diff --git a/flow-over-heated-plate/README.md b/flow-over-heated-plate/README.md
index 9855deb1e..076b6664c 100644
--- a/flow-over-heated-plate/README.md
+++ b/flow-over-heated-plate/README.md
@@ -35,6 +35,8 @@ Solid participant:
 
 * Nutils. For more information, have a look at the [Nutils adapter documentation](https://precice.org/adapter-nutils.html).
 
+* Dune-Fem. For more information, have a look at the [official documentation of Dune-Fem](https://www.dune-project.org/sphinx/dune-fem/). The solver can be installed through [PyPI](https://pypi.org/project/dune-fem/). Make sure that you are in a Python virtual environment first, which you can create inside the `solid-dune` directory and load again before running (you may need to install some tools again in this environment). Please note that Dune-Fem uses just-in-time compilation: The first time you run the solver script, it will take some time.
+
 ## Running the Simulation
 
 All listed solvers can be used in order to run the simulation. Open two separate terminals and start the desired fluid and solid participant by calling the respective run script `run.sh` located in the participant directory. For example:
diff --git a/flow-over-heated-plate/images/tutorials-flow-over-heated-plate-results-comparison.png b/flow-over-heated-plate/images/tutorials-flow-over-heated-plate-results-comparison.png
index c714ed2d2..4d3c6f487 100644
Binary files a/flow-over-heated-plate/images/tutorials-flow-over-heated-plate-results-comparison.png and b/flow-over-heated-plate/images/tutorials-flow-over-heated-plate-results-comparison.png differ
diff --git a/flow-over-heated-plate/solid-dunefem/clean.sh b/flow-over-heated-plate/solid-dunefem/clean.sh
new file mode 100755
index 000000000..eaf41de47
--- /dev/null
+++ b/flow-over-heated-plate/solid-dunefem/clean.sh
@@ -0,0 +1,6 @@
+#!/bin/sh
+set -e -u
+
+. ../../tools/cleaning-tools.sh
+
+clean_dune .
diff --git a/flow-over-heated-plate/solid-dunefem/run.sh b/flow-over-heated-plate/solid-dunefem/run.sh
new file mode 100755
index 000000000..21bd5c3b1
--- /dev/null
+++ b/flow-over-heated-plate/solid-dunefem/run.sh
@@ -0,0 +1,5 @@
+#!/bin/bash
+set -e -u
+
+python3 solid.py
+
diff --git a/flow-over-heated-plate/solid-dunefem/solid.py b/flow-over-heated-plate/solid-dunefem/solid.py
new file mode 100644
index 000000000..24ee12c16
--- /dev/null
+++ b/flow-over-heated-plate/solid-dunefem/solid.py
@@ -0,0 +1,139 @@
+#!/usr/bin/env python3
+
+import numpy as np
+import precice
+import os
+from scipy.interpolate import interp1d
+
+import ufl
+from dune.fem.space import lagrange as solutionSpace
+from dune.ufl import DirichletBC, Constant
+from dune.fem.scheme import galerkin as solutionScheme
+from dune.fem.operator import galerkin
+from dune.fem.utility import Sampler
+from dune.grid import cartesianDomain
+from dune.alugrid import aluSimplexGrid
+from dune.fem.function import uflFunction, gridFunction
+from dune.ufl import expression2GF
+
+if __name__ == '__main__':
+
+    # standard heat equation: u_t + k \Delta u = 0
+    k = 100  # kg * m / s^3 / K, https://en.wikipedia.org/wiki/Thermal_conductivity
+
+    # Create mesh and define function space
+    nx = 100
+    ny = 25
+
+    dt_out = 0.2  # interval for writing VTK files
+    y_top = 0
+    y_bottom = y_top - .25
+    x_left = 0
+    x_right = x_left + 1
+
+    # preCICE setup
+    interface = precice.Interface("Solid", "../precice-config.xml", 0, 1)
+
+    # define coupling mesh
+    mesh_name = "Solid-Mesh"
+    mesh_id = interface.get_mesh_id(mesh_name)
+    interface_x_coordinates = np.linspace(0, 1, nx + 1)  # meshpoints for interface values
+    vertices = [[x0, 0] for x0 in interface_x_coordinates]
+    vertex_ids = interface.set_mesh_vertices(mesh_id, vertices)
+    temperature_id = interface.get_data_id("Temperature", mesh_id)
+    flux_id = interface.get_data_id("Heat-Flux", mesh_id)
+
+    domain = cartesianDomain([x_left, y_bottom], [x_right, y_top], [nx, ny])
+    mesh = aluSimplexGrid(domain, serial=True)
+    space = solutionSpace(mesh, order=1)
+    u = ufl.TrialFunction(space)
+    v = ufl.TestFunction(space)
+    x = ufl.SpatialCoordinate(ufl.triangle)
+    n = ufl.FacetNormal(space)
+
+    u0 = uflFunction(mesh, name="u0", order=space.order,
+                     ufl=Constant(310))
+    uold = space.interpolate(u0, name='uold')
+    unew = space.interpolate(u0, name='unew')
+    ucheckpoint = uold.copy(name='u_checkpoint')
+
+    # creating boundary condition with data from the fluid
+
+    ug_interp = interp1d(interface_x_coordinates, np.zeros(nx + 1))
+    def ug_f(x): return ug_interp(x[0])
+
+    @gridFunction(mesh, name="u_gamma", order=1)
+    def u_gamma(xg):
+        return ug_f(xg)
+
+    eps = 1e-8
+    bc_top = DirichletBC(space, u_gamma, x[1] > - eps)
+    bc_bottom = DirichletBC(space, Constant(310.), x[1] < -0.25 + eps)
+    bcs = [bc_bottom, bc_top]
+
+    k = Constant(k)
+    dt = Constant(0.01, name='dt')
+
+    A = u * v * ufl.dx + dt * k * ufl.dot(ufl.grad(u), ufl.grad(v)) * ufl.dx
+    b = uold * v * ufl.dx
+
+    scheme = solutionScheme([A == b, *bcs], solver='cg')
+
+    # Weak form of the flux
+    flux_expr = -(u - uold) * v / dt * ufl.dx - k * ufl.dot(ufl.grad(u), ufl.grad(v)) * ufl.dx
+    flux_expr_operator = galerkin(flux_expr)
+    flux_sol = space.interpolate(u0, name='flux_sol')
+
+    # Sample the flux on the top edge
+    flux_sol_expr = expression2GF(flux_sol.space.grid, flux_sol, flux_sol.space.order)
+    sampler_weak_flux = Sampler(flux_sol_expr)
+    def flux_f_weak(): return sampler_weak_flux.lineSample([0., 0.], [1., 0.], nx + 1)[1] * nx
+
+    if not os.path.exists("output"):
+        os.makedirs("output")
+    vtk = mesh.sequencedVTK("output/heat", pointdata=[unew])
+
+    precice_dt = interface.initialize()
+    dt.assign(min(float(dt), precice_dt))
+
+    t = float(dt)
+
+    while interface.is_coupling_ongoing():
+
+        if interface.is_action_required(precice.action_write_iteration_checkpoint()):  # write checkpoint
+            t_check = t
+            ucheckpoint.assign(uold)
+            interface.mark_action_fulfilled(precice.action_write_iteration_checkpoint())
+
+        ug = interface.read_block_scalar_data(temperature_id, vertex_ids)
+        ug_interp.y = ug
+
+        scheme.model.dt = dt
+        scheme.solve(target=unew)
+
+        # compute flux, solution goes into flux_sol
+        flux_expr_operator(unew, flux_sol)
+        flux_values = flux_f_weak()  # sample the flux function
+
+        interface.write_block_scalar_data(flux_id, vertex_ids, flux_values)
+
+        precice_dt = interface.advance(dt)
+        dt.assign(min(float(dt), precice_dt))
+
+        if interface.is_action_required(precice.action_read_iteration_checkpoint()):  # roll back to checkpoint
+            t = t_check
+            uold.assign(ucheckpoint)
+            interface.mark_action_fulfilled(precice.action_read_iteration_checkpoint())
+
+        else:  # update solution
+
+            uold.assign(unew)
+            t += float(dt)
+
+        if interface.is_time_window_complete():
+            tol = 10e-5  # we need some tolerance, since otherwise output might be skipped.
+            if abs((t + tol) % dt_out) < 2 * tol:  # output if t is a multiple of dt_out
+                print("output vtk for time = {}".format(float(t)))
+                vtk()
+
+    interface.finalize()
diff --git a/tools/cleaning-tools.sh b/tools/cleaning-tools.sh
index c143947c1..98332b57f 100755
--- a/tools/cleaning-tools.sh
+++ b/tools/cleaning-tools.sh
@@ -122,9 +122,11 @@ clean_dune() {
         set -e -u
         cd "$1"
         echo "--- Cleaning up DUNE case in $(pwd)"
+        rm -fv ./dgfparser.log
         rm -fv ./*.pvd
         rm -fv ./*.vtu
         rm -rfv ./preCICE-output/
+        rm -rfv ./output/
         clean_precice_logs .
     )
 }