Merge remote-tracking branch 'origin/main'

evaluation.py

         - results (dict): Dictionary containing evaluation metrics.
         """
         # Step 1: Convert predicted probabilities to binary labels
-        predicted_labels = np.where(mlp_output > 0.5, 1, 0)
+        mlp_output = mlp_output.cpu()
+        all_targets = all_targets.cpu()
+        predicted_labels = np.where(mlp_output.cpu() > 0.5, 1, 0)
         predicted_labels = predicted_labels.reshape(-1)
         all_predictions = predicted_labels
 

main.py

 
 
     model = DeepDRA(cell_sizes, drug_sizes, ae_latent_dim, ae_latent_dim)
-    model.to(device)
+    model= model.to(device)
+
     # Step 3: Convert your training data to PyTorch tensors
     x_cell_train_tensor = torch.Tensor(x_cell_train.values)
     x_drug_train_tensor = torch.Tensor(x_drug_train.values)
     y_train_tensor = torch.Tensor(y_train)
     y_train_tensor = y_train_tensor.unsqueeze(1)
 
-    x_cell_train_tensor.to(device)
-    x_drug_train_tensor.to(device)
-    y_train_tensor.to(device)
+
     # Compute class weights
     classes = [0, 1]  # Assuming binary classification
     class_weights = torch.tensor(compute_class_weight(class_weight='balanced', classes=classes, y=y_train),
         random_state=RANDOM_SEED,
         shuffle=True)
 
-    # Step 4: Create a TensorDataset with the input features and target labels
-    train_dataset = TensorDataset(x_cell_train_tensor, x_drug_train_tensor, y_train_tensor)
-    val_dataset = TensorDataset(x_cell_val_tensor, x_drug_val_tensor, y_val_tensor)
 
+    # Step 4: Create a TensorDataset with the input features and target labels
+    train_dataset = TensorDataset(x_cell_train_tensor.to(device), x_drug_train_tensor.to(device), y_train_tensor.to(device))
+    val_dataset = TensorDataset(x_cell_val_tensor.to(device), x_drug_val_tensor.to(device), y_val_tensor.to(device))
     # Step 5: Create the train_loader
     train_loader = DataLoader(train_dataset, batch_size=batch_size, shuffle=True)
     val_loader = DataLoader(val_dataset, batch_size=batch_size, shuffle=True)
     # Step 9: Convert your test data to PyTorch tensors
     x_cell_test_tensor = torch.Tensor(x_cell_test.values)
     x_drug_test_tensor = torch.Tensor(x_drug_test.values)
-    y_test_tensor = torch.Tensor(y_test)
+    y_test_tensor = torch.Tensor(y_test).to(device)
 
     # normalize data
-    x_cell_test_tensor = torch.nn.functional.normalize(x_cell_test_tensor, dim=0)
-    x_drug_test_tensor = torch.nn.functional.normalize(x_drug_test_tensor, dim=0)
+    x_cell_test_tensor = torch.nn.functional.normalize(x_cell_test_tensor, dim=0).to(device)
+    x_drug_test_tensor = torch.nn.functional.normalize(x_drug_test_tensor, dim=0).to(device)
 
     # Step 10: Create a TensorDataset with the input features and target labels for testing
     test_dataset = TensorDataset(x_cell_test_tensor, x_drug_test_tensor, y_test_tensor)
     - history (dict): Dictionary containing evaluation metrics for each run.
     """
     device = torch.device("cuda:0" if torch.cuda.is_available() else "cpu")
+    print(device)
     # Step 1: Initialize a dictionary to store evaluation metrics
     history = {'AUC': [], 'AUPRC': [], "Accuracy": [], "Precision": [], "Recall": [], "F1 score": []}