
#include <stat/libEF.h>
#include <estim/merger.h>

using namespace bdm;

//These lines are needed for use of cout and endl
using std::cout;
using std::endl;

int main() {

	RNG_randomize();

	RV y ( "{y }","1" );
	RV u1 ( "{u1 }","1" );
//	RV u2 ( "{u2 }","1" );

	RV all = y;
	all.add ( u1 );
//	all.add ( u2 );

	mlnorm<fsqmat> f1; f1.set_rv( y ); f1.set_rvc( u1 );
	enorm<fsqmat>  f2; f2.set_rv( y );// f2.set_rvc( u2 );

	//Differneces in constant term are essential
	f1.set_parameters ( "1","1",mat ( "0.01" ) );
	f2.set_parameters ( "2", mat ( "0.02" ) );

	mepdf mf2(&f2);
	
	Array<mpdf* > A ( 2 );
	A ( 0 ) =&f1;
	A ( 1 ) =&mf2;

	merger M ( A );
	M.debug_file("iter_cond_debug.it");
	enorm<ldmat> g0; g0.set_rv ( all );
	mat Cov=10*eye ( 2 );
/*	Cov(1,2)=0.29;
	Cov(2,1)=0.29;*/
	g0.set_parameters ( vec ( "2 1" ),Cov);// +1*ones ( 3,3 ) );

//	enorm<ldmat>* teste=g0.marginal(concat(u1,u2));
//	mlnorm<ldmat>* testm=(mlnorm<ldmat>*)teste->condition(u2);
	
	M.set_parameters ( 1.2,1000,1,0.5);
	
	Array<vec> YUU(2); 
	YUU(0)=linspace(1.5,2.5,20);
	YUU(1)=linspace(0.5,1.5,20);
	
	YUU(0)=linspace(0,4,20);
	YUU(1)=linspace(-1,3,20);
//YUU(2)=linspace(-3,3,20);

	//M.set_grid(YUU);
	
	int Ntrials=1;
	vec A1s ( Ntrials );
//	vec A2s ( Ntrials );
	vec R1s ( Ntrials );
	vec R2s ( Ntrials );
	vec C1s ( Ntrials );
	vec C2s ( Ntrials );

	for ( int it=0;it<Ntrials;it++ ) {
		M.merge ( &g0 );

		MixEF &MM = M._Mix();
		epdf* MP = MM._Coms ( 0 )->epredictor ( );
		MP->set_rv(all);
		
		//Missing piece
		enorm<ldmat>* miss=	(enorm<ldmat>*) MP->marginal(u1);
		cout << "Missing: " << miss->_mu() << " +- " << miss->_R().to_mat() << endl;

		RV yu1 = y; yu1.add ( u1 );
//		RV yu2 = y; yu2.add ( u2 );
		enorm<ldmat>* P1m= ( enorm<ldmat>* ) MP->marginal ( yu1 );
		enorm<ldmat>* P2m= ( enorm<ldmat>* ) MP->marginal ( y );
		mlnorm<ldmat>* P1c= ( mlnorm<ldmat>* ) ( P1m->condition ( y ) );
//		mlnorm<ldmat>* P2c= ( mlnorm<ldmat>* ) ( P2m->condition ( y ) );

		A1s(it) = P1c->_A()(0,0);
//		A2s(it) = P2c->_A()(0,0);
		R1s(it) = P1c->_R()(0,0);
		R2s(it) = P2m->_R().to_mat()(0,0);
		C1s(it) = P1c->_mu_const()(0);
		C2s(it) = P2m->_mu()(0);

		cout << "mean: " << MM._Coms(0)->_e()->mean() <<endl;
	}
	
	
	
	cout << "A1s:" <<A1s<<endl;
	cout << "C2s:" <<C2s<<endl;
	double A1mean = sum(A1s)/Ntrials;
//	double A2mean = sum(A2s)/Ntrials;
	double C1mean = sum(C1s)/Ntrials;
	double C2mean = sum(C2s)/Ntrials;
	double R1mean = sum(R1s)/Ntrials;
	double R2mean = sum(R2s)/Ntrials;
	cout << "A1: " << A1mean << " +- " << 2*sqrt(sum_sqr(A1s)/Ntrials-A1mean*A1mean) <<endl;
//	cout << "A2: " << A2mean << " +- " << 2*sqrt(sum_sqr(A2s)/Ntrials-A2mean*A2mean) <<endl;
	cout << "C1: " << C1mean << " +- " << 2*sqrt(sum_sqr(C1s)/Ntrials-C1mean*C1mean) <<endl;
	cout << "C2: " << C2mean << " +- " << 2*sqrt(sum_sqr(C2s)/Ntrials-C2mean*C2mean) <<endl;
	cout << "R1: " << R1mean << " +- " << 2*sqrt(sum_sqr(R1s)/Ntrials-R1mean*R1mean) <<endl;
	cout << "R2: " << R2mean << " +- " << 2*sqrt(sum_sqr(R2s)/Ntrials-R2mean*R2mean) <<endl;
	
	
}
