor("cursora", cursora);
assert_cursor_val(cursora, 1);
error = pma_cursor(pmaa, &cursorb);
assert(error == 0);
error = pma_cursor_set_position_first(cursorb);
assert(error == 0);
error = pma_cursor_set_position_next(cursorb);
assert(error == 0);
// print_cursor("cursorb", cursorb);
assert_cursor_val(cursorb, 2);
error = pma_cursor(pmaa, &cursorc);
assert(error == 0);
error = pma_cursor_set_position_last(cursorc);
assert(error == 0);
// print_cursor("cursorc", cursorc);
assert_cursor_val(cursorc, 16);
error = pma_split(pmaa, 0, pmab, 0, pmac, 0);
assert(error == 0);
printf("a:"); print_pma(pmaa);
na = pma_n_entries(pmaa);
assert(na == 0);
printf("b:"); print_pma(pmab);
nb = pma_n_entries(pmab);
printf("c:"); print_pma(pmac);
nc = pma_n_entries(pmac);
assert(nb + nc == 16);
/* cursors open, should fail */
error = pma_free(&pmab);
assert(error != 0);
/* walk cursora */
assert_cursor_val(cursora, 1);
walk_cursor("cursora", cursora);
/* walk cursorb */
assert_cursor_val(cursorb, 2);
walk_cursor("cursorb", cursorb);
/* walk cursorc */
assert_cursor_val(cursorc, 16);
walk_cursor("cursorc", cursorc);
walk_cursor_reverse("cursorc reverse", cursorc);
error = pma_cursor_free(&cursora);
assert(error == 0);
error = pma_cursor_free(&cursorb);
assert(error == 0);
error = pma_cursor_free(&cursorc);
assert(error == 0);
error = pma_free(&pmaa);
assert(error == 0);
error = pma_free(&pmab);
assert(error == 0);
error = pma_free(&pmac);
assert(error == 0);
}
void test_pma_split(void) {
test_pma_split_n(0); memory_check_all_free();
test_pma_split_n(1); memory_check_all_free();
test_pma_split_n(2); memory_check_all_free();
test_pma_split_n(4); memory_check_all_free();
test_pma_split_n(8); memory_check_all_free();
test_pma_split_n(9); memory_check_all_free();
test_pma_split_varkey(); memory_check_all_free();
test_pma_split_cursor(); memory_check_all_free();
}
void test_pma_bulk_insert_n(int n) {
PMA pma;
int error;
int i;
DBT *keys, *vals;
printf("test_pma_bulk_insert_n: %d\n", n);
error = pma_create(&pma, default_compare_fun);
assert(error == 0);
/* init n kv pairs */
keys = toku_malloc(n * sizeof (DBT));
assert(keys);
vals = toku_malloc(n * sizeof (DBT));
assert(vals);
/* init n kv pairs */
for (i=0; i<n; i++) {
char kstring[5];
char *k; int klen;
int *v; int vlen;
sprintf(kstring, "%4.4d", i);
klen = strlen(kstring) + 1;
k = toku_malloc(klen);
assert(k);
strcpy(k, kstring);
fill_dbt(&keys[i], k, klen);
vlen = sizeof (int);
v = toku_malloc(vlen);
assert(v);
*v = i;
fill_dbt(&vals[i], v, vlen);
}
/* bulk insert n kv pairs */
error = pma_bulk_insert(pma, keys, vals, n);
assert(error == 0);
/* verify */
print_pma(pma);
assert(n == pma_n_entries(pma));
/* cleanup */
for (i=0; i<n; i++) {
toku_free(keys[i].data);
toku_free(vals[i].data);
}
error = pma_free(&pma);
assert(error == 0);
toku_free(keys);
toku_free(vals);
}
void test_pma_bulk_insert(void) {
test_pma_bulk_insert_n(0); memory_check_all_free();
test_pma_bulk_insert_n(1); memory_check_all_free();
test_pma_bulk_insert_n(2); memory_check_all_free();
test_pma_bulk_insert_n(3); memory_check_all_free();
test_pma_bulk_insert_n(4); memory_check_all_free();
test_pma_bulk_insert_n(5); memory_check_all_free();
test_pma_bulk_insert_n(8); memory_check_all_free();
test_pma_bulk_insert_n(32); memory_check_all_free();
}
void test_pma_insert_or_replace(void) {
PMA pma;
int r;
DBT dbtk, dbtv;
int n_diff=-2;
r = pma_create(&pma, default_compare_fun);
assert(r==0);
r = pma_insert_or_replace(pma, fill_dbt(&dbtk, "aaa", 4), fill_dbt(&dbtv, "zzz", 4), 0, &n_diff);
assert(r==0); assert(n_diff==-1);
r = pma_lookup(pma, fill_dbt(&dbtk, "aaa", 4), init_dbt(&dbtv), 0);
assert(r==0); assert(dbtv.size==4); assert(memcmp(dbtv.data, "zzz", 4)==0);
r = pma_insert_or_replace(pma, fill_dbt(&dbtk, "bbbb", 5), fill_dbt(&dbtv, "ww", 3), 0, &n_diff);
assert(r==0); assert(n_diff==-1);
r = pma_lookup(pma, fill_dbt(&dbtk, "aaa", 4), init_dbt(&dbtv), 0);
assert(r==0); assert(dbtv.size==4); assert(memcmp(dbtv.data, "zzz", 4)==0);
r = pma_lookup(pma, fill_dbt(&dbtk, "bbbb", 5), init_dbt(&dbtv), 0);
assert(r==0); assert(dbtv.size==3); assert(memcmp(dbtv.data, "ww", 3)==0);
r = pma_insert_or_replace(pma, fill_dbt(&dbtk, "bbbb", 5), fill_dbt(&dbtv, "xxxx", 5), 0, &n_diff);
assert(r==0); assert(n_diff==3);
r = pma_lookup(pma, fill_dbt(&dbtk, "aaa", 4), init_dbt(&dbtv), 0);
assert(r==0); assert(dbtv.size==4); assert(memcmp(dbtv.data, "zzz", 4)==0);
r = pma_lookup(pma, fill_dbt(&dbtk, "bbbb", 5), init_dbt(&dbtv), 0);
assert(r==0); assert(dbtv.size==5); assert(memcmp(dbtv.data, "xxxx", 3)==0);
r=pma_free(&pma);
assert(r==0);
}
void pma_tests (void) {
memory_check=1;
test_pma_compare_fun(0); memory_check_all_free();
test_pma_compare_fun(1); memory_check_all_free();
test_pma_iterate();
test_pma_iterate2(); memory_check_all_free();
test_make_space_at(); memory_check_all_free();
test_smooth_region(); memory_check_all_free();
test_find_insert(); memory_check_all_free();
test_pma_find(); memory_check_all_free();
test_calculate_parameters(); memory_check_all_free();
test_count_region(); memory_check_all_free();
test_keycompare(); memory_check_all_free();
test_pma_random_pick(); memory_check_all_free();
test_pma_cursor(); memory_check_all_free();
test_pma_split(); memory_check_all_free();
test_pma_bulk_insert(); memory_check_all_free();
test_pma_insert_or_replace(); memory_check_all_free();
}
int main (int argc __attribute__((__unused__)), char *argv[] __attribute__((__unused__))) {
pma_tests();
malloc_cleanup();
return 0;
}