static void test_double()
{
printf ("Test double insertion\n");
Trie *trie = test_insert (0, "", "root");
succeed_if (trie, "could not insert into trie");
Trie *t1 = test_insert (trie, "user/tests/simple", "t1");
succeed_if (t1, "could not insert into trie");
succeed_if (t1 == trie, "should be the same");
// output_trie (trie);
Trie *t2 = test_insert (trie, "user/tests/simple", "t2");
succeed_if (t2, "could not insert into trie");
succeed_if (t2 == trie, "should be not the same");
// output_trie (trie);
/* ... gets lost
Trie *t3 = test_insert (trie, "user/tests/simple", "t3");
succeed_if (t3, "could not insert into trie");
succeed_if (t3 == trie, "should be not the same");
// output_trie (trie);
*/
elektraTrieClose(trie, 0);
}
static void test_umlauts()
{
printf ("Test umlauts trie\n");
Trie *trie = test_insert (0, "user/umlauts/test", "slash");
trie = test_insert (trie, "user/umlauts#test", "hash");
trie = test_insert (trie, "user/umlauts test", "space");
trie = test_insert (trie, "user/umlauts\200test", "umlauts");
exit_if_fail (trie, "trie was not build up successfully");
Key *searchKey = keyNew("user", KEY_END);
Backend *backend = elektraTrieLookup(trie, searchKey);
succeed_if (!backend, "there should be no backend");
Key *mp = keyNew("user/umlauts/test", KEY_VALUE, "slash", KEY_END);
keySetName(searchKey, "user/umlauts/test");
backend = elektraTrieLookup(trie, searchKey);
succeed_if (backend, "there should be a backend");
compare_key(backend->mountpoint, mp);
keySetName(searchKey, "user/umlauts#test");
keySetName(mp, "user/umlauts#test");
keySetString(mp, "hash");
Backend *b2 = elektraTrieLookup(trie, searchKey);
succeed_if (b2, "there should be a backend");
succeed_if (backend != b2, "should be other backend");
compare_key(b2->mountpoint, mp);
keySetName(searchKey, "user/umlauts test");
keySetName(mp, "user/umlauts test");
keySetString(mp, "space");
b2 = elektraTrieLookup(trie, searchKey);
succeed_if (b2, "there should be a backend");
succeed_if (backend != b2, "should be other backend");
compare_key(b2->mountpoint, mp);
keySetName(searchKey, "user/umlauts\200test");
keySetName(mp, "user/umlauts\200test");
keySetString(mp, "umlauts");
b2 = elektraTrieLookup(trie, searchKey);
succeed_if (b2, "there should be a backend");
succeed_if (backend != b2, "should be other backend");
compare_key(b2->mountpoint, mp);
// output_trie(trie);
elektraTrieClose(trie, 0);
keyDel (mp);
keyDel (searchKey);
}
int main(){
test_init();
test_insert();
printf("Tests finished");
return 0;
}
int main(int argc, char *argv[])
{
const char * test_server = (argc > 1 ? argv[1] : TEST_SERVER);
mongo conn[1];
char version[10];
INIT_SOCKETS_FOR_WINDOWS;
test_write_concern_finish( );
CONN_CLIENT_TEST;
ASSERT( conn->write_concern != (void*)0 );
test_insert( conn );
if( mongo_get_server_version( version ) != -1 && version[0] != '1' ) {
test_write_concern_input( conn );
test_update_and_remove( conn );
test_batch_insert_with_continue( conn );
}
mongo_destroy( conn );
test_write_concern_api();
return 0;
}
void test_generic_multiset<ValueTraits, ContainerDefiner>::test_all ()
{
typedef typename ValueTraits::value_type value_type;
static const int random_init[6] = { 3, 2, 4, 1, 5, 2 };
value_cont_type values (6);
for (int i = 0; i < 6; ++i)
(&values[i])->value_ = random_init[i];
typedef ContainerDefiner
< value_type
, value_traits<ValueTraits>
, constant_time_size<value_type::constant_time_size>
> definer_function;
typedef typename definer_function::type multiset_type;
{
multiset_type testset(values.begin(), values.end());
test::test_container(testset);
testset.clear();
testset.insert(values.begin(), values.end());
test::test_common_unordered_and_associative_container(testset, values);
testset.clear();
testset.insert(values.begin(), values.end());
test::test_associative_container(testset, values);
testset.clear();
testset.insert(values.begin(), values.end());
test::test_non_unique_container(testset, values);
}
test_sort(values);
test_insert(values);
test_swap(values);
test_find(values);
test_impl();
test_generic_assoc<ValueTraits, ContainerDefiner>::test_all(values);
}
static void test_minimaltrie()
{
printf ("Test minimal trie\n");
Trie *trie = test_insert (0, "", "");
Key *s = keyNew ("", KEY_END);
Key *mp = keyNew ("", KEY_VALUE, "", KEY_END);
succeed_if (elektraTrieLookup (trie, s), "trie should not be null");
compare_key(elektraTrieLookup (trie, s)->mountpoint, mp);
keySetName (s, "user");
compare_key(elektraTrieLookup (trie, s)->mountpoint, mp);
keySetName (s, "system");
compare_key(elektraTrieLookup (trie, s)->mountpoint, mp);
keySetName (s, "user/below");
compare_key(elektraTrieLookup (trie, s)->mountpoint, mp);
keySetName (s, "system/below");
compare_key(elektraTrieLookup (trie, s)->mountpoint, mp);
elektraTrieClose(trie, 0);
keyDel (s);
keyDel (mp);
}
void test_generic_set<ValueTraits, ContainerDefiner>::test_all()
{
typedef typename ValueTraits::value_type value_type;
static const int random_init[6] = { 3, 2, 4, 1, 5, 2 };
std::vector<value_type> values (6);
for (int i = 0; i < 6; ++i)
values[i].value_ = random_init[i];
typedef typename ContainerDefiner
< value_type
, value_traits<ValueTraits>
, constant_time_size<value_type::constant_time_size>
>::type set_type;
{
set_type testset(values.begin(), values.end());
test::test_container(testset);
testset.clear();
testset.insert(values.begin(), values.end());
test::test_common_unordered_and_associative_container(testset, values);
testset.clear();
testset.insert(values.begin(), values.end());
test::test_associative_container(testset, values);
testset.clear();
testset.insert(values.begin(), values.end());
test::test_unique_container(testset, values);
}
test_sort(values);
test_insert(values);
test_insert_advanced(values);
test_swap(values);
test_find(values);
test_impl();
test_generic_assoc<ValueTraits, ContainerDefiner>::test_all(values);
}
int main() {
mongo conn[1];
char version[10];
INIT_SOCKETS_FOR_WINDOWS;
test_write_concern_finish( );
if( mongo_client( conn, TEST_SERVER, 27017 ) != MONGO_OK ) {
printf( "failed to connect\n" );
exit( 1 );
}
ASSERT( conn->write_concern != (void*)0 );
test_insert( conn );
if( mongo_get_server_version( version ) != -1 && version[0] != '1' ) {
test_write_concern_input( conn );
test_update_and_remove( conn );
test_batch_insert_with_continue( conn );
}
mongo_destroy( conn );
return 0;
}
int main() {
BTree *tree;
BTree *find;
int depth;
char *array[11];
array[0] = "5";
array[1] = "1";
array[2] = "6";
array[3] = "9";
array[4] = "0";
array[5] = "4";
array[6] = "3";
array[7] = "8";
array[8] = "2";
array[9] = "7";
array[10] = "4";
tree = array_to_btree(array);
/*print_preorder(tree);*/
printLevelOrder(tree,5);
depth = btree_depth(tree);
printf("d_array:%d\n", depth);
find = btree_find(tree, "A");
/*print_preorder(find);*/
if(find == NULL){
printf("Not found.\n");
}else{
printLevelOrder(find,5);
}
btree_free(tree);
test_insert();
return 0;
}
int main(){
int i;
int a[] = {8, 2, 7, 9, 11, 3, 2, 6};
BST_PTR t = bst_create();
for(i=0; i<8; i++)
bst_insert(t, a[i]);
assert(bst_size(t) == 7);
test_insert(t);
test_contains(t);
bst_inorder(t);
bst_preorder(t);
bst_postorder(t);
bst_ith_smallest(t, 1)
bst_size(t);
bst_free(t);
}
int main()
{
test_insert();
test_lookup();
test_remove();
return 0;
}
static void test_emptyvalues()
{
printf ("Test empty values in trie\n");
Trie *trie = 0;
trie = test_insert (trie, "user/umlauts/b/", "b");
trie = test_insert (trie, "user/umlauts/a/", "a");
trie = test_insert (trie, "user/umlauts/", "/");
trie = test_insert (trie, "user/umlauts/c/", "c");
trie = test_insert (trie, "user/", "u");
exit_if_fail (trie, "trie was not build up successfully");
// output_trie(trie);
elektraTrieClose(trie, 0);
}
void test_insert( uint32_t num_nodes , uint32_t num_inserts , uint32_t num_duplicates , bool near )
{
typedef Kokkos::UnorderedMap<uint32_t,uint32_t, Device> map_type;
typedef Kokkos::UnorderedMap<const uint32_t,const uint32_t, Device> const_map_type;
const uint32_t expected_inserts = (num_inserts + num_duplicates -1u) / num_duplicates;
map_type map;
map.rehash(num_nodes,false);
if (near) {
Impl::TestInsert<map_type,true> test_insert(map, num_inserts, num_duplicates);
test_insert.testit();
} else
{
Impl::TestInsert<map_type,false> test_insert(map, num_inserts, num_duplicates);
test_insert.testit();
}
const bool print_list = false;
if (print_list) {
Kokkos::Impl::UnorderedMapPrint<map_type> f(map);
f.apply();
}
const uint32_t map_size = map.size();
ASSERT_FALSE( map.failed_insert());
{
EXPECT_EQ(expected_inserts, map_size);
{
uint32_t find_errors = 0;
Impl::TestFind<const_map_type> test_find(map, num_inserts, num_duplicates);
test_find.testit(find_errors);
EXPECT_EQ( 0u, find_errors);
}
map.begin_erase();
Impl::TestErase<map_type,false> test_erase(map, num_inserts, num_duplicates);
test_erase.testit();
map.end_erase();
EXPECT_EQ(0u, map.size());
}
}
static void run_tests()
{
test_misc();
test_insert();
test_remove();
test_clear();
test_extend();
test_circular();
}
int main(void){
test_insert();
test_insert_list3();
printf("Success, no errors\n");
return 0;
}
static void test_root()
{
printf ("Test trie with root\n");
Trie *trie = 0;
trie = test_insert (trie, "", "root");
trie = test_insert (trie, "user/tests/simple", "simple");
exit_if_fail (trie, "trie was not build up successfully");
Key *searchKey = keyNew("user", KEY_END);
Key *rmp = keyNew("", KEY_VALUE, "root", KEY_END);
Backend *backend = elektraTrieLookup(trie, searchKey);
succeed_if (backend, "there should be the root backend");
compare_key(backend->mountpoint, rmp);
Key *mp = keyNew("user/tests/simple", KEY_VALUE, "simple", KEY_END);
keySetName(searchKey, "user/tests/simple");
backend = elektraTrieLookup(trie, searchKey);
succeed_if (backend, "there should be a backend");
compare_key(backend->mountpoint, mp);
keySetName(searchKey, "user/tests/simple/below");
Backend *b2 = elektraTrieLookup(trie, searchKey);
succeed_if (b2, "there should be a backend");
succeed_if (backend == b2, "should be same backend");
compare_key(b2->mountpoint, mp);
keySetName(searchKey, "user/tests/simple/deep/below");
b2 = elektraTrieLookup(trie, searchKey);
succeed_if (b2, "there should be a backend");
succeed_if (backend == b2, "should be same backend");
compare_key(b2->mountpoint, mp);
// output_trie(trie);
elektraTrieClose(trie, 0);
keyDel (mp);
keyDel (rmp);
keyDel (searchKey);
}
int
main()
{
test_empty_rope();
test_append();
test_prepend();
test_insert();
test_erase();
return 0;
}
/* Program entry point */
int main(int argc, char **argv)
{
cb_tree_t tree = cb_tree_make();
printf("%d ", ++tnum); fflush(stdout);
test_insert(&tree);
printf("%d ", ++tnum); fflush(stdout);
test_complete(&tree, sizeof(dict) / sizeof(const char *));
printf("%d ", ++tnum); fflush(stdout);
test_insert_dup(&tree);
printf("%d ", ++tnum); fflush(stdout);
test_contains(&tree);
printf("%d ", ++tnum); fflush(stdout);
test_delete(&tree);
printf("%d ", ++tnum); fflush(stdout);
cb_tree_clear(&tree);
test_insert(&tree);
test_complete(&tree, sizeof(dict) / sizeof(const char *));
printf("%d ", ++tnum); fflush(stdout);
test_delete_all(&tree);
printf("%d ", ++tnum); fflush(stdout);
test_complete(&tree, 0);
printf("%d ", ++tnum); fflush(stdout);
cb_tree_clear(&tree);
test_empty(&tree);
printf("%d ", ++tnum); fflush(stdout);
test_insert(&tree);
test_prefixes(&tree);
cb_tree_clear(&tree);
printf("ok\n");
return 0;
}
void test_failed_insert( uint32_t num_nodes)
{
typedef Kokkos::UnorderedMap<uint32_t,uint32_t, Device> map_type;
map_type map(num_nodes);
Impl::TestInsert<map_type> test_insert(map, 2u*num_nodes, 1u);
test_insert.testit(false /*don't rehash on fail*/);
Device::execution_space::fence();
EXPECT_TRUE( map.failed_insert() );
}
int main() {
test_push_back();
test_emplace_back();
test_insert_range();
test_insert();
test_emplace();
test_insert_range2();
test_insert_n();
test_insert_n2();
test_resize();
test_resize_param();
}
void test_insert (charT*, Traits*, Allocator*,
const StringTestCaseData<charT> &tdata)
{
typedef std::basic_string<charT, Traits, Allocator> String;
if (tdata.func_.which_ == Insert (iter_range)) {
switch (tdata.func_.iter_id_) {
// exercise possible overloads of the member function template
// on common RandomAccessIterator types
#undef TEST
#define TEST(Iterator) do { \
typedef typename String::Iterator Iter; \
static const \
InsertRangeOverload<String, Iter> rng; \
test_insert ((charT*)0, (Traits*)0, (Allocator*)0, rng, tdata); \
} while (0)
case StringIds::Pointer: TEST (pointer); break;
case StringIds::ConstPointer: TEST (const_pointer); break;
case StringIds::Iterator: TEST (iterator); break;
case StringIds::ConstIterator: TEST (const_iterator); break;
case StringIds::ReverseIterator: TEST (reverse_iterator); break;
case StringIds::ConstReverseIterator: TEST (const_reverse_iterator);
break;
// exercise specializations of the member function template
// on the required iterator categories
#undef TEST
#define TEST(Iterator) do { \
typedef Iterator<charT> Iter; \
static const \
InsertRange<String, Iter> rng; \
test_insert ((charT*)0, (Traits*)0, (Allocator*)0, rng, tdata); \
} while (0)
case StringIds::Input: TEST (InputIter); break;
case StringIds::Forward: TEST (ConstFwdIter); break;
case StringIds::Bidir: TEST (ConstBidirIter); break;
case StringIds::Random: TEST (ConstRandomAccessIter); break;
default:
rw_error (0, 0, __LINE__, "bad iterator id");
}
}
else {
// exercise ordinary overloads of the member function
static const RangeBase<String> rng;
test_insert ((charT*)0, (Traits*)0, (Allocator*)0, rng, tdata);
}
}
int
main(int argc, char **argv)
{
int i;
SQLLEN bytes_returned;
/* do not allocate so big memory in stack */
buf = (unsigned char *) malloc(TEST_BUF_LEN);
odbc_connect();
odbc_command("create table " TEST_TABLE_NAME " (im IMAGE)");
odbc_command("SET TEXTSIZE 1000000");
/* populate test buffer with ramp */
for (i = 0; i < TEST_BUF_LEN; i++) {
buf[i] = BYTE_AT(i);
}
/* insert test pattern into database */
if (test_insert(buf, TEST_BUF_LEN) == -1) {
clean_up();
return -1;
}
memset(buf, 0, TEST_BUF_LEN);
/* read test pattern from database */
if (test_select(buf, TEST_BUF_LEN, &bytes_returned) == -1) {
clean_up();
return -1;
}
/* compare inserted and read back test patterns */
if (bytes_returned != TEST_BUF_LEN) {
show_error("main(): comparing buffers", "Mismatch in input and output pattern sizes.");
clean_up();
return -1;
}
for (i = 0; i < TEST_BUF_LEN; ++i) {
if (buf[i] != BYTE_AT(i)) {
printf("mismatch at pos %d %d != %d\n", i, buf[i], BYTE_AT(i));
show_error("main(): comparing buffers", "Mismatch in input and output patterns.");
clean_up();
return -1;
}
}
printf("Input and output buffers of length %d match.\nTest passed.\n", TEST_BUF_LEN);
clean_up();
return 0;
}
void test_deep_copy( uint32_t num_nodes )
{
typedef Kokkos::UnorderedMap<uint32_t,uint32_t, Device> map_type;
typedef Kokkos::UnorderedMap<const uint32_t, const uint32_t, Device> const_map_type;
typedef typename map_type::HostMirror host_map_type ;
// typedef Kokkos::UnorderedMap<uint32_t, uint32_t, typename Device::host_mirror_execution_space > host_map_type;
map_type map;
map.rehash(num_nodes,false);
{
Impl::TestInsert<map_type> test_insert(map, num_nodes, 1);
test_insert.testit();
ASSERT_EQ( map.size(), num_nodes);
ASSERT_FALSE( map.failed_insert() );
{
uint32_t find_errors = 0;
Impl::TestFind<map_type> test_find(map, num_nodes, 1);
test_find.testit(find_errors);
EXPECT_EQ( find_errors, 0u);
}
}
host_map_type hmap;
Kokkos::deep_copy(hmap, map);
ASSERT_EQ( map.size(), hmap.size());
ASSERT_EQ( map.capacity(), hmap.capacity());
{
uint32_t find_errors = 0;
Impl::TestFind<host_map_type> test_find(hmap, num_nodes, 1);
test_find.testit(find_errors);
EXPECT_EQ( find_errors, 0u);
}
map_type mmap;
Kokkos::deep_copy(mmap, hmap);
const_map_type cmap = mmap;
EXPECT_EQ( cmap.size(), num_nodes);
{
uint32_t find_errors = 0;
Impl::TestFind<const_map_type> test_find(cmap, num_nodes, 1);
test_find.testit(find_errors);
EXPECT_EQ( find_errors, 0u);
}
}
int
main()
{
BOOST_STATIC_ASSERT((!phx::stl::has_mapped_type<std::list<int> >::value));
BOOST_STATIC_ASSERT((!phx::stl::has_key_type<std::list<int> >::value));
std::list<int> const data = build_list();
test_empty(data);
test_end(data);
test_erase(data);
test_front(data);
test_get_allocator(data);
test_insert(data);
test_max_size(data);
return boost::report_errors();
}
virtual void run(void)
{
try
{
std::cout << "before" << std::endl;
std::auto_ptr<SqlConnection> connection =
dataSource_->getConnection();
std::cout << "after" << std::endl;
test_insert(*connection);
// test_insert(*connection);
// transaction->commit();
} catch (SqlException& e)
{
std::cout << e.getMessage() << std::endl;
}
}
} SDFV
# endif
main (int argc, char *argv[])
{
// Func1();
test_allocfree();
test_member();
test_nthchild();
// test_clone();
test_fileio();
test_assign();
// test_error();
test_insert();
// test_notify();
}
int
main()
{
std::deque<int> const data = build_deque();
test_insert(data);
test_max_size(data);
test_pop_back(data);
test_pop_front(data);
test_push_back(data);
test_push_front(data);
test_rbegin(data);
test_rend(data);
test_resize(data);
test_size(data);
return boost::report_errors();
}
void test_slist(struct cag_test_series *tests)
{
test_it(tests);
test_new(tests);
test_prepend(tests);
test_insert(tests);
test_insertp(tests);
test_distance(tests);
test_front(tests);
test_erase(tests);
test_copy(tests);
test_reverse(tests);
test_copy_over(tests);
test_sort(tests);
test_find(tests);
}
int main(int args, char *arg[]) {
list_t *list = NULL;
list = test_create();
test_insert(list);
test_delete(list);
test_examine(list);
test_distroy(&list);
list = test_create();
test_sorting(list);
test_distroy(&list);
test_concat_lists();
test_merge_lists();
test_reverse_lists();
exit (EXIT_SUCCESS);
}
/*
* The main function just calls all unit tests and prints a summary
* message (success or failure).
*
* \return zero on success.
*/
int main (int argc, char ** argv)
{
int ok = 1;
if (0 != test_append())
ok = 0;
if (0 != test_prepend())
ok = 0;
if (0 != test_insert())
ok = 0;
if (0 != test_remove())
ok = 0;
if (ok) {
printf ("\nall tests PASSED\n");
return 0;
}
printf ("\none or more tests FAILED\n");
return 1;
}