diff --git a/lang/en/docs/tutorials/materials/interface-with-python.md b/lang/en/docs/tutorials/materials/interface-with-python.md
deleted file mode 100644
index 8bfdbfca..00000000
--- a/lang/en/docs/tutorials/materials/interface-with-python.md
+++ /dev/null
@@ -1,100 +0,0 @@
-# Create an Interface with Python Transformation
-
-In this tutorial, we create an interface between two materials using the Python Transformation feature. Specifically, we will explore the creation of an interface between Graphene and Ni(111).
-
-## Step 0: Open Materials Designer
-
-We start with [opening](../../entities-general/actions/create.md) an instance of the [Materials Designer Interface](../../materials-designer/overview.md) for creating and designing new [Materials structures](../../materials/overview.md) on our platform.
-
-## Step 1: Import Materials
-
-In order to use Graphene and Ni, the user should first [import](../../materials-designer/header-menu/input-output/import.md) sample crystalline structures of the two respective materials into the current Materials Designer session, from the account-owned [collection](../../accounts/collections.md) of materials.
-
-Another option is to use materials from a Standard Materials Dataset via [Import from Standata](../../materials-designer/header-menu/input-output/standata-import.md).
-
-After importing, Graphene and Ni should be available in the materials list.
-<img src="/images/materials-designer/import/graphene_and_ni_imported.webp" alt="Gr and Ni available in materials list"/>
-
-## Step 2: Use Python Transformation Dialog
-
-Navigate to `Advanced` > `Python Transformation` from the main interface.
-<img src="/images/tutorials/interface_with_python/open_python_transformation.png" alt="Open Python Transformation Dialog"/>
-
-- Choose the transformation titled “Place a 2D materials Layer on a Surface”.
-<img src="/images/tutorials/interface_with_python/select_transformation.png" alt="Select Transformation"/>
-- Select Ni and Graphene from the materials list. The order of selection can be easily accounted for later, but the default expected order is substrate first and then the layer.
-<img src="/images/tutorials/interface_with_python/select_materials.png" alt="Select Materials"/>
-
-!!!warning "Key Considerations"
-    The user is responsible for calculating the appropriate superlattice matrices to ensure realistic interfaces.
-    Excessive straining during the scaling of the layer can result in unrealistic deformations, so use **`scale_layer_to_fit`** cautiously.
-
-In the Python code area:
-
-- Set the substrate index and layer index corresponding to the Selected Materials. In this example, the substrate (Ni) should be at index 0 and the layer (Graphene) at index 1.
-- Customize the **`SETTINGS`** for your specific use case, including:
-    - Miller indices for the substrate and layer, the default value is (1,1,1) for substrate and (0,0,1) for 2D layer.
-    - Vacuum space and number of layers, we can leave it at default values.
-    - The distance between the substrate and the layer in Angstroms.
-    - Superlattice matrices which should be precalculated for a good lattice match. For Graphene on Ni(111) matrix [[1,0], [0,1]] for both materials already provides a good match since lattices are of the same type (hexagonal) and have similar vectors.
-    - Flag **`scale_layer_to_fit`** scales 2D layer superlattice and basis to fit the superlattice of substrate. This is useful when the layer is not a perfect match to the substrate. In this example, we will leave it at default value of `False`. 
-
-<details>
-<summary>Click to view the Python code</summary>
-
-```python
-# Indices identify the substrate and layer from the list of input materials under `materials_in` in globals().
-SUBSTRATE_INDEX = 0
-LAYER_INDEX = 1
-
-SETTINGS = {
-    "substrate_surface": {
-        # Set Miller indices as a tuple for the resulting substrate surface.
-        "miller_indices": (1, 1, 1),
-        # The vacuum space (in Ångströms) added to the surface in the direction perpendicular to the surface.
-        "vacuum": 5,
-        # The number of atomic layers in the resulting substrate.
-        "number_of_layers": 3,
-        # The transformation matrix for the surface. Format is: [[v1x, v1y], [v2x, v2y]].
-        # fmt: off
-        "superlattice_matrix": [
-            [1, 0],
-            [0, 1]
-        ],
-        # fmt: on
-    },
-    "layer_surface": {
-        # Set Miller indices as a tuple for the resulting layer surface: (0,0,1) for 2D material
-        "miller_indices": (0, 0, 1),
-        # The vacuum space (in Ångströms) added to the surface in the direction perpendicular to the surface.
-        "vacuum": 5,
-        # The number of atomic layers in the resulting substrate: 1 for 2D material
-        "number_of_layers": 1,
-        # The transformation matrix for the surface. Format is: [[v1x, v1y], [v2x, v2y]].
-        # fmt: off
-        "superlattice_matrix": [
-            [1, 0],
-            [0, 1]
-        ],
-        # fmt: on
-    },
-    "interface": {
-        "distance": 3.0,
-    },
-    # If True the layer cell and basis vectors will be scaled to fit the substrate cell.
-    # Mind the strain that is introduced by this operation.
-    "scale_layer_to_fit": False,
-}
-```
-</details>
-
-- Click `Run All` to process the transformation.
-- The strain matrix will appear in the output, providing insight into the lattice deformation.
-- `Output Materials` will update with the newly created structure.
-<img src="/images/tutorials/interface_with_python/after_run.png" alt="Results of code execution: strain matrix and output materials"/>
-
-- Review the resulting strain matrix, if satisfied, submit the form to add the interface to your materials collection.
-- Verify the final structure using the Orthographic camera in the 3D Viewer to ensure proper alignment and centrality of the layer over the substrate.
-
-- Resulting Material with unit cell repeated 3 times in A and B directions:
-<img src="/images/tutorials/interface_with_python/resulting_material.png" alt="Graphene on Ni interface"/>
diff --git a/lang/en/docs/tutorials/overview.md b/lang/en/docs/tutorials/overview.md
index 642e44a1..9f5f0f52 100644
--- a/lang/en/docs/tutorials/overview.md
+++ b/lang/en/docs/tutorials/overview.md
@@ -74,7 +74,6 @@ sidebar navigation.
     - [Interpolated Sets](materials/interpolated-sets.md)
     - [Molecule on a Surface](materials/molecule-surface.md)
     - [Interface, quick setup (3D Editor)](materials/slabs-interface.md)
-    - [Interface, no strain minimization (Python Transformation)](materials/interface-with-python.md)
     - [Interface, minimal strain (JupyterLite Session)](materials/jupyterlite-zsl.md)
     - [Import materials from files in various formats](materials/import-from-files.md)
 
diff --git a/mkdocs.yml b/mkdocs.yml
index d1e4e748..55d5ec96 100644
--- a/mkdocs.yml
+++ b/mkdocs.yml
@@ -220,7 +220,6 @@ nav:
             - Interpolated Sets:                                                tutorials/materials/interpolated-sets.md
             - Molecule on a Surface:                                            tutorials/materials/molecule-surface.md
             - Interface, quick setup (3D Editor):                               tutorials/materials/slabs-interface.md
-            - Interface, no strain minimization (Python Transformation):        tutorials/materials/interface-with-python.md
             - Interface, minimal strain (JupyterLite Session):                  tutorials/materials/jupyterlite-zsl.md
             - Import materials from files in various formats:                   tutorials/materials/import-from-files.md