def tuple(op_name, input_layers, **kwargs):
# type: (str, int, List[XLayer]) -> XLayer
"""
Create an tuple XLayer for grouping a list of input layers
Arguments
---------
input_layers: List[XLayer]
The input layers to be grouped in a tuple data structure
"""
bottoms = [input_layer.name for input_layer in input_layers]
shapes = TupleShape([TensorShape(il.shapes[:]) for il in input_layers])
X = XLayer()
X = X._replace(name=op_name,
type=['Tuple'],
shapes=shapes,
sizes=shapes.get_size(),
layer=[op_name],
tops=[],
bottoms=bottoms,
attrs=kwargs,
targets=[])
return X
def test_tuple_get_item(self):
A = np.array([0.1, 0.05], dtype=np.float32)
B = np.array([0.1, 0.05, 0.1], dtype=np.float32)
layers = [
TupleLayer(
name='tuple',
xtype='Tuple',
shape=TupleShape([TensorShape([2]), TensorShape([3])]),
dtype='float32',
inputs=['input1', 'input2'],
input_shapes=[TensorShape([2]), TensorShape([3])],
data=[],
attrs={},
subgraph=None
),
TupleGetItemLayer(
name='tgi',
xtype='TupleGetItem',
shape=TensorShape([3]),
dtype='float32',
inputs=['tuple'],
input_shapes=[TupleShape([TensorShape([2]), TensorShape([3])])],
subgraph=None,
data=[],
attrs={
'index': 1
}
)
]
tupl = layers[0].forward_exec([A, B])
outpt = layers[1].forward_exec([tupl])
np.testing.assert_array_equal(outpt, B)
def test_get_item_slice(self):
ts = TupleShape([TensorShape([1]), TensorShape([2])])
ts_slice = ts[:]
assert len(ts_slice) == 2
assert ts_slice == [[1], [2]]
assert isinstance(ts_slice[0], TensorShape)
assert isinstance(ts_slice[1], TensorShape)
_shape = lpx.IntVector2D([lpx.IntVector([1]),
lpx.IntVector([2])])
ts = TupleShape(IntVector2D(_shape))
ts_slice = ts[:]
assert len(ts_slice) == 2
assert ts_slice == [[1], [2]]
assert isinstance(ts_slice[0], TensorShape)
assert isinstance(ts_slice[1], TensorShape)
ts[0:2] = [[-1, 2], [-1, 3]]
assert ts == [[-1, 2], [-1, 3]]
def test_xlayer_shapes(self):
# TensorShape
X = XLayer(shapes=[-1, 2, 4, 4])
assert X.shapes == [-1, 2, 4, 4]
assert X.shapes == TensorShape([-1, 2, 4, 4])
X.shapes[1] = 3
assert X.shapes == [-1, 3, 4, 4]
assert X.shapes == TensorShape([-1, 3, 4, 4])
X.shapes = [-1, 3, 5, 5]
assert X.shapes == [-1, 3, 5, 5]
assert X.shapes == TensorShape([-1, 3, 5, 5])
assert X.shapes.get_size() == [75]
shapes2 = X.shapes._replace(5, 6)
assert shapes2 == TensorShape([-1, 3, 6, 6])
# TupleShape
X = XLayer(shapes=[[-1, 2, 4, 4], [-1, 2, 3, 3]])
assert X.shapes == [[-1, 2, 4, 4], [-1, 2, 3, 3]]
assert X.shapes == TupleShape(
[TensorShape([-1, 2, 4, 4]),
TensorShape([-1, 2, 3, 3])])
assert X.shapes.get_size() == [32, 18]
assert X.shapes[0] == [-1, 2, 4, 4]
assert X.shapes[1] == [-1, 2, 3, 3]
assert X.shapes[0] == TensorShape([-1, 2, 4, 4])
assert X.shapes[1] == TensorShape([-1, 2, 3, 3])
X.shapes[0] = [-1, 1, 2, 2]
assert X.shapes == [[-1, 1, 2, 2], [-1, 2, 3, 3]]
X.shapes[0][1] = 3
assert X.shapes == [[-1, 3, 2, 2], [-1, 2, 3, 3]]
assert X.shapes.get_size() == [12, 18]
assert X.shapes.tolist() == [[-1, 3, 2, 2], [-1, 2, 3, 3]]
X.shapes[1] = [-1, 3, 4, 4]
assert X.shapes.get_size() == [12, 48]
shapes2 = X.shapes._replace(4, 6)
assert shapes2 == [[-1, 3, 2, 2], [-1, 3, 6, 6]]
assert shapes2 == TupleShape([[-1, 3, 2, 2], [-1, 3, 6, 6]])
assert shapes2.get_size() == [12, 108]
assert X.shapes.get_size() == [12, 48]
# Tuple one element
X.shapes = [[1, 2, 3, 3]]
assert X.shapes == [[1, 2, 3, 3]]
assert X.shapes == TupleShape([[1, 2, 3, 3]])
def split(attrs: Dict[str, Any],
in_xlayers: List[XLayer]) -> Dict[str, List[int]]:
"""
Registration of 'split' operator and shape computation.
Split the input tensor along specified axis by the provided indices
Attributes:
-----------
- Axis: int
The axis along which to do the split
- Indices: int or tuple[int]
If indices attribute is an integer, split the input tensor in
tensors of equal size along the given axis
If indices is a tuple of (sorted) integers, the entries specify
the indices where the tensor should be split along the given axis
Returns:
--------
- xinfo: dict
A dictionary containing necessary XOp information (shape)
"""
# Some operation checks
assert len(in_xlayers) == 1
assert 'axis' in attrs
assert 'indices' in attrs
indices = attrs['indices']
axis = attrs['axis']
inshape = in_xlayers[0].shapes[:]
assert isinstance(inshape, TensorShape)
axes_size = inshape[axis]
new_shape = TupleShape([])
if isinstance(indices, int):
if axes_size % indices != 0:
raise ValueError("Split operation has integer indices attribute"
" {} but this is not a divisor of the dimension"
" of the input tensor with shape {} along axis:"
" {}".format(indices, inshape, axis))
new_dim_size = axes_size // indices
for _ in range(0, indices):
shape = inshape[:]
shape[axis] = new_dim_size
new_shape.append(shape)
else:
prev = 0
for i in indices:
shape = inshape[:]
shape[axis] = i - prev
new_shape.append(shape)
prev = i
shape = inshape[:]
shape[axis] = axes_size - prev
new_shape.append(shape)
return {'shape': new_shape}
def test_tuple(self):
var1 = relay.var("var1", relay.TensorType((-1, 4, 2, 2), "int64"))
var2 = relay.var("var2", relay.TensorType((-1, 3, 2, 2), "int64"))
t = relay.Tuple([var1, var2])
net = relay.Function([var1, var2], t)
mod = tvm.IRModule.from_expr(net)
mod = relay.transform.InferType()(mod)
xg = xf_relay.from_relay(mod, {})
layers = xg.get_layers()
assert layers[0].type[0] == 'Input'
assert isinstance(layers[0].attrs['dtype'], str)
assert layers[0].attrs['dtype'] == 'int64'
assert 'relay_id' in layers[0].attrs
assert layers[1].type[0] == 'Input'
assert isinstance(layers[0].attrs['dtype'], str)
assert layers[0].attrs['dtype'] == 'int64'
assert 'relay_id' in layers[0].attrs
assert layers[2].type[0] == 'Tuple'
assert layers[2].shapes == TupleShape([[-1, 4, 2, 2], [-1, 3, 2, 2]])
def any_op(attrs: Dict, in_xlayers: List[XLayer]):
"""
Create an AnyOp. This operation can have any number of inputs and
attributes and returns one output. Only the 'any_shape' attribute
is required to generate an operation shape
Attributes:
-----------
op_name: str
The name of the operation
in_xlayers: List[XLayer]
A list of the input_layers
any_shape: List[int] / List[List[int]]
The shape of the operation
"""
shape = attrs['any_shape']
if len(shape) > 0 and isinstance(shape[0], list):
shape = TupleShape(attrs['any_shape'][:])
else:
shape = TensorShape(attrs['any_shape'][:])
logger.debug("--anyshape: {}".format(shape))
return {'shape': shape}
def test_split_tuple(self):
data = relay.var("data", relay.TensorType((-1, 5, 4, 4), "float32"))
net = relay.split(data, indices_or_sections=(1, 4), axis=1)\
.astuple()
net = relay.Function([data], net)
mod = tvm.IRModule.from_expr(net)
mod = relay.transform.InferType()(mod)
xgraph = xf_relay.from_relay(mod, {})
layers = xgraph.get_layers()
assert layers[0].type[0] == 'Input'
assert layers[1].type[0] == 'Split'
assert 'relay_id' in layers[1].attrs
assert layers[1].attrs['axis'] == 1
assert layers[1].attrs['indices'] == (1, 4)
assert layers[1].shapes == TupleShape([
TensorShape([-1, 1, 4, 4]),
TensorShape([-1, 3, 4, 4]),
TensorShape([-1, 1, 4, 4])
])
def test_tuple_get_item(self):
var1 = relay.var("var1", relay.TensorType((-1, 4, 2, 2), "int64"))
var2 = relay.var("var2", relay.TensorType((-1, 3, 2, 2), "int64"))
t = relay.Tuple([var1, var2])
tgi = relay.TupleGetItem(t, 0)
net = relay.Function([var1, var2], tgi)
mod = tvm.IRModule.from_expr(net)
mod = relay.transform.InferType()(mod)
xg = xf_relay.from_relay(mod, {})
layers = xg.get_layers()
assert len(layers) == 4
assert layers[0].type[0] == "Input"
assert isinstance(layers[0].attrs["dtype"], str)
assert layers[0].attrs["dtype"] == "int64"
assert "relay_id" in layers[0].attrs
assert layers[1].type[0] == "Input"
assert isinstance(layers[0].attrs["dtype"], str)
assert layers[0].attrs["dtype"] == "int64"
assert "relay_id" in layers[0].attrs
assert layers[2].type[0] == "Tuple"
assert layers[2].shapes == TupleShape([[-1, 4, 2, 2], [-1, 3, 2, 2]])
assert layers[3].type[0] == "TupleGetItem"
assert layers[3].attrs["index"] == 0
assert layers[3].shapes == TensorShape([-1, 4, 2, 2])
def test_tuple_get_item_transpose(self):
A = np.ones((1, 4, 4, 3), dtype=np.float32)
B = np.ones((1, 4, 4, 3), dtype=np.float32)
X = xlayer.XLayer(name='tgi',
type=['TupleGetItem'],
shapes=[1, 3, 4, 4],
sizes=[48],
bottoms=['in'],
tops=[],
attrs={
'index': 1,
'transpose': True,
'axes': [0, 3, 1, 2]
},
targets=[])
input_shapes = {
'in':
TupleShape([TensorShape([1, 4, 4, 3]),
TensorShape([1, 4, 4, 3])])
}
params = {}
layers = X_2_TF['TupleGetItem'](X, input_shapes, params)
assert len(layers) == 1
outpt = layers[0].forward_exec([A, B])
assert outpt.shape == (1, 3, 4, 4)
def test_split_default(self):
a = np.zeros((1, 6), dtype=np.float32)
node = onnx.helper.make_node(
'Split',
inputs=['a'],
outputs=['x', 'y', 'z'],
axis=1
)
wrapped_node = NodeWrapper(node)
aX = xlf.get_xop_factory_func('Input')('a', list(a.shape),
dtype='float32')
xmap = {'a': aX}
params = {}
Xs = ol3.split(wrapped_node, params, xmap)
assert len(Xs) == 4
X = Xs[0]
assert X.name == 'split-x'
assert 'Split' in X.type
assert X.attrs['axis'] == 1
assert X.attrs['indices'] == [2, 4]
assert X.shapes == TupleShape([TensorShape([-1, 2]),
TensorShape([-1, 2]),
TensorShape([-1, 2])])
assert Xs[1].name == 'x'
assert Xs[2].name == 'y'
assert Xs[3].name == 'z'
def relay_op(attrs, in_xlayers):
# type: (str, List[XLayer]) -> XLayer
""" Return RelayOp registration information (shape) """
relay_shape = attrs['relay_shape']
if len(relay_shape) > 0 and isinstance(relay_shape[0], list):
shape = TupleShape(attrs['relay_shape'][:])
else:
shape = TensorShape(attrs['relay_shape'][:])
return {'shape': shape}
def test_tuple_get_item_transpose(self):
A = np.ones((1, 4, 4, 3), dtype=np.float32)
B = np.ones((1, 4, 4, 3), dtype=np.float32)
layers = [
TupleLayer(
name='tuple',
xtype='Tuple',
shape=TupleShape([TensorShape([1, 4, 4, 3]), TensorShape([1, 4, 4, 3])]),
dtype='float32',
inputs=['input1', 'input2'],
input_shapes=[TensorShape([1, 4, 4, 3]), TensorShape([1, 4, 4, 3])],
data=[],
attrs={},
subgraph=None
),
TupleGetItemLayer(
name='tgi',
xtype='TupleGetItem',
shape=TensorShape([1, 3, 4, 4]),
dtype='float32',
inputs=['tuple'],
input_shapes=[TupleShape([TensorShape([1, 4, 4, 3]),
TensorShape([1, 4, 4, 3])])],
subgraph=None,
data=[],
attrs={
'index': 1,
'transpose': True,
'axes': [0, 3, 1, 2]
}
)
]
tupl = layers[0].forward_exec([A, B])
outpt = layers[1].forward_exec([tupl])
assert outpt.shape == (1, 3, 4, 4)
def shapes(self):
_shapes = self._xlayer.shapes
_shapes_t = self._xlayer.shapes_t
if _shapes_t == 'TensorShape' and len(_shapes) != 1:
raise ValueError("TensorShape can only be one dimensional"
" but got: {}".format(len(_shapes)))
if _shapes_t == 'TensorShape':
return TensorShape(IntVector(_shapes[0]))
elif _shapes_t == 'TupleShape':
return TupleShape(IntVector2D(_shapes))
else:
raise ValueError("Unsupported shapes type: {}, should be"
" TensorShape or TupleShape".format(_shapes_t))
def test_tuple(self):
layers = [
InputLayer(name='in1',
shape=TensorShape([1, 1, 4, 4]),
dtype='float32',
inputs=['in1'],
input_shapes=[TensorShape([1, 1, 4, 4])],
subgraph=None),
InputLayer(name='in2',
shape=TensorShape([1, 1, 4, 4]),
dtype='float32',
inputs=['in2'],
input_shapes=[TensorShape([1, 1, 4, 4])],
subgraph=None),
TupleLayer(name='tuple',
xtype='Tuple',
shape=TupleShape([
TensorShape([1, 1, 4, 4]),
TensorShape([1, 1, 4, 4])
]),
dtype='float32',
inputs=['in1', 'in2'],
input_shapes=[
TensorShape([1, 1, 4, 4]),
TensorShape([1, 1, 4, 4])
],
data=[],
subgraph=None,
attrs={}),
]
in1 = np.reshape(
np.array([[1, -1, 0, 4, -5, 1, 0, 8, 3, -5, 1, 0, 1, 9, -3, -4]],
dtype=np.float32), (1, 1, 4, 4))
in2 = np.reshape(
np.array([[1, 0, 0, 4, 0, 1, 0, 8, 3, 0, 1, 0, 1, 9, 0, 0]],
dtype=np.float32), (1, 1, 4, 4))
inputs = {'in1': in1, 'in2': in2}
for layer in layers:
inpts = [inputs[name] for name in layer.inputs]
outpt = layer.forward_exec(inpts)
inputs[layer.name] = outpt
np.testing.assert_array_equal(inputs['tuple'][0], in1)
np.testing.assert_array_equal(inputs['tuple'][1], in2)
def test_get_set_item(self):
_shape = lpx.IntVector2D([lpx.IntVector([-1, 2]),
lpx.IntVector([-1, 2, 4])])
ts = TupleShape(IntVector2D(_shape))
assert len(ts) == 2
assert isinstance(ts[0], TensorShape)
assert ts[0] == [-1, 2]
assert ts[1] == [-1, 2, 4]
with self.assertRaises(IndexError):
ts[2]
ts[0] = [-1, 3]
assert ts == [[-1, 3], [-1, 2, 4]]
def test_set_value(self):
ts = TupleShape([TensorShape([1, 2]), TensorShape([2, 4])])
ts.set_value(0, -1)
assert len(ts) == 2
assert ts[0] == TensorShape([-1, 2])
assert ts[1] == TensorShape([-1, 4])
_shape = lpx.IntVector2D([lpx.IntVector([1, 2]),
lpx.IntVector([2, 4])])
ts = TupleShape(IntVector2D(_shape))
ts.set_value(0, -1)
assert len(ts) == 2
assert ts[0] == TensorShape([-1, 2])
assert ts[1] == TensorShape([-1, 4])
def test_to_list(self):
ts = TupleShape([TensorShape([1, 2]), TensorShape([2, 4])])
assert ts == [[1, 2], [2, 4]]
assert ts.tolist() == [[1, 2], [2, 4]]
_shape = lpx.IntVector2D([lpx.IntVector([1, 2]),
lpx.IntVector([2, 4])])
ts = TupleShape(IntVector2D(_shape))
assert ts.tolist() == [[1, 2], [2, 4]]
def get_mse_quantize_eltwise_layer(X, input_shapes, params, **kwargs):
# (XLayer, dict, dict, QuantParams) -> List[rt_layer.RtLayer]
"""
TODO formalize checks
"""
bitwidth = X.attrs['quant_bitwidth']
axis = X.attrs['axis']
dtype = X.attrs['dtype']
mse_opt_num = X.attrs['mse_opt_num']
use_relu = 'activation' in X.attrs and X.attrs['activation'] == 'ReLU'
assert len(X.bottoms) in [5]
assert bitwidth == 8
assert dtype == 'float32'
assert axis in [0, 1, 2, 3]
layers = [
MSEQuantizeEltwiseLayer(
name=X.name,
shape=X.shapes[:],
dtype=dtype,
inputs=X.bottoms,
input_shapes=[input_shapes[bottom] for bottom in X.bottoms],
subgraph=X.subgraph,
axis=axis, # TODO
bitwidth=bitwidth,
relu=use_relu,
do_rounding=True,
mse_opt_num=mse_opt_num)
]
if use_relu:
layers.append(
ReluLayer(name=X.name,
xtype='ReLU',
shape=X.shapes,
dtype='float32',
inputs=[X.name],
input_shapes=TupleShape([X.shapes[:]]),
subgraph=X.subgraph,
attrs={}))
return layers
def relay_op(op_name: str, expr: Expr, in_xlayers: List[XLayer]):
"""Insert generic RelayOp operator"""
logger.debug("-- op_name: {}".format(op_name))
logger.debug("-- expr: {}".format(expr.op))
try:
ty = expr.checked_type
except ValueError as e:
# TODO, this is not correct
if expr.type_args and len(expr.type_args) > 0:
ty = expr.type_args[0]
else:
raise e
if isinstance(ty, relay.ty.TensorType):
relay_shape = TensorShape([int(s.value) for s in list(ty.shape)])
dtype = str(ty.dtype)
else:
relay_shape = TupleShape(
[TensorShape([int(i) for i in list(t_ty.shape)])
for t_ty in ty.fields])
dtype = [str(t_ty.dtype) for t_ty in ty.fields]
# TODO
# relay_shape.set_value(axis=0, value=-1)
attrs = {}
for attr in dir(expr.attrs):
value = getattr(expr.attrs, attr)
attrs[attr] = str(value)
if 'dtype' in attrs:
dtype = attrs['dtype']
del attrs['dtype']
X = xlf.get_xop_factory_func('RelayOp')(op_name, in_xlayers,
relay_shape=relay_shape.tolist(),
dtype=dtype,
relay_id=[hash(expr)],
**attrs)
return X
def test_tuple_get_item(self):
A = np.array([0.1, 0.05], dtype=np.float32)
B = np.array([0.1, 0.05, 0.1], dtype=np.float32)
X = xlayer.XLayer(name='tgi',
type=['TupleGetItem'],
shapes=[3],
sizes=[3],
bottoms=['in'],
tops=[],
attrs={'index': 1},
targets=[])
input_shapes = {'in': TupleShape([TensorShape([2]), TensorShape([3])])}
params = {}
layers = X_2_TF['TupleGetItem'](X, input_shapes, params)
assert len(layers) == 1
outpt = layers[0].forward_exec([A, B])
np.testing.assert_array_almost_equal(outpt, B)
def test_split_layer_int(self):
iX = XLayer(type=['Input'],
name='in1',
shapes=[1, 6, 4, 4],
sizes=[96],
bottoms=[],
tops=[],
targets=[])
sX = px.ops.split('split1', [iX], axis=1, indices=3)
assert sX.type[0] == 'Split'
assert sX.shapes == TupleShape([
TensorShape([1, 2, 4, 4]),
TensorShape([1, 2, 4, 4]),
TensorShape([1, 2, 4, 4])
])
assert sX.sizes == [32, 32, 32]
assert sX.attrs['axis'] == 1
assert sX.attrs['indices'] == 3
assert sX.bottoms == ['in1']
def test_split_layer_tuple(self):
iX = XLayer(type=['Input'],
name='in1',
shapes=[1, 5, 4, 4],
sizes=[80],
bottoms=[],
tops=[],
targets=[])
sX = px.ops.split('split1', [iX], axis=1, indices=[1, 4])
assert sX.type[0] == 'Split'
assert sX.shapes == TupleShape([
TensorShape([1, 1, 4, 4]),
TensorShape([1, 3, 4, 4]),
TensorShape([1, 1, 4, 4])
])
assert sX.sizes == [16, 48, 16]
assert sX.attrs['axis'] == 1
assert sX.attrs['indices'] == (1, 4)
assert sX.bottoms == ['in1']
def relay_op(op_name, expr, in_xlayers):
# type: (str, tvm.relay.expr.Expr, List[XLayer]) -> XLayer
""" Insert generic relay op operator """
logger.debug("-- op_name: {}".format(op_name))
logger.debug("-- expr: {}".format(expr.op))
ty = expr.checked_type
if isinstance(ty, relay.ty.TensorType):
relay_shape = TensorShape([int(i) for i in list(ty.shape)])
dtype = str(ty.dtype)
else:
relay_shape = TupleShape([
TensorShape([int(i) for i in list(t_ty.shape)])
for t_ty in ty.fields
])
dtype = [str(t_ty.dtype) for t_ty in ty.fields]
# TODO
relay_shape.set_value(axis=0, value=-1)
attrs = {}
for attr in dir(expr.attrs):
value = getattr(expr.attrs, attr)
attrs[attr] = str(value)
if 'dtype' in attrs:
dtype = attrs['dtype']
del attrs['dtype']
X = xlf.get_xop_factory_func('RelayOp')(op_name,
in_xlayers,
relay_shape=relay_shape.tolist(),
dtype=dtype,
relay_id=[hash(expr)],
**attrs)
return X
def test_dynamic_quantize_linear(self):
a = np.zeros((1, 2, 3, 3), dtype=np.float32)
node = onnx.helper.make_node('DynamicQuantizeLinear',
inputs=['a'],
outputs=['x', 'y', 'z'])
wrapped_node = NodeWrapper(node)
aX = xlf.get_xop_factory_func('Input')('a',
list(a.shape),
dtype='float32')
xmap = {'a': aX}
params = {}
Xs = ol11.dynamic_quantize_linear(wrapped_node, params, xmap)
assert len(Xs) == 4
X = Xs[0]
assert X.name == 'dql-x'
assert 'AnyOp' in X.type
assert X.shapes == TupleShape(
[TensorShape([-1, 2, 3, 3]),
TensorShape([1]),
TensorShape([1])])
assert Xs[1].name == 'x'
assert Xs[1].shapes == TensorShape([-1, 2, 3, 3])
assert Xs[2].name == 'y'
assert 'TupleGetItem' in Xs[2].type
assert Xs[2].shapes == TensorShape([1])
assert Xs[3].name == 'z'
assert 'TupleGetItem' in Xs[3].type
assert Xs[3].shapes == TensorShape([1])
def test_split_layer_int(self):
iX = XLayer(
type=["Input"],
name="in1",
shapes=[1, 6, 4, 4],
sizes=[96],
bottoms=[],
tops=[],
targets=[],
)
sX = px.ops.split("split1", [iX], axis=1, indices=3)
assert sX.type[0] == "Split"
assert sX.shapes == TupleShape([
TensorShape([1, 2, 4, 4]),
TensorShape([1, 2, 4, 4]),
TensorShape([1, 2, 4, 4]),
])
assert sX.sizes == [32, 32, 32]
assert sX.attrs["axis"] == 1
assert sX.attrs["indices"] == 3
assert sX.bottoms == ["in1"]
def test_split_layer_tuple(self):
iX = XLayer(
type=["Input"],
name="in1",
shapes=[1, 5, 4, 4],
sizes=[80],
bottoms=[],
tops=[],
targets=[],
)
sX = px.ops.split("split1", [iX], axis=1, indices=[1, 4])
assert sX.type[0] == "Split"
assert sX.shapes == TupleShape([
TensorShape([1, 1, 4, 4]),
TensorShape([1, 3, 4, 4]),
TensorShape([1, 1, 4, 4]),
])
assert sX.sizes == [16, 48, 16]
assert sX.attrs["axis"] == 1
assert sX.attrs["indices"] == (1, 4)
assert sX.bottoms == ["in1"]
def test_split_int(self):
data = relay.var("data", relay.TensorType((-1, 6, 4, 4), "float32"))
net = relay.split(data, indices_or_sections=3, axis=1).astuple()
net = relay.Function([data], net)
mod = tvm.IRModule.from_expr(net)
mod = relay.transform.InferType()(mod)
xgraph = xf_relay.from_relay(mod, {})
layers = xgraph.get_layers()
assert layers[0].type[0] == "Input"
assert layers[1].type[0] == "Split"
assert "relay_id" in layers[1].attrs
assert layers[1].attrs["axis"] == 1
assert layers[1].attrs["indices"] == 3
assert layers[1].shapes == TupleShape([
TensorShape([-1, 2, 4, 4]),
TensorShape([-1, 2, 4, 4]),
TensorShape([-1, 2, 4, 4]),
])
def get_subgraphs(self, xgraph):
# type: (XGraph) -> List[XGraph]
""" Return a list of subgraphs for the given xgraph in XGraph format.
"""
# ALGO:
# 1. loop through all the XLayers
# 2. For every layer, if it's a target layer, either add it to the
# corresponding partition if a bottom is already added to
# this layer, else start a new partition
# TODO set bottoms and tops to [] for partition input respectively
# output layers
in_idx = 0
visited = {}
subgraphs = {}
for X in xgraph.get_layers():
if X.subgraph is not None:
X_copy = copy.deepcopy(X)
if X.subgraph not in subgraphs:
new_subgraph = xlayer.defaultXLayer()
new_subgraph = new_subgraph._replace(
name=X.subgraph,
type=['SubGraph'],
data=[],
shapes=TupleShape([]),
sizes=[],
internal=1,
attrs={
'target': X.target,
'__bottom_tensors': {},
'orig_bottom_tensors': {},
'__top_tensors': {},
'orig_top_tensors': {},
})
subgraphs[X.subgraph] = new_subgraph
visited[X.subgraph] = set()
# First check if this layer is a subgraph input layer
# by looking at the visited subgraph layers
for b in X.bottoms:
if b not in visited[X.subgraph]:
bX = xgraph.get(b)
x_in_name = 'xinput' + str(in_idx)
def find_original_bottom_layers(rX):
if not bool(rX.internal):
return [rX.name]
bottom_layers = []
for r_bottom_name in rX.bottoms:
rbX = xgraph.get(r_bottom_name)
rec_bottom_layers = \
find_original_bottom_layers(rbX)
bottom_layers.extend(rec_bottom_layers)
return bottom_layers
orig_bottoms = find_original_bottom_layers(bX)
if 'input_names' not in subgraphs[X.subgraph].attrs:
subgraphs[X.subgraph].attrs['input_names'] =\
[x_in_name]
else:
subgraphs[X.subgraph].attrs['input_names']\
.append(x_in_name)
# Keep track of input - bottom connections
sg_bottoms_ext = \
subgraphs[X.subgraph].attrs['__bottom_tensors']
if X.name not in sg_bottoms_ext:
sg_bottoms_ext.update({x_in_name: [b]})
else:
new_bottoms_ext = sg_bottoms_ext[x_in_name] + [b]
sg_bottoms_ext.update({x_in_name: new_bottoms_ext})
# Keep track of input - original (model) bottom
# connections, i.e. exclude internally added
# operations here
sg_orig_bottoms_ext = \
subgraphs[X.subgraph].attrs['orig_bottom_tensors']
if X.name not in sg_orig_bottoms_ext:
sg_orig_bottoms_ext.update(
{x_in_name: orig_bottoms})
else:
new_orig_bottoms_ext = \
sg_orig_bottoms_ext[x_in_name] + orig_bottoms
sg_orig_bottoms_ext.update(
{x_in_name: new_orig_bottoms_ext})
new_in_X = xlayer.defaultXLayer()
new_in_X = new_in_X._replace(
name=x_in_name,
type=['Input'],
shapes=bX.shapes[:],
sizes=bX.sizes[:],
# Keep track of the first original layer of the
# operation in front of which we are adding an
# input layer
layer=[X.layer[0]],
tops=[X.name],
bottoms=[],
internal=1,
attrs={},
targets=[])
in_idx += 1
X_copy.bottoms[:] = \
[(bc if bc != b else new_in_X.name)
for bc in X_copy.bottoms]
subgraphs[X.subgraph].subgraph_data =\
subgraphs[X.subgraph].subgraph_data + [new_in_X]
# subgraphs[X.subgraph].shapes[:] = new_in_X.shapes[:]
# subgraphs[X.subgraph].sizes[:] = new_in_X.sizes[:]
subgraphs[X.subgraph].bottoms.append(b)
visited[X.subgraph].add(new_in_X.name)
if X.tops == []:
sg_tops_ext = \
subgraphs[X.subgraph].attrs['__top_tensors']
sg_orig_tops_ext = \
subgraphs[X.subgraph].attrs['orig_top_tensors']
sg_tops_ext.update({X.name: []})
sg_orig_tops_ext.update({X.name: []})
if 'output_names' not in subgraphs[X.subgraph].attrs:
subgraphs[X.subgraph].attrs['output_names'] =\
[X.name]
else:
subgraphs[X.subgraph].attrs['output_names']\
.append(X.name)
for t in X.tops:
tX = xgraph.get(t)
if tX.subgraph != X.subgraph:
def find_original_top_layers(rX):
if not bool(rX.internal):
return [rX.name]
top_layers = []
for r_top_name in rX.tops:
rtX = xgraph.get(r_top_name)
rec_top_layers = find_original_top_layers(rtX)
top_layers.extend(rec_top_layers)
return top_layers
orig_tops = find_original_top_layers(tX)
if 'output_names' not in subgraphs[X.subgraph].attrs:
subgraphs[X.subgraph].attrs['output_names'] =\
[X.name]
else:
subgraphs[X.subgraph].attrs['output_names']\
.append(X.name)
# Keep track of output - top connections
sg_tops_ext = \
subgraphs[X.subgraph].attrs['__top_tensors']
if X.name not in sg_tops_ext:
sg_tops_ext.update({X.name: [t]}) # X.tops[:]
else:
new_tops_ext = sg_tops_ext[X.name] + [t] # X.tops
sg_tops_ext.update({X.name: new_tops_ext})
# Keep track of output - original (model) top
# connections, i.e. exclude internally added
# operations here
sg_orig_tops_ext = \
subgraphs[X.subgraph].attrs['orig_top_tensors']
if X.name not in sg_orig_tops_ext:
sg_orig_tops_ext.update({X.name: orig_tops})
else:
new_orig_tops_ext = \
sg_orig_tops_ext[X.name] + orig_tops
sg_orig_tops_ext.update(
{X.name: new_orig_tops_ext})
X_copy.tops.remove(t)
subgraphs[X.subgraph].tops.append(t)
subgraphs[X.subgraph].shapes.append(X.shapes[:])
subgraphs[X.subgraph].sizes.extend(X.sizes[:])
# If no tops
if X.tops == []:
subgraphs[X.subgraph].shapes.append(X.shapes[:])
subgraphs[X.subgraph].sizes.extend(X.sizes[:])
subgraphs[X.subgraph].subgraph_data = \
subgraphs[X.subgraph].subgraph_data + [X_copy]
visited[X.subgraph].add(X_copy.name)
sg_list = []
for sg, sgX in subgraphs.items():
# (len(sgX.tops) == len(sgX.shapes))
# if len(sgX.tops) != 1:
# raise ValueError("Subgraphs are only supported for one output"
# " but got: {}".format(sgX.tops))
# TODO Sort xlayers in topological order
# sub_xgraph = XGraphPartitioner.xgraph_factory.build_from_xlayer(
# net=sgX.data,
# name=sg
# )
sg_list.append(
sgX._replace(
# shapes = sgX.shapes[0],
# sizes=[sum([s[0] for s in sgX.sizes])],
subgraph_data=sgX.subgraph_data))
return sg_list
def test_get_size(self):
ts = TupleShape([TensorShape([-1, 2]), TensorShape([-1, 2, 4])])
assert ts.get_size() == [2, 8]
