int is_commit_msg_ok(const char* msg) {
/* COMPLETE THE REST */
while(msg != NULL && *msg != '\0'){
if(*msg == 'T') {
if(check_equal(msg))
return 1;
}
++msg;
}
return 0;
}
void replace_variant(struct IR_node* st,struct IR_node* en,
struct Variant* v1,struct Variant* v2,struct IR_node* now) {
do {
if (st->attr==OPERATE) {
if (check_equal(st->v2,v1)) st->v2=v2;
if (check_equal(st->v3,v1)) st->v3=v2;
if (check_equal(st->v1,v1)) {
del(now);
op_flag=1;
break;
}
} else if (st->attr==CONDGOTO || st->attr==RETURN || st->attr==DEC2 ||
st->attr==ARG2 || st->attr==WRITE) {
if (check_equal(st->v1,v1)) st->v1=v2;
if (check_equal(st->v2,v1)) st->v2=v2;
assert(st->v3==NULL);
}
st=st->next;
}while (st!=en->next);
return;
}
void multi_insert_test() {
std::map<std::string, int> truth;
LmsMap<std::string, int> trial;
std::vector<std::string> data{{"bbb"}, {"aaa"}, {"ccc"},
{"aouvawenJaauigasdnfkmj0n34nma0"}, {"abc"}};
check_equal(truth, trial);
int v=0;
std::string::size_type totalsize = 0;
for(const auto &i : data) {
truth[i] = v;
trial.insert(i, v);
v++;
totalsize += i.size();
print(trial);
check_equal(truth, trial);
assert(totalsize == trial.keyblock_size());
}
truth["ccc"] = -1;
trial.insert("ccc", -1);
print(trial);
check_equal(truth, trial);
}
void tst_runOneJob()
{
GLOBAL_COUNTER = 1;
WorkQueue queue;
shared_ptr<WorkQueue::Job> job(new OneJob(1));
check_true(!job->hasCompleted());
check_equal(static_cast<OneJob *>(job.get())->runId, -1);
queue.schedule(job);
// Spin a while loop, waiting 1 ms at a time, to see if the job completes
// on its own. If we're still spinning after 10000 iterations, emit a warning
// that the thing is probably locked up
int counter = 0;
while (!job->hasCompleted()) {
this_thread::sleep_for(std::chrono::milliseconds(1));
++counter;
if (counter > 10000) {
cout << __FUNCTION__ << ": has with all likelyhood timed out, assuming failure!" << endl;
check_true(false);
}
}
if (counter == 0) {
cout << " - job seems to have completed without any delay.. This is suspicious.." << endl;
return;
}
// The runId should be the one we set up above, namely 1, as this is the
// only job executing at present.
check_equal(static_cast<OneJob *>(job.get())->runId, 1);
cout << __FUNCTION__ << ": ok" << endl;
}
TEST(binnf, python_communication)
{
// Open the python loopback as a subprocess
Process proc("python", {Resources::PYNN_BINNF_LOOPBACK.open()});
// Generate a test data block
const Block block_in_1 = generate_test_matrix_block();
const Block block_in_2 = generate_test_log_block();
// Send the data block to python
serialise(proc.child_stdin(), block_in_1);
serialise(proc.child_stdin(), block_in_2);
serialise(proc.child_stdin(), block_in_2);
serialise(proc.child_stdin(), block_in_1);
serialise(proc.child_stdin(), block_in_2);
serialise(proc.child_stdin(), block_in_2);
serialise(proc.child_stdin(), block_in_1);
serialise(proc.child_stdin(), block_in_1);
proc.close_child_stdin();
// Read it back, expect the deserialisation to be successful
try {
check_equal(block_in_1, deserialise(proc.child_stdout()));
check_equal(block_in_2, deserialise(proc.child_stdout()));
check_equal(block_in_2, deserialise(proc.child_stdout()));
check_equal(block_in_1, deserialise(proc.child_stdout()));
check_equal(block_in_2, deserialise(proc.child_stdout()));
check_equal(block_in_2, deserialise(proc.child_stdout()));
check_equal(block_in_1, deserialise(proc.child_stdout()));
check_equal(block_in_1, deserialise(proc.child_stdout()));
}
catch (BinnfDecodeException &e) {
// Most likely there is an error message
char buf[4096];
while (proc.child_stderr().good()) {
proc.child_stderr().read(buf, 4096);
std::cout.write(buf, proc.child_stderr().gcount());
}
EXPECT_TRUE(false);
}
// Make sure the Python code does not crash
EXPECT_EQ(0, proc.wait());
}
static void qobject_is_equal_list_test(void)
{
QList *list_0, *list_1, *list_cloned;
QList *list_reordered, *list_longer, *list_shorter;
list_0 = qlist_new();
list_1 = qlist_new();
list_reordered = qlist_new();
list_longer = qlist_new();
list_shorter = qlist_new();
qlist_append_int(list_0, 1);
qlist_append_int(list_0, 2);
qlist_append_int(list_0, 3);
qlist_append_int(list_1, 1);
qlist_append_int(list_1, 2);
qlist_append_int(list_1, 3);
qlist_append_int(list_reordered, 1);
qlist_append_int(list_reordered, 3);
qlist_append_int(list_reordered, 2);
qlist_append_int(list_longer, 1);
qlist_append_int(list_longer, 2);
qlist_append_int(list_longer, 3);
qlist_append_null(list_longer);
qlist_append_int(list_shorter, 1);
qlist_append_int(list_shorter, 2);
list_cloned = qlist_copy(list_0);
check_equal(list_0, list_1, list_cloned);
check_unequal(list_0, list_reordered, list_longer, list_shorter);
/* With a NaN in it, the list should no longer compare equal to
* itself */
qlist_append(list_0, qnum_from_double(NAN));
g_assert(qobject_is_equal(QOBJECT(list_0), QOBJECT(list_0)) == false);
free_all(list_0, list_1, list_cloned, list_reordered, list_longer,
list_shorter);
}
gint
camel_url_equal (gconstpointer v,
gconstpointer v2)
{
const CamelURL *u1 = v, *u2 = v2;
return check_equal (u1->protocol, u2->protocol)
&& check_equal (u1->user, u2->user)
&& check_equal (u1->authmech, u2->authmech)
&& check_equal (u1->host, u2->host)
&& check_equal (u1->path, u2->path)
&& check_equal (u1->query, u2->query)
&& u1->port == u2->port;
}
int main()
{
test<input_iterator<const int*>, output_iterator<int*> >();
test<input_iterator<const int*>, forward_iterator<int*> >();
test<input_iterator<const int*>, bidirectional_iterator<int*> >();
test<input_iterator<const int*>, random_access_iterator<int*> >();
test<input_iterator<const int*>, int*>();
test<forward_iterator<const int*>, output_iterator<int*> >();
test<forward_iterator<const int*>, forward_iterator<int*> >();
test<forward_iterator<const int*>, bidirectional_iterator<int*> >();
test<forward_iterator<const int*>, random_access_iterator<int*> >();
test<forward_iterator<const int*>, int*>();
test<bidirectional_iterator<const int*>, output_iterator<int*> >();
test<bidirectional_iterator<const int*>, forward_iterator<int*> >();
test<bidirectional_iterator<const int*>, bidirectional_iterator<int*> >();
test<bidirectional_iterator<const int*>, random_access_iterator<int*> >();
test<bidirectional_iterator<const int*>, int*>();
test<random_access_iterator<const int*>, output_iterator<int*> >();
test<random_access_iterator<const int*>, forward_iterator<int*> >();
test<random_access_iterator<const int*>, bidirectional_iterator<int*> >();
test<random_access_iterator<const int*>, random_access_iterator<int*> >();
test<random_access_iterator<const int*>, int*>();
test<const int*, output_iterator<int*> >();
test<const int*, forward_iterator<int*> >();
test<const int*, bidirectional_iterator<int*> >();
test<const int*, random_access_iterator<int*> >();
test<const int*, int*>();
// Test projections:
S const ia[] = {{1,1},{2,2},{3,3},{3,4},{4,5},{5,6},{5,7},{5,8},{6,9},{7,10}};
S ib[ranges::size(ia)];
std::pair<S const *, S *> r = ranges::unique_copy(ia, ib, ranges::equal_to(), &S::i);
CHECK(r.first == ranges::end(ia));
CHECK(r.second == ib + 7);
check_equal(ranges::make_range(ib, ib+7), {S{1,1},S{2,2},S{3,3},S{4,5},S{5,6},S{6,9},S{7,10}});
return ::test_result();
}
//evaluates mult_i polynomial for layer 59+d of the F0 circuit
void
FLT_mul_lvl2(mpz_t rop, const mpz_t* r, int mi, int mip1, int ni, int nip1, const mpz_t prime)
{
mpz_t ans;
mpz_init_set(ans, r[0]);
//odds ps go to p/2 for both in1 and in2
/*
uint64 ans = r[0];
uint64 temp;
*/
//now make sure p>>1 matches in1 and in2
check_equal(ans, &r[1], &r[mi], &r[mi+mip1], 0, mip1, prime);
mpz_set(rop, ans);
//return ans;
mpz_clear(ans);
}
static void qobject_is_equal_string_test(void)
{
QString *str_base, *str_whitespace_0, *str_whitespace_1, *str_whitespace_2;
QString *str_whitespace_3, *str_case, *str_built;
str_base = qstring_from_str("foo");
str_whitespace_0 = qstring_from_str(" foo");
str_whitespace_1 = qstring_from_str("foo ");
str_whitespace_2 = qstring_from_str("foo\b");
str_whitespace_3 = qstring_from_str("fooo\b");
str_case = qstring_from_str("Foo");
/* Should yield "foo" */
str_built = qstring_from_substr("form", 0, 1);
qstring_append_chr(str_built, 'o');
check_unequal(str_base, str_whitespace_0, str_whitespace_1,
str_whitespace_2, str_whitespace_3, str_case);
check_equal(str_base, str_built);
free_all(str_base, str_whitespace_0, str_whitespace_1, str_whitespace_2,
str_whitespace_3, str_case, str_built);
}
VALUE _equal_block(equal_obj *obj)
{
return wrap(check_equal(*obj->self, unwrap<wxImage>(obj->other)));
}
static void do_test_null_empty (bool api_version_request) {
std::string topic = Test::mk_topic_name("0070_null_empty", 1);
const int partition = 0;
Test::Say(tostr() << "Testing with api.version.request=" << api_version_request << " on topic " << topic << " partition " << partition << "\n");
RdKafka::Conf *conf;
Test::conf_init(&conf, NULL, 0);
Test::conf_set(conf, "api.version.request",
api_version_request ? "true" : "false");
Test::conf_set(conf, "acks", "all");
std::string errstr;
RdKafka::Producer *p = RdKafka::Producer::create(conf, errstr);
if (!p)
Test::Fail("Failed to create Producer: " + errstr);
delete conf;
const int msgcnt = 8;
static const char *msgs[msgcnt*2] = {
NULL, NULL,
"key2", NULL,
"key3", "val3",
NULL, "val4",
"", NULL,
NULL, "",
"", ""
};
RdKafka::ErrorCode err;
for (int i = 0 ; i < msgcnt * 2 ; i += 2) {
Test::Say(3, tostr() << "Produce message #" << (i/2) <<
": key=\"" << (msgs[i] ? msgs[i] : "Null") <<
"\", value=\"" << (msgs[i+1] ? msgs[i+1] : "Null") << "\"\n");
err = p->produce(topic, partition, RdKafka::Producer::RK_MSG_COPY,
/* Value */
(void *)msgs[i+1], msgs[i+1] ? strlen(msgs[i+1]) : 0,
/* Key */
(void *)msgs[i], msgs[i] ? strlen(msgs[i]) : 0,
0, NULL);
if (err != RdKafka::ERR_NO_ERROR)
Test::Fail("Produce failed: " + RdKafka::err2str(err));
}
if (p->flush(tmout_multip(3*5000)) != 0)
Test::Fail("Not all messages flushed");
Test::Say(tostr() << "Produced " << msgcnt << " messages to " << topic << "\n");
delete p;
/*
* Now consume messages from the beginning, making sure they match
* what was produced.
*/
/* Create consumer */
Test::conf_init(&conf, NULL, 10);
Test::conf_set(conf, "group.id", topic);
Test::conf_set(conf, "api.version.request",
api_version_request ? "true" : "false");
Test::conf_set(conf, "enable.auto.commit", "false");
RdKafka::KafkaConsumer *c = RdKafka::KafkaConsumer::create(conf, errstr);
if (!c)
Test::Fail("Failed to create KafkaConsumer: " + errstr);
delete conf;
/* Assign the partition */
std::vector<RdKafka::TopicPartition*> parts;
parts.push_back(RdKafka::TopicPartition::create(topic, partition,
RdKafka::Topic::OFFSET_BEGINNING));
err = c->assign(parts);
if (err != RdKafka::ERR_NO_ERROR)
Test::Fail("assign() failed: " + RdKafka::err2str(err));
RdKafka::TopicPartition::destroy(parts);
/* Start consuming */
int failures = 0;
for (int i = 0 ; i < msgcnt * 2 ; i += 2) {
RdKafka::Message *msg = c->consume(tmout_multip(5000));
if (msg->err())
Test::Fail(tostr() << "consume() failed at message " << (i/2) << ": " <<
msg->errstr());
/* verify key */
failures += check_equal(msgs[i], msg->key() ? msg->key()->c_str() : NULL, msg->key_len(),
tostr() << "message #" << (i/2) << " (offset " << msg->offset() << ") key");
/* verify key_pointer() API as too */
failures += check_equal(msgs[i], (const char *)msg->key_pointer(), msg->key_len(),
tostr() << "message #" << (i/2) << " (offset " << msg->offset() << ") key");
/* verify value */
failures += check_equal(msgs[i+1], (const char *)msg->payload(), msg->len(),
tostr() << "message #" << (i/2) << " (offset " << msg->offset() << ") value");
delete msg;
}
Test::Say(tostr() << "Done consuming, closing. " << failures << " test failures\n");
if (failures)
Test::Fail(tostr() << "See " << failures << " previous test failure(s)");
c->close();
delete c;
}
TEST_F(IntersectionsTest, FindLinesIntersectionTest) {
{
const point p0{1, 4}, p1{5, 6};
const point q0{4, 1}, q1{2, 9};
const point i{3, 5};
SCOPED_TRACE("First test");
check_equal(i, cpl::find_lines_intersection(p0, p1, q0, q1));
check_equal(i, cpl::find_lines_intersection(p0, p1, q1, q0));
check_equal(i, cpl::find_lines_intersection(p1, p0, q0, q1));
check_equal(i, cpl::find_lines_intersection(p1, p0, q1, q0));
}
const auto a = line{{-3, 1}, {4, 1}};
const auto b = line{{-1, -2}, {-1, 5}};
const auto c = line{{4, 4}, {1, 3}};
const auto d = line{{-2, 5}, {3, 0}};
check_equal(point(-1, 1), find_intersection(a, b));
check_equal(point(-5, 1), find_intersection(a, c));
check_equal(point(2, 1), find_intersection(a, d));
check_equal(point(-1, 1), find_intersection(b, a));
check_equal(point(-1, 7.0f / 3), find_intersection(b, c));
check_equal(point(-1, 4), find_intersection(b, d));
check_equal(point(-5, 1), find_intersection(c, a));
check_equal(point(-1, 7.0f / 3), find_intersection(c, b));
check_equal(point(0.25f, 2.75f), find_intersection(c, d));
check_equal(point(2, 1), find_intersection(d, a));
check_equal(point(-1, 4), find_intersection(d, b));
check_equal(point(0.25f, 2.75f), find_intersection(d, c));
}
int main()
{
test<input_iterator<const int*>, output_iterator<int*> >();
test<input_iterator<const int*>, forward_iterator<int*> >();
test<input_iterator<const int*>, bidirectional_iterator<int*> >();
test<input_iterator<const int*>, random_access_iterator<int*> >();
test<input_iterator<const int*>, int*>();
test<forward_iterator<const int*>, output_iterator<int*> >();
test<forward_iterator<const int*>, forward_iterator<int*> >();
test<forward_iterator<const int*>, bidirectional_iterator<int*> >();
test<forward_iterator<const int*>, random_access_iterator<int*> >();
test<forward_iterator<const int*>, int*>();
test<bidirectional_iterator<const int*>, output_iterator<int*> >();
test<bidirectional_iterator<const int*>, forward_iterator<int*> >();
test<bidirectional_iterator<const int*>, bidirectional_iterator<int*> >();
test<bidirectional_iterator<const int*>, random_access_iterator<int*> >();
test<bidirectional_iterator<const int*>, int*>();
test<random_access_iterator<const int*>, output_iterator<int*> >();
test<random_access_iterator<const int*>, forward_iterator<int*> >();
test<random_access_iterator<const int*>, bidirectional_iterator<int*> >();
test<random_access_iterator<const int*>, random_access_iterator<int*> >();
test<random_access_iterator<const int*>, int*>();
test<const int*, output_iterator<int*> >();
test<const int*, forward_iterator<int*> >();
test<const int*, bidirectional_iterator<int*> >();
test<const int*, random_access_iterator<int*> >();
test<const int*, int*>();
// Test projections:
{
S const ia[] = {{1,1},{2,2},{3,3},{3,4},{4,5},{5,6},{5,7},{5,8},{6,9},{7,10}};
S ib[ranges::size(ia)];
ranges::unique_copy_result<S const *, S *> r = ranges::unique_copy(ia, ib, ranges::equal_to(), &S::i);
CHECK(r.in == ranges::end(ia));
CHECK(r.out == ib + 7);
check_equal(ranges::make_subrange(ib, ib+7), {S{1,1},S{2,2},S{3,3},S{4,5},S{5,6},S{6,9},S{7,10}});
}
// Test rvalue ranges:
{
S const ia[] = {{1,1},{2,2},{3,3},{3,4},{4,5},{5,6},{5,7},{5,8},{6,9},{7,10}};
S ib[ranges::size(ia)];
auto r = ranges::unique_copy(ranges::view::all(ia), ib, ranges::equal_to(), &S::i);
CHECK(r.in == ranges::end(ia));
CHECK(r.out == ib + 7);
check_equal(ranges::make_subrange(ib, ib+7), {S{1,1},S{2,2},S{3,3},S{4,5},S{5,6},S{6,9},S{7,10}});
}
#ifndef RANGES_WORKAROUND_MSVC_573728
{
S const ia[] = {{1,1},{2,2},{3,3},{3,4},{4,5},{5,6},{5,7},{5,8},{6,9},{7,10}};
S ib[ranges::size(ia)];
auto r = ranges::unique_copy(std::move(ia), ib, ranges::equal_to(), &S::i);
CHECK(::is_dangling(r.in));
CHECK(r.out == ib + 7);
check_equal(ranges::make_subrange(ib, ib+7), {S{1,1},S{2,2},S{3,3},S{4,5},S{5,6},S{6,9},S{7,10}});
}
#endif // RANGES_WORKAROUND_MSVC_573728
{
std::vector<S> const ia{{1,1},{2,2},{3,3},{3,4},{4,5},{5,6},{5,7},{5,8},{6,9},{7,10}};
S ib[10];
RANGES_ENSURE(ranges::size(ia) == ranges::size(ib));
auto r = ranges::unique_copy(std::move(ia), ib, ranges::equal_to(), &S::i);
CHECK(::is_dangling(r.in));
CHECK(r.out == ib + 7);
check_equal(ranges::make_subrange(ib, ib+7), {S{1,1},S{2,2},S{3,3},S{4,5},S{5,6},S{6,9},S{7,10}});
}
return ::test_result();
}
int test_main(int argc, char *argv[]) {
//////////////////////////////////////////////////////////////////////////
//[> Parameters <]
//FIXME: use random sizes?
const size_t n = 100;
const size_t m = 50;
const size_t n_s = 60;
const size_t m_s = 30;
//////////////////////////////////////////////////////////////////////////
//[> Setup test <]
namespace mpi = boost::mpi;
El::Initialize(argc, argv);
mpi::environment env(argc, argv);
mpi::communicator world;
const size_t rank = world.rank();
MPI_Comm mpi_world(world);
El::Grid grid(mpi_world);
skylark::base::context_t context(0);
dense_vc_star_matrix_t A_vc(grid);
El::Uniform(A_vc, n, m);
El::Zero(A_vc);
sparse_vc_star_matrix_t A_sparse_vc(n, m, grid);
double count = 1.0;
for(int col = 0; col < A_vc.Width(); col++) {
for(int row = 0; row < A_vc.Height(); row++) {
A_vc.Update(row, col, count);
A_sparse_vc.queue_update(row, col, count);
count++;
}
}
A_sparse_vc.finalize();
// rowwise application
//dense_vc_star_matrix_t pi_sketch_r(grid);
//////////////////////////////////////////////////////////////////////////
//[> Column wise application DistSparseMatrix -> DistMatrix[VC/*] <]
typedef El::DistMatrix<double, El::VC, El::STAR> vcs_target_t;
//[> 1. Create the sketching matrix <]
test::util::hash_transform_test_t<sparse_vc_star_matrix_t, vcs_target_t>
SparseVC(n, n_s, context);
//[> 2. Create space for the sketched matrix <]
vcs_target_t sketch_A_vcs(n_s, m, grid);
El::Zero(sketch_A_vcs);
//[> 3. Apply the transform <]
SparseVC.apply(A_sparse_vc, sketch_A_vcs,
skylark::sketch::columnwise_tag());
//[> 4. Compute expected value using a GEMM <]
El::DistMatrix<double> Pi_mcmr(n_s, n, grid);
El::Zero(Pi_mcmr);
compute_sketch_matrix(SparseVC, Pi_mcmr);
El::DistMatrix<double> A_mcmr = A_vc;
El::DistMatrix<double> C(n_s, m, grid);
El::Gemm(El::NORMAL, El::NORMAL, 1.0, Pi_mcmr, A_mcmr, 0.0, C);
El::DistMatrix<double, El::STAR, El::STAR> expected_A(n_s, m, grid);
expected_A = C;
El::DistMatrix<double, El::STAR, El::STAR> sketched_A(n_s, m, grid);
sketched_A = sketch_A_vcs;
check_equal(expected_A, sketched_A);
#if 0
//////////////////////////////////////////////////////////////////////////
//[> Row wise application DistSparseMatrix -> DistMatrix[VC/*] <]
//[> 1. Create the sketching matrix <]
test::util::hash_transform_test_t<sparse_vc_star_matrix_t, vcs_target_t>
Sparse_r_vcs(m, m_s, context);
//[> 2. Create space for the sketched matrix <]
vcs_target_t sketch_A_r_vcs(n, m_s, grid);
El::Zero(sketch_A_r_vcs);
//[> 3. Apply the transform <]
Sparse_r_vcs.apply(A, sketch_A_r_vcs, skylark::sketch::rowwise_tag());
//[> 4. Build structure to compare <]
// easier to check if all processors own result
result = sketch_A_r_vcs;
pi_sketch_r.Transpose();
compute_sketch_matrix(Sparse_r_vcs, A, pi_sketch_r);
pi_sketch_r.Transpose();
expected_AR = Mult_AnXBn_Synch<PTDD, double, col_t>(
A, pi_sketch_r, false, false);
#endif
return 0;
}
TEST_FIXTURE(file_directory_test_base, directory_list_files_and_directories_with_prefix)
{
m_directory.create_if_not_exists(azure::storage::file_access_condition(), azure::storage::file_request_options(), m_context);
auto prefix = _XPLATSTR("t") + get_random_string(3);
auto dir_prefix = prefix + _XPLATSTR("dir");
auto file_prefix = prefix + _XPLATSTR("file");
auto exclude_prefix = _XPLATSTR("exclude");
std::vector<azure::storage::cloud_file_directory> directories;
std::vector<azure::storage::cloud_file> files;
for (int i = 0; i < get_random_int32() % 3 + 1; ++i)
{
auto subdirectory = m_directory.get_subdirectory_reference(dir_prefix + utility::conversions::print_string(i));
subdirectory.create();
directories.push_back(subdirectory);
auto file = m_directory.get_file_reference(file_prefix + utility::conversions::print_string(i));
file.create(1);
files.push_back(file);
m_directory.get_subdirectory_reference(exclude_prefix + utility::conversions::print_string(i)).create();
}
int num_items_expected = directories.size() + files.size();
int num_items_actual = 0;
for (auto&& item : m_directory.list_files_and_directories(prefix))
{
++num_items_actual;
if (item.is_directory())
{
auto actual = item.as_directory();
CHECK(actual.get_parent_share_reference().is_valid());
check_equal(m_share, actual.get_parent_share_reference());
auto it_found = std::find_if(directories.begin(), directories.end(), [&actual](const azure::storage::cloud_file_directory& expect)
{
return actual.name() == expect.name();
});
CHECK(it_found != directories.end());
check_equal(*it_found, actual);
directories.erase(it_found);
}
else if (item.is_file())
{
auto actual = item.as_file();
CHECK(actual.get_parent_share_reference().is_valid());
check_equal(m_share, actual.get_parent_share_reference());
auto it_found = std::find_if(files.begin(), files.end(), [&actual](const azure::storage::cloud_file& expect)
{
return actual.name() == expect.name();
});
CHECK(it_found != files.end());
check_equal(*it_found, actual);
files.erase(it_found);
}
}
CHECK_EQUAL(num_items_expected, num_items_actual);
CHECK(directories.empty());
CHECK(files.empty());
}
TEST_FIXTURE(file_directory_test_base, directory_list_files_and_directories)
{
m_directory.create_if_not_exists(azure::storage::file_access_condition(), azure::storage::file_request_options(), m_context);
azure::storage::list_file_and_diretory_result_iterator end_of_list;
for (auto iter = m_share.get_root_directory_reference().list_files_and_directories(); iter != end_of_list; ++iter)
{
CHECK_EQUAL(iter->is_directory(), true);
CHECK_EQUAL(iter->is_file(), false);
auto directory = iter->as_directory();
check_equal(directory, m_directory);
CHECK(directory.get_parent_share_reference().is_valid());
check_equal(m_share, directory.get_parent_share_reference());
CHECK(!directory.uri().primary_uri().is_empty());
CHECK(directory.metadata().empty());
CHECK(directory.properties().etag().empty());
CHECK(!directory.properties().last_modified().is_initialized());
}
// more complicated file structure.
const size_t size = 2;
std::vector<utility::string_t> directories;
std::vector<utility::string_t> files;
for (size_t i = 0; i < size; ++i)
{
directories.push_back(_XPLATSTR("directory") + get_random_string(10));
}
for (size_t i = 0; i < size; ++i)
{
files.push_back(_XPLATSTR("file") + get_random_string(10));
}
for (size_t i = 0; i < size; ++i)
{
auto directory = m_share.get_directory_reference(directories[i]);
directory.create_if_not_exists(azure::storage::file_access_condition(), azure::storage::file_request_options(), m_context);
for (size_t j = 0; j < size; ++j)
{
auto subdirectory = directory.get_subdirectory_reference(directories[j]);
subdirectory.create_if_not_exists(azure::storage::file_access_condition(), azure::storage::file_request_options(), m_context);
for (size_t k = 0; k < size; ++k)
{
auto file = subdirectory.get_file_reference(files[k]);
file.create_if_not_exists(512U, azure::storage::file_access_condition(), azure::storage::file_request_options(), m_context);
}
}
for (size_t j = 0; j < size; ++j)
{
auto file = directory.get_file_reference(files[j]);
file.create_if_not_exists(512U, azure::storage::file_access_condition(), azure::storage::file_request_options(), m_context);
}
auto file = m_share.get_root_directory_reference().get_file_reference(files[i]);
file.create_if_not_exists(512U, azure::storage::file_access_condition(), azure::storage::file_request_options(), m_context);
}
auto direcotries_one = directories;
auto files_one = files;
for (auto iter = m_share.get_root_directory_reference().list_files_and_directories(); iter != end_of_list; ++iter)
{
if (iter->is_directory())
{
auto directory2 = iter->as_directory();
CHECK(directory2.get_parent_share_reference().is_valid());
check_equal(m_share, directory2.get_parent_share_reference());
CHECK(!directory2.uri().primary_uri().is_empty());
CHECK(directory2.metadata().empty());
CHECK(directory2.properties().etag().empty());
CHECK(!directory2.properties().last_modified().is_initialized());
auto found = false;
for (auto directory_name = direcotries_one.begin(); directory_name != direcotries_one.end(); directory_name++)
{
if (*directory_name == directory2.name())
{
direcotries_one.erase(directory_name);
found = true;
break;
}
}
auto direcotries_two = directories;
auto files_two = files;
for (auto iter2 = directory2.list_files_and_directories(); found && iter2 != end_of_list; ++iter2)
{
if (iter2->is_directory())
{
auto directory3 = iter2->as_directory();
CHECK(directory3.get_parent_share_reference().is_valid());
check_equal(m_share, directory3.get_parent_share_reference());
CHECK(!directory3.uri().primary_uri().is_empty());
CHECK(directory3.metadata().empty());
CHECK(directory3.properties().etag().empty());
CHECK(!directory3.properties().last_modified().is_initialized());
for (auto directory_name = direcotries_two.begin(); directory_name != direcotries_two.end(); directory_name++)
{
if (*directory_name == directory3.name())
{
direcotries_two.erase(directory_name);
break;
}
}
auto files_three = files;
for (auto iter3 = directory3.list_files_and_directories(); iter3 != end_of_list; ++iter3)
{
CHECK(iter3->is_file());
auto file = iter3->as_file();
CHECK(file.get_parent_share_reference().is_valid());
check_equal(m_share, file.get_parent_share_reference());
CHECK(!file.uri().primary_uri().is_empty());
CHECK(file.metadata().empty());
CHECK(file.properties().etag().empty());
CHECK(!file.properties().last_modified().is_initialized());
for (auto file_name = files_three.begin(); file_name != files_three.end(); file_name++)
{
if (*file_name == file.name())
{
files_three.erase(file_name);
break;
}
}
}
CHECK(files_three.empty());
}
else if (iter2->is_file())
{
auto file = iter2->as_file();
CHECK(file.get_parent_share_reference().is_valid());
check_equal(m_share, file.get_parent_share_reference());
CHECK(!file.uri().primary_uri().is_empty());
CHECK(file.metadata().empty());
CHECK(file.properties().etag().empty());
CHECK(!file.properties().last_modified().is_initialized());
for (auto file_name = files_two.begin(); file_name != files_two.end(); file_name++)
{
if (*file_name == file.name())
{
files_two.erase(file_name);
break;
}
}
}
}
CHECK(!found || direcotries_two.empty());
CHECK(!found || files_two.empty());
}
else if (iter->is_file())
{
auto file = iter->as_file();
CHECK(file.get_parent_share_reference().is_valid());
check_equal(m_share, file.get_parent_share_reference());
CHECK(!file.uri().primary_uri().is_empty());
CHECK(file.metadata().empty());
CHECK(file.properties().etag().empty());
CHECK(!file.properties().last_modified().is_initialized());
for (auto file_name = files_one.begin(); file_name != files_one.end(); file_name++)
{
if (*file_name == file.name())
{
files_one.erase(file_name);
break;
}
}
}
}
CHECK(direcotries_one.empty());
CHECK(files_one.empty());
}
void check_equal(const char* a, const std::string& b, const char* file, unsigned int line)
{
check_equal(a, b.c_str(), file, line);
}
int main()
{
// Test for constant generator functions
{
int i = 0, j = 1;
auto fib = view::generate([&]()->int{int tmp = i; i += j; std::swap(i, j); return tmp;});
CPP_assert(ranges::InputView<decltype(fib)>);
check_equal(fib | view::take_exactly(10), {0,1,1,2,3,5,8,13,21,34});
}
// Test for mutable-only generator functions
{
int i = 0, j = 1;
auto fib = view::generate([=]()mutable->int{int tmp = i; i += j; std::swap(i, j); return tmp;});
CPP_assert(ranges::InputView<decltype(fib)>);
check_equal(fib | view::take_exactly(10), {0,1,1,2,3,5,8,13,21,34});
// The generator cannot be called when it's const-qualified, so "fib const"
// does not model View.
CPP_assert(!ranges::View<decltype(fib) const>);
}
// Test for generator functions that return move-only types
// https://github.com/ericniebler/range-v3/issues/905
{
char str[] = "gi";
auto rng = view::generate([&]{str[0]++; return MoveOnlyString{str};}) | view::take_exactly(2);
auto i = rng.begin();
CHECK(bool(*i == MoveOnlyString{"hi"}));
CHECK(bool(*i == MoveOnlyString{"hi"}));
CHECK(bool(*rng.begin() == MoveOnlyString{"hi"}));
CHECK(bool(*rng.begin() == MoveOnlyString{"hi"}));
CPP_assert(ranges::InputView<decltype(rng)>);
check_equal(rng, {MoveOnlyString{"hi"}, MoveOnlyString{"ii"}});
static_assert(std::is_same<ranges::range_reference_t<decltype(rng)>, MoveOnlyString &&>::value, "");
}
// Test for generator functions that return internal references
// https://github.com/ericniebler/range-v3/issues/807
{
int i = 42;
auto rng = view::generate([i]{return &i;});
auto rng2 = std::move(rng);
auto it = rng2.begin();
auto p = *it;
auto p2 = *++it;
CHECK(p == p2);
}
// Test that we only call the function once for each dereferenceable position
// https://github.com/ericniebler/range-v3/issues/819
{
int i = 0;
auto rng = view::generate([&i]{return ++i;});
auto rng2 = std::move(rng);
auto it = rng2.begin();
CHECK(i == 0);
CHECK(*it == 1);
CHECK(i == 1);
++it;
CHECK(i == 1);
CHECK(*it == 2);
CHECK(i == 2);
}
return test_result();
}
void operator() ()
{
section("simple debruijn test based on the example data in the paper");
std::string test = "TACGTCGACGACT";
std::string alphabet = "$ACGT";
const char * i = test.c_str();
std::vector<std::string> kmers;
std::string kmer("$$$$");
while (*i)
{
// shift kmer to the left by one
kmer.erase(0,1);
// append the next nucleotide
kmer.push_back(*i);
// and store
kmers.push_back(kmer);
i++;
}
// and shift it once more and add the $
kmer.erase(0,1);
kmer.push_back('$');
kmers.push_back(kmer);
// build the graph!
debruijn_succinct db(4,alphabet,kmers.begin(),kmers.end());
// and .. test it
check_equal(5UL, db.forward(2), "forward(2)");
check_equal(2UL, db.backward(5), "backward(5)");
check_equal(7UL, db.backward(1), "backward(1)");
check_equal(3UL, db.backward(7), "backward(1)");
check_equal(db.no_node, db.backward(0), "backward(1)");
check_equal(2, db.outdegree(6), "outdegree(6)");
check_equal(1, db.outdegree(0), "outdegree(0)");
check_equal(12UL, db.forward(8), "forward(8)");
check_equal(10UL, db.outgoing(6,'T'), "outgoing(6,T)");
const unsigned long forward_expected[13] =
{
10, //0 $$$T -> $$TA
4, //1 CGAC -> GACT
5, //2 $TAC -> TACG-
8, //3 GACG -> ACGT
11, //4 GACT -> ACT$
8, //5 TACG- -> ACGT
9, //6 GTCG -> TCGA-
1, //7 ACGA -> CGAC
12, //8 ACGT -> CGTC
1, //9 TCGA -> CGAC
2, //10 $$TA -> $TAC
(unsigned long)-1,//11 ACT$ -> -1
6, //12 CGTC -> GTCG
};
for (int i = 0; i < 13;i ++)
check_equal(forward_expected[i], db.forward(i), "forward(i)");
check_equal(std::string("$$$"), db.label(0), "label(0)");
check_equal(std::string("CGA"), db.label(1), "label(1)");
check_equal(std::string("$TA"), db.label(2), "label(2)");
check_equal(std::string("GAC"), db.label(3), "label(3)");
check_equal(std::string("TAC"), db.label(4), "label(4)");
check_equal(std::string("GTC"), db.label(5), "label(5)");
check_equal(std::string("ACG"), db.label(6), "label(6)");
check_equal(std::string("TCG"), db.label(7), "label(7)");
check_equal(std::string("$$T"), db.label(8), "label(8)");
check_equal(std::string("ACT"), db.label(9), "label(9)");
check_equal(std::string("CGT"), db.label(10), "label(10)");
check_equal(0,db.indegree(0), "indegree(0)");
check_equal(2,db.indegree(1), "indegree(1)");
check_equal(2,db.indegree(6), "indegree(6)");
check_equal(1,db.indegree(2), "indegree(2)");
check_equal(4UL,db.incoming(6,'T'), "incoming(6,T)");
check_equal(11UL, db.num_nodes(), "num_nodes");
section("test succinct against basic debruijn");
debruijn_basic db_basic(4,kmers.begin(),kmers.end());
debruijn_comparer dc(db_basic,db,alphabet);
dc.run(this);
}
static int
mpfr_all_div (mpfr_ptr a, mpfr_srcptr b, mpfr_srcptr c, mpfr_rnd_t r)
{
mpfr_t a2;
unsigned int oldflags, newflags;
int inex, inex2;
oldflags = __gmpfr_flags;
inex = mpfr_div (a, b, c, r);
if (a == b || a == c)
return inex;
newflags = __gmpfr_flags;
mpfr_init2 (a2, MPFR_PREC (a));
if (mpfr_integer_p (b) && ! (MPFR_IS_ZERO (b) && MPFR_IS_NEG (b)))
{
/* b is an integer, but not -0 (-0 is rejected as
it becomes +0 when converted to an integer). */
if (mpfr_fits_ulong_p (b, MPFR_RNDA))
{
__gmpfr_flags = oldflags;
inex2 = mpfr_ui_div (a2, mpfr_get_ui (b, MPFR_RNDN), c, r);
MPFR_ASSERTN (SAME_SIGN (inex2, inex));
MPFR_ASSERTN (__gmpfr_flags == newflags);
check_equal (a, a2, "mpfr_ui_div", b, c, r);
}
if (mpfr_fits_slong_p (b, MPFR_RNDA))
{
__gmpfr_flags = oldflags;
inex2 = mpfr_si_div (a2, mpfr_get_si (b, MPFR_RNDN), c, r);
MPFR_ASSERTN (SAME_SIGN (inex2, inex));
MPFR_ASSERTN (__gmpfr_flags == newflags);
check_equal (a, a2, "mpfr_si_div", b, c, r);
}
}
if (mpfr_integer_p (c) && ! (MPFR_IS_ZERO (c) && MPFR_IS_NEG (c)))
{
/* c is an integer, but not -0 (-0 is rejected as
it becomes +0 when converted to an integer). */
if (mpfr_fits_ulong_p (c, MPFR_RNDA))
{
__gmpfr_flags = oldflags;
inex2 = mpfr_div_ui (a2, b, mpfr_get_ui (c, MPFR_RNDN), r);
MPFR_ASSERTN (SAME_SIGN (inex2, inex));
MPFR_ASSERTN (__gmpfr_flags == newflags);
check_equal (a, a2, "mpfr_div_ui", b, c, r);
}
if (mpfr_fits_slong_p (c, MPFR_RNDA))
{
__gmpfr_flags = oldflags;
inex2 = mpfr_div_si (a2, b, mpfr_get_si (c, MPFR_RNDN), r);
MPFR_ASSERTN (SAME_SIGN (inex2, inex));
MPFR_ASSERTN (__gmpfr_flags == newflags);
check_equal (a, a2, "mpfr_div_si", b, c, r);
}
}
mpfr_clear (a2);
return inex;
}
static void qobject_is_equal_dict_test(void)
{
Error *local_err = NULL;
QDict *dict_0, *dict_1, *dict_cloned;
QDict *dict_different_key, *dict_different_value, *dict_different_null_key;
QDict *dict_longer, *dict_shorter, *dict_nested;
QDict *dict_crumpled;
dict_0 = qdict_new();
dict_1 = qdict_new();
dict_different_key = qdict_new();
dict_different_value = qdict_new();
dict_different_null_key = qdict_new();
dict_longer = qdict_new();
dict_shorter = qdict_new();
dict_nested = qdict_new();
qdict_put_int(dict_0, "f.o", 1);
qdict_put_int(dict_0, "bar", 2);
qdict_put_int(dict_0, "baz", 3);
qdict_put_null(dict_0, "null");
qdict_put_int(dict_1, "f.o", 1);
qdict_put_int(dict_1, "bar", 2);
qdict_put_int(dict_1, "baz", 3);
qdict_put_null(dict_1, "null");
qdict_put_int(dict_different_key, "F.o", 1);
qdict_put_int(dict_different_key, "bar", 2);
qdict_put_int(dict_different_key, "baz", 3);
qdict_put_null(dict_different_key, "null");
qdict_put_int(dict_different_value, "f.o", 42);
qdict_put_int(dict_different_value, "bar", 2);
qdict_put_int(dict_different_value, "baz", 3);
qdict_put_null(dict_different_value, "null");
qdict_put_int(dict_different_null_key, "f.o", 1);
qdict_put_int(dict_different_null_key, "bar", 2);
qdict_put_int(dict_different_null_key, "baz", 3);
qdict_put_null(dict_different_null_key, "none");
qdict_put_int(dict_longer, "f.o", 1);
qdict_put_int(dict_longer, "bar", 2);
qdict_put_int(dict_longer, "baz", 3);
qdict_put_int(dict_longer, "xyz", 4);
qdict_put_null(dict_longer, "null");
qdict_put_int(dict_shorter, "f.o", 1);
qdict_put_int(dict_shorter, "bar", 2);
qdict_put_int(dict_shorter, "baz", 3);
qdict_put(dict_nested, "f", qdict_new());
qdict_put_int(qdict_get_qdict(dict_nested, "f"), "o", 1);
qdict_put_int(dict_nested, "bar", 2);
qdict_put_int(dict_nested, "baz", 3);
qdict_put_null(dict_nested, "null");
dict_cloned = qdict_clone_shallow(dict_0);
check_equal(dict_0, dict_1, dict_cloned);
check_unequal(dict_0, dict_different_key, dict_different_value,
dict_different_null_key, dict_longer, dict_shorter,
dict_nested);
dict_crumpled = qobject_to(QDict, qdict_crumple(dict_1, &local_err));
g_assert(!local_err);
check_equal(dict_crumpled, dict_nested);
qdict_flatten(dict_nested);
check_equal(dict_0, dict_nested);
/* Containing an NaN value will make this dict compare unequal to
* itself */
qdict_put(dict_0, "NaN", qnum_from_double(NAN));
g_assert(qobject_is_equal(QOBJECT(dict_0), QOBJECT(dict_0)) == false);
free_all(dict_0, dict_1, dict_cloned, dict_different_key,
dict_different_value, dict_different_null_key, dict_longer,
dict_shorter, dict_nested, dict_crumpled);
}
void check_equal( const std::string& A, const std::string& B, const char* sA, const char* sB, int line, const char* file )
{ check_equal( A.c_str(), B.c_str(), sA, sB, line, file); }
Type TypeCheck_::check_expression(AST_Expression e)
{
Type ct,t1,t2,t;
switch (e->expressionType()) {
case EXPBINOP:
{
AST_Expression_BinOp b = e->getAsBinOp();
return check_binop(b->left() , b->right() , b->binopType());
}
case EXPUMINUS:
{
AST_Expression_UMinus b = e->getAsUMinus();
t = check_expression(b->exp());
if ( check_equal(t , T("Integer")) or check_equal(t , T("Real")) ) return t;
throw "Type Error (3)";
}
case EXPOUTPUT :
{
AST_Expression_Output b = e->getAsOutput();
return check_expression(b->expressionList()->front() );
}
case EXPIF:
{
AST_Expression_If b = e->getAsIf();
ct = check_expression(b->condition() );
t1 = check_expression(b->then() );
t2 = check_expression(b->else_exp()); // Falta el elseIF
if ( !check_equal(ct, T("Boolean")) ) throw "Type Error (4)";
if ( !check_equal(t1,t2) ) throw "Type Error (5)";
return t1;
}
case EXPCALL:
{
// Añadir las funciones en la listaaaa de variables
AST_Expression_Call c = e->getAsCall();
if ( toStr(c->name()) == "sample" ) return T("Boolean");
if ( toStr(c->name()) == "pre" )
return check_expression(c->arguments()->front());
return T("Real");
}
case EXPCOMPREF:
{
AST_Expression_ComponentReference b = e->getAsComponentReference();
VarInfo tt = varEnv->lookup( toStr(b->names()->front()) );
if (tt == NULL) {
cerr << "Var:" << b->names()->front() << ":";
throw "Variable no existe (8)";
}
if (b->indexes()->front()->size() == 0)
return tt->type();
else {
Type t = tt->type();
AST_ExpressionListIterator exit;
foreach(exit , b->indexes()->front() )
if (t->getType() == TYARRAY)
t = t->getAsArray()->arrayOf();
else throw "Type Error (7)";
return t;
}
break;
}
case EXPDERIVATIVE:
return T("Real");
case EXPBOOLEAN:
return T("Boolean");
case EXPSTRING:
return T("String");
case EXPREAL:
return T("Real");
case EXPINTEGER:
return T("Integer");
case EXPBOOLEANNOT:
{
AST_Expression_BooleanNot b = e->getAsBooleanNot();
t = check_expression(b->exp());
if ( !check_equal(t, T("Boolean")) ) throw "Type Error (6)";
return t;
}
default:
throw "No implrementado aun! (check_expression)";
}
}