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Copy pathIR_ShData.m
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154 lines (126 loc) · 4.53 KB
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clear
clc
%% Reading the table
data=readtable('ShData.xlsx');
data=table2array(data);
%% Control
kf=7; % kfold selection
RMF=2; % feature selection
XFlag=21; % regression model selection
%% optimization options
hyperopts = struct('MaxObjectiveEvaluations',50,'AcquisitionFunctionName','probability-of-improvement','Repartition',true);
opts.TolX=1e-12;
opts.MaxFunEvals=5000;
Y=data(:,end);
XFull=data(:,1:end-1);
X1Ext=1./XFull(:,[2 5 10]);
X2Ext=exp(XFull(:,[10 11]));
X3Ext=exp(-XFull(:,[10 11]));
X4Ext=log(XFull(:,10));
dataF=[XFull X1Ext X2Ext X3Ext X4Ext Y];
NL=length(Y);
[nr,nc]=size(data);
NF=nc-1;
IndxV=mod(1:NL,kf);
IndxV(IndxV==0)=kf;
%% For k folds
for k=1:kf
[k kf]
% Initialization
InTest=find(IndxV==k);
DTest=dataF(InTest,:);
InTrain=find(IndxV~=k);
DTrain=dataF(InTrain,:);
%% [1)atomic# 2)r_atomic 3)OS# 4)CN# 5)period# 6)s 7)p 8)d 9)f 10)ion_poten. 11)e_affinity r_ionic_shannon]
switch XFlag
case 1
pv=1:11;
case 2
pv=[1 3:11];
case 3
pv=3:11;
case 4
pv=3:9;
case 5
pv=[1:14];
case 6
pv=[1:11 15:16];
case 7
pv=[1:11 17:18];
case 8
pv=[1:11 19];
case 9
pv=1:19;
case 10
pv=[1 3:4 6:9 12:14];
case 11
pv=[1 3:4 6:9 12:14 15:16];
case 12
pv=[1 3:4 6:9 12:14 17:18];
case 13
pv=[1 3:4 6:9 12:14 19];
case 14
pv=[1 3:4 6:9 15:16];
case 15
pv=[1 3:4 6:9 17:18];
case 16
pv=[1 3:4 6:9 19];
case 20
pv=[3:9 11 17];
case 21
pv=[3:9 17];
end
XTest=DTest(:,pv);
XTrain=DTrain(:,pv);
YTest=DTest(:,end);
YTrain=DTrain(:,end);
%% Regression model selection
switch RMF
case 1
MdlFinal = fitglm(XTrain,YTrain);
case 11
MdlFinal = fitrlinear(XTrain,YTrain,'OptimizeHyperparameters','all','HyperparameterOptimizationOptions',hyperopts);
figure(1)
figure(2)
close 1 2
case 2
%HFun=@(X) [ones(size(X)),X,X.^2,X.^3];
MdlFinal = fitrgp(XTrain,YTrain,'Standardize',true,'BasisFunction','constant','KernelFunction','ardmatern32','Sigma',0.005);%,,'ardsquaredexponential');%'Optimizer','fminunc','Sigma',0.01);
%MdlFinal = fitrgp(XTrain,YTrain,'Standardize',false,'BasisFunction','linear','KernelFunction','ardmatern32','Sigma',0.1);
case 12
%MdlFinal = fitrgp(XTrain,YTrain,'Sigma',0.000001,'Standardize',true,'OptimizeHyperparameters',{'BasisFunction','KernelFunction','KernelScale'},'HyperparameterOptimizationOptions',hyperopts);
MdlFinal = fitrgp(XTrain,YTrain,'Standardize',true,'BasisFunction','pureQuadratic','KernelFunction','ardmatern32','OptimizeHyperparameters',{'Sigma'},'HyperparameterOptimizationOptions',hyperopts);
figure(1)
figure(2)
close 1 2
case 3
MdlFinal = fitrsvm(XTrain,YTrain,'Standardize',false,'KernelFunction','polynomial','PolynomialOrder',2);
case 13
MdlFinal = fitrsvm(XTrain,YTrain,'Epsilon',0.01,'Standardize',false,'KernelFunction','polynomial','PolynomialOrder',4,'OptimizeHyperparameters','auto','HyperparameterOptimizationOptions',hyperopts);
figure(1)
figure(2)
close 1 2
case 23
MdlFinal = fitrsvm(XTrain,YTrain,'KernelFunction','gaussian','Standardize',false,'OptimizeHyperparameters',{'Epsilon','KernelScale'},'HyperparameterOptimizationOptions',hyperopts);
figure(1)
figure(2)
close 1 2
case 4
MdlFinal = ridge(XTrain,YTrain,[0.1 0.5 0.9]);
case 5
MdlFinal = fitrkernel(XTrain,YTrain,'OptimizeHyperparameters','all','HyperparameterOptimizationOptions',hyperopts);
figure(1)
figure(2)
close 1 2
end
% Validation
YTrainFit=predict(MdlFinal,XTrain);
YTestFit=predict(MdlFinal,XTest);
ValAcc(k)=sqrt(sum((YTrainFit-YTrain).^2)/length(YTrain))
TestAcc(k)=sqrt(sum((YTestFit-YTest).^2)/length(YTest))
end
%% Results
ValBest=min(ValAcc)
ValMean=mean(ValAcc)
TestBest=min(TestAcc)
TestMean=mean(TestAcc)