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clc;clear;close all;
addpath model/ utils/ matlab_decoding/ training/
% data = data_setup(); % load data
% opt = opt_Setup(data); % set options
% s = rng();
ps = pyenv;
if ~ (ps.Status == "Loaded")
pyenv("Version", "C:\Environments\python_envs\py311_IJCNN_2603\python.exe")
end
pyfunc = py.importlib.import_module('apis_for_matlab');
py.importlib.reload(pyfunc);
% PolicyGradient_LinearLatentMapping_tVAE(data,opt,predict,s);
DataNameList = ["data/rat008_1206.mat","data/rat009_0711.mat","data/rat010_0704.mat",...
"data/rat011_0823.mat","data/rat025_0923.mat","data/rat028_1030.mat"];
for dataIdx = 6 % 5:6
DataName = DataNameList(dataIdx);
data = data_setup(DataName); % load data
opt = opt_Setup(data); % set options
opt.modelName = ''; % save TC results to results/TC_...
rng('default');
for testFold = 5 % 1:opt.foldNum
opt.testFold = testFold;
trainFolds = 1:opt.foldNum; trainFolds(testFold) = [];
opt.trainTrials = cell2mat(opt.folds(trainFolds));
opt.NumberOfTrainTrials = length(opt.trainTrials);
opt.testTrials = opt.folds{testFold};
opt.NumberOfTestTrials = length(opt.testTrials);
opt.NumberOfAllTrials = opt.NumberOfTrainTrials + opt.NumberOfTestTrials;
mPFC_model = pyfunc.get_model(data.rat, testFold-1, opt.latent_dim, 'mPFC', size(data.mPFC, 1));
M1_model = pyfunc.get_model(data.rat, testFold-1, opt.latent_dim, 'M1', size(data.M1, 1));
% for i = 1:opt.
s = rng;
% SupervisedLearning(data,opt,pyfunc,mPFC_model,M1_model,s);
PolicyGradient_LinearLatentMapping_tVAE(data,opt,pyfunc,mPFC_model,M1_model,s)
% opt.Mode = 'train';
% opt.DataLoaderCursor = 1;
% [batchInput,batchM1_truth,batchActions,batchTrials,opt] = DataLoader_tVAE(data,opt);
% res = pyfunc.neural2latent(mPFC_model, batchInput, opt.latent_dim);
% latent_mu = double(res{1}); latent_mu = latent_mu(1:length(batchInput), :);
%
% ref_mPFC_train = load(['latent_models_backup\tVAE_' ...
% data.rat '_mPFC_' num2str(testFold-1) '_1En1De_' num2str(opt.latent_dim) 'latent_decoder_pos_train_set.mat']);
%
% figure()
% for lIdx = 1:opt.latent_dim
% subplot(opt.latent_dim, 1, lIdx)
% plot(latent_mu(101+(1:3e3), lIdx), 'r', 'LineWidth',1.5)
% hold on
% plot(ref_mPFC_train.latent_mu(1:3e3, lIdx), 'k', 'LineWidth',1.5)
% hold off
% end
%
% opt.Mode = 'test';
% [testInput,testM1_truth,testActions,testTrials,opt] = DataLoader_tVAE(data,opt);
% res = pyfunc.neural2latent(mPFC_model, testInput, opt.latent_dim);
% latent_mu = double(res{1}); latent_mu = latent_mu(1:length(testInput), :);
%
% ref_mPFC_test = load(['latent_models_backup\tVAE_' ...
% data.rat '_mPFC_' num2str(testFold-1) '_1En1De_' num2str(opt.latent_dim) 'latent_decoder_pos.mat']);
%
% figure()
% for lIdx = 1:opt.latent_dim
% subplot(opt.latent_dim, 1, lIdx)
% plot(latent_mu(101+(1:3e3), lIdx), 'r', 'LineWidth',1.5)
% hold on
% plot(ref_mPFC_test.latent_mu(1:3e3, lIdx), 'k', 'LineWidth',1.5)
% hold off
% end
% opt.Mode = 'train';
% opt.DataLoaderCursor = 1;
% [batchInput,batchM1_truth,batchActions,batchTrials,opt] = DataLoader_tVAE(data,opt);
% res = pyfunc.neural2latent(M1_model, batchM1_truth, opt.latent_dim);
% latent_mu = double(res{1}); latent_mu = latent_mu(1:length(batchM1_truth), :);
%
% ref_M1_train = load(['latent_models_backup\tVAE_' ...
% data.rat '_M1_' num2str(testFold-1) '_1En1De_' num2str(opt.latent_dim) 'latent_decoder_pos_train_set.mat']);
%
% figure()
% for lIdx = 1:opt.latent_dim
% subplot(opt.latent_dim, 1, lIdx)
% plot(latent_mu(101+(1:3e3), lIdx), 'r', 'LineWidth',1.5)
% hold on
% plot(ref_M1_train.latent_mu(1:3e3, lIdx), 'k', 'LineWidth',1.5)
% hold off
% end
%
% opt.Mode = 'test';
% [testInput,testM1_truth,testActions,testTrials,opt] = DataLoader_tVAE(data,opt);
% res = pyfunc.neural2latent(M1_model, testM1_truth, opt.latent_dim);
% latent_mu = double(res{1}); latent_mu = latent_mu(1:length(testM1_truth), :);
%
% ref_M1_test = load(['latent_models_backup\tVAE_' ...
% data.rat '_M1_' num2str(testFold-1) '_1En1De_' num2str(opt.latent_dim) 'latent_decoder_pos.mat']);
%
% figure()
% for lIdx = 1:opt.latent_dim
% subplot(opt.latent_dim, 1, lIdx)
% plot(latent_mu(101+(1:3e3), lIdx), 'r', 'LineWidth',1.5)
% hold on
% plot(ref_M1_test.latent_mu(1:3e3, lIdx), 'k', 'LineWidth',1.5)
% hold off
% end
%
% disp(['----', opt.DataIndex,' ',Sch,' fold ',num2str(opt.testFold),' Train start----']);
% % parfor(i = 1:opt.ReTrainTimes,8) % limited memory orz
% disp(['parfor loop ', num2str(i)])
% s = rng;
% % if (constraint==0)
% PolicyGradient_inRwd_Entropy_Manifold(data,opt,s,inputEnsemble,M1_truth,Actions,Trials);
% % else
% % SupervisedLearning(data,opt,s,inputEnsemble,M1_truth,Actions,Trials);
% % end
% % end
%
% paths = dir(['results/temp/',data.DataIndex,'_',Sch,'_',num2str(opt.testFold),'_','*.mat']);
% testSuc = zeros(1,length(paths));
% for i=1:length(paths)
% load(['results/temp/',paths(i).name],"MaxReward","testSucRate")
% testSuc(i) = testSucRate;
% end
% [bestTestSuc,I] = max(testSuc);
% source = ['results/temp/',paths(I).name];
% destination = [source([1:8 14:end-20]), '.mat'];
% copyfile(source, destination)
% disp([destination, ' Best testSuc: ', num2str(bestTestSuc)])
% end
end
end
%
% %%
% function Sch = getScheduleName(constraint)
% if constraint==0
% Sch = 'RL';
% else
% Sch = 'Cons';
% end
%
% end