void Test1(TUint32 aInt, TInt aDivisorExp)
{
TRealX realx;
SRatio r0x;
SRatio r0;
SRatio r1x;
SRatio r1;
TInt r;
test.Printf(_L("Test1 %08x %d\n"), aInt, aDivisorExp);
r = RatioSetValue(realx, aInt, aDivisorExp);
test_KErrNone(r);
r = RealToRatio(r0x, realx);
test_KErrNone(r);
r = Driver.RatioSet(r0, aInt, aDivisorExp);
RatioPrint2("R0X,R0", r0x, r0);
TestEqual(r0, r0x);
Test1M(r0);
r1x = r0x;
r = RatioReciprocal(r1x);
test_KErrNone(r);
r1 = r0;
r = Driver.RatioReciprocal(r1);
test_KErrNone(r);
RatioPrint2("R1X,R1", r1x, r1);
TestEqual(r1, r1x);
Test1M(r1);
}
bool FCircularBufferTest::RunTest( const FString& Parameters )
{
// buffer capacity
TCircularBuffer<int32> b1_1(127);
TCircularBuffer<int32> b1_2(128);
TCircularBuffer<int32> b1_3(129);
TestEqual(TEXT("Buffer capacity of 127 must be rounded up to 128"), b1_1.Capacity(), 128u);
TestEqual(TEXT("Buffer capacity of 128 must not change"), b1_2.Capacity(), 128u);
TestEqual(TEXT("Buffer capacity of 129 must be rounded up to 256"), b1_3.Capacity(), 256u);
// initial values
TCircularBuffer<int32> b2_1(64, 666);
for (uint32 Index = 0; Index < b2_1.Capacity(); ++Index)
{
TestEqual(FString::Printf(TEXT("Initial value must be correct (%i)"), Index), b2_1[Index], 666);
}
// indexing
TCircularBuffer<int32> b3_1(64, 0);
TestEqual(TEXT("Next index from 0 must be 1"), b3_1.GetNextIndex(0), 1u);
TestEqual(TEXT("Next index from 63 must be 0"), b3_1.GetNextIndex(63), 0u);
TestEqual(TEXT("Next index from 64 must be 1"), b3_1.GetNextIndex(64), 1u);
b3_1[0] = 42;
b3_1[65] = 42;
TestEqual(TEXT("Index 0 must be written and read correctly"), b3_1[0], 42);
TestEqual(TEXT("Index 1 must be written and read correctly"), b3_1[1], 42);
TestEqual(TEXT("Index 65 must be written and read correctly"), b3_1[65], 42);
return true;
}
void Test_ManaBuff()
{
const float BuffValue = 30.f;
const float StartingMana = DestComponent->GetSet<UAbilitySystemTestAttributeSet>()->Mana;
FActiveGameplayEffectHandle BuffHandle;
// apply the buff
{
CONSTRUCT_CLASS(UGameplayEffect, DamageBuffEffect);
AddModifier(DamageBuffEffect, GET_FIELD_CHECKED(UAbilitySystemTestAttributeSet, Mana), EGameplayModOp::Additive, FScalableFloat(BuffValue));
DamageBuffEffect->DurationPolicy = EGameplayEffectDurationType::Infinite;
BuffHandle = SourceComponent->ApplyGameplayEffectToTarget(DamageBuffEffect, DestComponent, 1.f);
}
// check that the value changed
TestEqual(SKILL_TEST_TEXT("Mana Buffed"), DestComponent->GetSet<UAbilitySystemTestAttributeSet>()->Mana, StartingMana + BuffValue);
// remove the effect
{
DestComponent->RemoveActiveGameplayEffect(BuffHandle);
}
// check that the value changed back
TestEqual(SKILL_TEST_TEXT("Mana Restored"), DestComponent->GetSet<UAbilitySystemTestAttributeSet>()->Mana, StartingMana);
}
bool FCircularQueueTest::RunTest( const FString& Parameters )
{
const uint32 QueueSize = 8;
// empty queue
{
TCircularQueue<int32> Queue(QueueSize);
TestTrue(TEXT("Newly created queues must be empty"), Queue.IsEmpty());
TestFalse(TEXT("Newly created queues must not be full"), Queue.IsFull());
}
// partially filled
{
TCircularQueue<int32> Queue(QueueSize);
int32 Value;
TestTrue(TEXT("Adding to an empty queue must succeed"), Queue.Enqueue(666));
TestFalse(TEXT("Partially filled queues must not be empty"), Queue.IsEmpty());
TestFalse(TEXT("Partially filled queues must not be full"), Queue.IsFull());
TestTrue(TEXT("Peeking at a partially filled queue must succeed"), Queue.Peek(Value));
}
// full queue
{
TCircularQueue<int32> Queue(QueueSize);
for (int32 Index = 0; Index < QueueSize - 1; ++Index)
{
TestTrue(TEXT("Adding to non-full queue must succeed"), Queue.Enqueue(Index));
}
TestFalse(TEXT("Full queues must not be empty"), Queue.IsEmpty());
TestTrue(TEXT("Full queues must be full"), Queue.IsFull());
TestFalse(TEXT("Adding to full queue must fail"), Queue.Enqueue(666));
int32 Value;
for (int32 Index = 0; Index < QueueSize - 1; ++Index)
{
TestTrue(TEXT("Peeking at a none-empty queue must succeed"), Queue.Peek(Value));
TestEqual(TEXT("The peeked at value must be correct"), Value, Index);
TestTrue(TEXT("Removing from a non-empty queue must succeed"), Queue.Dequeue(Value));
TestEqual(TEXT("The removed value must be correct"), Value, Index);
}
TestTrue(TEXT("A queue that had all items removed must be empty"), Queue.IsEmpty());
TestFalse(TEXT("A queue that had all items removed must not be full"), Queue.IsFull());
}
return true;
}
void Test_PeriodicDamage()
{
const int32 NumPeriods = 10;
const float PeriodSecs = 1.0f;
const float DamagePerPeriod = 5.f;
const float StartingHealth = DestComponent->GetSet<UAbilitySystemTestAttributeSet>()->Health;
// just try and reduce the health attribute
{
CONSTRUCT_CLASS(UGameplayEffect, BaseDmgEffect);
AddModifier(BaseDmgEffect, GET_FIELD_CHECKED(UAbilitySystemTestAttributeSet, Health), EGameplayModOp::Additive, FScalableFloat(-DamagePerPeriod));
BaseDmgEffect->DurationPolicy = EGameplayEffectDurationType::HasDuration;
BaseDmgEffect->DurationMagnitude = FGameplayEffectModifierMagnitude(FScalableFloat(NumPeriods * PeriodSecs));
BaseDmgEffect->Period.Value = PeriodSecs;
SourceComponent->ApplyGameplayEffectToTarget(BaseDmgEffect, DestComponent, 1.f);
}
int32 NumApplications = 0;
// Tick a small number to verify the application tick
TickWorld(SMALL_NUMBER);
++NumApplications;
TestEqual(SKILL_TEST_TEXT("Health Reduced"), DestComponent->GetSet<UAbilitySystemTestAttributeSet>()->Health, StartingHealth - (DamagePerPeriod * NumApplications));
// Tick a bit more to address possible floating point issues
TickWorld(PeriodSecs * .1f);
for (int32 i = 0; i < NumPeriods; ++i)
{
// advance time by one period
TickWorld(PeriodSecs);
++NumApplications;
// check that health has been reduced
TestEqual(SKILL_TEST_TEXT("Health Reduced"), DestComponent->GetSet<UAbilitySystemTestAttributeSet>()->Health, StartingHealth - (DamagePerPeriod * NumApplications));
}
// advance time by one extra period
TickWorld(PeriodSecs);
// should not have reduced further
TestEqual(SKILL_TEST_TEXT("Health Reduced"), DestComponent->GetSet<UAbilitySystemTestAttributeSet>()->Health, StartingHealth - (DamagePerPeriod * NumApplications));
// TODO: test that the effect is no longer applied
}
const char* MockOLED::drawGeneralMock(String stringToPrint,MockOLED& obj) {
const char* conversion;
const char* smaller;
conversion = stringToPrint.c_str();
int printed = obj.MockPrintToOLED (conversion); //There's an interior method here that interacts with the OLED
TestEqual ("drawGeneralPrintCheck", printed, 1 );
return conversion;
}
void Test_InstantDamageRemap()
{
const float DamageValue = 5.f;
const float StartingHealth = DestComponent->GetSet<UAbilitySystemTestAttributeSet>()->Health;
// This is the same as GameplayEffectsTest_InstantDamage but modifies the Damage attribute and confirms it is remapped to -Health by UAbilitySystemTestAttributeSet::PostAttributeModify
{
CONSTRUCT_CLASS(UGameplayEffect, BaseDmgEffect);
AddModifier(BaseDmgEffect, GET_FIELD_CHECKED(UAbilitySystemTestAttributeSet, Damage), EGameplayModOp::Additive, FScalableFloat(DamageValue));
BaseDmgEffect->DurationPolicy = EGameplayEffectDurationType::Instant;
SourceComponent->ApplyGameplayEffectToTarget(BaseDmgEffect, DestComponent, 1.f);
}
// Now we should have lost some health
TestEqual(SKILL_TEST_TEXT("Health Reduced"), DestComponent->GetSet<UAbilitySystemTestAttributeSet>()->Health, StartingHealth - DamageValue);
// Confirm the damage attribute itself was reset to 0 when it was applied to health
TestEqual(SKILL_TEST_TEXT("Damage Applied"), DestComponent->GetSet<UAbilitySystemTestAttributeSet>()->Damage, 0.f);
}
void MockSDBeacon::writeToSD (String writeThisString, String fileName, MockSdFat& SD, MockFile& myFile) { //No good way to sensibly shorten
const char* conversion = fileName.c_str();
String printedThis;
//Serial.println (conversion);
//myFile = SD.open(conversion);
if (myFile.available()) {
printedThis = myFile.println(writeThisString);
myFile.close();
}
else {
Serial.println(F("error opening example.txt"));
}
TestEqual ("writeToSD", printedThis, writeThisString);
}
int main(int argc, const char * argv[]) {
auto obj = std::make_shared<HandShaking>();
TestEqual(obj->countPerfect(2), 1);
TestEqual(obj->countPerfect(4), 2);
TestEqual(obj->countPerfect(6), 5);
TestEqual(obj->countPerfect(8), 14);
TestEqual(obj->countPerfect(10), 42);
TestEqual(obj->countPerfect(16), 1430);
return 0;
}
void Test_InstantDamage()
{
const float DamageValue = 5.f;
const float StartingHealth = DestComponent->GetSet<UAbilitySystemTestAttributeSet>()->Health;
// just try and reduce the health attribute
{
CONSTRUCT_CLASS(UGameplayEffect, BaseDmgEffect);
AddModifier(BaseDmgEffect, GET_FIELD_CHECKED(UAbilitySystemTestAttributeSet, Health), EGameplayModOp::Additive, FScalableFloat(-DamageValue));
BaseDmgEffect->DurationPolicy = EGameplayEffectDurationType::Instant;
SourceComponent->ApplyGameplayEffectToTarget(BaseDmgEffect, DestComponent, 1.f);
}
// make sure health was reduced
TestEqual(SKILL_TEST_TEXT("Health Reduced"), DestComponent->GetSet<UAbilitySystemTestAttributeSet>()->Health, StartingHealth - DamageValue);
}
bool FIntSerializationTest::RunTest (const FString& Parameters)
{
//Create object for serialization
//UIntSerialization SerializableObject;
//SerializableObject->
auto SerializableObject = NewObject<UIntSerialization>();
SerializableObject->UnsignedInt8Variable = 255U;
SerializableObject->UnsignedInt16Variable = 65535U;
SerializableObject->UnsignedInt32Variable = 4294967295U;
SerializableObject->UnsignedInt64Variable = 18446744073709551615U;
SerializableObject->SignedInt8Variable = -128;
SerializableObject->SignedInt16Variable = -32768;
SerializableObject->SignedInt32Variable = 2147483647 ;
SerializableObject->SignedInt64Variable = 9223372036854775807;
//Serialize object
//FArchive
//FMemoryWriter SerializedData = new FMemoryWriter(;
TArray<uint8> SaveData;
FMemoryWriter OutAr(SaveData, true);
SerializableObject->Serialize(OutAr);
//Deserialize into new object
FMemoryReader InAr(SaveData, true);
auto DeSerializableObject = NewObject<UIntSerialization>();
DeSerializableObject->Serialize(InAr);
//Compare test
TestEqual(TEXT("int8 serialised and deserialised incorrectly"), SerializableObject->SignedInt8Variable, DeSerializableObject->SignedInt8Variable);
TestEqual(TEXT("int16 serialised and deserialised incorrectly"), SerializableObject->SignedInt16Variable, DeSerializableObject->SignedInt16Variable);
TestEqual(TEXT("int32 serialised and deserialised incorrectly"), SerializableObject->SignedInt32Variable, DeSerializableObject->SignedInt32Variable);
TestEqual(TEXT("int64 serialised and deserialised incorrectly"), SerializableObject->SignedInt64Variable, DeSerializableObject->SignedInt64Variable);
TestEqual(TEXT("uint8 serialised and deserialised incorrectly"), SerializableObject->UnsignedInt8Variable, DeSerializableObject->UnsignedInt8Variable);
TestEqual(TEXT("uint16 serialised and deserialised incorrectly"), SerializableObject->UnsignedInt16Variable, DeSerializableObject->UnsignedInt16Variable);
TestEqual(TEXT("uint32 serialised and deserialised incorrectly"), SerializableObject->UnsignedInt32Variable, DeSerializableObject->UnsignedInt32Variable);
TestEqual(TEXT("uint64 serialised and deserialised incorrectly"), SerializableObject->UnsignedInt64Variable, DeSerializableObject->UnsignedInt64Variable);
return true;
}
bool FLocContextTest::RunTest( const FString& Parameters )
{
// Key metadata
TSharedPtr< FLocMetadataObject > KeyMetadataA = MakeShareable( new FLocMetadataObject );
TSharedPtr< FLocMetadataObject > KeyMetadataB = MakeShareable( new FLocMetadataObject );
// Info metadata
TSharedPtr< FLocMetadataObject > InfoMetadataA = MakeShareable( new FLocMetadataObject );
TSharedPtr< FLocMetadataObject > InfoMetadataB = MakeShareable( new FLocMetadataObject );
// Source metadata
TSharedPtr< FLocMetadataObject > SourceMetadataA = MakeShareable( new FLocMetadataObject );
TSharedPtr< FLocMetadataObject > SourceMetadataB = MakeShareable( new FLocMetadataObject );
// Setup KeyMetadataA
KeyMetadataA->SetStringField( TEXT("Gender" ), TEXT("Masculine") );
KeyMetadataA->SetStringField( TEXT("Plurality" ), TEXT("Singular") );
KeyMetadataA->SetStringField( TEXT("TargetGender" ), TEXT("Masculine") );
KeyMetadataA->SetStringField( TEXT("TargetPlurality"), TEXT("Singular") );
// Setup KeyMetadataB
KeyMetadataB->SetStringField( TEXT("Gender" ), TEXT("Masculine") );
KeyMetadataB->SetStringField( TEXT("Plurality" ), TEXT("Singular") );
KeyMetadataB->SetStringField( TEXT("TargetGender" ), TEXT("Feminine") );
KeyMetadataB->SetStringField( TEXT("TargetPlurality"), TEXT("Singular") );
// Setup source metadata
SourceMetadataA->SetBoolField( TEXT("*IsMature"), false );
SourceMetadataB->SetBoolField( TEXT("*IsMature"), true );
// Set InfoMetadataA
InfoMetadataA->SetStringField( TEXT("VoiceActorDirection"), TEXT("Go big or go home!") );
// Test FContext
{
FContext ContextA;
ContextA.Key = TEXT("KeyA");
ContextA.SourceLocation = TEXT("SourceLocationA");
ContextA.InfoMetadataObj = MakeShareable( new FLocMetadataObject(*InfoMetadataA) );
ContextA.KeyMetadataObj = MakeShareable( new FLocMetadataObject(*KeyMetadataA) );
FContext ContextB;
ContextB.Key = TEXT("KeyB");
ContextB.SourceLocation = TEXT("SourceLocationB");
ContextB.InfoMetadataObj = MakeShareable( new FLocMetadataObject(*InfoMetadataB) );
ContextB.KeyMetadataObj = MakeShareable( new FLocMetadataObject(*KeyMetadataB) );
// Test copy ctor
{
FContext ContextAClone = ContextA;
if( ContextAClone.InfoMetadataObj == ContextA.InfoMetadataObj )
{
AddError(TEXT("FContext InfoMetadataObj and its Clone are not unique objects."));
}
if( ContextAClone.KeyMetadataObj == ContextA.KeyMetadataObj )
{
AddError(TEXT("FContext KeyMetadataObj and its Clone are not unique objects."));
}
TestEqual( TEXT("ContextAClone.Key == ContextA.Key"), ContextAClone.Key, ContextA.Key );
TestEqual( TEXT("ContextAClone.SourceLocation == ContextA.SourceLocation"), ContextAClone.SourceLocation, ContextA.SourceLocation );
TestEqual( TEXT("ContextAClone.bIsOptional == ContextA.bIsOptional"), ContextAClone.bIsOptional, ContextA.bIsOptional );
TestTrue( TEXT("ContextAClone.InfoMetadataObj == ContextA.InfoMetadataObj"), *(ContextAClone.InfoMetadataObj) == *(ContextA.InfoMetadataObj) );
TestTrue( TEXT("ContextAClone.KeyMetadataObj == ContextA.KeyMetadataObj"), *(ContextAClone.KeyMetadataObj) == *(ContextA.KeyMetadataObj) );
TestEqual( TEXT("ContextAClone == ContextA"), ContextAClone, ContextA );
TestFalse( TEXT("ContextAClone < ContextA"), ContextAClone < ContextA );
}
// Test assignment operator
{
FContext ContextAClone;
ContextAClone = ContextA;
if( ContextAClone.InfoMetadataObj == ContextA.InfoMetadataObj )
{
AddError(TEXT("FContext InfoMetadataObj and its Clone are not unique objects."));
}
if( ContextAClone.KeyMetadataObj == ContextA.KeyMetadataObj )
{
AddError(TEXT("FContext KeyMetadataObj and its Clone are not unique objects."));
}
TestEqual( TEXT("ContextAClone.Key == ContextA.Key"), ContextAClone.Key, ContextA.Key );
TestEqual( TEXT("ContextAClone.SourceLocation == ContextA.SourceLocation"), ContextAClone.SourceLocation, ContextA.SourceLocation );
TestEqual( TEXT("ContextAClone.bIsOptional == ContextA.bIsOptional"), ContextAClone.bIsOptional, ContextA.bIsOptional );
TestTrue( TEXT("ContextAClone.InfoMetadataObj == ContextA.InfoMetadataObj"), *(ContextAClone.InfoMetadataObj) == *(ContextA.InfoMetadataObj) );
TestTrue( TEXT("ContextAClone.KeyMetadataObj == ContextA.KeyMetadataObj"), *(ContextAClone.KeyMetadataObj) == *(ContextA.KeyMetadataObj) );
TestEqual( TEXT("ContextAClone == ContextA"), ContextAClone, ContextA );
TestFalse( TEXT("ContextAClone < ContextA"), ContextAClone < ContextA );
}
// Test comparison operator
{
// Key and KeyMetadataObj members should be the only items that are taken into account when comparing
FContext ContextAClone = ContextA;
TestEqual( TEXT("ContextAClone == ContextA"), ContextAClone, ContextA );
// Arbitrarily change all the non-important members
ContextAClone.SourceLocation = ContextA.SourceLocation + TEXT("New");
ContextAClone.bIsOptional = !ContextA.bIsOptional;
ContextAClone.InfoMetadataObj.Reset();
ContextAClone.InfoMetadataObj = MakeShareable( new FLocMetadataObject( *InfoMetadataB ) );
TestEqual( TEXT("ContextAClone == ContextA"), ContextAClone, ContextA );
// Changing the key in any way will cause comparison to fail
ContextAClone.Key = ContextAClone.Key + TEXT("New");
TestNotEqual( TEXT("ContextAClone != ContextA"), ContextAClone, ContextA );
// Reset and test KeyMetadataObj change to one of the value entries
ContextAClone = ContextA;
ContextAClone.KeyMetadataObj->SetStringField( TEXT("TargetPlurality"), TEXT("Plural") );
TestNotEqual( TEXT("ContextAClone != ContextA"), ContextAClone, ContextA );
// Reset and test addition of entry to KeyMetadataObj
ContextAClone = ContextA;
ContextAClone.KeyMetadataObj->SetStringField( TEXT("NewField"), TEXT("NewFieldValue") );
TestNotEqual( TEXT("ContextAClone != ContextA"), ContextAClone, ContextA );
// Reset and test removal of entry from KeyMetadataObj
ContextAClone = ContextA;
ContextAClone.KeyMetadataObj->RemoveField( TEXT("TargetPlurality") );
TestNotEqual( TEXT("ContextAClone != ContextA"), ContextAClone, ContextA );
// Context with valid but empty KeyMetadataObject should be equivalent to Context with null KeyMetadataObject
FContext ContextEmptyA;
FContext ContextEmptyB;
ContextEmptyB.KeyMetadataObj = MakeShareable( new FLocMetadataObject );
TestEqual( TEXT("ContextEmptyA == ContextEmptyB"), ContextEmptyA, ContextEmptyB );
}
// Testing less than operator
{
TestTrue( TEXT("ContextA < ContextB"), ContextA < ContextB );
FContext ContextAClone = ContextA;
// Differences in Key
TestFalse( TEXT("ContextA < ContextAClone"), ContextA < ContextAClone );
ContextAClone.Key = ContextAClone.Key + TEXT("A");
//currently failing TestTrue( TEXT("ContextA < ContextAClone"), ContextA < ContextAClone );
// Adding new key metadata entry that will appear before other entries
ContextAClone = ContextA;
ContextAClone.KeyMetadataObj->SetStringField( TEXT("ANewKey"), TEXT("ANewValue") );
TestTrue( TEXT("ContextAClone < ContextA"), ContextAClone < ContextA );
// Adding new key metadata entry that will appear after other entries
ContextAClone = ContextA;
ContextAClone.KeyMetadataObj->SetStringField( TEXT("ZNewKey"), TEXT("ZNewValue") );
//currently failing TestTrue( TEXT("ContextA < ContextAClone"), ContextA < ContextAClone );
// Removing a key metadata entry
ContextAClone = ContextA;
ContextAClone.KeyMetadataObj->RemoveField( TEXT("TargetPlurality") ) ;
TestTrue( TEXT("ContextAClone < ContextA"), ContextAClone < ContextA );
// Changing a key metadata entry value
ContextAClone = ContextA;
ContextAClone.KeyMetadataObj->SetStringField( TEXT("TargetPlurality"), TEXT("A") ) ;
TestTrue( TEXT("ContextAClone < ContextA"), ContextAClone < ContextA );
FContext ContextEmptyA;
FContext ContextEmptyB;
TestFalse( TEXT("ContextEmptyA < ContextEmptyB"), ContextEmptyA < ContextEmptyB );
ContextEmptyB.KeyMetadataObj = MakeShareable( new FLocMetadataObject );
TestFalse( TEXT("ContextEmptyA < ContextEmptyB"), ContextEmptyA < ContextEmptyB );
TestFalse( TEXT("ContextEmptyB < ContextEmptyA"), ContextEmptyB < ContextEmptyA );
ContextEmptyB.KeyMetadataObj->SetStringField(TEXT("AMetadataKey"), TEXT("AMetadataValue"));
TestTrue( TEXT("ContextEmptyA < ContextEmptyB"), ContextEmptyA < ContextEmptyB );
}
}
return true;
}
bool FTripleBufferTest::RunTest(const FString& Parameters)
{
// uninitialized buffer
{
TTripleBuffer<int32> Buffer(NoInit);
TestFalse(TEXT("Uninitialized triple buffer must not be dirty"), Buffer.IsDirty());
}
// initialized buffer
{
TTripleBuffer<int32> Buffer(1);
TestFalse(TEXT("Initialized triple buffer must not be dirty"), Buffer.IsDirty());
TestEqual(TEXT("Initialized triple buffer must have correct read buffer value"), Buffer.Read(), 1);
Buffer.SwapReadBuffers();
TestEqual(TEXT("Initialized triple buffer must have correct temp buffer value"), Buffer.Read(), 1);
Buffer.SwapWriteBuffers();
TestTrue(TEXT("Write buffer swap must set dirty flag"), Buffer.IsDirty());
Buffer.SwapReadBuffers();
TestFalse(TEXT("Read buffer swap must clear dirty flag"), Buffer.IsDirty());
TestEqual(TEXT("Initialized triple buffer must have correct temp buffer value"), Buffer.Read(), 1);
}
// pre-set buffer
{
int32 Array[3] = { 1, 2, 3 };
TTripleBuffer<int32> Buffer(Array);
int32 Read = Buffer.Read();
TestEqual(TEXT("Pre-set triple buffer must have correct Read buffer value"), Read, 3);
Buffer.SwapReadBuffers();
int32 Temp = Buffer.Read();
TestEqual(TEXT("Pre-set triple buffer must have correct Temp buffer value"), Temp, 1);
Buffer.SwapWriteBuffers();
Buffer.SwapReadBuffers();
int32 Write = Buffer.Read();
TestEqual(TEXT("Pre-set triple buffer must have correct Write buffer value"), Write, 2);
}
// operations
{
TTripleBuffer<int32> Buffer;
for (int32 Index = 0; Index < 6; ++Index)
{
int32& Write = Buffer.GetWriteBuffer(); Write = Index; Buffer.SwapWriteBuffers();
Buffer.SwapReadBuffers();
TestEqual(*FString::Printf(TEXT("Triple buffer must read correct value (%i)"), Index), Buffer.Read(), Index);
}
FRandomStream Rand;
int32 LastRead = -1;
for (int32 Index = 0; Index < 100; ++Index)
{
int32 Writes = Rand.GetUnsignedInt() % 4;
while (Writes > 0)
{
int32& Write = Buffer.GetWriteBuffer(); Write = Index; Buffer.SwapWriteBuffers();
--Writes;
}
int32 Reads = Rand.GetUnsignedInt() % 4;
while (Reads > 0)
{
if (!Buffer.IsDirty())
{
break;
}
Buffer.SwapReadBuffers();
int32 Read = Buffer.Read();
TestTrue(TEXT("Triple buffer must read in increasing order"), Read > LastRead);
LastRead = Read;
--Reads;
}
}
}
return true;
}
bool FIPv4AddressTest::RunTest( const FString& Parameters )
{
// component access must be correct
FIPv4Address a1_1 = FIPv4Address(1, 2, 3, 4);
TestEqual<uint8>(TEXT("Byte 0 of 1.2.3.4 must be 4"), a1_1.GetByte(0), 4);
TestEqual<uint8>(TEXT("Byte 1 of 1.2.3.4 must be 3"), a1_1.GetByte(1), 3);
TestEqual<uint8>(TEXT("Byte 2 of 1.2.3.4 must be 2"), a1_1.GetByte(2), 2);
TestEqual<uint8>(TEXT("Byte 3 of 1.2.3.4 must be 1"), a1_1.GetByte(3), 1);
// link local addresses must be recognized
FIPv4Address a2_1 = FIPv4Address(169, 254, 0, 1);
FIPv4Address a2_2 = FIPv4Address(168, 254, 0, 1);
FIPv4Address a2_3 = FIPv4Address(169, 253, 0, 1);
TestTrue(TEXT("169.254.0.1 must be a link local address"), a2_1.IsLinkLocal());
TestFalse(TEXT("168.254.0.1 must not be a link local address"), a2_2.IsLinkLocal());
TestFalse(TEXT("169.253.0.1 must not be a link local address"), a2_3.IsLinkLocal());
// loopback addresses must be recognized
FIPv4Address a3_1 = FIPv4Address(127, 0, 0, 1);
FIPv4Address a3_2 = FIPv4Address(128, 0, 0, 1);
TestTrue(TEXT("127.0.0.1 must be a loopback address"), a3_1.IsLoopbackAddress());
TestFalse(TEXT("128.0.0.1 must not be a loopback address"), a3_2.IsLoopbackAddress());
// multicast addresses must be recognized
FIPv4Address a4_1 = FIPv4Address(223, 255, 255, 255);
FIPv4Address a4_2 = FIPv4Address(224, 0, 0, 0);
FIPv4Address a4_3 = FIPv4Address(239, 255, 255, 255);
FIPv4Address a4_4 = FIPv4Address(240, 0, 0, 0);
TestFalse(TEXT("223.255.255.255 must not be a multicast address"), a4_1.IsMulticastAddress());
TestTrue(TEXT("224.0.0.0 must be a multicast address"), a4_2.IsMulticastAddress());
TestTrue(TEXT("239.255.255.255 must be a multicast address"), a4_3.IsMulticastAddress());
TestFalse(TEXT("240.0.0.0 must not be a multicast address"), a4_4.IsMulticastAddress());
// string conversion
FIPv4Address a5_1 = FIPv4Address(1, 2, 3, 4);
TestEqual<FString>(TEXT("String conversion (1.2.3.4)"), a5_1.ToText().ToString(), TEXT("1.2.3.4"));
// parsing valid strings must succeed
FIPv4Address a6_1 = FIPv4Address(1, 2, 3, 4);
FIPv4Address a6_2;
TestTrue(TEXT("Parsing valid strings must succeed (1.2.3.4)"), FIPv4Address::Parse(TEXT("1.2.3.4"), a6_2));
TestEqual(TEXT("Parsing valid strings must result in correct value (1.2.3.4)"), a6_2, a6_1);
// parsing invalid strings must fail
FIPv4Address a7_1;
TestFalse(TEXT("Parsing invalid strings must fail (1.2.3)"), FIPv4Address::Parse(TEXT("1.2.3"), a6_2));
// site local addresses must be recognized
FIPv4Address a8_1 = FIPv4Address(10, 0, 0, 1);
FIPv4Address a8_2 = FIPv4Address(172, 16, 0, 1);
FIPv4Address a8_3 = FIPv4Address(192, 168, 0, 1);
TestTrue(TEXT("10.0.0.1 must be a site local address"), a8_1.IsSiteLocalAddress());
TestTrue(TEXT("172.16.0.1 must be a site local address"), a8_2.IsSiteLocalAddress());
TestTrue(TEXT("192.168.0.1 must be a site local address"), a8_3.IsSiteLocalAddress());
FIPv4Address a8_4 = FIPv4Address(11, 0, 0, 1);
FIPv4Address a8_5 = FIPv4Address(173, 16, 0, 1);
FIPv4Address a8_6 = FIPv4Address(172, 17, 0, 1);
FIPv4Address a8_7 = FIPv4Address(193, 168, 0, 1);
FIPv4Address a8_8 = FIPv4Address(192, 169, 0, 1);
TestFalse(TEXT("11.0.0.1 must not be a site local address"), a8_4.IsSiteLocalAddress());
TestFalse(TEXT("173.16.0.1 must not be a site local address"), a8_5.IsSiteLocalAddress());
TestFalse(TEXT("172.17.0.1 must not be a site local address"), a8_6.IsSiteLocalAddress());
TestFalse(TEXT("193.168.0.1 must not be a site local address"), a8_7.IsSiteLocalAddress());
TestFalse(TEXT("192.169.0.1 must not be a site local address"), a8_8.IsSiteLocalAddress());
return true;
}
bool FGuidTest::RunTest( const FString& Parameters )
{
FGuid g = FGuid(305419896, 2271560481, 305419896, 2271560481);
// string conversions
TestEqual(TEXT("String conversion (Default) must return EGuidFormats::Digits string"), g.ToString(), g.ToString(EGuidFormats::Digits));
TestEqual<FString>(TEXT("String conversion (EGuidFormats::Digits)"), g.ToString(EGuidFormats::Digits), TEXT("12345678876543211234567887654321"));
TestEqual<FString>(TEXT("String conversion (EGuidFormats::DigitsWithHyphens)"), g.ToString(EGuidFormats::DigitsWithHyphens), TEXT("12345678-8765-4321-1234-567887654321"));
TestEqual<FString>(TEXT("String conversion (EGuidFormats::DigitsWithHyphensInBraces)"), g.ToString(EGuidFormats::DigitsWithHyphensInBraces), TEXT("{12345678-8765-4321-1234-567887654321}"));
TestEqual<FString>(TEXT("String conversion (EGuidFormats::DigitsWithHyphensInParentheses)"), g.ToString(EGuidFormats::DigitsWithHyphensInParentheses), TEXT("(12345678-8765-4321-1234-567887654321)"));
TestEqual<FString>(TEXT("String conversion (EGuidFormats::HexValuesInBraces)"), g.ToString(EGuidFormats::HexValuesInBraces), TEXT("{0x12345678,0x8765,0x4321,{0x12,0x34,0x56,0x78,0x87,0x65,0x43,0x21}}"));
TestEqual<FString>(TEXT("String conversion (EGuidFormats::UniqueObjectGuid)"), g.ToString(EGuidFormats::UniqueObjectGuid), TEXT("12345678-87654321-12345678-87654321"));
// parsing valid strings (exact)
FGuid g2_1;
TestTrue(TEXT("Parsing valid strings must succeed (EGuidFormats::Digits)"), FGuid::ParseExact(TEXT("12345678876543211234567887654321"), EGuidFormats::Digits, g2_1));
TestEqual(TEXT("Parsing valid strings must succeed (EGuidFormats::Digits)"), g2_1, g);
TestTrue(TEXT("Parsing valid strings must succeed (EGuidFormats::DigitsWithHyphens)"), FGuid::ParseExact(TEXT("12345678-8765-4321-1234-567887654321"), EGuidFormats::DigitsWithHyphens, g2_1));
TestEqual(TEXT("Parsing valid strings must succeed (EGuidFormats::DigitsWithHyphens)"), g2_1, g);
TestTrue(TEXT("Parsing valid strings must succeed (EGuidFormats::DigitsWithHyphensInBraces)"), FGuid::ParseExact(TEXT("{12345678-8765-4321-1234-567887654321}"), EGuidFormats::DigitsWithHyphensInBraces, g2_1));
TestEqual(TEXT("Parsing valid strings must succeed (EGuidFormats::DigitsWithHyphensInBraces)"), g2_1, g);
TestTrue(TEXT("Parsing valid strings must succeed (EGuidFormats::DigitsWithHyphensInParentheses)"), FGuid::ParseExact(TEXT("(12345678-8765-4321-1234-567887654321)"), EGuidFormats::DigitsWithHyphensInParentheses, g2_1));
TestEqual(TEXT("Parsing valid strings must succeed (EGuidFormats::DigitsWithHyphensInParentheses)"), g2_1, g);
TestTrue(TEXT("Parsing valid strings must succeed (EGuidFormats::HexValuesInBraces)"), FGuid::ParseExact(TEXT("{0x12345678,0x8765,0x4321,{0x12,0x34,0x56,0x78,0x87,0x65,0x43,0x21}}"), EGuidFormats::HexValuesInBraces, g2_1));
TestEqual(TEXT("Parsing valid strings must succeed (EGuidFormats::HexValuesInBraces)"), g2_1, g);
TestTrue(TEXT("Parsing valid strings must succeed (EGuidFormats::UniqueObjectGuid)"), FGuid::ParseExact(TEXT("12345678-87654321-12345678-87654321"), EGuidFormats::UniqueObjectGuid, g2_1));
TestEqual(TEXT("Parsing valid strings must succeed (EGuidFormats::UniqueObjectGuid)"), g2_1, g);
// parsing invalid strings (exact)
// parsing valid strings (automatic)
FGuid g3_1;
TestTrue(TEXT("Parsing valid strings must succeed (12345678876543211234567887654321)"), FGuid::Parse(TEXT("12345678876543211234567887654321"), g3_1));
TestEqual(TEXT("Parsing valid strings must succeed (12345678876543211234567887654321)"), g3_1, g);
TestTrue(TEXT("Parsing valid strings must succeed (12345678-8765-4321-1234-567887654321)"), FGuid::Parse(TEXT("12345678-8765-4321-1234-567887654321"), g3_1));
TestEqual(TEXT("Parsing valid strings must succeed (12345678-8765-4321-1234-567887654321)"), g3_1, g);
TestTrue(TEXT("Parsing valid strings must succeed ({12345678-8765-4321-1234-567887654321})"), FGuid::Parse(TEXT("{12345678-8765-4321-1234-567887654321}"), g3_1));
TestEqual(TEXT("Parsing valid strings must succeed ({12345678-8765-4321-1234-567887654321})"), g3_1, g);
TestTrue(TEXT("Parsing valid strings must succeed ((12345678-8765-4321-1234-567887654321))"), FGuid::Parse(TEXT("(12345678-8765-4321-1234-567887654321)"), g3_1));
TestEqual(TEXT("Parsing valid strings must succeed ((12345678-8765-4321-1234-567887654321))"), g3_1, g);
TestTrue(TEXT("Parsing valid strings must succeed ({0x12345678,0x8765,0x4321,{0x12,0x34,0x56,0x78,0x87,0x65,0x43,0x21}})"), FGuid::Parse(TEXT("{0x12345678,0x8765,0x4321,{0x12,0x34,0x56,0x78,0x87,0x65,0x43,0x21}}"), g3_1));
TestEqual(TEXT("Parsing valid strings must succeed ({0x12345678,0x8765,0x4321,{0x12,0x34,0x56,0x78,0x87,0x65,0x43,0x21}})"), g3_1, g);
TestTrue(TEXT("Parsing valid strings must succeed (12345678-87654321-12345678-87654321)"), FGuid::Parse(TEXT("12345678-87654321-12345678-87654321"), g3_1));
TestEqual(TEXT("Parsing valid strings must succeed (12345678-87654321-12345678-87654321)"), g3_1, g);
//parsing invalid strings (automatic)
// GUID validation
FGuid g4_1 = FGuid::NewGuid();
TestTrue(TEXT("New GUIDs must be valid"), g4_1.IsValid());
g4_1.Invalidate();
TestFalse(TEXT("Invalidated GUIDs must be invalid"), g4_1.IsValid());
return true;
}
bool FTimespanTest::RunTest( const FString& Parameters )
{
// constructors must create equal objects
FTimespan ts1_1 = FTimespan(3, 2, 1);
FTimespan ts1_2 = FTimespan(0, 3, 2, 1);
FTimespan ts1_3 = FTimespan(0, 3, 2, 1, 0);
TestEqual(TEXT("Constructors must create equal objects (Hours/Minutes/Seconds vs. Days/Hours/Minutes/Seconds)"), ts1_1, ts1_2);
TestEqual(TEXT("Constructors must create equal objects (Hours/Minutes/Seconds vs. Days/Hours/Minutes/Seconds/Milliseconds)"), ts1_1, ts1_3);
// component getters must return correct values
FTimespan ts2_1 = FTimespan(1, 2, 3, 4, 5);
TestEqual(TEXT("Component getters must return correct values (Days)"), ts2_1.GetDays(), 1);
TestEqual(TEXT("Component getters must return correct values (Hours)"), ts2_1.GetHours(), 2);
TestEqual(TEXT("Component getters must return correct values (Minutes)"), ts2_1.GetMinutes(), 3);
TestEqual(TEXT("Component getters must return correct values (Seconds)"), ts2_1.GetSeconds(), 4);
TestEqual(TEXT("Component getters must return correct values (Milliseconds)"), ts2_1.GetMilliseconds(), 5);
// durations of positive and negative time spans must match
FTimespan ts3_1 = FTimespan(1, 2, 3, 4, 5);
FTimespan ts3_2 = FTimespan(-1, -2, -3, -4, -5);
TestEqual(TEXT("Durations of positive and negative time spans must match"), ts3_1.GetDuration(), ts3_2.GetDuration());
// static constructors must create correct values
TestEqual(TEXT("Static constructors must create correct values (FromDays)"), FTimespan::FromDays(123).GetTotalDays(), 123.0);
TestEqual(TEXT("Static constructors must create correct values (FromHours)"), FTimespan::FromHours(123).GetTotalHours(), 123.0);
TestEqual(TEXT("Static constructors must create correct values (FromMinutes)"), FTimespan::FromMinutes(123).GetTotalMinutes(), 123.0);
TestEqual(TEXT("Static constructors must create correct values (FromSeconds)"), FTimespan::FromSeconds(123).GetTotalSeconds(), 123.0);
TestEqual(TEXT("Static constructors must create correct values (FromMilliseconds)"), FTimespan::FromMilliseconds(123).GetTotalMilliseconds(), 123.0);
// string conversions must return correct strings
FTimespan ts5_1 = FTimespan(1, 2, 3, 4, 5);
TestEqual<FString>(TEXT("String conversion (Default)"), ts5_1.ToString(), TEXT("1.02:03:04.005"));
TestEqual<FString>(TEXT("String conversion (%n%d.%h:%m:%s.%f)"), ts5_1.ToString(TEXT("%n%d.%h:%m:%s.%f")), TEXT("1.02:03:04.005"));
// parsing valid strings must succeed
FTimespan ts6_1 = FTimespan(1, 2, 3, 4, 5);
FTimespan ts6_2;
TestTrue(TEXT("Parsing valid strings must succeed (1.02:03:04.005)"), FTimespan::Parse(TEXT("1.02:03:04.005"), ts6_2));
TestEqual(TEXT("Parsing valid strings must result in correct values (1.02:03:04.005)"), ts6_2, ts6_1);
// parsing invalid strings must fail
FTimespan ts7_1;
//TestFalse(TEXT("Parsing invalid strings must fail (1,02:03:04.005)"), FTimespan::Parse(TEXT("1,02:03:04.005"), ts7_1));
//TestFalse(TEXT("Parsing invalid strings must fail (1.1.02:03:04:005)"), FTimespan::Parse(TEXT("1.1.02:03:04:005"), ts7_1));
//TestFalse(TEXT("Parsing invalid strings must fail (04:005)"), FTimespan::Parse(TEXT("04:005"), ts7_1));
return true;
}
bool FArchiveTest::RunTest( const FString& Parameters )
{
// Key metadata
TSharedPtr< FLocMetadataObject > KeyMetadataA = MakeShareable( new FLocMetadataObject );
TSharedPtr< FLocMetadataObject > KeyMetadataB = MakeShareable( new FLocMetadataObject );
// Source metadata
TSharedPtr< FLocMetadataObject > SourceMetadataA = MakeShareable( new FLocMetadataObject );
TSharedPtr< FLocMetadataObject > SourceMetadataB = MakeShareable( new FLocMetadataObject );
// Setup KeyMetadataA
KeyMetadataA->SetStringField( TEXT("Gender" ), TEXT("Masculine") );
KeyMetadataA->SetStringField( TEXT("Plurality" ), TEXT("Singular") );
KeyMetadataA->SetStringField( TEXT("TargetGender" ), TEXT("Masculine") );
KeyMetadataA->SetStringField( TEXT("TargetPlurality"), TEXT("Singular") );
// Setup KeyMetadataB
KeyMetadataB->SetStringField( TEXT("Gender" ), TEXT("Masculine") );
KeyMetadataB->SetStringField( TEXT("Plurality" ), TEXT("Singular") );
KeyMetadataB->SetStringField( TEXT("TargetGender" ), TEXT("Feminine") );
KeyMetadataB->SetStringField( TEXT("TargetPlurality"), TEXT("Singular") );
// Setup source metadata
SourceMetadataA->SetBoolField( TEXT("*IsMature"), false );
SourceMetadataB->SetBoolField( TEXT("*IsMature"), true );
// Setup source item
FLocItem SourceA( TEXT("TextA") );
SourceA.MetadataObj = MakeShareable( new FLocMetadataObject(*SourceMetadataA) );
FLocItem Translation = SourceA;
Translation.Text = TEXT("TranslatedTextA");
FString TestNamespace = TEXT("TestNamespace");
FString SourceAKey = TEXT("TextA");
// Test entry add
{
bool TestOptionalTrue = true;
bool TestOptionalFalse = false;
// bIsOptional is not used as a key. We ensure adding entries where the bIsOptional member is the only difference works as expected.
FInternationalizationArchive TestArchive;
TestArchive.AddEntry( TestNamespace, SourceAKey, SourceA, Translation, NULL, TestOptionalTrue );
// Add duplicate entry that differs in bIsOptional flag. This add should report success because we already have an entry with matching
// namespace/source/keymetadata. Differences in bIsOptional are not taken into consideration.
bool bResult = TestArchive.AddEntry( TestNamespace, SourceAKey, SourceA, Translation, NULL, TestOptionalFalse );
TestTrue( TEXT("AddEntry result = true"), bResult);
// We should only have one entry in the archive
int32 EntryCount = 0;
for(auto Iter = TestArchive.GetEntriesBySourceTextIterator(); Iter; ++Iter, ++EntryCount);
TestEqual( TEXT("EntryCount == 1"), EntryCount, 1 );
// Make sure the original bIsOptional value is not overwritten by our second add.
TSharedPtr< FArchiveEntry > FoundEntry = TestArchive.FindEntryByKey( TestNamespace, SourceAKey, NULL );
if( !FoundEntry.IsValid() )
{
AddError(TEXT("FArchiveEntry could not find entry using FindEntryByKey."));
}
else
{
TestTrue( TEXT("FoundEntry->Namespace == Namespace"), FoundEntry->bIsOptional == TestOptionalTrue );
}
}
// Test lookup an entry
{
{
FInternationalizationArchive TestArchive;
TestArchive.AddEntry( TestNamespace, SourceAKey, SourceA, Translation, KeyMetadataA, false );
TSharedPtr< FArchiveEntry > FoundEntry = TestArchive.FindEntryByKey( TestNamespace, SourceAKey, KeyMetadataA );
if( !FoundEntry.IsValid() )
{
AddError(TEXT("FArchiveEntry could not find entry using FindEntryByKey."));
}
else
{
TestTrue( TEXT("FoundEntry->Namespace == Namespace"), FoundEntry->Namespace == TestNamespace );
TestTrue( TEXT("FoundEntry->Source == Source"), FoundEntry->Source == SourceA );
TestTrue( TEXT("FoundEntry->Translation == Translation"), FoundEntry->Translation == Translation );
if( FoundEntry->KeyMetadataObj == KeyMetadataA )
{
AddError(TEXT("FArchiveEntry KeyMetadataObj is not a unique object."));
}
TestTrue( TEXT("FoundEntry->KeyMetadataObj == KeyMetadataA"), *(FoundEntry->KeyMetadataObj) == *(KeyMetadataA) );
}
// Passing in a mismatched key metadata will fail to find the entry. Any fallback logic is intended to happen at runtime
FoundEntry = TestArchive.FindEntryByKey( TestNamespace, SourceAKey, NULL );
TestInvalid( TEXT("!FoundEntry.IsValid()"), FoundEntry);
FoundEntry = TestArchive.FindEntryByKey( TestNamespace, SourceAKey, MakeShareable( new FLocMetadataObject() ) );
TestInvalid( TEXT("!FoundEntry.IsValid()"), FoundEntry);
FoundEntry = TestArchive.FindEntryByKey( TestNamespace, SourceAKey, KeyMetadataB );
TestInvalid( TEXT("!FoundEntry.IsValid()"), FoundEntry);
}
// Ensure we can properly lookup entries with non-null but empty key metadata
{
FInternationalizationArchive TestArchive;
TestArchive.AddEntry( TestNamespace, SourceAKey, SourceA, Translation, MakeShareable( new FLocMetadataObject() ), false );
TSharedPtr< FArchiveEntry > FoundEntry = TestArchive.FindEntryByKey( TestNamespace, SourceAKey, NULL );
if( !FoundEntry.IsValid() )
{
AddError(TEXT("FArchiveEntry could not find entry using FindEntryByKey."));
}
else
{
TestTrue( TEXT("FoundEntry->Namespace == Namespace"), FoundEntry->Namespace == TestNamespace );
TestTrue( TEXT("FoundEntry->Source == Source"), FoundEntry->Source == SourceA );
}
}
// Ensure we can properly lookup entries with null key metadata
{
FInternationalizationArchive TestArchive;
TestArchive.AddEntry( TestNamespace, SourceAKey, SourceA, Translation, NULL, false );
TSharedPtr< FArchiveEntry > FoundEntry = TestArchive.FindEntryByKey( TestNamespace, SourceAKey, NULL );
if( !FoundEntry.IsValid() )
{
AddError(TEXT("FArchiveEntry could not find entry using FindEntryByKey."));
}
else
{
TestTrue( TEXT("FoundEntry->Namespace == Namespace"), FoundEntry->Namespace == TestNamespace );
TestTrue( TEXT("FoundEntry->Source == Source"), FoundEntry->Source == SourceA );
}
// Test lookup with non-null but empty key metadata
FoundEntry = TestArchive.FindEntryByKey( TestNamespace, SourceAKey, MakeShareable( new FLocMetadataObject() ) );
if( !FoundEntry.IsValid() )
{
AddError(TEXT("FArchiveEntry could not find entry using FindEntryByKey."));
}
else
{
TestTrue( TEXT("FoundEntry->Namespace == Namespace"), FoundEntry->Namespace == TestNamespace );
TestTrue( TEXT("FoundEntry->Source == Source"), FoundEntry->Source == SourceA );
}
}
// Ensure lookup where source metadata has * prefixed entries work as expected. Note: The source metadata object
// supports a * prefix on metadata names which modifies the way we perform metadata comparison(ignores entry type and value, only name is checked)
{
FLocItem SourceCompare( TEXT("TextA") );
SourceCompare.MetadataObj = MakeShareable( new FLocMetadataObject() );
SourceCompare.MetadataObj->SetStringField( TEXT("*IsMature"), TEXT("") );
FInternationalizationArchive TestArchive;
// Added entry with String *IsMature entry
TestArchive.AddEntry( TestNamespace, SourceAKey, SourceCompare, Translation, KeyMetadataA, false );
// Finding entry using a source that has Boolean *IsMature
TSharedPtr< FArchiveEntry > FoundEntry = TestArchive.FindEntryByKey( TestNamespace, SourceAKey, KeyMetadataA );
if( !FoundEntry.IsValid() )
{
AddError(TEXT("FArchiveEntry could not find entry using FindEntryByKey."));
}
else
{
TestTrue( TEXT("FoundEntry->Namespace == Namespace"), FoundEntry->Namespace == TestNamespace );
TestTrue( TEXT("FoundEntry->Source == Source"), FoundEntry->Source == SourceA );
}
// Attempting to add an entry that only differs by a * prefexed source metadata entry value or type will result in success since
// a 'matching' entry already exists in the archive. We should, however, only have one entry in the archive
bool bResult = TestArchive.AddEntry( TestNamespace, SourceAKey, SourceA, Translation, KeyMetadataA, false );
TestTrue( TEXT("AddEntry result = true"), bResult);
// We should only have one entry in the archive
int32 EntryCount = 0;
for(auto Iter = TestArchive.GetEntriesBySourceTextIterator(); Iter; ++Iter, ++EntryCount);
TestEqual( TEXT("EntryCount == 1"), EntryCount, 1 );
// Check to see that the original type/value of the * prefixed entry did not get modified
FoundEntry = TestArchive.FindEntryByKey( TestNamespace, SourceAKey, KeyMetadataA );
if( !FoundEntry.IsValid() )
{
AddError(TEXT("FArchiveEntry could not find entry using FindEntryByKey."));
}
else
{
if( FoundEntry->Source.MetadataObj->HasTypedField< ELocMetadataType::String >( TEXT("*IsMature") ) )
{
TestTrue( TEXT("Metadata Type == String and Value == Empty string"), FoundEntry->Source.MetadataObj->GetStringField( TEXT("*IsMature") ) == TEXT("") );
}
else
{
AddError(TEXT("FArchiveEntry * prefixed metadata entry on source object was modified unexpectedly."));
}
}
}
}
return true;
}
bool FLocItemTest::RunTest( const FString& Parameters )
{
// Key metadata
TSharedPtr< FLocMetadataObject > KeyMetadataA = MakeShareable( new FLocMetadataObject );
TSharedPtr< FLocMetadataObject > KeyMetadataB = MakeShareable( new FLocMetadataObject );
// Info metadata
TSharedPtr< FLocMetadataObject > InfoMetadataA = MakeShareable( new FLocMetadataObject );
TSharedPtr< FLocMetadataObject > InfoMetadataB = MakeShareable( new FLocMetadataObject );
// Source metadata
TSharedPtr< FLocMetadataObject > SourceMetadataA = MakeShareable( new FLocMetadataObject );
TSharedPtr< FLocMetadataObject > SourceMetadataB = MakeShareable( new FLocMetadataObject );
// Setup KeyMetadataA
KeyMetadataA->SetStringField( TEXT("Gender" ), TEXT("Masculine") );
KeyMetadataA->SetStringField( TEXT("Plurality" ), TEXT("Singular") );
KeyMetadataA->SetStringField( TEXT("TargetGender" ), TEXT("Masculine") );
KeyMetadataA->SetStringField( TEXT("TargetPlurality"), TEXT("Singular") );
// Setup KeyMetadataB
KeyMetadataB->SetStringField( TEXT("Gender" ), TEXT("Masculine") );
KeyMetadataB->SetStringField( TEXT("Plurality" ), TEXT("Singular") );
KeyMetadataB->SetStringField( TEXT("TargetGender" ), TEXT("Feminine") );
KeyMetadataB->SetStringField( TEXT("TargetPlurality"), TEXT("Singular") );
// Setup source metadata
SourceMetadataA->SetBoolField( TEXT("*IsMature"), false );
SourceMetadataB->SetBoolField( TEXT("*IsMature"), true );
// Set InfoMetadataA
InfoMetadataA->SetStringField( TEXT("VoiceActorDirection"), TEXT("Go big or go home!") );
// Test FLocItem
{
FLocItem LocItemA( TEXT("TextA") );
LocItemA.MetadataObj = MakeShareable( new FLocMetadataObject(*SourceMetadataA) );
FLocItem LocItemB( TEXT("TextB") );
LocItemB.MetadataObj = MakeShareable( new FLocMetadataObject(*SourceMetadataB) );
// Test copy ctor
{
FLocItem LocItemAClone = LocItemA;
if( LocItemAClone.MetadataObj == LocItemA.MetadataObj )
{
AddError(TEXT("FLocItem MetadataObj and its Clone are not unique objects."));
}
TestEqual( TEXT("LocItemAClone.Text == LocItemA.Text"), LocItemAClone.Text, LocItemA.Text );
TestTrue( TEXT("LocItemAClone.MetadataObj == LocItemA.MetadataObj"), *(LocItemAClone.MetadataObj) == *(LocItemA.MetadataObj) );
TestEqual( TEXT("LocItemAClone == LocItemA"), LocItemAClone, LocItemA );
TestFalse( TEXT("LocItemAClone < LocItemA"), LocItemAClone < LocItemA );
}
// Test assignment operator
{
FLocItem LocItemAClone( TEXT("New") );
LocItemAClone = LocItemA;
if( LocItemAClone.MetadataObj == LocItemA.MetadataObj )
{
AddError(TEXT("FLocItem MetadataObj and its Clone are not unique objects."));
}
TestEqual( TEXT("LocItemAClone.Text == LocItemA.Text"), LocItemAClone.Text, LocItemA.Text );
TestTrue( TEXT("LocItemAClone.MetadataObj == LocItemA.MetadataObj"), *(LocItemAClone.MetadataObj) == *(LocItemA.MetadataObj) );
TestEqual( TEXT("LocItemAClone == LocItemA"), LocItemAClone, LocItemA );
TestFalse( TEXT("LocItemAClone < LocItemA"), LocItemAClone < LocItemA );
TestFalse( TEXT("LocItemA < LocItemAClone"), LocItemA < LocItemAClone );
}
// Test comparison operator
{
// Text and MetadataObj members should both be taken into account when comparing. Note, Metadata supports a special * name prefix that causes the type
// and value of the metadata to be ignored when performing comparisons
FLocItem LocItemAClone = LocItemA;
TestEqual( TEXT("LocItemAClone == LocItemA"), LocItemAClone, LocItemA );
// Metadata with * prefix does not impact comparison but both FLocItems need a metadata where the name matches( type and value can be different )
FLocItem LocItemAClone2 = LocItemA;
LocItemAClone.MetadataObj->SetStringField( TEXT("*NewNonCompare"), TEXT("NewNonCompareValue") );
TestNotEqual( TEXT("LocItemAClone != LocItemAClone2"), LocItemAClone, LocItemAClone2 );
LocItemAClone2.MetadataObj->SetStringField( TEXT("*NewNonCompare"), TEXT("NewNonCompareValue2") );
TestEqual( TEXT("LocItemAClone == LocItemAClone2"), LocItemAClone, LocItemAClone2 );
// Changing the text in any way will cause comparison to fail
LocItemAClone = LocItemA;
LocItemAClone.Text = LocItemAClone.Text + TEXT("New");
TestNotEqual( TEXT("LocItemAClone != LocItemA"), LocItemAClone, LocItemA );
// LocItem with valid but empty KeyMetadataObject should be equivalent to LocItem with null KeyMetadataObject
FLocItem LocItemEmptyA(TEXT("TestText"));
FLocItem LocItemEmptyB(TEXT("TestText"));
LocItemEmptyB.MetadataObj = MakeShareable( new FLocMetadataObject );
TestEqual( TEXT("LocItemEmptyA == LocItemEmptyB"), LocItemEmptyA, LocItemEmptyB );
}
// Testing less than operator
{
TestTrue( TEXT("LocItemA < LocItemB"), LocItemA < LocItemB );
TestFalse( TEXT("LocItemB < LocItemA"), LocItemB < LocItemA );
FLocItem LocItemAClone = LocItemA;
// Differences in Text
TestFalse( TEXT("LocItemA < LocItemAClone"), LocItemA < LocItemAClone );
LocItemAClone.Text = LocItemAClone.Text + TEXT("A");
TestFalse( TEXT("LocItemAClone < LocItemA"), LocItemAClone < LocItemA );
//currently failing TestTrue( TEXT("LocItemA < LocItemAClone"), LocItemA < LocItemAClone );
// Adding new key metadata entry
LocItemAClone = LocItemA;
LocItemAClone.MetadataObj->SetStringField( TEXT("ANewKey"), TEXT("ANewValue") );
//currently failing TestTrue( TEXT("LocItemA < LocItemAClone"), LocItemA < LocItemAClone );
TestFalse( TEXT("LocItemAClone < LocItemA"), LocItemAClone < LocItemA );
// Removing a key metadata entry
LocItemAClone = LocItemA;
LocItemAClone.MetadataObj->RemoveField( TEXT("*IsMature") );
TestTrue( TEXT("LocItemAClone < LocItemA"), LocItemAClone < LocItemA );
TestFalse( TEXT("LocItemA < LocItemAClone"), LocItemA < LocItemAClone );
// Changing a key metadata entry value
LocItemAClone = LocItemA;
LocItemAClone.MetadataObj->SetBoolField( TEXT("*IsMature"),true );
//currently failing TestTrue( TEXT("LocItemA < LocItemAClone"), LocItemA < LocItemAClone );
TestFalse( TEXT("LocItemAClone < LocItemA"), LocItemAClone < LocItemA );
// Test null and non-null but empty Metadata
FLocItem LocItemEmptyA( TEXT("SameText") );
FLocItem LocItemEmptyB( TEXT("SameText") );
TestFalse( TEXT("LocItemEmptyA < LocItemEmptyB"), LocItemEmptyA < LocItemEmptyB );
LocItemEmptyB.MetadataObj = MakeShareable( new FLocMetadataObject );
TestFalse( TEXT("LocItemEmptyA < LocItemEmptyB"), LocItemEmptyA < LocItemEmptyB );
TestFalse( TEXT("LocItemEmptyB < LocItemEmptyA"), LocItemEmptyB < LocItemEmptyA );
LocItemEmptyB.MetadataObj->SetStringField(TEXT("AMetadataKey"), TEXT("AMetadataValue"));
TestTrue( TEXT("LocItemEmptyA < LocItemEmptyB"), LocItemEmptyA < LocItemEmptyB );
}
}
return true;
}
bool FManifestTest::RunTest( const FString& Parameters )
{
// Key metadata
TSharedPtr< FLocMetadataObject > KeyMetadataA = MakeShareable( new FLocMetadataObject );
TSharedPtr< FLocMetadataObject > KeyMetadataB = MakeShareable( new FLocMetadataObject );
// Info metadata
TSharedPtr< FLocMetadataObject > InfoMetadataA = MakeShareable( new FLocMetadataObject );
TSharedPtr< FLocMetadataObject > InfoMetadataB = MakeShareable( new FLocMetadataObject );
// Source metadata
TSharedPtr< FLocMetadataObject > SourceMetadataA = MakeShareable( new FLocMetadataObject );
TSharedPtr< FLocMetadataObject > SourceMetadataB = MakeShareable( new FLocMetadataObject );
// Setup KeyMetadataA
KeyMetadataA->SetStringField( TEXT("Gender" ), TEXT("Masculine") );
KeyMetadataA->SetStringField( TEXT("Plurality" ), TEXT("Singular") );
KeyMetadataA->SetStringField( TEXT("TargetGender" ), TEXT("Masculine") );
KeyMetadataA->SetStringField( TEXT("TargetPlurality"), TEXT("Singular") );
// Setup KeyMetadataB
KeyMetadataB->SetStringField( TEXT("Gender" ), TEXT("Masculine") );
KeyMetadataB->SetStringField( TEXT("Plurality" ), TEXT("Singular") );
KeyMetadataB->SetStringField( TEXT("TargetGender" ), TEXT("Feminine") );
KeyMetadataB->SetStringField( TEXT("TargetPlurality"), TEXT("Singular") );
// Setup source metadata
SourceMetadataA->SetBoolField( TEXT("*IsMature"), false );
SourceMetadataB->SetBoolField( TEXT("*IsMature"), true );
// Set InfoMetadataA
InfoMetadataA->SetStringField( TEXT("VoiceActorDirection"), TEXT("Go big or go home!") );
// Test FInternationalizationManifest
{
FContext ContextA;
ContextA.Key = TEXT("KeyA");
ContextA.SourceLocation = TEXT("SourceLocationA");
ContextA.InfoMetadataObj = MakeShareable( new FLocMetadataObject(*InfoMetadataA) );
ContextA.KeyMetadataObj = MakeShareable( new FLocMetadataObject(*KeyMetadataA) );
FContext ContextB;
ContextB.Key = TEXT("KeyB");
ContextB.SourceLocation = TEXT("SourceLocationB");
ContextB.InfoMetadataObj = MakeShareable( new FLocMetadataObject(*InfoMetadataB) );
ContextB.KeyMetadataObj = MakeShareable( new FLocMetadataObject(*KeyMetadataB) );
FLocItem Source( TEXT("TestText") );
Source.MetadataObj = MakeShareable( new FLocMetadataObject(*SourceMetadataA) );
FString TestNamespace = TEXT("TestNamespace");
// Adding entries with exactly matching Source and matching Context
{
FInternationalizationManifest TestManifest;
TestManifest.AddSource( TestNamespace, Source, ContextA );
bool bResult = TestManifest.AddSource( TestNamespace, Source, ContextA );
// Adding a duplicate entry reports success but our entry count is not increased after the first entry is added
TestTrue( TEXT("AddSource result == true"), bResult);
TestEqual( TEXT("ManifestCount == 1"), CountManifestEntries(TestManifest), 1 );
}
// Adding entries with exactly matching Source but different Contexts
{
FInternationalizationManifest TestManifest;
TestManifest.AddSource( TestNamespace, Source, ContextA );
TestManifest.AddSource( TestNamespace, Source, ContextB );
TestEqual( TEXT("ManifestCount == 2"), CountManifestEntries(TestManifest), 2 );
// Test find by context
TSharedPtr< FManifestEntry > FoundEntry1 = TestManifest.FindEntryByContext( TestNamespace, ContextA );
if( !FoundEntry1.IsValid() )
{
AddError(TEXT("FManifestEntry could not find entry using FindEntryByContext."));
}
else
{
TestTrue( TEXT("FoundEntry->Source == Source"), FoundEntry1->Source == Source );
TestEqual( TEXT("FoundEntry->Context.Num() == 2"), FoundEntry1->Contexts.Num(), 2);
}
TSharedPtr< FManifestEntry > FoundEntry2 = TestManifest.FindEntryByContext( TestNamespace, ContextB );
if( !FoundEntry2.IsValid() )
{
AddError(TEXT("FManifestEntry could not find entry using FindEntryByContext."));
}
else
{
TestTrue( TEXT("FoundEntry->Source == Source"), FoundEntry2->Source == Source );
TestEqual( TEXT("FoundEntry->Context.Num() == 2"), FoundEntry2->Contexts.Num(), 2);
}
// Test find by source
TSharedPtr< FManifestEntry > FoundEntry3 = TestManifest.FindEntryBySource( TestNamespace, Source );
if( !FoundEntry3.IsValid() )
{
AddError(TEXT("FManifestEntry could not find entry using FindEntryBySource."));
}
else
{
TestTrue( TEXT("FoundEntry->Source == Source"), FoundEntry3->Source == Source );
TestEqual( TEXT("FoundEntry->Context.Num() == 2"), FoundEntry3->Contexts.Num(), 2);
}
TestTrue( TEXT("FoundEntry1 == FoundEntry2 == FoundEntry3"), (FoundEntry1 == FoundEntry2) && (FoundEntry1 == FoundEntry3) );
}
// Adding entries with Source that is NOT an exact match and matching context
{
// Source mismatched by Source Text.
{
FInternationalizationManifest TestManifest;
FLocItem ConflictingSourceA( TEXT("Conflicting TestTextA") );
FLocItem ConflictingSourceB( TEXT("Conflicting TestTextB") );
TestManifest.AddSource( TestNamespace, ConflictingSourceA, ContextA );
bool bResult = TestManifest.AddSource( TestNamespace, ConflictingSourceB, ContextA );
// Adding the second entry reports failure and entry count is not increased
TestFalse( TEXT("AddSource result == false"), bResult);
TestEqual( TEXT("ManifestCount == 1"), CountManifestEntries(TestManifest), 1 );
}
// Source mismatched by standard metadata type (not * prefixed)
{
FInternationalizationManifest ManifestTypeConflict;
FLocItem ConflictingSourceMetadataTypeA = Source;
FLocItem ConflictingSourceMetadataTypeB = Source;
// Set metadata with the same name but different type
ConflictingSourceMetadataTypeA.MetadataObj->SetBoolField( TEXT("ConflictingType"), true );
ConflictingSourceMetadataTypeB.MetadataObj->SetStringField( TEXT("ConflictingType"), TEXT("true") );
ManifestTypeConflict.AddSource( TestNamespace, ConflictingSourceMetadataTypeA, ContextA );
bool bResult = ManifestTypeConflict.AddSource( TestNamespace, ConflictingSourceMetadataTypeB, ContextA );
TestFalse( TEXT("AddSource result == false"), bResult);
TestEqual( TEXT("ManifestCount == 1"), CountManifestEntries(ManifestTypeConflict), 1 );
// Should not find a match when searching with the second Source we tried to add
TSharedPtr< FManifestEntry > FoundEntry = ManifestTypeConflict.FindEntryBySource( TestNamespace, ConflictingSourceMetadataTypeB );
TestInvalid( TEXT("FoundEntry is not valid"), FoundEntry);
}
// Source mismatched by standard metadata value (not * prefixed)
{
FInternationalizationManifest TestManifest;
FLocItem ConflictingSourceMetadataValueA = Source;
FLocItem ConflictingSourceMetadataValueB = Source;
// Set metadata with the same name and type but different value
ConflictingSourceMetadataValueA.MetadataObj->SetStringField( TEXT("ConflictingValue"), TEXT("A") );
ConflictingSourceMetadataValueB.MetadataObj->SetStringField( TEXT("ConflictingValue"), TEXT("B") );
TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataValueA, ContextA );
bool bResult = TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataValueB, ContextA );
TestFalse( TEXT("AddSource result == false"), bResult);
TestEqual( TEXT("ManifestCount == 1"), CountManifestEntries(TestManifest), 1 );
// Should not find a match when searching with the second Source we tried to add
TSharedPtr< FManifestEntry > FoundEntry = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceMetadataValueB );
TestInvalid( TEXT("FoundEntry is not valid"), FoundEntry);
}
// Source mismatched by * prefixed metadata type
{
FInternationalizationManifest TestManifest;
FLocItem ConflictingSourceMetadataTypeA = Source;
FLocItem ConflictingSourceMetadataTypeB = Source;
// Set metadata with the same name but different type
ConflictingSourceMetadataTypeA.MetadataObj->SetBoolField( TEXT("*ConflictingType"), true );
ConflictingSourceMetadataTypeB.MetadataObj->SetStringField( TEXT("*ConflictingType"), TEXT("true") );
TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataTypeA, ContextA );
// Though the Source items are considered to be a match(they are equal) in this case, the manifest reports this as a conflict
// and should not add an entry. The reason is that AddSource does an 'exact' match check on the metadata object
bool bResult = TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataTypeB, ContextA );
TestFalse( TEXT("AddSource result == false"), bResult);
TestEqual( TEXT("ManifestCount == 1"), CountManifestEntries(TestManifest), 1 );
// We should be able to find the entry using either Source FLocItem
TSharedPtr< FManifestEntry > FoundEntry1 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceMetadataTypeA );
TestValid( TEXT("FoundEntry1 is valid"), FoundEntry1);
TSharedPtr< FManifestEntry > FoundEntry2 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceMetadataTypeB );
TestValid( TEXT("FoundEntry2 is valid"), FoundEntry2);
}
// Source mismatched by * prefixed metadata value
{
FInternationalizationManifest TestManifest;
FLocItem ConflictingSourceMetadataValueA = Source;
FLocItem ConflictingSourceMetadataValueB = Source;
// Set metadata with the same name and type but different value
ConflictingSourceMetadataValueA.MetadataObj->SetStringField( TEXT("*ConflictingValue"), TEXT("A") );
ConflictingSourceMetadataValueB.MetadataObj->SetStringField( TEXT("*ConflictingValue"), TEXT("B") );
TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataValueA, ContextA );
// Thought the Source items are considered to be a match(they are equal) in this case, the manifest reports this as a conflict
// and should not add an entry. The reason is that AddSource does an 'exact' match check on the metadata object
bool bResult = TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataValueB, ContextA );
TestFalse( TEXT("AddSource result == false"), bResult);
TestEqual( TEXT("ManifestCount == 1"), CountManifestEntries(TestManifest), 1 );
// We should be able to find the entry using either Source FLocItem
TSharedPtr< FManifestEntry > FoundEntry1 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceMetadataValueA );
TestValid( TEXT("FoundEntry1 is valid"), FoundEntry1);
TSharedPtr< FManifestEntry > FoundEntry2 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceMetadataValueB );
TestValid( TEXT("FoundEntry2 is valid"), FoundEntry2);
}
}
// Adding entries with Source that is NOT an exact match and different context
{
// Source mismatched by Source Text.
{
FInternationalizationManifest TestManifest;
FLocItem ConflictingSourceA( TEXT("Conflicting TestTextA") );
FLocItem ConflictingSourceB( TEXT("Conflicting TestTextB") );
TestManifest.AddSource( TestNamespace, ConflictingSourceA, ContextA );
bool bResult = TestManifest.AddSource( TestNamespace, ConflictingSourceB, ContextB );
TestTrue( TEXT("AddSource result == true"), bResult);
TestEqual( TEXT("ManifestCount == 2"), CountManifestEntries(TestManifest), 2 );
// We should be able to find two unique entries by source
TSharedPtr< FManifestEntry > FoundEntry1 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceA );
TestValid( TEXT("FoundEntry1 is valid"), FoundEntry1);
TSharedPtr< FManifestEntry > FoundEntry2 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceB );
TestValid( TEXT("FoundEntry2 is valid"), FoundEntry2);
TestTrue( TEXT("FoundEntry1 != FoundEntry2"), FoundEntry1 != FoundEntry2 );
// We should be able to find two unique entries by context
TSharedPtr< FManifestEntry > FoundEntry3 = TestManifest.FindEntryByContext( TestNamespace, ContextA );
TestValid( TEXT("FoundEntry3 is valid"), FoundEntry3);
TSharedPtr< FManifestEntry > FoundEntry4 = TestManifest.FindEntryByContext( TestNamespace, ContextB );
TestValid( TEXT("FoundEntry3 is valid"), FoundEntry4);
TestTrue( TEXT("FoundEntry3 != FoundEntry4"), FoundEntry3 != FoundEntry4 );
// Found entry looked up by source A should match entry looked up by context A
TestTrue( TEXT("FoundEntry1 == FoundEntry3"), FoundEntry1 == FoundEntry3 );
// Found entry looked up by source B should match entry looked up by context B
TestTrue( TEXT("FoundEntry2 == FoundEntry4"), FoundEntry2 == FoundEntry4 );
}
// Source mismatched by standard metadata type (not * prefixed)
{
FInternationalizationManifest TestManifest;
FLocItem ConflictingSourceMetadataTypeA = Source;
FLocItem ConflictingSourceMetadataTypeB = Source;
// Set metadata with the same name but different type
ConflictingSourceMetadataTypeA.MetadataObj->SetBoolField( TEXT("ConflictingType"), true );
ConflictingSourceMetadataTypeB.MetadataObj->SetStringField( TEXT("ConflictingType"), TEXT("true") );
TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataTypeA, ContextA );
bool bResult = TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataTypeB, ContextB );
TestTrue( TEXT("AddSource result == true"), bResult);
TestEqual( TEXT("ManifestCount == 2"), CountManifestEntries(TestManifest), 2 );
// We should be able to find two unique entries by source
TSharedPtr< FManifestEntry > FoundEntry1 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceMetadataTypeA );
TestValid( TEXT("FoundEntry1 is valid"), FoundEntry1);
TSharedPtr< FManifestEntry > FoundEntry2 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceMetadataTypeB );
TestValid( TEXT("FoundEntry2 is valid"), FoundEntry2);
TestTrue( TEXT("FoundEntry1 != FoundEntry2"), FoundEntry1 != FoundEntry2 );
// We should be able to find two unique entries by context
TSharedPtr< FManifestEntry > FoundEntry3 = TestManifest.FindEntryByContext( TestNamespace, ContextA );
TestValid( TEXT("FoundEntry3 is valid"), FoundEntry3);
TSharedPtr< FManifestEntry > FoundEntry4 = TestManifest.FindEntryByContext( TestNamespace, ContextB );
TestValid( TEXT("FoundEntry3 is valid"), FoundEntry4);
TestTrue( TEXT("FoundEntry3 != FoundEntry4"), FoundEntry3 != FoundEntry4 );
// Found entry looked up by source A should match entry looked up by context A
TestTrue( TEXT("FoundEntry1 == FoundEntry3"), FoundEntry1 == FoundEntry3 );
// Found entry looked up by source B should match entry looked up by context B
TestTrue( TEXT("FoundEntry2 == FoundEntry4"), FoundEntry2 == FoundEntry4 );
}
// Source mismatched by standard metadata value (not * prefixed)
{
FInternationalizationManifest TestManifest;
FLocItem ConflictingSourceMetadataValueA = Source;
FLocItem ConflictingSourceMetadataValueB = Source;
// Set metadata with the same name and type but different value
ConflictingSourceMetadataValueA.MetadataObj->SetStringField( TEXT("ConflictingValue"), TEXT("A") );
ConflictingSourceMetadataValueB.MetadataObj->SetStringField( TEXT("ConflictingValue"), TEXT("B") );
TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataValueA, ContextA );
bool bResult = TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataValueB, ContextB );
TestTrue( TEXT("AddSource result == true"), bResult);
TestEqual( TEXT("ManifestCount == 2"), CountManifestEntries(TestManifest), 2 );
// We should be able to find two unique entries by source
TSharedPtr< FManifestEntry > FoundEntry1 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceMetadataValueA );
TestValid( TEXT("FoundEntry1 is valid"), FoundEntry1);
TSharedPtr< FManifestEntry > FoundEntry2 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceMetadataValueB );
TestValid( TEXT("FoundEntry2 is valid"), FoundEntry2);
TestTrue( TEXT("FoundEntry1 != FoundEntry2"), FoundEntry1 != FoundEntry2 );
// We should be able to find two unique entries by context
TSharedPtr< FManifestEntry > FoundEntry3 = TestManifest.FindEntryByContext( TestNamespace, ContextA );
TestValid( TEXT("FoundEntry3 is valid"), FoundEntry3);
TSharedPtr< FManifestEntry > FoundEntry4 = TestManifest.FindEntryByContext( TestNamespace, ContextB );
TestValid( TEXT("FoundEntry3 is valid"), FoundEntry4);
TestTrue( TEXT("FoundEntry3 != FoundEntry4"), FoundEntry3 != FoundEntry4 );
// Found entry looked up by source A should match entry looked up by context A
TestTrue( TEXT("FoundEntry1 == FoundEntry3"), FoundEntry1 == FoundEntry3 );
// Found entry looked up by source B should match entry looked up by context B
TestTrue( TEXT("FoundEntry2 == FoundEntry4"), FoundEntry2 == FoundEntry4 );
}
// Source mismatched by * prefixed metadata type
{
FInternationalizationManifest TestManifest;
FLocItem ConflictingSourceMetadataTypeA = Source;
FLocItem ConflictingSourceMetadataTypeB = Source;
// Set metadata with the same name but different type
ConflictingSourceMetadataTypeA.MetadataObj->SetBoolField( TEXT("*ConflictingType"), true );
ConflictingSourceMetadataTypeB.MetadataObj->SetStringField( TEXT("*ConflictingType"), TEXT("true") );
TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataTypeA, ContextA );
// Though the Source items are considered to be a match(they are equal) in this case, the manifest reports this as a conflict
// and should not add an entry. The reason is that AddSource does an 'exact' match check on the metadata object
bool bResult = TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataTypeB, ContextB );
TestFalse( TEXT("AddSource result == false"), bResult);
TestEqual( TEXT("ManifestCount == 1"), CountManifestEntries(TestManifest), 1 );
// We should be able to find the entry using either Source FLocItem
TSharedPtr< FManifestEntry > FoundEntry1 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceMetadataTypeA );
TestValid( TEXT("FoundEntry1 is valid"), FoundEntry1);
TSharedPtr< FManifestEntry > FoundEntry2 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceMetadataTypeB );
TestValid( TEXT("FoundEntry2 is valid"), FoundEntry2);
}
// Source mismatched by * prefixed metadata value
{
FInternationalizationManifest TestManifest;
FLocItem ConflictingSourceMetadataValueA = Source;
FLocItem ConflictingSourceMetadataValueB = Source;
// Set metadata with the same name and type but different value
ConflictingSourceMetadataValueA.MetadataObj->SetStringField( TEXT("*ConflictingValue"), TEXT("A") );
ConflictingSourceMetadataValueB.MetadataObj->SetStringField( TEXT("*ConflictingValue"), TEXT("B") );
TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataValueA, ContextA );
// Thought the Source items are considered to be a match(they are equal) in this case, the manifest reports this as a conflict
// and should not add an entry. The reason is that AddSource does an 'exact' match check on the metadata object
bool bResult = TestManifest.AddSource( TestNamespace, ConflictingSourceMetadataValueB, ContextB );
TestFalse( TEXT("AddSource result == false"), bResult);
TestEqual( TEXT("ManifestCount == 1"), CountManifestEntries(TestManifest), 1 );
// We should be able to find the entry using either Source FLocItem
TSharedPtr< FManifestEntry > FoundEntry1 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceMetadataValueA );
TestValid( TEXT("FoundEntry1 is valid"), FoundEntry1);
TSharedPtr< FManifestEntry > FoundEntry2 = TestManifest.FindEntryBySource( TestNamespace, ConflictingSourceMetadataValueB );
TestValid( TEXT("FoundEntry2 is valid"), FoundEntry2);
}
}
// Adding an entry that only differs in the optional flag
{
FInternationalizationManifest TestManifest;
// Reports success and our entry count does not change. bIsOptional is not a key and is not used during lookup. When
// we AddSource, we find an existing matching entry so AddSource returns true but no new entry is added. The original
// entry's bIsOptional value is not updated.
FContext ContextConflictingOptionalFlag = ContextA;
ContextConflictingOptionalFlag.bIsOptional = !ContextA.bIsOptional;
TestManifest.AddSource( TestNamespace, Source, ContextA );
bool bResult = TestManifest.AddSource( TestNamespace, Source, ContextConflictingOptionalFlag);
TestTrue( TEXT("AddSource result == true"), bResult);
TestEqual( TEXT("ManifestCount == 1"), CountManifestEntries(TestManifest), 1 );
// We should be able to look up the existing entry using the ContextConflictingOptionalFlag context but the entries bIsOptional flag will match ContextA
TSharedPtr< FManifestEntry > FoundEntry = TestManifest.FindEntryByContext( TestNamespace, ContextConflictingOptionalFlag );
if( !FoundEntry.IsValid() )
{
AddError(TEXT("FManifestEntry could not find entry using FindEntryByContext."));
}
else
{
TestTrue( TEXT("FoundEntry->bIsOptional == ContextA->bIsOptional"), FoundEntry->Contexts[0].bIsOptional == ContextA.bIsOptional );
}
}
// Add an entry with null key metadata to see if we can retrieve it with non-null but empty key metadata
{
FInternationalizationManifest TestManifest;
FContext ContextC;
ContextC.Key = TEXT("KeyC");
ContextC.SourceLocation = TEXT("SourceLocationC");
ContextC.InfoMetadataObj = MakeShareable( new FLocMetadataObject(*InfoMetadataB) );
ContextC.KeyMetadataObj = NULL;
Source.MetadataObj = NULL;
TestManifest.AddSource( TestNamespace, Source, ContextC );
// Now give our context and source valid but empty metadata
ContextC.KeyMetadataObj = MakeShareable( new FLocMetadataObject() );
Source.MetadataObj = MakeShareable( new FLocMetadataObject() );
// Ensure we find the entry we added by source
TSharedPtr< FManifestEntry > FoundEntry;
FoundEntry = TestManifest.FindEntryBySource( TestNamespace, Source );
if( !FoundEntry.IsValid() )
{
AddError(TEXT("FManifestEntry could not find entry using FindEntryBySource."));
}
else
{
TestTrue( TEXT("FoundEntry->Source == Source"), FoundEntry->Source == Source );
}
// Ensure we find the entry we added by context
FoundEntry = TestManifest.FindEntryByContext( TestNamespace, ContextC );
if( !FoundEntry.IsValid() )
{
AddError(TEXT("FManifestEntry could not find entry using FindEntryByContext."));
}
else
{
TestTrue( TEXT("FoundEntry->Source == Source"), FoundEntry->Source == Source );
}
}
// Add an entry with non-null but empty key metadata and see if we can retrieve null metadata
{
FInternationalizationManifest TestManifest;
FContext ContextC;
ContextC.Key = TEXT("KeyC");
ContextC.SourceLocation = TEXT("SourceLocationC");
ContextC.InfoMetadataObj = MakeShareable( new FLocMetadataObject(*InfoMetadataB) );
ContextC.KeyMetadataObj = MakeShareable( new FLocMetadataObject());
Source.MetadataObj = MakeShareable( new FLocMetadataObject());
TestManifest.AddSource( TestNamespace, Source, ContextC );
// Now give our context and source Null metadata
ContextC.KeyMetadataObj = NULL;
Source.MetadataObj = NULL;
// Ensure we find the entry we added by source
TSharedPtr< FManifestEntry > FoundEntry;
FoundEntry = TestManifest.FindEntryBySource( TestNamespace, Source );
if( !FoundEntry.IsValid() )
{
AddError(TEXT("FManifestEntry could not find entry using FindEntryBySource."));
}
else
{
TestTrue( TEXT("FoundEntry->Source == Source"), FoundEntry->Source == Source );
}
// Ensure we find the entry we added by context
FoundEntry = TestManifest.FindEntryByContext( TestNamespace, ContextC );
if( !FoundEntry.IsValid() )
{
AddError(TEXT("FManifestEntry could not find entry using FindEntryByContext."));
}
else
{
TestTrue( TEXT("FoundEntry->Source == Source"), FoundEntry->Source == Source );
}
}
}
return true;
}
bool FRangeBoundTest::RunTest( const FString& Parameters )
{
// ensure template instantiation works
FDateRange DateRange;
FDoubleRange DoubleRange;
FFloatRange FloatRange;
FInt8Range Int8Range;
FInt16Range Int16Range;
FInt32Range Int32Range;
FInt64Range Int64Range;
// bound types must be correct after construction
FFloatRangeBound b1_1 = FFloatRangeBound::Exclusive(2.0f);
FFloatRangeBound b1_2 = FFloatRangeBound::Inclusive(2.0f);
FFloatRangeBound b1_3 = FFloatRangeBound::Open();
FFloatRangeBound b1_4 = 2;
TestTrue(TEXT("Exclusive bound constructor must create exclusive bound"), b1_1.IsExclusive());
TestTrue(TEXT("Exclusive bound constructor must create closed bound"), b1_1.IsClosed());
TestFalse(TEXT("Exclusive bound constructor must not create inclusive bound"), b1_1.IsInclusive());
TestFalse(TEXT("Exclusive bound constructor must not create open bound"), b1_1.IsOpen());
TestEqual(TEXT("Exclusive bound constructor must create the correct value"), b1_1.GetValue(), 2.0f);
TestTrue(TEXT("Inclusive bound constructor must create exclusive bound"), b1_2.IsInclusive());
TestTrue(TEXT("Inclusive bound constructor must create closed bound"), b1_2.IsClosed());
TestFalse(TEXT("Inclusive bound constructor must not create exclusive bound"), b1_2.IsExclusive());
TestFalse(TEXT("Inclusive bound constructor must not create open bound"), b1_2.IsOpen());
TestEqual(TEXT("Inclusive bound constructor must create the correct value"), b1_2.GetValue(), 2.0f);
TestTrue(TEXT("Open bound constructor must create open bound"), b1_3.IsOpen());
TestFalse(TEXT("Open bound constructor must not create closed bound"), b1_3.IsClosed());
TestFalse(TEXT("Open bound constructor must not create exclusive bound"), b1_3.IsExclusive());
TestFalse(TEXT("Open bound constructor must not create inclusive bound"), b1_3.IsInclusive());
TestTrue(TEXT("Implicit constructor must create an inclusive bound"), b1_4.IsInclusive());
TestEqual(TEXT("Implicit constructor must create the correct value"), b1_4, b1_2);
// comparisons must be correct
FFloatRangeBound b2_1 = FFloatRangeBound::Exclusive(2.0f);
FFloatRangeBound b2_2 = FFloatRangeBound::Exclusive(2.0f);
FFloatRangeBound b2_3 = FFloatRangeBound::Inclusive(2.0f);
FFloatRangeBound b2_4 = FFloatRangeBound::Inclusive(2.0f);
FFloatRangeBound b2_5 = FFloatRangeBound::Open();
FFloatRangeBound b2_6 = FFloatRangeBound::Open();
TestTrue(TEXT("Equal exclusive bounds must be equal"), b2_1 == b2_2);
TestTrue(TEXT("Equal inclusive bounds must be equal"), b2_3 == b2_4);
TestTrue(TEXT("Open bounds must be equal"), b2_5 == b2_6);
TestFalse(TEXT("Equal exclusive bounds must not be unequal"), b2_1 != b2_2);
TestFalse(TEXT("Equal inclusive bounds must not be unequal"), b2_3 != b2_4);
TestFalse(TEXT("Open bounds must not be unequal"), b2_5 != b2_6);
FFloatRangeBound b2_7 = FFloatRangeBound::Exclusive(3.0f);
FFloatRangeBound b2_8 = FFloatRangeBound::Inclusive(3.0f);
TestTrue(TEXT("Unequal exclusive bounds must be unequal"), b2_1 != b2_7);
TestTrue(TEXT("Unequal inclusive bounds must be unequal"), b2_2 != b2_8);
TestFalse(TEXT("Unequal exclusive bounds must not be equal"), b2_1 == b2_7);
TestFalse(TEXT("Unequal inclusive bounds must not be equal"), b2_2 == b2_8);
// min-max comparisons between bounds must be correct
FFloatRangeBound b3_1 = FFloatRangeBound::Exclusive(2.0f);
FFloatRangeBound b3_2 = FFloatRangeBound::Inclusive(2.0f);
FFloatRangeBound b3_3 = FFloatRangeBound::Open();
TestEqual(TEXT("'[2' must be less than '(2' <1>"), FFloatRangeBound::MinLower(b3_2, b3_1), b3_2);
TestEqual(TEXT("'[2' must be less than '(2' <2>"), FFloatRangeBound::MinLower(b3_1, b3_2), b3_2);
TestEqual(TEXT("Open lower bound must be less than '(2' <1>"), FFloatRangeBound::MinLower(b3_3, b3_1), b3_3);
TestEqual(TEXT("Open lower bound must be less than '(2' <2>"), FFloatRangeBound::MinLower(b3_1, b3_3), b3_3);
TestEqual(TEXT("Open lower bound must be less than '[2' <1>"), FFloatRangeBound::MinLower(b3_3, b3_2), b3_3);
TestEqual(TEXT("Open lower bound must be less than '[2' <2>"), FFloatRangeBound::MinLower(b3_2, b3_3), b3_3);
TestEqual(TEXT("'(2' must be greater than '[2' <1>"), FFloatRangeBound::MaxLower(b3_2, b3_1), b3_1);
TestEqual(TEXT("'(2' must be greater than '[2' <2>"), FFloatRangeBound::MaxLower(b3_1, b3_2), b3_1);
TestEqual(TEXT("'(2' must be greater than open lower bound <1>"), FFloatRangeBound::MaxLower(b3_3, b3_1), b3_1);
TestEqual(TEXT("'(2' must be greater than open lower bound <2>"), FFloatRangeBound::MaxLower(b3_1, b3_3), b3_1);
TestEqual(TEXT("'[2' must be greater than open lower bound <1>"), FFloatRangeBound::MaxLower(b3_3, b3_2), b3_2);
TestEqual(TEXT("'[2' must be greater than open lower bound <2>"), FFloatRangeBound::MaxLower(b3_2, b3_3), b3_2);
TestEqual(TEXT("'2)' must be less than '2]' <1>"), FFloatRangeBound::MinUpper(b3_2, b3_1), b3_1);
TestEqual(TEXT("'2)' must be less than '2]' <2>"), FFloatRangeBound::MinUpper(b3_1, b3_2), b3_1);
TestEqual(TEXT("'2)' must be less than open upper bound <1>"), FFloatRangeBound::MinUpper(b3_3, b3_1), b3_1);
TestEqual(TEXT("'2)' must be less than open upper bound <2>"), FFloatRangeBound::MinUpper(b3_1, b3_3), b3_1);
TestEqual(TEXT("'2]' must be less than open upper bound <1>"), FFloatRangeBound::MinUpper(b3_3, b3_2), b3_2);
TestEqual(TEXT("'2]' must be less than open upper bound"), FFloatRangeBound::MinUpper(b3_2, b3_3), b3_2);
TestEqual(TEXT("'2]' must be greater than '2)' <1>"), FFloatRangeBound::MaxUpper(b3_2, b3_1), b3_2);
TestEqual(TEXT("'2]' must be greater than '2)' <2>"), FFloatRangeBound::MaxUpper(b3_1, b3_2), b3_2);
TestEqual(TEXT("Open upper bound must be greater than '2)' <1>"), FFloatRangeBound::MaxUpper(b3_3, b3_1), b3_3);
TestEqual(TEXT("Open upper bound must be greater than '2)' <2>"), FFloatRangeBound::MaxUpper(b3_1, b3_3), b3_3);
TestEqual(TEXT("Open upper bound must be greater than '2]' <1>"), FFloatRangeBound::MaxUpper(b3_3, b3_2), b3_3);
TestEqual(TEXT("Open upper bound must be greater than '2]' <2>"), FFloatRangeBound::MaxUpper(b3_2, b3_3), b3_3);
FFloatRangeBound b4_1 = FFloatRangeBound::Exclusive(3);
FFloatRangeBound b4_2 = FFloatRangeBound::Inclusive(3);
TestEqual(TEXT("'(2' must be less than '[3' <1>"), FFloatRangeBound::MinLower(b3_1, b4_2), b3_1);
TestEqual(TEXT("'(2' must be less than '[3' <2>"), FFloatRangeBound::MinLower(b4_2, b3_1), b3_1);
TestEqual(TEXT("'[2' must be less than '[3' <1>"), FFloatRangeBound::MinLower(b3_2, b4_2), b3_2);
TestEqual(TEXT("'[2' must be less than '[3' <2>"), FFloatRangeBound::MinLower(b4_2, b3_2), b3_2);
TestEqual(TEXT("'[3' must be greater than '(2' <1>"), FFloatRangeBound::MaxLower(b3_1, b4_2), b4_2);
TestEqual(TEXT("'[3' must be greater than '(2' <2>"), FFloatRangeBound::MaxLower(b4_2, b3_1), b4_2);
TestEqual(TEXT("'[3' must be greater than '[2' <1>"), FFloatRangeBound::MaxLower(b3_2, b4_2), b4_2);
TestEqual(TEXT("'[3' must be greater than '[2' <2>"), FFloatRangeBound::MaxLower(b4_2, b3_2), b4_2);
return true;
}
void MockOLED::drawSetupMock(MockOLED& obj) {
Serial.begin (9600); //alternately comment out if using more than one setup function
TestTrue ("OLED init test", obj.exists);
int printed = obj.MockPrintToOLED ("Setting Up"); //There's an interior method here that interacts with the OLED
TestEqual ("drawSetup Print Check", printed, 1 );
}
