diff --git a/src/bloqade/squin/wire.py b/src/bloqade/squin/wire.py
index ec46c957..f2a70d0d 100644
--- a/src/bloqade/squin/wire.py
+++ b/src/bloqade/squin/wire.py
@@ -68,6 +68,25 @@ def __init__(self, operator: ir.SSAValue, *args: ir.SSAValue):
         )  # custom lowering required for wrapper to work here
 
 
+# Carry over from Qubit dialect
+@statement(dialect=dialect)
+class Broadcast(ir.Statement):
+    traits = frozenset({lowering.FromPythonCall(), ir.Pure()})
+    operator: ir.SSAValue = info.argument(OpType)
+    inputs: tuple[ir.SSAValue, ...] = info.argument(WireType)
+
+    def __init__(self, operator: ir.SSAValue, *args: ir.SSAValue):
+        result_types = tuple(WireType for _ in args)
+        super().__init__(
+            args=(operator,) + args,
+            result_types=result_types,
+            args_slice={
+                "operator": 0,
+                "inputs": slice(1, None),
+            },  # pretty printing + syntax sugar
+        )  # custom lowering required for wrapper to work here
+
+
 # NOTE: measurement cannot be pure because they will collapse the state
 #       of the qubit. The state is a hidden state that is not visible to
 #      the user in the wire dialect.
@@ -98,6 +117,7 @@ class Reset(ir.Statement):
 class ConstPropWire(interp.MethodTable):
 
     @interp.impl(Apply)
+    @interp.impl(Broadcast)
     def apply(self, interp, frame, stmt: Apply):
 
         return frame.get_values(stmt.inputs)
diff --git a/test/squin/test_constprop.py b/test/squin/test_constprop.py
new file mode 100644
index 00000000..baf94e21
--- /dev/null
+++ b/test/squin/test_constprop.py
@@ -0,0 +1,110 @@
+# There's a method table in the wire dialect statements
+# that handles the multiple return values from Apply and Broadcast
+# that can cause problems for constant propoagation's default implementation.
+# These tests just make sure there are corresponding lattice types per each
+# SSA value (as opposed to a bunch of "missing" entries despite multiple
+# return values from Broadcast and Apply)
+
+from kirin import ir, types
+from kirin.passes import Fold
+from kirin.dialects import py, func
+from kirin.analysis.const import Propagate
+
+from bloqade import squin
+
+
+def as_int(value: int):
+    return py.constant.Constant(value=value)
+
+
+def as_float(value: float):
+    return py.constant.Constant(value=value)
+
+
+def gen_func_from_stmts(stmts):
+
+    squin_with_py = squin.groups.wired.add(py)
+
+    block = ir.Block(stmts)
+    block.args.append_from(types.MethodType[[], types.NoneType], "main_self")
+    func_wrapper = func.Function(
+        sym_name="main",
+        signature=func.Signature(inputs=(), output=squin.op.types.OpType),
+        body=ir.Region(blocks=block),
+    )
+
+    constructed_method = ir.Method(
+        mod=None,
+        py_func=None,
+        sym_name="main",
+        dialects=squin_with_py,
+        code=func_wrapper,
+        arg_names=[],
+    )
+
+    fold_pass = Fold(squin_with_py)
+    fold_pass(constructed_method)
+
+    return constructed_method
+
+
+def test_wire_apply_constprop():
+
+    stmts = [
+        (n_qubits := as_int(2)),
+        (qreg := squin.qubit.New(n_qubits=n_qubits.result)),
+        (idx0 := as_int(0)),
+        (q0 := py.GetItem(qreg.result, idx0.result)),
+        (idx1 := as_int(1)),
+        (q1 := py.GetItem(qreg.result, idx1.result)),
+        # get wires
+        (w0 := squin.wire.Unwrap(q0.result)),
+        (w1 := squin.wire.Unwrap(q1.result)),
+        # put wire through gates
+        (x := squin.op.stmts.X()),
+        (cx := squin.op.stmts.Control(op=x.result, n_controls=1)),
+        (a := squin.wire.Apply(cx.result, w0.result, w1.result)),
+        (func.Return(a.results[0])),
+    ]
+    constructed_method = gen_func_from_stmts(stmts)
+
+    prop_analysis = Propagate(constructed_method.dialects)
+    frame, _ = prop_analysis.run_analysis(constructed_method)
+
+    assert len(frame.entries.values()) == 13
+
+
+def test_wire_broadcast_constprop():
+
+    stmts = [
+        (n_qubits := as_int(4)),
+        (qreg := squin.qubit.New(n_qubits=n_qubits.result)),
+        (idx0 := as_int(0)),
+        (q0 := py.GetItem(qreg.result, idx0.result)),
+        (idx1 := as_int(1)),
+        (q1 := py.GetItem(qreg.result, idx1.result)),
+        (idx2 := as_int(2)),
+        (q2 := py.GetItem(qreg.result, idx2.result)),
+        (idx3 := as_int(3)),
+        (q3 := py.GetItem(qreg.result, idx3.result)),
+        # get wires
+        (w0 := squin.wire.Unwrap(q0.result)),
+        (w1 := squin.wire.Unwrap(q1.result)),
+        (w2 := squin.wire.Unwrap(q2.result)),
+        (w3 := squin.wire.Unwrap(q3.result)),
+        # put wire through gates
+        (x := squin.op.stmts.X()),
+        (cx := squin.op.stmts.Control(op=x.result, n_controls=1)),
+        (
+            a := squin.wire.Broadcast(
+                cx.result, w0.result, w1.result, w2.result, w3.result
+            )
+        ),
+        (func.Return(a.results[0])),
+    ]
+    constructed_method = gen_func_from_stmts(stmts)
+
+    prop_analysis = Propagate(constructed_method.dialects)
+    frame, _ = prop_analysis.run_analysis(constructed_method)
+
+    assert len(frame.entries.values()) == 21