diff --git a/decompiler/pipeline/commons/expressionpropagationcommons.py b/decompiler/pipeline/commons/expressionpropagationcommons.py
index 36c57c14b..c9e95f4ff 100644
--- a/decompiler/pipeline/commons/expressionpropagationcommons.py
+++ b/decompiler/pipeline/commons/expressionpropagationcommons.py
@@ -225,8 +225,9 @@ def _is_address_into_dereference(self, definition: Assignment, target: Instructi
         if self._is_address(definition.value):
             for subexpr in target:
                 for sub in self._find_subexpressions(subexpr):
-                    if self._is_dereference(sub) and sub.operand == definition.destination:
+                    if self._is_dereference(sub) and sub.operand in definition.definitions:
                         return True
+        return False
 
     def _contains_aliased_variables(self, definition: Assignment) -> bool:
         """
@@ -326,14 +327,13 @@ def _has_any_of_dangerous_uses_between_definition_and_target(
     def _get_dangerous_uses_of_variable_address(self, var: Variable) -> Set[Instruction]:
         """
         Dangerous use of & of x is func(&x) cause it can potentially modify x.
-        *(&x) could also do the job but I consider it to be too exotic so that we could get such instruction from Binary Ninja
-        If it happens we can handle it later.
+        Another case is an Assignment where the left side is *(&).
         :param var: aliased variable
         :return: set of function call assignments that take &var as parameter
         """
         dangerous_uses = set()
         for use in self._use_map.get(var):
-            if not self._is_call_assignment(use):
+            if not self._is_call_assignment(use) and not (isinstance(use, Assignment) and self._is_dereference(use.destination)):
                 continue
             for subexpr in self._find_subexpressions(use):
                 if self._is_address(subexpr):
diff --git a/tests/pipeline/dataflowanalysis/test_expression_propagation_mem.py b/tests/pipeline/dataflowanalysis/test_expression_propagation_mem.py
index 5e6f4d124..b4c0fa0d0 100644
--- a/tests/pipeline/dataflowanalysis/test_expression_propagation_mem.py
+++ b/tests/pipeline/dataflowanalysis/test_expression_propagation_mem.py
@@ -1676,6 +1676,44 @@ def test_correct_propagation_relation():
     ]
 
 
+def test_address_into_dereference():
+    """
+    Test with cast in destination (x#0 stays the same type)
+    +---------------------+
+    |         0.          |
+    | (long) x#0 = &(x#1) |
+    |    *(x#0) = x#0     |
+    +---------------------+
+
+    +---------------------+
+    |         0.          |
+    | (long) x#0 = &(x#1) |
+    |    *(x#0) = x#0     |
+    +---------------------+
+    """
+    input_cfg, output_cfg = graphs_addr_into_deref()
+    _run_expression_propagation(input_cfg)
+    assert _graphs_equal(input_cfg, output_cfg)
+
+
+def graphs_addr_into_deref():
+    x = vars("x", 2)
+    c = const(10)
+    in_n0 = BasicBlock(
+        0,
+        [_assign(_cast(int64, x[0]), _addr(x[1])), _assign(_deref(x[0]), x[0])],
+    )
+    in_cfg = ControlFlowGraph()
+    in_cfg.add_node(in_n0)
+    out_n0 = BasicBlock(
+        0,
+        [_assign(_cast(int64, x[0]), _addr(x[1])), _assign(_deref(x[0]), x[0])],
+    )
+    out_cfg = ControlFlowGraph()
+    out_cfg.add_node(out_n0)
+    return in_cfg, out_cfg
+
+
 def graphs_with_no_propagation_of_contraction_address_assignment():
     x = vars("x", 3)
     ptr = vars("ptr", 1, type=Pointer(int32))