diff --git a/Docs/sphinx/manual/LMeXControls.rst b/Docs/sphinx/manual/LMeXControls.rst
index 3c9346d0..77cfeb96 100644
--- a/Docs/sphinx/manual/LMeXControls.rst
+++ b/Docs/sphinx/manual/LMeXControls.rst
@@ -393,6 +393,12 @@ in ``Exec/RegTest/EB_BackwardStepFlame`` and ``Exec/RegTest/EB_FlowPastCylinder`
 .. note::
    Note that when using isothermal EB in combination with LES, the thermal diffusion coefficient employed to compute the EB boundary thermal flux only uses the molecular contribution.
 
+Lastly, it is possible to change the default redistribution scheme described in the :ref:`geometry with embedded boundaries section: <ssec:geoEB>`
+::
+
+    peleLM.adv_redist_type = StateRedist  # [OPT, DEF=StateRedist] Redistribution scheme for advection [StateRedist, FluxRedist, NoRedist]
+    peleLM.diff_redist_type = FluxRedist  # [OPT, DEF=FluxRedist]  Redistribution scheme for diffusion [StateRedist, FluxRedist, NoRedist]
+
 Linear solvers
 --------------
 
diff --git a/Docs/sphinx/manual/Model.rst b/Docs/sphinx/manual/Model.rst
index e4910077..62cd5b43 100644
--- a/Docs/sphinx/manual/Model.rst
+++ b/Docs/sphinx/manual/Model.rst
@@ -358,6 +358,7 @@ In practice, `PeleLM` will perform a total of 7 single-level advance steps, whil
 
 Geometry with Embedded Boundaries
 ^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
+.. _ssec:geoEB:
 
 `PeleLMeX` relies on `AMReX's implementation <https://amrex-codes.github.io/amrex/docs_html/EB_Chapter.html>`_ of
 the Embedded Boundaries (EB) approach to represent geometrical objects. In this approach, the underlying computational
diff --git a/Source/PeleLMeX_Setup.cpp b/Source/PeleLMeX_Setup.cpp
index 1a76b595..b719ddfb 100644
--- a/Source/PeleLMeX_Setup.cpp
+++ b/Source/PeleLMeX_Setup.cpp
@@ -640,6 +640,8 @@ PeleLM::readParameters()
     }
   }
   pp.query("isothermal_EB", m_isothermalEB);
+  pp.query("adv_redist_type", m_adv_redist_type);
+  pp.query("diff_redist_type", m_diff_redist_type);
 #endif
 
   // -----------------------------------------