const functions

This commit is contained in:
Ricardo Montañana Gómez 2023-08-08 01:53:41 +02:00
parent ef1bffcac3
commit 323444b74a
Signed by: rmontanana
GPG Key ID: 46064262FD9A7ADE
27 changed files with 109 additions and 87 deletions

3
.vscode/launch.json vendored
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@ -25,8 +25,7 @@
"program": "${workspaceFolder}/build/src/Platform/main", "program": "${workspaceFolder}/build/src/Platform/main",
"args": [ "args": [
"-m", "-m",
"AODE", "AODELd",
"--discretize",
"-p", "-p",
"/Users/rmontanana/Code/discretizbench/datasets", "/Users/rmontanana/Code/discretizbench/datasets",
"--stratified", "--stratified",

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@ -9,7 +9,7 @@ namespace bayesnet {
models.push_back(std::make_unique<SPODE>(i)); models.push_back(std::make_unique<SPODE>(i));
} }
} }
vector<string> AODE::graph(const string& title) vector<string> AODE::graph(const string& title) const
{ {
return Ensemble::graph(title); return Ensemble::graph(title);
} }

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@ -9,7 +9,7 @@ namespace bayesnet {
public: public:
AODE(); AODE();
virtual ~AODE() {}; virtual ~AODE() {};
vector<string> graph(const string& title = "AODE") override; vector<string> graph(const string& title = "AODE") const override;
}; };
} }
#endif #endif

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@ -1,37 +1,46 @@
#include "AODELd.h" #include "AODELd.h"
#include "Models.h"
namespace bayesnet { namespace bayesnet {
using namespace std; using namespace std;
AODELd::AODELd() : Ensemble(), Proposal(dataset, features, className) {} AODELd::AODELd() : Ensemble(), Proposal(dataset, features, className) {}
AODELd& AODELd::fit(torch::Tensor& X_, torch::Tensor& y_, vector<string>& features_, string className_, map<string, vector<int>>& states_) AODELd& AODELd::fit(torch::Tensor& X_, torch::Tensor& y_, vector<string>& features_, string className_, map<string, vector<int>>& states_)
{ {
// This first part should go in a Classifier method called fit_local_discretization o fit_float...
features = features_; features = features_;
className = className_; className = className_;
states = states_; Xf = X_;
buildModel(); y = y_;
trainModel(); // Fills vectors Xv & yv with the data from tensors X_ (discretized) & y
n_models = models.size(); fit_local_discretization(states, y);
fitted = true; // We have discretized the input data
// 1st we need to fit the model to build the normal TAN structure, TAN::fit initializes the base Bayesian network
Ensemble::fit(dataset, features, className, states);
return *this; return *this;
} }
void AODELd::buildModel() void AODELd::buildModel()
{ {
models.clear(); models.clear();
cout << "aaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaah!" << endl;
for (int i = 0; i < features.size(); ++i) { for (int i = 0; i < features.size(); ++i) {
models.push_back(std::make_unique<SPODELd>(i)); models.push_back(Models::instance().create("SPODELd"));
models[i]->test();
} }
n_models = models.size();
} }
void AODELd::trainModel() void AODELd::trainModel()
{ {
cout << "dataset: " << dataset.sizes() << endl;
cout << "features: " << features.size() << endl;
cout << "className: " << className << endl;
cout << "states: " << states.size() << endl;
for (const auto& model : models) { for (const auto& model : models) {
model->fit(dataset, features, className, states); model->fit(dataset, features, className, states);
model->test();
} }
} }
Tensor AODELd::predict(Tensor& X) vector<string> AODELd::graph(const string& name) const
{
return Ensemble::predict(X);
}
vector<string> AODELd::graph(const string& name)
{ {
return Ensemble::graph(name); return Ensemble::graph(name);
} }

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@ -7,15 +7,14 @@
namespace bayesnet { namespace bayesnet {
using namespace std; using namespace std;
class AODELd : public Ensemble, public Proposal { class AODELd : public Ensemble, public Proposal {
private: protected:
void trainModel() override; void trainModel() override;
void buildModel() override; void buildModel() override;
public: public:
AODELd(); AODELd();
AODELd& fit(torch::Tensor& X_, torch::Tensor& y_, vector<string>& features_, string className_, map<string, vector<int>>& states_) override;
virtual ~AODELd() = default; virtual ~AODELd() = default;
AODELd& fit(torch::Tensor& X, torch::Tensor& y, vector<string>& features, string className, map<string, vector<int>>& states) override; vector<string> graph(const string& name = "AODE") const override;
vector<string> graph(const string& name = "AODE") override;
Tensor predict(Tensor& X) override;
static inline string version() { return "0.0.1"; }; static inline string version() { return "0.0.1"; };
}; };
} }

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@ -5,6 +5,8 @@
namespace bayesnet { namespace bayesnet {
using namespace std; using namespace std;
class BaseClassifier { class BaseClassifier {
protected:
virtual void trainModel() = 0;
public: public:
// X is nxm vector, y is nx1 vector // X is nxm vector, y is nx1 vector
virtual BaseClassifier& fit(vector<vector<int>>& X, vector<int>& y, vector<string>& features, string className, map<string, vector<int>>& states) = 0; virtual BaseClassifier& fit(vector<vector<int>>& X, vector<int>& y, vector<string>& features, string className, map<string, vector<int>>& states) = 0;
@ -16,14 +18,14 @@ namespace bayesnet {
vector<int> virtual predict(vector<vector<int>>& X) = 0; vector<int> virtual predict(vector<vector<int>>& X) = 0;
float virtual score(vector<vector<int>>& X, vector<int>& y) = 0; float virtual score(vector<vector<int>>& X, vector<int>& y) = 0;
float virtual score(torch::Tensor& X, torch::Tensor& y) = 0; float virtual score(torch::Tensor& X, torch::Tensor& y) = 0;
int virtual getNumberOfNodes() = 0; int virtual getNumberOfNodes()const = 0;
int virtual getNumberOfEdges() = 0; int virtual getNumberOfEdges()const = 0;
int virtual getNumberOfStates() = 0; int virtual getNumberOfStates() const = 0;
vector<string> virtual show() = 0; vector<string> virtual show() const = 0;
vector<string> virtual graph(const string& title = "") = 0; vector<string> virtual graph(const string& title = "") const = 0;
const string inline getVersion() const { return "0.1.0"; }; const string inline getVersion() const { return "0.1.0"; };
vector<string> virtual topological_order() = 0; vector<string> virtual topological_order() = 0;
void virtual dump_cpt() = 0; void virtual dump_cpt()const = 0;
}; };
} }
#endif #endif

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@ -1,5 +1,7 @@
include_directories(${BayesNet_SOURCE_DIR}/lib/mdlp) include_directories(${BayesNet_SOURCE_DIR}/lib/mdlp)
include_directories(${BayesNet_SOURCE_DIR}/lib/Files) include_directories(${BayesNet_SOURCE_DIR}/lib/Files)
include_directories(${BayesNet_SOURCE_DIR}/src/BayesNet)
include_directories(${BayesNet_SOURCE_DIR}/src/Platform)
add_library(BayesNet bayesnetUtils.cc Network.cc Node.cc BayesMetrics.cc Classifier.cc add_library(BayesNet bayesnetUtils.cc Network.cc Node.cc BayesMetrics.cc Classifier.cc
KDB.cc TAN.cc SPODE.cc Ensemble.cc AODE.cc TANLd.cc KDBLd.cc SPODELd.cc AODELd.cc Mst.cc Proposal.cc) KDB.cc TAN.cc SPODE.cc Ensemble.cc AODE.cc TANLd.cc KDBLd.cc SPODELd.cc AODELd.cc Mst.cc Proposal.cc ${BayesNet_SOURCE_DIR}/src/Platform/Models.cc)
target_link_libraries(BayesNet mdlp ArffFiles "${TORCH_LIBRARIES}") target_link_libraries(BayesNet mdlp ArffFiles "${TORCH_LIBRARIES}")

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@ -112,7 +112,7 @@ namespace bayesnet {
} }
return model.score(X, y); return model.score(X, y);
} }
vector<string> Classifier::show() vector<string> Classifier::show() const
{ {
return model.show(); return model.show();
} }
@ -124,16 +124,16 @@ namespace bayesnet {
} }
model.addNode(className); model.addNode(className);
} }
int Classifier::getNumberOfNodes() int Classifier::getNumberOfNodes() const
{ {
// Features does not include class // Features does not include class
return fitted ? model.getFeatures().size() + 1 : 0; return fitted ? model.getFeatures().size() + 1 : 0;
} }
int Classifier::getNumberOfEdges() int Classifier::getNumberOfEdges() const
{ {
return fitted ? model.getEdges().size() : 0; return fitted ? model.getNumEdges() : 0;
} }
int Classifier::getNumberOfStates() int Classifier::getNumberOfStates() const
{ {
return fitted ? model.getStates() : 0; return fitted ? model.getStates() : 0;
} }
@ -141,7 +141,7 @@ namespace bayesnet {
{ {
return model.topological_sort(); return model.topological_sort();
} }
void Classifier::dump_cpt() void Classifier::dump_cpt() const
{ {
model.dump_cpt(); model.dump_cpt();
} }

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@ -23,7 +23,7 @@ namespace bayesnet {
map<string, vector<int>> states; map<string, vector<int>> states;
void checkFitParameters(); void checkFitParameters();
virtual void buildModel() = 0; virtual void buildModel() = 0;
virtual void trainModel(); void trainModel() override;
public: public:
Classifier(Network model); Classifier(Network model);
virtual ~Classifier() = default; virtual ~Classifier() = default;
@ -31,16 +31,16 @@ namespace bayesnet {
Classifier& fit(torch::Tensor& X, torch::Tensor& y, vector<string>& features, string className, map<string, vector<int>>& states) override; Classifier& fit(torch::Tensor& X, torch::Tensor& y, vector<string>& features, string className, map<string, vector<int>>& states) override;
Classifier& fit(torch::Tensor& dataset, vector<string>& features, string className, map<string, vector<int>>& states) override; Classifier& fit(torch::Tensor& dataset, vector<string>& features, string className, map<string, vector<int>>& states) override;
void addNodes(); void addNodes();
int getNumberOfNodes() override; int getNumberOfNodes() const override;
int getNumberOfEdges() override; int getNumberOfEdges() const override;
int getNumberOfStates() override; int getNumberOfStates() const override;
Tensor predict(Tensor& X) override; Tensor predict(Tensor& X) override;
vector<int> predict(vector<vector<int>>& X) override; vector<int> predict(vector<vector<int>>& X) override;
float score(Tensor& X, Tensor& y) override; float score(Tensor& X, Tensor& y) override;
float score(vector<vector<int>>& X, vector<int>& y) override; float score(vector<vector<int>>& X, vector<int>& y) override;
vector<string> show() override; vector<string> show() const override;
vector<string> topological_order() override; vector<string> topological_order() override;
void dump_cpt() override; void dump_cpt() const override;
}; };
} }
#endif #endif

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@ -94,7 +94,7 @@ namespace bayesnet {
} }
return (double)correct / y_pred.size(); return (double)correct / y_pred.size();
} }
vector<string> Ensemble::show() vector<string> Ensemble::show() const
{ {
auto result = vector<string>(); auto result = vector<string>();
for (auto i = 0; i < n_models; ++i) { for (auto i = 0; i < n_models; ++i) {
@ -103,7 +103,7 @@ namespace bayesnet {
} }
return result; return result;
} }
vector<string> Ensemble::graph(const string& title) vector<string> Ensemble::graph(const string& title) const
{ {
auto result = vector<string>(); auto result = vector<string>();
for (auto i = 0; i < n_models; ++i) { for (auto i = 0; i < n_models; ++i) {
@ -112,7 +112,7 @@ namespace bayesnet {
} }
return result; return result;
} }
int Ensemble::getNumberOfNodes() int Ensemble::getNumberOfNodes() const
{ {
int nodes = 0; int nodes = 0;
for (auto i = 0; i < n_models; ++i) { for (auto i = 0; i < n_models; ++i) {
@ -120,7 +120,7 @@ namespace bayesnet {
} }
return nodes; return nodes;
} }
int Ensemble::getNumberOfEdges() int Ensemble::getNumberOfEdges() const
{ {
int edges = 0; int edges = 0;
for (auto i = 0; i < n_models; ++i) { for (auto i = 0; i < n_models; ++i) {
@ -128,7 +128,7 @@ namespace bayesnet {
} }
return edges; return edges;
} }
int Ensemble::getNumberOfStates() int Ensemble::getNumberOfStates() const
{ {
int nstates = 0; int nstates = 0;
for (auto i = 0; i < n_models; ++i) { for (auto i = 0; i < n_models; ++i) {

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@ -23,16 +23,16 @@ namespace bayesnet {
vector<int> predict(vector<vector<int>>& X) override; vector<int> predict(vector<vector<int>>& X) override;
float score(Tensor& X, Tensor& y) override; float score(Tensor& X, Tensor& y) override;
float score(vector<vector<int>>& X, vector<int>& y) override; float score(vector<vector<int>>& X, vector<int>& y) override;
int getNumberOfNodes() override; int getNumberOfNodes() const override;
int getNumberOfEdges() override; int getNumberOfEdges() const override;
int getNumberOfStates() override; int getNumberOfStates() const override;
vector<string> show() override; vector<string> show() const override;
vector<string> graph(const string& title) override; vector<string> graph(const string& title) const override;
vector<string> topological_order() override vector<string> topological_order() override
{ {
return vector<string>(); return vector<string>();
} }
void dump_cpt() override void dump_cpt() const override
{ {
} }
}; };

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@ -79,7 +79,7 @@ namespace bayesnet {
exit_cond = num == n_edges || candidates.size(0) == 0; exit_cond = num == n_edges || candidates.size(0) == 0;
} }
} }
vector<string> KDB::graph(const string& title) vector<string> KDB::graph(const string& title) const
{ {
string header{ title }; string header{ title };
if (title == "KDB") { if (title == "KDB") {

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@ -15,7 +15,7 @@ namespace bayesnet {
public: public:
explicit KDB(int k, float theta = 0.03); explicit KDB(int k, float theta = 0.03);
virtual ~KDB() {}; virtual ~KDB() {};
vector<string> graph(const string& name = "KDB") override; vector<string> graph(const string& name = "KDB") const override;
}; };
} }
#endif #endif

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@ -23,7 +23,7 @@ namespace bayesnet {
auto Xt = prepareX(X); auto Xt = prepareX(X);
return KDB::predict(Xt); return KDB::predict(Xt);
} }
vector<string> KDBLd::graph(const string& name) vector<string> KDBLd::graph(const string& name) const
{ {
return KDB::graph(name); return KDB::graph(name);
} }

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@ -11,7 +11,7 @@ namespace bayesnet {
explicit KDBLd(int k); explicit KDBLd(int k);
virtual ~KDBLd() = default; virtual ~KDBLd() = default;
KDBLd& fit(torch::Tensor& X, torch::Tensor& y, vector<string>& features, string className, map<string, vector<int>>& states) override; KDBLd& fit(torch::Tensor& X, torch::Tensor& y, vector<string>& features, string className, map<string, vector<int>>& states) override;
vector<string> graph(const string& name = "KDB") override; vector<string> graph(const string& name = "KDB") const override;
Tensor predict(Tensor& X) override; Tensor predict(Tensor& X) override;
static inline string version() { return "0.0.1"; }; static inline string version() { return "0.0.1"; };
}; };

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@ -43,15 +43,15 @@ namespace bayesnet {
} }
nodes[name] = std::make_unique<Node>(name); nodes[name] = std::make_unique<Node>(name);
} }
vector<string> Network::getFeatures() vector<string> Network::getFeatures() const
{ {
return features; return features;
} }
int Network::getClassNumStates() int Network::getClassNumStates() const
{ {
return classNumStates; return classNumStates;
} }
int Network::getStates() int Network::getStates() const
{ {
int result = 0; int result = 0;
for (auto& node : nodes) { for (auto& node : nodes) {
@ -59,7 +59,7 @@ namespace bayesnet {
} }
return result; return result;
} }
string Network::getClassName() string Network::getClassName() const
{ {
return className; return className;
} }
@ -343,7 +343,7 @@ namespace bayesnet {
transform(result.begin(), result.end(), result.begin(), [sum](double& value) { return value / sum; }); transform(result.begin(), result.end(), result.begin(), [sum](double& value) { return value / sum; });
return result; return result;
} }
vector<string> Network::show() vector<string> Network::show() const
{ {
vector<string> result; vector<string> result;
// Draw the network // Draw the network
@ -356,7 +356,7 @@ namespace bayesnet {
} }
return result; return result;
} }
vector<string> Network::graph(const string& title) vector<string> Network::graph(const string& title) const
{ {
auto output = vector<string>(); auto output = vector<string>();
auto prefix = "digraph BayesNet {\nlabel=<BayesNet "; auto prefix = "digraph BayesNet {\nlabel=<BayesNet ";
@ -370,7 +370,7 @@ namespace bayesnet {
output.push_back("}\n"); output.push_back("}\n");
return output; return output;
} }
vector<pair<string, string>> Network::getEdges() vector<pair<string, string>> Network::getEdges() const
{ {
auto edges = vector<pair<string, string>>(); auto edges = vector<pair<string, string>>();
for (const auto& node : nodes) { for (const auto& node : nodes) {
@ -382,6 +382,10 @@ namespace bayesnet {
} }
return edges; return edges;
} }
int Network::getNumEdges() const
{
return getEdges().size();
}
vector<string> Network::topological_sort() vector<string> Network::topological_sort()
{ {
/* Check if al the fathers of every node are before the node */ /* Check if al the fathers of every node are before the node */
@ -420,7 +424,7 @@ namespace bayesnet {
} }
return result; return result;
} }
void Network::dump_cpt() void Network::dump_cpt() const
{ {
for (auto& node : nodes) { for (auto& node : nodes) {
cout << "* " << node.first << ": (" << node.second->getNumStates() << ") : " << node.second->getCPT().sizes() << endl; cout << "* " << node.first << ": (" << node.second->getNumStates() << ") : " << node.second->getCPT().sizes() << endl;

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@ -37,11 +37,12 @@ namespace bayesnet {
void addNode(const string&); void addNode(const string&);
void addEdge(const string&, const string&); void addEdge(const string&, const string&);
map<string, std::unique_ptr<Node>>& getNodes(); map<string, std::unique_ptr<Node>>& getNodes();
vector<string> getFeatures(); vector<string> getFeatures() const;
int getStates(); int getStates() const;
vector<pair<string, string>> getEdges(); vector<pair<string, string>> getEdges() const;
int getClassNumStates(); int getNumEdges() const;
string getClassName(); int getClassNumStates() const;
string getClassName() const;
void fit(const vector<vector<int>>&, const vector<int>&, const vector<string>&, const string&); void fit(const vector<vector<int>>&, const vector<int>&, const vector<string>&, const string&);
void fit(const torch::Tensor&, const torch::Tensor&, const vector<string>&, const string&); void fit(const torch::Tensor&, const torch::Tensor&, const vector<string>&, const string&);
void fit(const torch::Tensor&, const vector<string>&, const string&); void fit(const torch::Tensor&, const vector<string>&, const string&);
@ -54,10 +55,10 @@ namespace bayesnet {
torch::Tensor predict_proba(const torch::Tensor&); // Return mxn tensor of probabilities torch::Tensor predict_proba(const torch::Tensor&); // Return mxn tensor of probabilities
double score(const vector<vector<int>>&, const vector<int>&); double score(const vector<vector<int>>&, const vector<int>&);
vector<string> topological_sort(); vector<string> topological_sort();
vector<string> show(); vector<string> show() const;
vector<string> graph(const string& title); // Returns a vector of strings representing the graph in graphviz format vector<string> graph(const string& title) const; // Returns a vector of strings representing the graph in graphviz format
void initialize(); void initialize();
void dump_cpt(); void dump_cpt() const;
inline string version() { return "0.1.0"; } inline string version() { return "0.1.0"; }
}; };
} }

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@ -2,7 +2,7 @@
#include "ArffFiles.h" #include "ArffFiles.h"
namespace bayesnet { namespace bayesnet {
Proposal::Proposal(torch::Tensor& dataset_, vector<string>& features_, string& className_) : pDataset(dataset_), pFeatures(features_), pClassName(className_), m(dataset_.size(1)), n(dataset_.size(0) - 1) {} Proposal::Proposal(torch::Tensor& dataset_, vector<string>& features_, string& className_) : pDataset(dataset_), pFeatures(features_), pClassName(className_) {}
Proposal::~Proposal() Proposal::~Proposal()
{ {
for (auto& [key, value] : discretizers) { for (auto& [key, value] : discretizers) {
@ -32,9 +32,9 @@ namespace bayesnet {
indices.push_back(-1); // Add class index indices.push_back(-1); // Add class index
transform(parents.begin(), parents.end(), back_inserter(indices), [&](const auto& p) {return find(pFeatures.begin(), pFeatures.end(), p) - pFeatures.begin(); }); transform(parents.begin(), parents.end(), back_inserter(indices), [&](const auto& p) {return find(pFeatures.begin(), pFeatures.end(), p) - pFeatures.begin(); });
// Now we fit the discretizer of the feature, conditioned on its parents and the class i.e. discretizer.fit(X[index], X[indices] + y) // Now we fit the discretizer of the feature, conditioned on its parents and the class i.e. discretizer.fit(X[index], X[indices] + y)
vector<string> yJoinParents(indices.size()); vector<string> yJoinParents(Xf.size(1));
for (auto idx : indices) { for (auto idx : indices) {
for (int i = 0; i < n; ++i) { for (int i = 0; i < Xf.size(1); ++i) {
yJoinParents[i] += to_string(pDataset.index({ idx, i }).item<int>()); yJoinParents[i] += to_string(pDataset.index({ idx, i }).item<int>());
} }
} }
@ -64,10 +64,13 @@ namespace bayesnet {
//Update new states of the feature/node //Update new states of the feature/node
states[pFeatures[index]] = xStates; states[pFeatures[index]] = xStates;
} }
model.fit(pDataset, pFeatures, pClassName);
} }
} }
void Proposal::fit_local_discretization(map<string, vector<int>>& states, torch::Tensor& y) void Proposal::fit_local_discretization(map<string, vector<int>>& states, torch::Tensor& y)
{ {
int m = Xf.size(1);
int n = Xf.size(0);
pDataset = torch::zeros({ n + 1, m }, kInt32); pDataset = torch::zeros({ n + 1, m }, kInt32);
auto yv = vector<int>(y.data_ptr<int>(), y.data_ptr<int>() + y.size(0)); auto yv = vector<int>(y.data_ptr<int>(), y.data_ptr<int>() + y.size(0));
// discretize input data by feature(row) // discretize input data by feature(row)

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@ -19,7 +19,6 @@ namespace bayesnet {
torch::Tensor Xf; // X continuous nxm tensor torch::Tensor Xf; // X continuous nxm tensor
torch::Tensor y; // y discrete nx1 tensor torch::Tensor y; // y discrete nx1 tensor
map<string, mdlp::CPPFImdlp*> discretizers; map<string, mdlp::CPPFImdlp*> discretizers;
int m, n;
private: private:
torch::Tensor& pDataset; // (n+1)xm tensor torch::Tensor& pDataset; // (n+1)xm tensor
vector<string>& pFeatures; vector<string>& pFeatures;

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@ -17,7 +17,7 @@ namespace bayesnet {
} }
} }
} }
vector<string> SPODE::graph(const string& name) vector<string> SPODE::graph(const string& name) const
{ {
return model.graph(name); return model.graph(name);
} }

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@ -11,7 +11,7 @@ namespace bayesnet {
public: public:
explicit SPODE(int root); explicit SPODE(int root);
virtual ~SPODE() {}; virtual ~SPODE() {};
vector<string> graph(const string& name = "SPODE") override; vector<string> graph(const string& name = "SPODE") const override;
}; };
} }
#endif #endif

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@ -2,10 +2,11 @@
namespace bayesnet { namespace bayesnet {
using namespace std; using namespace std;
SPODELd::SPODELd(int root) : SPODE(root), Proposal(dataset, features, className) {} SPODELd::SPODELd(int root) : SPODE(root), Proposal(dataset, features, className) { cout << "SPODELd constructor" << endl; }
SPODELd& SPODELd::fit(torch::Tensor& X_, torch::Tensor& y_, vector<string>& features_, string className_, map<string, vector<int>>& states_) SPODELd& SPODELd::fit(torch::Tensor& X_, torch::Tensor& y_, vector<string>& features_, string className_, map<string, vector<int>>& states_)
{ {
// This first part should go in a Classifier method called fit_local_discretization o fit_float... // This first part should go in a Classifier method called fit_local_discretization o fit_float...
cout << "YOOOOOOOOOOOOOOOOOOOo" << endl;
features = features_; features = features_;
className = className_; className = className_;
Xf = X_; Xf = X_;
@ -16,7 +17,6 @@ namespace bayesnet {
// 1st we need to fit the model to build the normal SPODE structure, SPODE::fit initializes the base Bayesian network // 1st we need to fit the model to build the normal SPODE structure, SPODE::fit initializes the base Bayesian network
SPODE::fit(dataset, features, className, states); SPODE::fit(dataset, features, className, states);
localDiscretizationProposal(states, model); localDiscretizationProposal(states, model);
//model.fit(SPODE::Xv, SPODE::yv, features, className);
return *this; return *this;
} }
Tensor SPODELd::predict(Tensor& X) Tensor SPODELd::predict(Tensor& X)
@ -24,7 +24,11 @@ namespace bayesnet {
auto Xt = prepareX(X); auto Xt = prepareX(X);
return SPODE::predict(Xt); return SPODE::predict(Xt);
} }
vector<string> SPODELd::graph(const string& name) void SPODELd::test()
{
cout << "SPODELd test" << endl;
}
vector<string> SPODELd::graph(const string& name) const
{ {
return SPODE::graph(name); return SPODE::graph(name);
} }

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@ -6,12 +6,12 @@
namespace bayesnet { namespace bayesnet {
using namespace std; using namespace std;
class SPODELd : public SPODE, public Proposal { class SPODELd : public SPODE, public Proposal {
private:
public: public:
void test();
explicit SPODELd(int root); explicit SPODELd(int root);
virtual ~SPODELd() = default; virtual ~SPODELd() = default;
SPODELd& fit(torch::Tensor& X, torch::Tensor& y, vector<string>& features, string className, map<string, vector<int>>& states) override; SPODELd& fit(torch::Tensor& X, torch::Tensor& y, vector<string>& features, string className, map<string, vector<int>>& states) override;
vector<string> graph(const string& name = "SPODE") override; vector<string> graph(const string& name = "SPODE") const override;
Tensor predict(Tensor& X) override; Tensor predict(Tensor& X) override;
static inline string version() { return "0.0.1"; }; static inline string version() { return "0.0.1"; };
}; };

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@ -34,7 +34,7 @@ namespace bayesnet {
model.addEdge(className, feature); model.addEdge(className, feature);
} }
} }
vector<string> TAN::graph(const string& title) vector<string> TAN::graph(const string& title) const
{ {
return model.graph(title); return model.graph(title);
} }

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@ -11,7 +11,7 @@ namespace bayesnet {
public: public:
TAN(); TAN();
virtual ~TAN() {}; virtual ~TAN() {};
vector<string> graph(const string& name = "TAN") override; vector<string> graph(const string& name = "TAN") const override;
}; };
} }
#endif #endif

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@ -16,15 +16,15 @@ namespace bayesnet {
// 1st we need to fit the model to build the normal TAN structure, TAN::fit initializes the base Bayesian network // 1st we need to fit the model to build the normal TAN structure, TAN::fit initializes the base Bayesian network
TAN::fit(dataset, features, className, states); TAN::fit(dataset, features, className, states);
localDiscretizationProposal(states, model); localDiscretizationProposal(states, model);
//model.fit(dataset, features, className);
return *this; return *this;
} }
Tensor TANLd::predict(Tensor& X) Tensor TANLd::predict(Tensor& X)
{ {
auto Xt = prepareX(X); auto Xt = prepareX(X);
return TAN::predict(Xt); return TAN::predict(Xt);
} }
vector<string> TANLd::graph(const string& name) vector<string> TANLd::graph(const string& name) const
{ {
return TAN::graph(name); return TAN::graph(name);
} }

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@ -11,7 +11,7 @@ namespace bayesnet {
TANLd(); TANLd();
virtual ~TANLd() = default; virtual ~TANLd() = default;
TANLd& fit(torch::Tensor& X, torch::Tensor& y, vector<string>& features, string className, map<string, vector<int>>& states) override; TANLd& fit(torch::Tensor& X, torch::Tensor& y, vector<string>& features, string className, map<string, vector<int>>& states) override;
vector<string> graph(const string& name = "TAN") override; vector<string> graph(const string& name = "TAN") const override;
Tensor predict(Tensor& X) override; Tensor predict(Tensor& X) override;
static inline string version() { return "0.0.1"; }; static inline string version() { return "0.0.1"; };
}; };