/** \brief function to test a ptr_t
*/
nunit_res_t ptr_testclass_t::ptr_counted(const nunit_testclass_ftor_t &testclass_ftor) throw()
{
// log to debug
KLOG_DBG("enter");
// create a ptr_counted_t
ptr_counted_t<const std::string> ptr1(nipmem_new std::string("hello world."));
// run some check on ptr1
NUNIT_ASSERT( ptr1.get_ptr() != NULL );
NUNIT_ASSERT( ptr1.count() == 1 );
NUNIT_ASSERT( *ptr1 == "hello world." );
// copy the ptr1 into ptr2 INSIDE bracket to ctor/dtor ptr2
{
ptr_counted_t<const std::string> ptr2(ptr1);
// run some check on ptr2
NUNIT_ASSERT( ptr2.get_ptr() == ptr1.get_ptr() );
NUNIT_ASSERT( ptr1.count() == 2 );
NUNIT_ASSERT( ptr2.count() == 2 );
NUNIT_ASSERT( *ptr2 == "hello world." );
}
// now that ptr2 has been destructed, ptr1.count() MUST be 1 again
NUNIT_ASSERT( ptr1.count() == 1 );
NUNIT_ASSERT( *ptr1 == "hello world." );
// return no error
return NUNIT_RES_OK;
}
void test_uni1()
{
constexpr int value = 101;
my::unique_ptr<int> ptr(value);
if (*ptr == value)
std::cout << "OK ";
else
std::cout << "KO ";
int *i(new int(value + value));
my::unique_ptr<int> ptr2(i);
delete i;
if (*ptr2 == value + value)
std::cout << "OK ";
else
std::cout << "KO ";
my::unique_ptr<int> ptr3(std::move(ptr));
if (*ptr3 == value)
std::cout << "OK ";
else
std::cout << "KO ";
if (!ptr.get())
std::cout << "OK ";
else
std::cout << "KO ";
std::cout << std::endl;
}
void TestSharedPointers(void)
{
shared_ptr<CPrintable> ptr1(new CPrintable("1")); // create object 1
shared_ptr<CPrintable> ptr2(new CPrintable("2")); // create object 2
ptr1 = ptr2; // destroy object 1
ptr2 = shared_ptr<CPrintable>(new CPrintable("3")); // used as a return value
ProcessObject(ptr1); // call a function
CPrintable o1("bad");
//ptr1 = &o1; // Syntax error! It's on the stack....
//
CPrintable *o2 = new CPrintable("bad2");
//ptr1 = o2; // Syntax error! Use the next line to do this...
ptr1 = shared_ptr<CPrintable>(o2);
// You can even use shared_ptr on ints!
shared_ptr<int> a(new int);
shared_ptr<int> b(new int);
*a = 5;
*b = 6;
const int *q = a.get(); // use this for reading in multithreaded code
// this is especially cool - you can also use it in lists.
std::list< shared_ptr<int> > intList;
std::list< shared_ptr<IPrintable> > printableList;
for (int i = 0; i<100; ++i)
{
intList.push_back(shared_ptr<int>(new int(rand())));
printableList.push_back(shared_ptr<IPrintable>(new CPrintable("list")));
}
}
void fit_smart_ptr_tests::test_case_get()
{
auto ptr1 = smart_make_shared<char>(45);
assert(ptr1.get() != nullptr);
fit_smart_ptr<char> ptr2(nullptr);
assert(ptr2.get() == nullptr);
fit_smart_ptr<char> ptr3(nullptr);
assert(ptr3.get() == nullptr);
auto ptr4(ptr1);
assert(ptr4.get() == ptr1.get());
ptr2 = ptr4;
assert(ptr2.get() == ptr4.get() && ptr4.get() == ptr1.get());
ptr3 = ptr1;
assert(ptr3.get() == ptr1.get());
*ptr1 = 123;
assert(ptr3.get() == ptr1.get());
ptr4 = nullptr;
assert(ptr4.get() == nullptr);
ptr3 = fit_smart_ptr<char>(nullptr);
assert(ptr3.get() == nullptr);
ptr1 = ptr2 = ptr3;
assert(ptr1.get() == nullptr);
assert(ptr2.get() == nullptr);
}
void smart_ptr_tests::test_case_get()
{
smart_ptr<char> ptr1(new char(45));
assert(ptr1.get() != nullptr);
smart_ptr<char> ptr2(nullptr);
assert(ptr2.get() == nullptr);
smart_ptr<char> ptr3(nullptr);
assert(ptr3.get() == nullptr);
auto ptr4(ptr1);
assert(ptr4.get() == ptr1.get());
ptr2 = ptr4;
assert(ptr2.get() == ptr4.get() && ptr4.get() == ptr1.get());
ptr3 = ptr1;
assert(ptr3.get() == ptr1.get());
*ptr1 = 123;
assert(ptr3.get() == ptr1.get());
ptr4 = nullptr;
assert(ptr4.get() == nullptr);
ptr3 = smart_ptr<char>(nullptr);
assert(ptr3.get() == nullptr);
ptr1 = ptr2 = ptr3;
assert(ptr1.get() == nullptr);
assert(ptr2.get() == nullptr);
}
void smart_ptr_tests::test_case_comparisions()
{
smart_ptr<char> ptr1(new char(45));
assert(ptr1 != nullptr);
smart_ptr<char> ptr2(nullptr);
assert(ptr2 == nullptr);
smart_ptr<char> ptr3(nullptr);
assert(ptr3 == nullptr);
auto ptr4 = ptr1;
assert(ptr4 == ptr1);
ptr2 = ptr4;
assert(ptr2 == ptr4 && ptr4 == ptr1);
ptr3 = ptr1;
assert(ptr3 == ptr1);
*ptr1 = 123;
assert(ptr3 == ptr1);
ptr4 = nullptr;
assert(ptr4 == nullptr);
ptr3 = smart_ptr<char>(nullptr);
assert(ptr3 == nullptr);
assert(nullptr != ptr1);
ptr1 = ptr2 = ptr3;
assert(ptr1 == nullptr);
assert(ptr2 == nullptr);
assert(nullptr == ptr1);
}
main()
{
MyClass t1;
MyClass t2;
MyDelegate ptr1( &t1, &MyClass::MyMethod );
MyDelegate ptr2( &t2, &MyClass::MyMethod );
int retval1, retval2;
retval1 = ptr1( "apples" );
retval2 = ptr2( "cherries" );
printf( "Object 1 returned %d, object 2 returned %d\n", retval1, retval2 );
return 0;
}
void smart_ptr_tests::test_case_copy_and_assignment()
{
smart_ptr<char> ptr1(new char(45));
assert(*ptr1 == 45);
smart_ptr<char> ptr2(nullptr);
smart_ptr<char> ptr3(nullptr);
auto ptr4(ptr1);
assert(*ptr4 == 45);
ptr2 = ptr4;
assert(*ptr2 == 45);
ptr3 = ptr1;
assert(*ptr3 == 45);
*ptr1 = 123;
assert(*ptr2 == 123);
ptr3 = ptr1;
assert(*ptr3 == 123);
// nullptr is r-value so move operator=
ptr4 = smart_ptr<char>(nullptr);
ptr4 = nullptr;
ptr3 = smart_ptr<char>(nullptr);
ptr1 = ptr2 = ptr3;
smart_ptr<const char> ptr5(new char(12));
ptr5 = ptr5 = ptr5;
assert(*ptr5 == 12);
}
argument
damp(EXTERNAL_ARG(ls1), EXTERNAL_ARG(ls2), EXTERNAL_ARG(fact))
{
DECLARE_ARG(ls1, float_list *);
DECLARE_ARG(ls2, float_list *);
DECLARE_ARG(fact, float_val);
float_list *ptr1((float_list*)ls1);
float_list *ptr2((float_list*)ls2);
float_list *nil(float_list::null_list());
if(float_list::is_null(ptr1) || float_list::is_null(ptr2)) {
RETURN_ARG(nil);
}
stack_float_list vals;
while(!float_list::is_null(ptr1) && !float_list::is_null(ptr2)) {
const float_val h1(ptr1->get_head());
const float_val h2(ptr2->get_head());
const float_val c(std::log(fact * std::exp(h2) +
(1.0 - fact) * std::exp(h1)));
vals.push(c);
ptr1 = ptr1->get_tail();
ptr2 = ptr2->get_tail();
}
float_list *ptr(from_stack_to_list<stack_float_list,float_list>(vals));
RETURN_ARG(ptr);
}
TEST_F(test_shared_ptr, allocated2x)
{
std::shared_ptr<double_and_int> ptr2(new double_and_int);
std::shared_ptr<double_and_int> ptr(ptr2);
EXPECT_EQ(ptr.use_count(), 2);
EXPECT_TRUE(ptr != NULL);
}
void fit_smart_ptr_tests::test_case_copy_and_assignment()
{
auto ptr1 = smart_make_shared<char>(45);
assert(*ptr1 == 45);
assert(ptr1.use_count() == 1);
fit_smart_ptr<char> ptr2(nullptr);
fit_smart_ptr<char> ptr3(nullptr);
auto ptr4(ptr1);
assert(*ptr4 == 45);
assert(ptr4.use_count() == 2);
assert(ptr1.use_count() == 2);
ptr2 = ptr4;
assert(*ptr2 == 45);
ptr3 = ptr1;
assert(*ptr3 == 45);
*ptr1 = 123;
assert(*ptr2 == 123);
ptr3 = ptr1;
assert(*ptr3 == 123);
// nullptr is r-value so move operator=
ptr4 = fit_smart_ptr<char>(nullptr);
ptr4 = nullptr;
ptr3 = fit_smart_ptr<char>(nullptr);
ptr1 = ptr2 = ptr3;
fit_smart_ptr<char> ptr5 = smart_make_shared<char>(12);
ptr5 = ptr5 = ptr5;
assert(*ptr5 == 12);
}
TEST_F(test_shared_ptr, default_constructor_NULL)
{
std::shared_ptr<double_and_int> ptr2(NULL);
std::shared_ptr<double_and_int> ptr(ptr2);
EXPECT_EQ(ptr.use_count(), 0);
EXPECT_TRUE(ptr == NULL);
}
void fit_smart_ptr_tests::test_case_comparisions()
{
auto ptr1 = smart_make_shared<char>(45);
assert(ptr1 != nullptr);
fit_smart_ptr<char> ptr2(nullptr);
assert(ptr2 == nullptr);
fit_smart_ptr<char> ptr3(nullptr);
assert(ptr3 == nullptr);
auto ptr4 = ptr1;
assert(ptr4 == ptr1);
ptr2 = ptr4;
assert(ptr2 == ptr4 && ptr4 == ptr1);
ptr3 = ptr1;
assert(ptr3 == ptr1);
*ptr1 = 123;
assert(ptr3 == ptr1);
ptr4 = nullptr;
assert(ptr4 == nullptr);
ptr3 = fit_smart_ptr<char>(nullptr);
assert(ptr3 == nullptr);
assert(nullptr != ptr1);
ptr1 = ptr2 = ptr3;
assert(ptr1 == nullptr);
assert(ptr2 == nullptr);
assert(nullptr == ptr1);
}
/**
This function is used for collated/folded string comparisons,
{aByteSize1, aPtr1} - string 1, UTF16 encoded. aByteSize1 - length in bytes.
{aByteSize2, aPtr2} - string 2, UTF16 encoded. aByteSize2 - length in bytes.
aLevel - 0,1,2,3 - collation level; -1 - folded string comparison;
The function returns negative, zero or positive if the first string is less than, equal to, or
greater than the second string.
@internalComponent
*/
static TInt Compare(TInt aLevel, TInt aByteSize1, const void* aPtr1, TInt aByteSize2, const void* aPtr2)
{
TPtrC16 ptr1(static_cast <const TUint16*> (aPtr1), (TUint)aByteSize1 /sizeof(TUint16));
TPtrC16 ptr2(static_cast <const TUint16*> (aPtr2), (TUint)aByteSize2 /sizeof(TUint16));
return aLevel >= 0 ? ptr1.CompareC(ptr2, aLevel, NULL) : ptr1.CompareF(ptr2);
}
void testObj::test<11>(void)
{
PointerWrapper<Data*> ptr(sp_);
PointerWrapper<Data*> ptr1(ptr);
PointerWrapper<const Data*> ptr2(ptr);
}
TEST_F(test_shared_ptr, equals)
{
std::shared_ptr<double_and_int> ptr2(new double_and_int);
std::shared_ptr<double_and_int> ptr(ptr2);
ptr->x = 2.0;
EXPECT_DOUBLE_EQ(ptr->x, ptr2->x);
}
int main () {
int num = 10;
SmartPointer<int> ptr1(&num);
SmartPointer<int> ptr2(ptr1);
SmartPointer<int> ptr3 = ptr2;
std::cout << num << std::endl;
std::cout << ptr1 << std::endl;
return 0;
}
/**
Returns true if the contents of aBmp1 match the contents of aBmp2
*/
TBool CTestContainer::CompareBitmapsL(CFbsBitmap* aBmp1, CFbsBitmap* aBmp2)
{
if (aBmp1 == NULL || aBmp2 == NULL)
{
return EFalse;
}
TInt width = aBmp1->SizeInPixels().iWidth;
TInt height = aBmp1->SizeInPixels().iHeight;
if (aBmp1->DisplayMode() == aBmp2->DisplayMode())
{
TInt lineLen = CFbsBitmap::ScanLineLength(width,aBmp1->DisplayMode());
HBufC8* buf1 = HBufC8::NewMaxLC(lineLen);
HBufC8* buf2 = HBufC8::NewMaxLC(lineLen);
TPtr8 ptr1(buf1->Des());
TPtr8 ptr2(buf2->Des());
TInt row = 0;
for (row = 0; row < height; ++row)
{
aBmp1->GetScanLine(ptr1,TPoint(0,row),width,aBmp1->DisplayMode());
aBmp2->GetScanLine(ptr2,TPoint(0,row),width,aBmp2->DisplayMode());
if (ptr1!=ptr2)
{
CleanupStack::PopAndDestroy(buf2);
CleanupStack::PopAndDestroy(buf1);
return EFalse;
}
}
CleanupStack::PopAndDestroy(buf2);
CleanupStack::PopAndDestroy(buf1);
}
else
{
TRgb p1(0,0,0);
TRgb p2(0,0,0);
TInt i = 0;
for(i = 0; i < width; i++)
{
TInt j = 0;
for(j = 0; j < height; j++)
{
aBmp1->GetPixel(p1, TPoint(i, j));
aBmp2->GetPixel(p2, TPoint(i, j));
if(p1 != p2)
{
return EFalse;
}
}
}
}
return ETrue;
}
void testObj::test<10>(void)
{
PointerWrapper< boost::shared_ptr<Data> > ptr(sp_);
PointerWrapper< boost::shared_ptr<Data> > ptr1(ptr);
PointerWrapper< boost::shared_ptr<const Data> > ptr2(ptr);
PointerWrapper<Data*> ptr3(ptr);
PointerWrapper<const Data*> ptr4(ptr);
}
TEST_F(test_shared_ptr, move)
{
std::shared_ptr<double_and_int> ptr2(new double_and_int);
ptr2->x = 2.0;
std::shared_ptr<double_and_int> ptr(std::move(ptr2));
EXPECT_TRUE(ptr2 == NULL);
EXPECT_EQ(ptr2.use_count(), 0);
EXPECT_EQ(ptr.use_count(), 1);
EXPECT_DOUBLE_EQ(ptr->x, 2.0);
}
int main(int argc, char **argv)
{
void *ptr1;
void (*ptr2)(void);
ptr1 = malloc(64);
ptr2 = malloc(4);
ptr2 = m;
strcpy(malloc1, argv[1]);
ptr2();
}
void FONA808::readGPSInfo(){
DEBUG_PRINT("ReadGPS\n");
if(m_ppp.isPPPLinkOpen()){
mSerial.setPppPause(true);
mbed::util::FunctionPointer0<void> ptr(this, &FONA808::readGPSInfoFirst);
minar::Scheduler::postCallback(ptr.bind()).delay(minar::milliseconds(2000));
}
else{
mbed::util::FunctionPointer0<void> ptr2(this, &FONA808::readGPSInfoSecond);
minar::Scheduler::postCallback(ptr2.bind());
}
}
void study_unique() {
// shared
std::shared_ptr<Base> ptr1(new Base(), delResource);
{
std::unique_ptr<Base, void(*)(Base*)> ptr1(new Base(), delResource);
std::unique_ptr<Base> ptr2(new Base());
std::unique_ptr<Base> ptr3 = std::move(ptr2);
std::cout << sizeof(ptr1) << "," << sizeof(ptr2) << std::endl;
}
std::cout << "unique_ptr" << std::endl;
}
void testObj::test<9>(void)
{
PointerWrapper< Commons::SharedPtrNotNULL<Data> > ptr(spnn_);
PointerWrapper< Commons::SharedPtrNotNULL<Data> > ptr1(ptr);
PointerWrapper< Commons::SharedPtrNotNULL<const Data> > ptr2(ptr);
PointerWrapper< boost::shared_ptr<Data> > ptr3(ptr);
PointerWrapper< boost::shared_ptr<const Data> > ptr4(ptr);
PointerWrapper<Data*> ptr5(ptr);
PointerWrapper<const Data*> ptr6(ptr);
}
int main()
{
struct Complex (*ptr1)(int, int);
ptr1 = make_Complex;
struct Complex c = ptr1(2,5);
struct Complex d = ptr1(3,6);
struct Complex (*ptr2)(struct Complex, struct Complex);
ptr2 = add;
//print_Complex(ptr2(c, d));
struct Complex (*ptr[2])(int, int);
ptr[0] = make_Complex;
ptr[1] = make_Complex;
print_Complex(ptr2(ptr[0](2,0), ptr[1](-2,0)));
return 0;
}
TEST(fxcrt, RetainPtrCopyCtor) {
PseudoRetainable obj;
{
CFX_RetainPtr<PseudoRetainable> ptr1(&obj);
{
CFX_RetainPtr<PseudoRetainable> ptr2(ptr1);
EXPECT_EQ(2, obj.retain_count());
EXPECT_EQ(0, obj.release_count());
}
EXPECT_EQ(2, obj.retain_count());
EXPECT_EQ(1, obj.release_count());
}
EXPECT_EQ(2, obj.retain_count());
EXPECT_EQ(2, obj.release_count());
}
TEST(fxcrt, RetainPtrMoveCtor) {
PseudoRetainable obj;
{
CFX_RetainPtr<PseudoRetainable> ptr1(&obj);
{
CFX_RetainPtr<PseudoRetainable> ptr2(std::move(ptr1));
EXPECT_EQ(1, obj.retain_count());
EXPECT_EQ(0, obj.release_count());
}
EXPECT_EQ(1, obj.retain_count());
EXPECT_EQ(1, obj.release_count());
}
EXPECT_EQ(1, obj.retain_count());
EXPECT_EQ(1, obj.release_count());
}
TEST(fxcrt, WeakPtrCyclic) {
PseudoDeletable thing1;
PseudoDeletable thing2;
{
UniquePtr unique1(&thing1);
UniquePtr unique2(&thing2);
WeakPtr ptr1(std::move(unique1));
WeakPtr ptr2(std::move(unique2));
ptr1->SetNext(ptr2);
ptr2->SetNext(ptr1);
}
// Leaks without explicit clear.
EXPECT_EQ(0, thing1.delete_count());
EXPECT_EQ(0, thing2.delete_count());
}
void smart_ptr_tests::test_case_use_count()
{
smart_ptr<char> ptr1(new char(45));
assert(ptr1.use_count() == 1);
smart_ptr<char> ptr2(nullptr);
smart_ptr<char> ptr3(nullptr);
auto ptr4(ptr1);
assert(ptr4.use_count() == 2);
assert(ptr3.use_count() == 0);
assert(ptr2.use_count() == 0);
assert(ptr1.use_count() == 2);
ptr2 = ptr4;
assert(ptr4.use_count() == 3);
assert(ptr3.use_count() == 0);
assert(ptr2.use_count() == 3);
assert(ptr1.use_count() == 3);
ptr3 = ptr1;
assert(ptr3.use_count() == 4);
assert(ptr4.use_count() == 4);
assert(ptr2.use_count() == 4);
assert(ptr1.use_count() == 4);
*ptr1 = 123;
assert(ptr3.use_count() == 4);
assert(ptr4.use_count() == 4);
assert(ptr2.use_count() == 4);
assert(ptr1.use_count() == 4);
// testing overloading for nullptr
ptr4 = nullptr;
assert(ptr4.use_count() == 0);
assert(ptr3.use_count() == 3);
assert(ptr2.use_count() == 3);
assert(ptr1.use_count() == 3);
// NULL is r-value so move operator=
ptr3 = smart_ptr<char>(nullptr);
assert(ptr4.use_count() == 0);
assert(ptr3.use_count() == 0);
assert(ptr2.use_count() == 2);
assert(ptr1.use_count() == 2);
ptr1 = ptr2 = ptr3;
assert(ptr4.use_count() == 0);
assert(ptr3.use_count() == 0);
assert(ptr2.use_count() == 0);
assert(ptr1.use_count() == 0);
}
int main(int argc, char *argv[])
{
QCoreApplication a(argc, argv);
QSharedPointer<Custom> ptr1 = QSharedPointer<Custom>(new Custom(10));
QSharedPointer<Custom> ptr2(ptr1);
ptr2->updateValue(5);
QSharedPointer<Custom> ptr3 = ptr2;
ptr3->updateValue(10);
ptr1->showValue();
ptr2->showValue();
ptr3->showValue();
return a.exec();
}
