int TGnuPlot::AddPlot(const TFltV& YValV, const TGpSeriesTy& SeriesTy, const TStr& Label, const TStr& Style) {
TFltKdV XYValV(YValV.Len(), 0);
for (int i = 0; i < YValV.Len(); i++) {
XYValV.Add(TFltKd(TFlt(i+1), TFlt(YValV[i])));
}
return AddPlot(XYValV, SeriesTy, Label, Style);
}
int TGnuPlot::AddPlot(const TIntFltPrV& XYValV, const TGpSeriesTy& SeriesTy, const TStr& Label, const TStr& Style) {
TFltKdV XYFltValV(XYValV.Len(), 0);
for (int i = 0; i < XYValV.Len(); i++) {
XYFltValV.Add(TFltKd(TFlt(XYValV[i].Val1), TFlt(XYValV[i].Val2)));
}
return AddPlot(XYFltValV, SeriesTy, Label, Style);
}
TEST(TNEANet, AddEdgeAttributeError) {
PNEANet Graph;
Graph = TNEANet::New();
TStr StrAttr("name");
TStr FltAttr("weight");
TStr IntAttr("test");
Graph->AddStrAttrE(StrAttr);
Graph->AddFltAttrE(FltAttr);
Graph->AddIntAttrE(IntAttr);
int NumEdges = 5;
for (int i = 0; i < NumEdges + 1; i++) {
Graph->AddNode(i);
}
for (int i = 0; i < NumEdges; i++) {
Graph->AddEdge(i, i+1, i);
Graph->AddIntAttrDatE(i, TInt(i), IntAttr);
Graph->AddFltAttrDatE(i, TFlt(i), FltAttr);
TInt Val(i);
Graph->AddStrAttrDatE(i, Val.GetStr(), StrAttr);
}
Graph->DelNode(0);
for (int j = 1; j < NumEdges; j++) {
ASSERT_EQ(Graph->GetIntAttrDatE(j, IntAttr), TInt(j));
ASSERT_EQ(Graph->GetFltAttrDatE(j, FltAttr), TFlt(j));
TInt Val(j);
ASSERT_EQ(Graph->GetStrAttrDatE(j, StrAttr), Val.GetStr());
}
}
void TGraphKey::TakeSig(const PNGraph& Graph, const int& MnSvdGraph, const int& MxSvdGraph) {
const int Edges = Graph->GetEdges();
Nodes = Graph->GetNodes();
VariantId = 0;
SigV.Gen(2+Nodes, 0);
// degree sequence
TIntPrV DegV(Nodes, 0);
for (TNGraph::TNodeI NodeI = Graph->BegNI(); NodeI < Graph->EndNI(); NodeI++) {
DegV.Add(TIntPr(NodeI.GetInDeg(), NodeI.GetOutDeg()));
}
DegV.Sort(false);
SigV.Add(TFlt(Nodes));
SigV.Add(TFlt(Edges));
for (int i = 0; i < DegV.Len(); i++) {
SigV.Add(DegV[i].Val1());
SigV.Add(DegV[i].Val2());
}
// singular values signature
// it turns out that it is cheaper to do brute force isomorphism
// checking than to calculate SVD and then check isomorphism
if (Nodes >= MnSvdGraph && Nodes < MxSvdGraph) {
// perform full SVD
TFltVV AdjMtx(Nodes+1, Nodes+1);
TFltV SngValV;
TFltVV LSingV, RSingV;
TIntH NodeIdH;
// create adjecency matrix
for (TNGraph::TNodeI NodeI = Graph->BegNI(); NodeI < Graph->EndNI(); NodeI++) {
NodeIdH.AddKey(NodeI.GetId());
}
for (TNGraph::TNodeI NodeI = Graph->BegNI(); NodeI < Graph->EndNI(); NodeI++) {
const int NodeId = NodeIdH.GetKeyId(NodeI.GetId()) + 1;
for (int e = 0; e < NodeI.GetOutDeg(); e++) {
const int DstNId = NodeIdH.GetKeyId(NodeI.GetOutNId(e)) + 1; // no self edges
if (NodeId != DstNId) AdjMtx.At(NodeId, DstNId) = 1;
}
}
try { // can fail to converge but results seem to be good
TSvd::Svd(AdjMtx, LSingV, SngValV, RSingV);
} catch(...) {
printf("\n***No SVD convergence: G(%d, %d): SngValV.Len():%d\n", Nodes(), Graph->GetEdges(), SngValV.Len());
}
// round singular values
SngValV.Sort(false);
for (int i = 0; i < SngValV.Len(); i++) {
SigV.Add(TMath::Round(SngValV[i], RoundTo));
}
}
//printf("SIG:\n"); for (int i = 0; i < SigV.Len(); i++) { printf("\t%f\n", SigV[i]); }
SigV.Pack();
}
int generate_vms_instructions(std::string file_name, MNM_Vms_Factory* vms_factory, MNM_Link_Factory *link_factory)
{
/* find file */
std::ofstream _vms_info_file;
_vms_info_file.open(file_name, std::ios::out);
if (!_vms_info_file.is_open()){
printf("Error happens when open _vms_info_file\n");
exit(-1);
}
std::string _info;
MNM_Dlink *_link;
std::string _str;
for (auto _map_it : vms_factory -> m_link_vms_map){
MNM_Link_Vms *_vms = _map_it.second;
_link = link_factory -> get_link(_vms -> m_detour_link_ID);
if (_link -> m_ffs < TFlt(60.0 * 1600.0 / 3600.0)){
_info = std::string("Congestion ahead, take next exit to link ") + std::to_string(_vms -> m_detour_link_ID) + "(The suggestion should be paired with DMS on the arterials guiding drivers).\n";
}
else{
if (_link -> get_link_tt() > _link -> m_length / _link -> m_ffs){
_info = std::string("Congestion ahead, ") + std::to_string(static_cast<int>(_link -> get_link_tt()/60)) + std::string(" minutes to get to next exit.\n");
}
else{
_info = std::string("Drive with care!\n");
}
}
_str = std::to_string(_map_it.first) + " " + _info;
// printf("%s\n", _str.c_str());
_vms_info_file << _str;
}
_vms_info_file.close();
return 0;
}
void TNNet::TNeuron::UpdateInputWeights(TLayer& PrevLayer, const TFlt& LearnRate, const TFlt& Momentum, const TBool& UpdateWeights){
// the weights to be updated are in the OutEdgeV
// in the neurons in the preceding layer
for(int NeuronN = 0; NeuronN < PrevLayer.GetNeuronN(); ++NeuronN){
TNeuron& Neuron = PrevLayer.GetNeuron(NeuronN);
TFlt OldDeltaWeight = Neuron.GetDeltaWeight(Id);
//TFlt OldWeight = Neuron.GetWeight(Id);
TFlt OldSumDeltaWeight = Neuron.GetSumDeltaWeight(Id);
TFlt NewDeltaWeight =
// individual input magnified by the gradient and train rate
LearnRate
* Neuron.GetOutVal()
* Gradient
// add momentum = fraction of previous delta weight, if we are not in batch mode
+ (UpdateWeights && OldSumDeltaWeight == 0.0 ? Momentum : TFlt())
* OldDeltaWeight;
if(UpdateWeights){
if(OldSumDeltaWeight != 0.0){
NewDeltaWeight = OldSumDeltaWeight + NewDeltaWeight;
Neuron.SetSumDeltaWeight(Id, 0.0);
}
Neuron.SetDeltaWeight(Id, NewDeltaWeight);
Neuron.UpdateWeight(Id, NewDeltaWeight);
}
else{
Neuron.SumDeltaWeights(Id, NewDeltaWeight);
}
}
}
int TGnuPlot::AddErrBar(const TFltV& YValV, const TFltV& DeltaYV, const TStr& Label) {
IAssert(YValV.Len() == DeltaYV.Len());
TFltKdV XYFltValV(YValV.Len(), 0);
for (int i = 0; i < YValV.Len(); i++) {
XYFltValV.Add(TFltKd(TFlt(i+1), YValV[i]));
}
return AddErrBar(XYFltValV, DeltaYV, Label);
}
MNM_Link_Vms::MNM_Link_Vms(TInt ID, TInt link_ID, PNEGraph graph)
{
m_ID = ID;
m_my_link_ID = link_ID;
m_detour_link_ID = -1;
m_compliance_ratio = TFlt(1);
m_out_link_vec = std::vector<TInt>();
m_link_path_map = std::unordered_map<TInt, std::vector<MNM_Path*>*>();
hook_link(graph);
}
void TSAppSrvFun::SetFldNmFlt(TStrKdV& FldNmValPrV, const TStr& FldNm, const double& FldVal)
{
SetFldNmVal(FldNmValPrV, FldNm, TFlt(FldVal).GetStr());
}
TGraphKey::TGraphKey(const TSFltV& GraphSigV) : Nodes(-1), EdgeV(), SigV(), VariantId(0) {
SigV.Gen(GraphSigV.Len());
for (int i = 0; i < GraphSigV.Len(); i++) {
SigV[i] = TFlt(TMath::Round(GraphSigV[i], RoundTo));
}
}
TGraphKey::TGraphKey(const TIntV& GraphSigV) : Nodes(-1), EdgeV(), SigV(), VariantId(0) {
SigV.Gen(GraphSigV.Len());
for (int i = 0; i < GraphSigV.Len(); i++) {
SigV[i] = TFlt(GraphSigV[i]());
}
}
TStringKernel::TStringKernel(TSIn& SIn) {
KernelType = TInt(SIn); Lambda = TFlt(SIn); SeqLen = TInt(SIn);
GapLen = TInt(SIn); AlphN = TInt(SIn);
LinCombV.Load(SIn); WeightV.Load(SIn);
}
