void
Profile::SetAirspaceFillMode(unsigned i, uint8_t mode)
{
TCHAR name[64];
MakeAirspaceSettingName(name, _T("AirspaceFillMode"), i);
SetEnum(name, (AirspaceClassRendererSettings::FillMode)mode);
}
void UK2Node_Select::AllocateDefaultPins()
{
const UEdGraphSchema_K2* Schema = GetDefault<UEdGraphSchema_K2>();
// To refresh, just in case it changed
SetEnum(Enum, true);
if (Enum)
{
NumOptionPins = EnumEntries.Num();
}
// Create the option pins
for (int32 Idx = 0; Idx < NumOptionPins; Idx++)
{
UEdGraphPin* NewPin = NULL;
if (Enum)
{
const FString PinName = EnumEntries[Idx].ToString();
UEdGraphPin* TempPin = FindPin(PinName);
if (!TempPin)
{
NewPin = CreatePin(EGPD_Input, Schema->PC_Wildcard, TEXT(""), NULL, false, false, PinName);
}
}
else
{
const FString PinName = FString::Printf(TEXT("Option %d"), Idx);
NewPin = CreatePin(EGPD_Input, Schema->PC_Wildcard, TEXT(""), NULL, false, false, PinName);
}
if (NewPin)
{
if (IndexPinType.PinCategory == UEdGraphSchema_K2::PC_Boolean)
{
NewPin->PinFriendlyName = (Idx == 0 ? GFalse : GTrue);
}
else if (Idx < EnumEntryFriendlyNames.Num())
{
if (EnumEntryFriendlyNames[Idx] != NAME_None)
{
NewPin->PinFriendlyName = FText::FromName(EnumEntryFriendlyNames[Idx]);
}
else
{
NewPin->PinFriendlyName = FText::GetEmpty();
}
}
}
}
// Create the index wildcard pin
CreatePin(EGPD_Input, IndexPinType.PinCategory, IndexPinType.PinSubCategory, IndexPinType.PinSubCategoryObject.Get(), false, false, "Index");
// Create the return value
CreatePin(EGPD_Output, Schema->PC_Wildcard, TEXT(""), NULL, false, false, Schema->PN_ReturnValue);
Super::AllocateDefaultPins();
}
void UK2Node_SwitchEnum::CreateCasePins()
{
if(NULL != Enum)
{
SetEnum(Enum);
}
const bool bShouldUseAdvancedView = (EnumEntries.Num() > 5);
if(bShouldUseAdvancedView && (ENodeAdvancedPins::NoPins == AdvancedPinDisplay))
{
AdvancedPinDisplay = ENodeAdvancedPins::Hidden;
}
const UEdGraphSchema_K2* K2Schema = GetDefault<UEdGraphSchema_K2>();
for (auto EnumIt = EnumEntries.CreateConstIterator(); EnumIt; ++EnumIt)
{
FName EnumEntry = *EnumIt;
UEdGraphPin * NewPin = CreatePin(EGPD_Output, K2Schema->PC_Exec, TEXT(""), NULL, false, false, EnumEntry.ToString());
int32 Index = EnumIt.GetIndex();
if (EnumFriendlyNames.IsValidIndex(Index))
{
NewPin->PinFriendlyName = FText::FromString(EnumFriendlyNames[Index]);
}
if(bShouldUseAdvancedView && (EnumIt.GetIndex() > 2))
{
NewPin->bAdvancedView = true;
}
}
}
void CXTPPropertyGridItemEnum::OnBeforeInsert()
{
if (m_pBindEnum && *m_pBindEnum != m_nValue)
{
SetEnum(*m_pBindEnum);
}
}
void CXTPPropertyGridItemEnum::_Init(int nValue)
{
SetEnum(nValue);
m_nFlags = xtpGridItemHasComboButton | xtpGridItemHasEdit;
SetConstraintEdit(TRUE);
m_strDefaultValue = m_strValue;
}
void CXTPPropertyGridItemEnum::SetValue(CString strValue)
{
int nIndex = m_pConstraints->FindConstraint(strValue);
ASSERT(nIndex >= 0);
if (nIndex >= 0)
{
SetEnum(m_pConstraints->GetConstraintAt(nIndex));
}
}
void ParamWidget::LoadState(const QVariant& variant) {
QMap<QString, QVariant> data = variant.toMap();
for (auto& item : widgets_) {
const QString& name = item.first;
const QString qname = name;
QWidget* widget = item.second;
QVariant param_type = widget->property("param_widget_type");
QVariant value = data[qname];
assert(param_type.isValid());
switch (param_type.toInt()) {
case kParamEnum:
if (value.canConvert<int>()) {
SetEnum(name, value.toInt());
}
break;
case kParamBool:
if (value.canConvert<bool>()) {
SetBool(name, value.toBool());
}
break;
case kParamInt:
if (value.canConvert<int>()) {
SetInt(name, value.toInt());
}
break;
case kParamDouble:
if (value.canConvert<double>()) {
SetDouble(name, value.toDouble());
}
break;
case kParamButton:
default:
assert(false);
break;
}
}
}
bool Pb2Json::Json2Message(const Json& json, ProtobufMsg& message, bool str2enum) {
auto descriptor = message.GetDescriptor();
auto reflection = message.GetReflection();
if (nullptr == descriptor || nullptr == reflection) return false;
auto count = descriptor->field_count();
for (auto i = 0; i < count; ++i) {
const auto field = descriptor->field(i);
if (nullptr == field) continue;
auto& value = json[field->name()];
if (value.is_null()) continue;
if (field->is_repeated()) {
if (!value.is_array()) {
return false;
} else {
Json2RepeatedMessage(value, message, field, reflection, str2enum);
continue;
}
}
switch (field->type()) {
case ProtobufFieldDescriptor::TYPE_BOOL: {
if (value.is_boolean())
reflection->SetBool(&message, field, value.get<bool>());
else if (value.is_number_integer())
reflection->SetBool(&message, field, value.get<uint32_t>() != 0);
else if (value.is_string()) {
if (value.get<std::string>() == "true")
reflection->SetBool(&message, field, true);
else if (value.get<std::string>() == "false")
reflection->SetBool(&message, field, false);
}
} break;
case ProtobufFieldDescriptor::TYPE_ENUM: {
auto const* pedesc = field->enum_type();
const ::google::protobuf::EnumValueDescriptor* pevdesc = nullptr;
if (str2enum) {
pevdesc = pedesc->FindValueByName(value.get<std::string>());
} else {
pevdesc = pedesc->FindValueByNumber(value.get<int>());
}
if (nullptr != pevdesc) {
reflection->SetEnum(&message, field, pevdesc);
}
} break;
case ProtobufFieldDescriptor::TYPE_INT32:
case ProtobufFieldDescriptor::TYPE_SINT32:
case ProtobufFieldDescriptor::TYPE_SFIXED32: {
if (value.is_number()) reflection->SetInt32(&message, field, value.get<int32_t>());
} break;
case ProtobufFieldDescriptor::TYPE_UINT32:
case ProtobufFieldDescriptor::TYPE_FIXED32: {
if (value.is_number()) reflection->SetUInt32(&message, field, value.get<uint32_t>());
} break;
case ProtobufFieldDescriptor::TYPE_INT64:
case ProtobufFieldDescriptor::TYPE_SINT64:
case ProtobufFieldDescriptor::TYPE_SFIXED64: {
if (value.is_number()) reflection->SetInt64(&message, field, value.get<int64_t>());
} break;
case ProtobufFieldDescriptor::TYPE_UINT64:
case ProtobufFieldDescriptor::TYPE_FIXED64: {
if (value.is_number()) reflection->SetUInt64(&message, field, value.get<uint64_t>());
} break;
case ProtobufFieldDescriptor::TYPE_FLOAT: {
if (value.is_number()) reflection->SetFloat(&message, field, value.get<float>());
} break;
case ProtobufFieldDescriptor::TYPE_DOUBLE: {
if (value.is_number()) reflection->SetDouble(&message, field, value.get<double>());
} break;
case ProtobufFieldDescriptor::TYPE_STRING:
case ProtobufFieldDescriptor::TYPE_BYTES: {
if (value.is_string()) reflection->SetString(&message, field, value.get<std::string>());
} break;
case ProtobufFieldDescriptor::TYPE_MESSAGE: {
if (value.is_object()) Json2Message(value, *reflection->MutableMessage(&message, field));
} break;
default:
break;
}
}
return true;
}
void UK2Node_Select::PinTypeChanged(UEdGraphPin* Pin)
{
const UEdGraphSchema_K2* Schema = GetDefault<UEdGraphSchema_K2>();
if (Pin == GetIndexPin())
{
if (IndexPinType != Pin->PinType)
{
IndexPinType = Pin->PinType;
if (IndexPinType.PinSubCategoryObject.IsValid())
{
SetEnum(Cast<UEnum>(IndexPinType.PinSubCategoryObject.Get()));
}
else if (Enum)
{
SetEnum(NULL);
}
// Remove all but two options if we switched to a bool index
if (IndexPinType.PinCategory == Schema->PC_Boolean)
{
if (NumOptionPins > 2)
{
NumOptionPins = 2;
bReconstructNode = true;
}
}
// Reset the default value
Schema->SetPinDefaultValueBasedOnType(Pin);
}
}
else
{
// Set the return value
UEdGraphPin* ReturnPin = GetReturnValuePin();
if (ReturnPin->PinType != Pin->PinType)
{
ReturnPin->PinType = Pin->PinType;
Schema->SetPinDefaultValueBasedOnType(ReturnPin);
}
// Set the options
TArray<UEdGraphPin*> OptionPins;
GetOptionPins(OptionPins);
for (auto It = OptionPins.CreateConstIterator(); It; It++)
{
UEdGraphPin* OptionPin = (*It);
if (OptionPin->PinType != Pin->PinType ||
OptionPin == Pin)
{
OptionPin->PinType = Pin->PinType;
Schema->SetPinDefaultValueBasedOnType(OptionPin);
}
}
}
// Reconstruct the node since the options could change
if (bReconstructNode)
{
ReconstructNode();
}
// Let the graph know to refresh
GetGraph()->NotifyGraphChanged();
UBlueprint* Blueprint = GetBlueprint();
if(!Blueprint->bBeingCompiled)
{
FBlueprintEditorUtils::MarkBlueprintAsModified(Blueprint);
Blueprint->BroadcastChanged();
}
}
/** Determine if any pins are connected, if so make all the other pins the same type, if not, make sure pins are switched back to wildcards */
void UK2Node_Select::NotifyPinConnectionListChanged(UEdGraphPin* Pin)
{
Super::NotifyPinConnectionListChanged(Pin);
const UEdGraphSchema_K2* Schema = GetDefault<UEdGraphSchema_K2>();
// If this is the Enum pin we need to set the enum and reconstruct the node
if (Pin == GetIndexPin())
{
// If the index pin was just linked to another pin
if (Pin->LinkedTo.Num() > 0)
{
UEdGraphPin* LinkPin = Pin->LinkedTo[0];
IndexPinType = LinkPin->PinType;
Pin->PinType = IndexPinType;
// See if it was an enum pin
if (LinkPin->PinType.PinCategory == Schema->PC_Byte &&
LinkPin->PinType.PinSubCategoryObject != NULL &&
LinkPin->PinType.PinSubCategoryObject->IsA(UEnum::StaticClass()))
{
UEnum* EnumPtr = Cast<UEnum>(LinkPin->PinType.PinSubCategoryObject.Get());
SetEnum(EnumPtr);
}
else
{
SetEnum(NULL);
}
Schema->SetPinDefaultValueBasedOnType(Pin);
GetGraph()->NotifyGraphChanged();
UBlueprint* Blueprint = GetBlueprint();
if(!Blueprint->bBeingCompiled)
{
FBlueprintEditorUtils::MarkBlueprintAsModified(Blueprint);
Blueprint->BroadcastChanged();
}
// If the index pin is a boolean, we need to remove all but 2 options
if (IndexPinType.PinCategory == Schema->PC_Boolean &&
NumOptionPins != 2)
{
NumOptionPins = 2;
bReconstructNode = true;
}
}
}
else
{
// Grab references to all option pins and the return pin
TArray<UEdGraphPin*> OptionPins;
GetOptionPins(OptionPins);
UEdGraphPin* ReturnPin = FindPin(Schema->PN_ReturnValue);
// See if this pin is one of the wildcard pins
bool bIsWildcardPin = (Pin == ReturnPin || OptionPins.Find(Pin) != INDEX_NONE) && Pin->PinType.PinCategory == Schema->PC_Wildcard;
// If the pin was one of the wildcards we have to handle it specially
if (bIsWildcardPin)
{
// If the pin is linked, make sure the other wildcard pins match
if (Pin->LinkedTo.Num() > 0)
{
// Set pin type on the pin
Pin->PinType = Pin->LinkedTo[0]->PinType;
// Make sure the return pin is the same pin type
if (ReturnPin != Pin)
{
ReturnPin->Modify();
ReturnPin->PinType = Pin->PinType;
UEdGraphSchema_K2::ValidateExistingConnections(ReturnPin);
}
// Make sure all options are of the same pin type
for (auto It = OptionPins.CreateConstIterator(); It; It++)
{
UEdGraphPin* OptionPin = (*It);
if (*It && *It != Pin)
{
(*It)->Modify();
(*It)->PinType = Pin->PinType;
UEdGraphSchema_K2::ValidateExistingConnections(*It);
}
}
bReconstructNode = true;
}
}
}
}
void
Profile::SetDeviceConfig(unsigned n, const DeviceConfig &config)
{
char buffer[64];
WritePortType(n, config.port_type);
MakeDeviceSettingName(buffer, "Port", n, "BluetoothMAC");
Set(buffer, config.bluetooth_mac);
MakeDeviceSettingName(buffer, "Port", n, "IOIOUartID");
Set(buffer, config.ioio_uart_id);
MakeDeviceSettingName(buffer, "Port", n, "Path");
Set(buffer, config.path);
MakeDeviceSettingName(buffer, "Port", n, "BaudRate");
Set(buffer, config.baud_rate);
MakeDeviceSettingName(buffer, "Port", n, "BulkBaudRate");
Set(buffer, config.bulk_baud_rate);
MakeDeviceSettingName(buffer, "Port", n, "IPAddress");
Set(buffer, config.ip_address);
MakeDeviceSettingName(buffer, "Port", n, "TCPPort");
Set(buffer, config.tcp_port);
strcpy(buffer, "DeviceA");
buffer[strlen(buffer) - 1] += n;
Set(buffer, config.driver_name);
MakeDeviceSettingName(buffer, "Port", n, "Enabled");
Set(buffer, config.enabled);
MakeDeviceSettingName(buffer, "Port", n, "SyncFromDevice");
Set(buffer, config.sync_from_device);
MakeDeviceSettingName(buffer, "Port", n, "SyncToDevice");
Set(buffer, config.sync_to_device);
MakeDeviceSettingName(buffer, "Port", n, "K6Bt");
Set(buffer, config.k6bt);
MakeDeviceSettingName(buffer, "Port", n, "I2C_Bus");
Set(buffer, config.i2c_bus);
MakeDeviceSettingName(buffer, "Port", n, "I2C_Addr");
Set(buffer, config.i2c_addr);
MakeDeviceSettingName(buffer, "Port", n, "PressureUse");
SetEnum(buffer, config.press_use);
MakeDeviceSettingName(buffer, "Port", n, "SensorOffset");
fixed offset = DeviceConfig::UsesCalibration(config.port_type) ? config.sensor_offset : fixed(0);
// Has new calibration data been delivered ?
if (CommonInterface::Basic().sensor_calibration_available)
offset = CommonInterface::Basic().sensor_calibration_offset;
Set(buffer, offset);
MakeDeviceSettingName(buffer, "Port", n, "SensorFactor");
fixed factor = DeviceConfig::UsesCalibration(config.port_type) ? config.sensor_factor : fixed(0);
// Has new calibration data been delivered ?
if (CommonInterface::Basic().sensor_calibration_available)
factor = CommonInterface::Basic().sensor_calibration_factor;
Set(buffer, factor);
}
