const AST::Type* resolveAliasType(AST::Alias& alias) { if (alias.type() != nullptr) { return alias.type(); } assert(resolveMap_.find(&alias) != resolveMap_.end()); auto& resolveInfo = resolveMap_.at(&alias); if (resolveInfo.isResolving()) { context_.issueDiag(AliasDependsOnItselfDiag(alias.fullName().copy()), alias.location()); const auto voidType = context_.typeBuilder().getVoidType(); alias.setType(voidType); return voidType; } resolveInfo.setIsResolving(); SwapScopeStack swapScopeStack(context_.scopeStack(), resolveInfo.scopeStack()); alias.setValue(ConvertValue(context_, alias.valueDecl())); return alias.type(); }
void SerialController::SetMaxSpeed(float value) { if (_port) { _port->print("M"); _port->print(String(ConvertValue(value))); _port->print(EOT); } }
void SerialController::SetDamping(float value) { // check to make sure that the serial port is ready if (_port) { _port->print("D"); _port->print(String(ConvertValue(value))); _port->print(EOT); } }
SEXP ConvertArray(bson_iter_t* iter, bson_iter_t* counter){ SEXP ret; int count = 0; while(bson_iter_next(counter)){ count++; } PROTECT(ret = allocVector(VECSXP, count)); for (int i = 0; bson_iter_next(iter); i++) { SET_VECTOR_ELT(ret, i, ConvertValue(iter)); } UNPROTECT(1); return ret; }
const char *ConfigItem::StringValue() const { if ( !accessed ) ConvertValue(); if ( cfg_type != CFG_STRING ) { Error( "Attempt to fetch string value for %s, actual type is %s. Try running 'zmupdate.pl -f' to reload config.", name, type ); exit( -1 ); } return( cfg_value.string_value ); }
int ConfigItem::IntegerValue() const { if ( !accessed ) ConvertValue(); if ( cfg_type != CFG_INTEGER ) { Error( "Attempt to fetch integer value for %s, actual type is %s. Try running 'zmupdate.pl -f' to reload config.", name, type ); exit( -1 ); } return( cfg_value.integer_value ); }
double ConfigItem::DecimalValue() const { if ( !accessed ) ConvertValue(); if ( cfg_type != CFG_DECIMAL ) { Error( "Attempt to fetch decimal value for %s, actual type is %s. Try running 'zmupdate.pl -f' to reload config.", name, type ); exit( -1 ); } return( cfg_value.decimal_value ); }
bool ConfigItem::BooleanValue() const { if ( !accessed ) ConvertValue(); if ( cfg_type != CFG_BOOLEAN ) { Error( "Attempt to fetch boolean value for %s, actual type is %s. Try running 'zmupdate.pl -f' to reload config.", name, type ); exit( -1 ); } return( cfg_value.boolean_value ); }
void FilterNodeD2D1::SetAttribute(uint32_t aIndex, const IntSize &aValue) { UINT32 widthProp, heightProp; if (!GetD2D1PropsForIntSize(mType, aIndex, &widthProp, &heightProp)) { return; } IntSize value = aValue; ConvertValue(mType, aIndex, value); mEffect->SetValue(widthProp, (UINT)value.width); mEffect->SetValue(heightProp, (UINT)value.height); }
void FilterNodeD2D1::SetAttribute(uint32_t aIndex, uint32_t aValue) { UINT32 input = GetD2D1PropForAttribute(mType, aIndex); MOZ_ASSERT(input < mEffect->GetPropertyCount()); if (mType == FilterType::TURBULENCE && aIndex == ATT_TURBULENCE_BASE_FREQUENCY) { mEffect->SetValue(input, D2D1::Vector2F(FLOAT(aValue), FLOAT(aValue))); return; } else if (mType == FilterType::DIRECTIONAL_BLUR && aIndex == ATT_DIRECTIONAL_BLUR_DIRECTION) { mEffect->SetValue(input, aValue == BLUR_DIRECTION_X ? 0 : 90.0f); return; } mEffect->SetValue(input, ConvertValue(mType, aIndex, aValue)); }
static void ConvertDeclaration(css_node declaration, StyleBuffer sb) { int property_type; if (declaration && (declaration->node_id == NODE_DECLARATION_PROPERTY_EXPR || declaration->node_id == NODE_DECLARATION_PROPERTY_EXPR_PRIO)) { StyleBufferWrite(".", 1, sb); ConvertProperty(declaration->left->string, sb, &property_type); ConvertValue(declaration->right, sb, property_type); #if ALLOW_PRIORITY if (declaration->node_id == NODE_DECLARATION_PROPERTY_EXPR_PRIO) StyleBufferWrite(" !important", 11, sb); #endif StyleBufferWrite("\n", 1, sb); } }
SEXP ConvertObject(bson_iter_t* iter, bson_iter_t* counter){ SEXP names; SEXP ret; int count = 0; while(bson_iter_next(counter)){ count++; } PROTECT(ret = allocVector(VECSXP, count)); PROTECT(names = allocVector(STRSXP, count)); for (int i = 0; bson_iter_next(iter); i++) { SET_STRING_ELT(names, i, mkChar(bson_iter_key(iter))); SET_VECTOR_ELT(ret, i, ConvertValue(iter)); } setAttrib(ret, R_NamesSymbol, names); UNPROTECT(2); return ret; }
void Value_Raw::Assign( const I_Value& inValue ) { if( inValue.get_IsNull() ) { put_IsNull( true ); } else { if( get_Type() == inValue.get_Type() ) { vuint32 Len = static_cast<vuint32>(inValue.end() - inValue.begin()); put_Data( (vuint8*)inValue.begin(), Len ); } else { ConvertValue( &inValue, this ); } } }
long SerialController::ReadPosition() { int value = 0; // if (_port) // { // _port->print("P"); // _port->print("\n\r"); // // while(!_port->available()) // { delay(10); } // // while (_port->available()) // { Serial.print( _port->read()); Serial.print(" "); } // //value = _port->read(); // } return ConvertValue(value); }
float SerialController::ReadDamping() { int value = 0; // if (_port) // { // _port->print("D"); // _port->print("\n\r"); // _port->flush(); // // while(!_port->available()) // { delay(10); } // // while (_port->available()) // { Serial.Set( _port->read()); Serial.print(" "); } // } return ConvertValue(value); }
void AddNamespaceDataAliasValues(Context& context, const AST::Node<AST::NamespaceData>& astNamespaceDataNode) { const auto semNamespace = context.scopeStack().back().nameSpace(); for (const auto& astAliasNode: astNamespaceDataNode->aliases) { auto& semAlias = semNamespace->items().at(astAliasNode->name).alias(); PushScopeElement pushScopeElement(context.scopeStack(), ScopeElement::Alias(&semAlias)); semAlias.setValue(ConvertValue(context, astAliasNode->value)); } for (const auto& astChildNamespaceNode: astNamespaceDataNode->namespaces) { auto& semChildNamespace = semNamespace->items().at(astChildNamespaceNode->name).nameSpace(); PushScopeElement pushScopeElement(context.scopeStack(), ScopeElement::Namespace(&semChildNamespace)); AddNamespaceDataAliasValues(context, astChildNamespaceNode->data); } for (const auto& astModuleScopeNode: astNamespaceDataNode->moduleScopes) { AddNamespaceDataAliasValues(context, astModuleScopeNode->data); } }
float SerialController::ReadMaxSpeed() { int value = 0; // if (_port) // { // _port->print("M"); // _port->print("\n\r"); // // while(!_port->available()) // { delay(10); } // // while (_port->available()) // { Serial.print( _port->read());} // // Serial.println(""); // } return ConvertValue(value); }
void copy_metadata(std::unique_ptr<DracoMesh>& draco_mesh, Mesh::Ptr mesh) { const auto metadata = draco_mesh->GetMetadata(); if (metadata == nullptr) return; const auto& attr_metadatas = metadata->attribute_metadatas(); for (const auto& attr_metadata : attr_metadatas) { std::string name=""; attr_metadata->GetEntryString("name", &name); if (name == "") continue; auto uid = attr_metadata->att_unique_id(); const auto attr = draco_mesh->GetAttributeByUniqueId(uid); const auto num_rows = attr->size(); const auto num_cols = attr->num_components(); VectorF data(num_rows * num_cols); for (size_t i=0; i<num_rows; i++) { attr->ConvertValue(draco::AttributeValueIndex(i), data.data() + i*num_cols); } mesh->add_empty_attribute(name); mesh->set_attribute(name, data); } }
value_t NValue::GetValue(const std::string& delimiter) const { return ConvertValue(get(), delimiter); }