Example #1
0
    void SetXMLValueForKey(const char* pKey, const char* value, rapidxml::xml_document<>& doc, rapidxml::xml_node<>* parentNode)
    {
        // check the params
        if (!pKey || !value || !parentNode)
        {
            return;
        }

        // find the node
        rapidxml::xml_node<>* node = parentNode->first_node(pKey);

        if (node)
        {
            if (node->first_node())
            {
                node->first_node()->value(doc.allocate_string(value));
            }
            else
            {
                node->value(doc.allocate_string(value));
            }
        }
        else
        {
            parentNode->append_node(doc.allocate_node(rapidxml::node_element, doc.allocate_string(pKey), doc.allocate_string(value)));
        }
    }
Example #2
0
void Genome::FillGenes(rapidxml::xml_document<>& doc, rapidxml::xml_node<>* chromosomeNode, Encoding& encoding){
	for (rapidxml::xml_node<>* geneNode = chromosomeNode->first_node("Gene"); geneNode; geneNode = geneNode->next_sibling("Gene"))
	{
		char* pchRandomData = doc.allocate_string(encoding.RandomData(chromosomeNode).c_str());
		geneNode->value(pchRandomData);

	}


}
Example #3
0
bool struct_xml(rapidxml::xml_node<> * & node, const ReqDeviceInfo & in, rapidxml::xml_document<> & doc)
{
node = doc.allocate_node(rapidxml::node_element, doc.allocate_string("ReqDeviceInfo"));
/* @generate [ userId:int ] begin @ */

{
auto node1 = doc.allocate_node(rapidxml::node_element, "userId", doc.allocate_string(get_string(in.userId).c_str()));
node->append_node(node1);
}
/* @generate [ userId:int ] end @ */

/* @generate [ deviceId:int ] begin @ */

{
auto node1 = doc.allocate_node(rapidxml::node_element, "deviceId", doc.allocate_string(get_string(in.deviceId).c_str()));
node->append_node(node1);
}
/* @generate [ deviceId:int ] end @ */

return true;
}
Example #4
0
File: Xml.cpp Project: Ahbee/Cinder
void XmlTree::appendRapidXmlNode( rapidxml::xml_document<char> &doc, rapidxml::xml_node<char> *parent ) const
{
	rapidxml::node_type type;
	switch( getNodeType() ) {
		case XmlTree::NODE_ELEMENT: type = rapidxml::node_element; break;
		case XmlTree::NODE_COMMENT: type = rapidxml::node_comment; break;
		case XmlTree::NODE_CDATA: type = rapidxml::node_cdata; break;
		case XmlTree::NODE_DATA: type = rapidxml::node_data; break;
		
		default: throw ExcUnknownNodeType();
	}
	rapidxml::xml_node<char> *node = 0;
	if( type == rapidxml::node_data ) {
		node = doc.allocate_node( type, NULL, doc.allocate_string( getValue().c_str() ) );
	}
	else if( type == rapidxml::node_comment ) {
		node = doc.allocate_node( type, doc.allocate_string( getTag().c_str() ), doc.allocate_string( getValue().c_str() ) );
	}
	else {
		node = doc.allocate_node( type, doc.allocate_string( getTag().c_str() ), NULL );
		if( ! getValue().empty() )
			node->append_node( doc.allocate_node( rapidxml::node_data, NULL, doc.allocate_string( getValue().c_str() ) ) );
	}
	parent->append_node( node );

	for( list<Attr>::const_iterator attrIt = mAttributes.begin(); attrIt != mAttributes.end(); ++attrIt )
		node->append_attribute( doc.allocate_attribute( doc.allocate_string( attrIt->getName().c_str() ), doc.allocate_string( attrIt->getValue().c_str() ) ) );
		
	for( Container::const_iterator childIt = mChildren.begin(); childIt != mChildren.end(); ++childIt )
		(*childIt)->appendRapidXmlNode( doc, node );
}
void TacheUnitaire::xml_ajouterAttributs(rapidxml::xml_document<> & doc, rapidxml::xml_node<> & node_tache)
{
   using namespace rapidxml;
   xml_attribute<> * attribute = doc.allocate_attribute("type", "u");
   node_tache.append_attribute(attribute);
   if(getPreempte() == true) {
      attribute = doc.allocate_attribute("pre", "true");
      node_tache.append_attribute(attribute);
   }
   char * node_name = doc.allocate_string( duree.toChar() );
   attribute = doc.allocate_attribute( "duree", node_name );
   node_tache.append_attribute(attribute);
}
Example #6
0
void Genome::GeneMutations(rapidxml::xml_document<>& doc, rapidxml::xml_node<>* geneNode, Mutation& mutation, MutationChance mutationChance){

		char* pchMutatedData;

		int nLow = 0;
		int nHigh = RAND_MAX;

		double dRandom;


		dRandom = (double)((rand() % (nHigh - nLow + 1)) + nLow)/nHigh;
		dRandom = dRandom * 100;
		if(dRandom <=  mutationChance.dBitString){
			pchMutatedData = doc.allocate_string(mutation.BitString().c_str());
			geneNode->value(pchMutatedData);
		}

		dRandom = (double)((rand() % (nHigh - nLow + 1)) + nLow)/nHigh;
		dRandom = dRandom * 100;
		if(dRandom <=  mutationChance.dFlipBits){
			pchMutatedData = doc.allocate_string(mutation.FlipBits().c_str());
			geneNode->value(pchMutatedData);
		}

		dRandom = (double)((rand() % (nHigh - nLow + 1)) + nLow)/nHigh;
		dRandom = dRandom * 100;
		if(dRandom <=  mutationChance.dBoundary){
			pchMutatedData = doc.allocate_string(mutation.Boundary().c_str());
			geneNode->value(pchMutatedData);
		}

		dRandom = (double)((rand() % (nHigh - nLow + 1)) + nLow)/nHigh;
		dRandom = dRandom * 100;
		if(dRandom <=  mutationChance.dUniform){
			pchMutatedData = doc.allocate_string(mutation.Uniform().c_str());
			geneNode->value(pchMutatedData);
		}

		dRandom = (double)((rand() % (nHigh - nLow + 1)) + nLow)/nHigh;
		dRandom = dRandom * 100;
		if(dRandom <=  mutationChance.dGaussian){
			pchMutatedData = doc.allocate_string(mutation.Gaussian(mutationChance.dGaussianSigma).c_str());
			geneNode->value(pchMutatedData);
		}

		dRandom = (double)((rand() % (nHigh - nLow + 1)) + nLow)/nHigh;
		dRandom = dRandom * 100;
		if(dRandom <=  mutationChance.dDuplication){
			pchMutatedData = doc.allocate_string(mutation.Duplication().c_str());
			geneNode->value(pchMutatedData);
		}

		dRandom = (double)((rand() % (nHigh - nLow + 1)) + nLow)/nHigh;
		dRandom = dRandom * 100;
		if(dRandom <=  mutationChance.dDeletion){
			pchMutatedData = doc.allocate_string(mutation.Deletion().c_str());
			geneNode->value(pchMutatedData);
		}

		dRandom = (double)((rand() % (nHigh - nLow + 1)) + nLow)/nHigh;
		dRandom = dRandom * 100;
		if(dRandom <=  mutationChance.dInsertion){
			pchMutatedData = doc.allocate_string(mutation.Insertion().c_str());
			geneNode->value(pchMutatedData);
		}

		dRandom = (double)((rand() % (nHigh - nLow + 1)) + nLow)/nHigh;
		dRandom = dRandom * 100;
		if(dRandom <=  mutationChance.dSwap){
			pchMutatedData = doc.allocate_string(mutation.Swap().c_str());
			geneNode->value(pchMutatedData);
		}

}
Example #7
0
void CTest::AddXMLAttributeValue( rapidxml::xml_document<>& pDoc, rapidxml::xml_node<>* pNode, const std::wstring& strwKey, const std::wstring& strwValue )
{
	std::string straValue = wstr2str(strwValue, CP_UTF8);
	std::string strakey = wstr2str(strwKey, CP_UTF8);
	pNode->append_attribute(pDoc.allocate_attribute(pDoc.allocate_string(strakey.c_str()), pDoc.allocate_string(straValue.c_str()) ) );
}
Example #8
0
bool struct_xml(rapidxml::xml_node<> * & node, const RetDeviceInfo & in, rapidxml::xml_document<> & doc)
{
node = doc.allocate_node(rapidxml::node_element, doc.allocate_string("RetDeviceInfo"));
/* @generate [ userId:int ] begin @ */

{
auto node1 = doc.allocate_node(rapidxml::node_element, "userId", doc.allocate_string(get_string(in.userId).c_str()));
node->append_node(node1);
}
/* @generate [ userId:int ] end @ */

/* @generate [ deviceId:int ] begin @ */

{
auto node1 = doc.allocate_node(rapidxml::node_element, "deviceId", doc.allocate_string(get_string(in.deviceId).c_str()));
node->append_node(node1);
}
/* @generate [ deviceId:int ] end @ */

/* @generate [ deviceInfos:std::vector< ReqDeviceInfo > ] begin @ */

{
auto node1 = doc.allocate_node(rapidxml::node_element, doc.allocate_string("deviceInfos"));
node->append_node(node1);
auto node2 = doc.allocate_node(rapidxml::node_element, doc.allocate_string("Vector"));
node1->append_node(node2);
for(auto i = in.deviceInfos.begin(); i != in.deviceInfos.end(); ++i)
{
rapidxml::xml_node<> * tmp = 0;
if(!struct_xml(tmp, *i, doc))
return false;
node2->append_node(tmp);
}
}
/* @generate [ deviceInfos:std::vector< ReqDeviceInfo > ] end @ */

/* @generate [ deviceInfos2:std::vector< int > ] begin @ */

{
auto node1 = doc.allocate_node(rapidxml::node_element, doc.allocate_string("deviceInfos2"));
node->append_node(node1);
auto node2 = doc.allocate_node(rapidxml::node_element, doc.allocate_string("Vector"));
node1->append_node(node2);
for(auto i = in.deviceInfos2.begin(); i != in.deviceInfos2.end(); ++i)
{
rapidxml::xml_node<> * tmp = 0;
if(!struct_xml(tmp, *i, doc))
return false;
node2->append_node(tmp);
}
}
/* @generate [ deviceInfos2:std::vector< int > ] end @ */

/* @generate [ deviceInfo:ReqDeviceInfo ] begin @ */

{
auto node1 = doc.allocate_node(rapidxml::node_element, "deviceInfo");
node->append_node(node1);
rapidxml::xml_node<> * node2 = 0;
if(!struct_xml(node2, in.deviceInfo, doc))
return false;
node1->append_node(node2);
}
/* @generate [ deviceInfo:ReqDeviceInfo ] end @ */

/* @generate [ time:int ] begin @ */

{
auto node1 = doc.allocate_node(rapidxml::node_element, "time", doc.allocate_string(get_string(in.time).c_str()));
node->append_node(node1);
}
/* @generate [ time:int ] end @ */

return true;
}
 rapidxml::xml_node<char>* parsed_config()
 {
   ctext = doc.allocate_string(xml_config.c_str());
   doc.parse< rapidxml::parse_no_data_nodes >(ctext);
   return doc.first_node();
 }