diff --git a/examples/python/solid_mechanics_model/custom-material/README.rst b/examples/python/solid_mechanics_model/custom-material/README.rst
index f29a7ef90..a7eefe140 100644
--- a/examples/python/solid_mechanics_model/custom-material/README.rst
+++ b/examples/python/solid_mechanics_model/custom-material/README.rst
@@ -1,36 +1,36 @@
 custom-material
 '''''''''''''''
 
 In ``custom-material.py`` it is shown how to create a custom material behaviour. In this example, a linear elastic 
 material is recreated. It is done by creating a class that inherits from ``aka.Material`` and register it 
 to ``MaterialFactory``::
 
     class LocalElastic(aka.Material):
         [...]
 
     def allocator(_dim, unused, model, _id):
         return LocalElastic(model, _id)
 
     mat_factory = aka.MaterialFactory.getInstance()
     mat_factory.registerAllocator("local_elastic", allocator)
     
 Wave propagation of a pulse in a bar fixed on the top, bottom and right boundaries is simulated using an explicit 
 scheme. Results are shown in :numref:`fig-ex-plate_bar_custom`.
 
 .. _fig-ex-plate_bar_custom:
-.. figure:: examples/python/solid_mechanics_model/custom_material/images/pulse_bar_custom.gif
+.. figure:: examples/python/solid_mechanics_model/custom-material/images/pulse_bar_custom.gif
             :align: center
             :width: 90%
 
             Wave propagation in a bar.
             
 In ``bi-material.py``, the same principle is used to create a bimaterial square. The displacement is shown in :numref:`fig-ex-square_custom`.
 
 .. _fig-ex-square_custom:
-.. figure:: examples/python/solid_mechanics_model/custom_material/images/square_displ.png
+.. figure:: examples/python/solid_mechanics_model/custom-material/images/square_displ.png
             :align: center
             :width: 70%
 
             Bimaterial square.