Remove uses of numba_basic.global_numba_func

pytensor/link/numba/dispatch/basic.py

@@ -402,24 +402,22 @@
     return deepcopyop
 
 
-@numba_njit
-def makeslice(*x):
-    return slice(*x)
-
-
 @numba_funcify.register(MakeSlice)
 def numba_funcify_MakeSlice(op, **kwargs):
-    return global_numba_func(makeslice)
-
+    @numba_njit
+    def makeslice(*x):
+        return slice(*x)
 
-@numba_njit
-def shape(x):
-    return np.asarray(np.shape(x))
+    return makeslice
 
 
 @numba_funcify.register(Shape)
 def numba_funcify_Shape(op, **kwargs):
-    return global_numba_func(shape)
+    @numba_njit
+    def shape(x):
+        return np.asarray(np.shape(x))
+
+    return shape
 
 
 @numba_funcify.register(Shape_i)

pytensor/link/numba/dispatch/scalar.py

@@ -141,17 +141,16 @@ def {scalar_op_fn_name}({', '.join(input_names)}):
     )(scalar_op_fn)
 
 
-@numba_basic.numba_njit
-def switch(condition, x, y):
-    if condition:
-        return x
-    else:
-        return y
-
-
 @numba_funcify.register(Switch)
 def numba_funcify_Switch(op, node, **kwargs):
-    return numba_basic.global_numba_func(switch)
+    @numba_basic.numba_njit
+    def switch(condition, x, y):
+        if condition:
+            return x
+        else:
+            return y
+
+    return switch
 
 
 def binary_to_nary_func(inputs: list[Variable], binary_op_name: str, binary_op: str):
@@ -197,34 +196,32 @@ def cast(x):
     return cast
 
 
-@numba_basic.numba_njit
-def identity(x):
-    return x
-
-
 @numba_funcify.register(Identity)
 @numba_funcify.register(TypeCastingOp)
 def numba_funcify_type_casting(op, **kwargs):
-    return numba_basic.global_numba_func(identity)
-
-
-@numba_basic.numba_njit
-def clip(_x, _min, _max):
-    x = numba_basic.to_scalar(_x)
-    _min_scalar = numba_basic.to_scalar(_min)
-    _max_scalar = numba_basic.to_scalar(_max)
-
-    if x < _min_scalar:
-        return _min_scalar
-    elif x > _max_scalar:
-        return _max_scalar
-    else:
+    @numba_basic.numba_njit
+    def identity(x):
         return x
 
+    return identity
+
 
 @numba_funcify.register(Clip)
 def numba_funcify_Clip(op, **kwargs):
-    return numba_basic.global_numba_func(clip)
+    @numba_basic.numba_njit
+    def clip(x, min_val, max_val):
+        x = numba_basic.to_scalar(x)
+        min_scalar = numba_basic.to_scalar(min_val)
+        max_scalar = numba_basic.to_scalar(max_val)
+
+        if x < min_scalar:
+            return min_scalar
+        elif x > max_scalar:
+            return max_scalar
+        else:
+            return x
+
+    return clip
 
 
 @numba_funcify.register(Composite)
@@ -239,79 +236,72 @@ def numba_funcify_Composite(op, node, **kwargs):
     return composite_fn
 
 
-@numba_basic.numba_njit
-def second(x, y):
-    return y
-
-
 @numba_funcify.register(Second)
 def numba_funcify_Second(op, node, **kwargs):
-    return numba_basic.global_numba_func(second)
-
+    @numba_basic.numba_njit
+    def second(x, y):
+        return y
 
-@numba_basic.numba_njit
-def reciprocal(x):
-    # TODO FIXME: This isn't really the behavior or `numpy.reciprocal` when
-    # `x` is an `int`
-    return 1 / x
+    return second
 
 
 @numba_funcify.register(Reciprocal)
 def numba_funcify_Reciprocal(op, node, **kwargs):
-    return numba_basic.global_numba_func(reciprocal)
-
+    @numba_basic.numba_njit
+    def reciprocal(x):
+        # TODO FIXME: This isn't really the behavior or `numpy.reciprocal` when
+        # `x` is an `int`
+        return 1 / x
 
-@numba_basic.numba_njit
-def sigmoid(x):
-    return 1 / (1 + np.exp(-x))
+    return reciprocal
 
 
 @numba_funcify.register(Sigmoid)
 def numba_funcify_Sigmoid(op, node, **kwargs):
-    return numba_basic.global_numba_func(sigmoid)
-
+    @numba_basic.numba_njit
+    def sigmoid(x):
+        return 1 / (1 + np.exp(-x))
 
-@numba_basic.numba_njit
-def gammaln(x):
-    return math.lgamma(x)
+    return sigmoid
 
 
 @numba_funcify.register(GammaLn)
 def numba_funcify_GammaLn(op, node, **kwargs):
-    return numba_basic.global_numba_func(gammaln)
-
+    @numba_basic.numba_njit
+    def gammaln(x):
+        return math.lgamma(x)
 
-@numba_basic.numba_njit
-def logp1mexp(x):
-    if x < np.log(0.5):
-        return np.log1p(-np.exp(x))
-    else:
-        return np.log(-np.expm1(x))
+    return gammaln
 
 
 @numba_funcify.register(Log1mexp)
 def numba_funcify_Log1mexp(op, node, **kwargs):
-    return numba_basic.global_numba_func(logp1mexp)
-
+    @numba_basic.numba_njit
+    def logp1mexp(x):
+        if x < np.log(0.5):
+            return np.log1p(-np.exp(x))
+        else:
+            return np.log(-np.expm1(x))
 
-@numba_basic.numba_njit
-def erf(x):
-    return math.erf(x)
+    return logp1mexp
 
 
 @numba_funcify.register(Erf)
 def numba_funcify_Erf(op, **kwargs):
-    return numba_basic.global_numba_func(erf)
-
+    @numba_basic.numba_njit
+    def erf(x):
+        return math.erf(x)
 
-@numba_basic.numba_njit
-def erfc(x):
-    return math.erfc(x)
+    return erf
 
 
 @numba_funcify.register(Erfc)
 def numba_funcify_Erfc(op, **kwargs):
-    return numba_basic.global_numba_func(erfc)
+    @numba_basic.numba_njit
+    def erfc(x):
+        return math.erfc(x)
+
+    return erfc
 
 
 @numba_funcify.register(Softplus)