def test_flatten(self):
# If input tensor has shape (d_0, d_1, ... d_n) then the
# output will have shape:
#
# (d_0 X d_1 ... d_(axis-1), d_axis X d_(axis+1) ... X dn)
#
# TODO: pass axis attribute which is supported in newer
# versions of onnx
node_def = helper.make_node("Flatten", ["X"], ["Y"])
x = self._get_rnd([10, 2, 3, 4, 5])
output = run_node(node_def, [x])
# TODO: pass axis=3 and uncomment the line below
# np.testing.assert_almost_equal(output["Y"], x.reshape([60, 20]))
np.testing.assert_almost_equal(output["Y"], x.reshape([10, 120]))
def test_gemm(self):
# Compute Y = alpha * A * B + beta * C
node_def = helper.make_node("Gemm", ["A", "B", "C"], ["Y"],
transA=0,
transB=0,
broadcast=1,
alpha=1.0,
beta=1.0)
x = np.floor(self._get_rnd([10, 10]))
y = np.floor(self._get_rnd([10, 10]))
z = np.floor(self._get_rnd([10, 10]))
output = run_node(node_def, [x, y, z])
test_output = np.matmul(x, y) + z
np.testing.assert_almost_equal(output["Y"], test_output)
def test_slice(self):
# test case 1 with normal inputs
axes = [0, 1, 2]
starts = [0, 0, 0]
ends = [2, 2, 2]
node_def = helper.make_node("Slice", ["X"], ["S"],
axes=axes,
starts=starts,
ends=ends)
x = self._get_rnd([1000]).reshape([10, 10, 10])
output = run_node(node_def, [x])
np.testing.assert_almost_equal(output["S"], x[0:2, 0:2, 0:2])
# test case 2 with negative, out-of-bound and default inputs
axes = [0, 2]
starts = [0, -7]
ends = [-8, 20]
node_def = helper.make_node("Slice", ["X"], ["S"],
axes=axes,
starts=starts,
ends=ends)
x = self._get_rnd([1000]).reshape([10, 10, 10])
output = run_node(node_def, [x])
np.testing.assert_almost_equal(output["S"], x[0:-8, :, -7:20])
def test_compress(self):
if legacy_opset_pre_ver(9):
raise unittest.SkipTest(
"ONNX version {} doesn't support Compress.".format(
defs.onnx_opset_version()))
axis = 1
node_def = helper.make_node("Compress",
inputs=['X', 'condition'],
outputs=['Y'],
axis=axis)
x = self._get_rnd([5, 5, 5])
cond = np.array([1, 0, 1])
output = run_node(node_def, inputs=[x, cond])
np.testing.assert_almost_equal(output['Y'],
np.compress(cond, x, axis=axis))
def test_max_pool(self):
node_def = helper.make_node("MaxPool", ["X"], ["Y"],
kernel_shape=[1, 2],
pads=[0, 0],
strides=[1, 2])
x = self._get_rnd([10, 10, 4, 4])
output = run_node(node_def, [x])
test_output = np.zeros([10, 10, 4, 2])
for i1 in range(0, 10):
for i2 in range(0, 10):
for j1 in range(0, 4):
for j2 in range(0, 2):
test_output[i1][i2][j1][j2] = \
max(x[i1][i2][j1][2*j2], x[i1][i2][j1][2*j2 + 1])
np.testing.assert_almost_equal(output["Y"], test_output)
def test_onehot(self):
if legacy_opset_pre_ver(9):
raise unittest.SkipTest("ONNX version {} doesn't support OneHot.".format(
defs.onnx_opset_version()))
indices = np.array([[0, 2], [1, 2], [0, 1]])
depth = np.array([5], dtype=np.int32)
on_value = 6.0
off_value = 2.0
values = np.array([off_value, on_value])
node_def = helper.make_node(
'OneHot', inputs=['indices', 'depth', 'values'], outputs=['y'], axis=-1)
y = (np.arange(depth) == indices[..., None]).astype(int)
y = y * (on_value - off_value) + off_value
output = run_node(node_def, inputs=[indices, depth, values])
np.testing.assert_equal(output['y'], y)
def test_mean_variance_normalization(self):
if legacy_opset_pre_ver(9):
raise unittest.SkipTest(
"ONNX version {} doesn't have test for MeanVarianceNormalization"
.format(defs.onnx_opset_version()))
input_data = self._get_rnd([2,2,2,2])
# Calculate expected output data using formula:
# (Input - Mean)/SD
mean = np.mean(input_data, keepdims=1, axis=(0,2,3))
std = np.std(input_data, keepdims=1, axis=(0,2,3))
expected_output = (input_data - mean) / std
# Testing without "axes" argument should default to axes=[0,2,3]
node_def = helper.make_node("MeanVarianceNormalization", ["X"], ["Y"])
output = run_node(node_def, [input_data])
np.testing.assert_almost_equal(output["Y"], expected_output, decimal=5)
def test_eye_like(self):
if legacy_opset_pre_ver(9):
raise unittest.SkipTest(
"ONNX version {} doesn't support EyeLike.".format(
defs.onnx_opset_version()))
for shape in [[6, 10], [10, 6]]:
for off_diagonal_offset in [-10, -6, -3, 0, 3, 6, 7, 10]:
node_def = helper.make_node("EyeLike", ['x'], ['y'],
dtype=1,
k=off_diagonal_offset)
x = np.random.randint(0, 100, size=shape, dtype=np.int32)
y = np.eye(shape[0],
shape[1],
k=off_diagonal_offset,
dtype=np.float32)
output = run_node(node_def, [x])
np.testing.assert_equal(output['y'], y)
def test_cast(self):
for ty, tf_type in [(TensorProto.FLOAT, tf.float32),
(TensorProto.UINT8, tf.uint8),
(TensorProto.INT8, tf.int8),
(TensorProto.UINT16, tf.uint16),
(TensorProto.INT16, tf.int16),
(TensorProto.INT32, tf.int32),
(TensorProto.INT64, tf.int64),
(TensorProto.BOOL, tf.bool),
(TensorProto.FLOAT16, tf.float16),
(TensorProto.DOUBLE, tf.float64),
(TensorProto.COMPLEX64, tf.complex64),
(TensorProto.COMPLEX128, tf.complex128)]:
node_def = helper.make_node("Cast", ["input"], ["output"], to=ty)
vector = [2, 3]
output = run_node(node_def, [vector])
np.testing.assert_equal(output["output"].dtype, tf_type)
def test_constant_fill(self):
shape = [1, 2, 3, 4]
extra_shape = [5, 6]
value = 3.
node_def = helper.make_node(
"ConstantFill",
["X"],
["Y"],
value=value,
extra_shape=extra_shape,
dtype=1,
)
x = self._get_rnd(shape)
y = np.zeros(shape + extra_shape)
y.fill(value)
output = run_node(node_def, [x])
np.testing.assert_equal(output["Y"].dtype, tf.float32)
np.testing.assert_equal(output["Y"], y)
def test_cast(self):
for ty, tf_type in [("float", tf.float32),
("uint8", tf.uint8),
("int8", tf.int8),
("uint16", tf.uint16),
("int16", tf.int16),
("int32", tf.int32),
("int64", tf.int64),
("bool", tf.bool),
("float16", tf.float16),
("double", tf.float64),
("complex64", tf.complex64),
("complex128", tf.complex128)]:
node_def = helper.make_node("Cast", ["input"], ["output"],
to=ty)
vector = [2, 3]
output = run_node(node_def, [vector])
np.testing.assert_equal(output["output"].dtype, tf_type)
def test_image_sacler(self):
# Input: (N x C x H x W), where N is the batch size,
# C is the number of channels, and H and W are the height
# and the width of the data
# Scale: (flout, default 1.0) the scale to apply
# Bias: applied to each channel, same size as C
# Output has same shape and type as input
x = self._get_rnd([1, 3, 224, 224])
#random distribution over [0,1), so add 0.1
scale = np.random.rand(1)[0] + 0.1
bias = np.random.rand(3)
node_def = helper.make_node(
"ImageScaler", ["X"], ["Y"], scale=scale, bias=bias)
output = run_node(node_def, [x])
test_out = np.multiply(x, scale)
test_out = np.transpose(test_out, [0, 2, 3, 1])
test_out = np.add(test_out, bias)
test_out = np.transpose(test_out, [0, 3, 1, 2])
np.testing.assert_almost_equal(output["Y"], test_out)
def test_batch_normalization(self):
node_def = helper.make_node("BatchNormalization",
["X", "scale", "bias", "mean", "var"],
["Y"],
consumed_inputs=[0, 0, 0, 1, 1],
epsilon=0.001)
x_shape = [3, 5, 4, 2]
param_shape = [5]
_param_shape = [1, 5, 1, 1]
x = self._get_rnd(x_shape, 0, 1)
m = self._get_rnd(param_shape, 0, 1)
_m = m.reshape(_param_shape)
v = self._get_rnd(param_shape, 0, 1)
_v = v.reshape(_param_shape)
scale = self._get_rnd(param_shape, 0, 1)
_scale = scale.reshape(_param_shape)
bias = self._get_rnd(param_shape, 0, 1)
_bias = bias.reshape(_param_shape)
golden = self._batch_normalization(x, _m, _v, _bias, _scale, 0.001)
output = run_node(node_def, [x, scale, bias, m, v])
np.testing.assert_almost_equal(output["Y"], golden, decimal=5)
def test_batch_normalization(self):
if legacy_opset_pre_ver(6):
raise unittest.SkipTest("Backend doesn't support consumed flag")
node_def = helper.make_node(
"BatchNormalization", ["X", "scale", "bias", "mean", "var"], ["Y"],
epsilon=0.001)
x_shape = [3, 5, 4, 2]
param_shape = [5]
_param_shape = [1, 5, 1, 1]
x = self._get_rnd(x_shape, 0, 1)
m = self._get_rnd(param_shape, 0, 1)
_m = m.reshape(_param_shape)
v = self._get_rnd(param_shape, 0, 1)
_v = v.reshape(_param_shape)
scale = self._get_rnd(param_shape, 0, 1)
_scale = scale.reshape(_param_shape)
bias = self._get_rnd(param_shape, 0, 1)
_bias = bias.reshape(_param_shape)
golden = self._batch_normalization(x, _m, _v, _bias, _scale, 0.001)
output = run_node(node_def, [x, scale, bias, m, v])
np.testing.assert_almost_equal(output["Y"], golden, decimal=5)
def test_global_lp_pool(self):
# Image case: (N x C x H x W), where N is the batch size,
# C is the number of channels, and H and W are the height
# and the width of the data
#
# Non-image case: (N x C x D1 x D2 ... Dn)
#
# Output data tensor from pooling across the input tensor.
# Dimensions will be N x C x 1 x 1
node_def = helper.make_node("GlobalLpPool", ["X"], ["Y"])
x = self._get_rnd([10, 10, 2, 3])
output = run_node(node_def, [x])
test_output = np.zeros([10, 10, 1, 1])
for i1 in range(0, 10):
for i2 in range(0, 10):
tmp = np.zeros([2, 3])
for j1 in range(0, 2):
for j2 in range(0, 3):
tmp[j1][j2] = x[i1][i2][j1][j2]
test_output[i1][i2][0][0] = np.linalg.norm(tmp)
np.testing.assert_almost_equal(output["Y"], test_output, decimal=5)
def test_constant_fill(self):
if not legacy_opset_pre_ver(9):
raise unittest.SkipTest(
"ONNX version {} doesn't support ConstantFill.".format(
defs.onnx_opset_version()))
shape = [1, 2, 3, 4]
extra_shape = [5, 6]
value = 3.
node_def = helper.make_node(
"ConstantFill",
["X"],
["Y"],
value=value,
extra_shape=extra_shape,
dtype=1,
)
x = self._get_rnd(shape)
y = np.zeros(shape + extra_shape)
y.fill(value)
output = run_node(node_def, [x])
np.testing.assert_equal(output["Y"].dtype, tf.float32)
np.testing.assert_equal(output["Y"], y)
def test_is_inf(self):
if legacy_opset_pre_ver(10):
raise unittest.SkipTest(
"ONNX version {} doesn't support IsInf.".format(
defs.onnx_opset_version()))
input = np.array([-1.2, np.nan, np.inf, 2.8, np.NINF, np.inf],
dtype=np.float32)
expected_output = {
"node_def": np.isinf(input),
"node_def_neg_false": np.isposinf(input),
"node_def_pos_false": np.isneginf(input)}
node_defs = {
"node_def" :
helper.make_node("IsInf", ["X"], ["Y"]),
"node_def_neg_false" :
helper.make_node("IsInf", ["X"], ["Y"], detect_negative = 0),
"node_def_pos_false" :
helper.make_node("IsInf", ["X"], ["Y"], detect_positive = 0)
}
for key in node_defs:
output = run_node(node_defs[key], [input])
np.testing.assert_equal(output["Y"], expected_output[key])
def test_conv(self):
device = "CUDA"
if not supports_device(device):
raise unittest.SkipTest(
"Backend doesn't support device {}".format(device))
N, C, H, W = 4, 3, 5, 5
x_shape = [N, C, H, W]
K, kH, kW = 6, 3, 3
weight_shape = [K, C, kH, kW]
node_def = helper.make_node(
"Conv", ["X", "weights"], ["Y"],
pads=[1, 1, 1, 1],
kernel_shape=[kH, kW])
x = self._get_rnd(x_shape)
weights = self._get_rnd(weight_shape)
output = run_node(node_def, [x, weights], device=device)
out_shape = [N, K, H, W]
test_output = np.zeros(out_shape)
for n in range(N):
for c in range(C):
for h in range(H):
for w in range(W):
for k in range(K):
for kh in range(kH):
for kw in range(kW):
h_in_range = (h - kH // 2 + kh) < H and (
h - kH // 2 + kh) >= 0
w_in_range = (w - kW // 2 + kw) < W and (
w - kW // 2 + kw) >= 0
if h_in_range and w_in_range:
test_output[n][k][h][w] += (
x[n][c][h - kH // 2 + kh][w - kW // 2 + kw] *
weights[k][c][kh][kw])
np.testing.assert_almost_equal(output["Y"], test_output, decimal=5)
def test_l_r_n(self):
# Each input value is divided by:
#
# (bias+(alpha/size)*sum(xi^2 for every xi in the local region))^beta
alpha = 2.0
beta = 1.0
bias = 5.0
size = 3
node_def = helper.make_node("LRN", ["X"], ["Y"],
alpha=alpha,
beta=beta,
bias=bias,
size=size)
x = self._get_rnd([10, 2, 10, 10])
output = run_node(node_def, [x])
test_output = np.zeros([10, 10, 10, 2])
x = np.transpose(x, axes=[0, 2, 3, 1])
for i1 in range(0, 10):
for i2 in range(0, 10):
for j1 in range(0, 10):
for j2 in range(0, 2):
sqr_sum = 0.
# size of 3 means radius 1 in TF speak
# i.e. the immediate neighbouring values
# if "previous" neighbour exists
if j2 > 0:
sqr_sum += x[i1][i2][j1][j2 -
1] * x[i1][i2][j1][j2 - 1]
# current value
sqr_sum += x[i1][i2][j1][j2] * x[i1][i2][j1][j2]
# if "next" neighbour exists
if j2 < 2 - 1:
sqr_sum += x[i1][i2][j1][j2 +
1] * x[i1][i2][j1][j2 + 1]
test_output[i1][i2][j1][j2] = \
x[i1][i2][j1][j2] / ((bias + (alpha * 1. / size) * sqr_sum) ** beta)
test_output = np.transpose(test_output, axes=[0, 3, 1, 2])
np.testing.assert_almost_equal(output["Y"], test_output)
def test_cast(self):
if legacy_onnx_pre_ver(1, 2) or legacy_opset_pre_ver(6):
test_cases = [("FLOAT", tf.float32), ("UINT8", tf.uint8), ("INT8",
tf.int8),
("UINT16", tf.uint16), ("INT16", tf.int16),
("INT32", tf.int32), ("INT64", tf.int64), ("BOOL", tf.bool),
("FLOAT16", tf.float16), ("DOUBLE", tf.float64),
("COMPLEX64", tf.complex64), ("COMPLEX128", tf.complex128)]
else:
test_cases = [(TensorProto.FLOAT, tf.float32),
(TensorProto.UINT8, tf.uint8), (TensorProto.INT8, tf.int8),
(TensorProto.UINT16, tf.uint16),
(TensorProto.INT16, tf.int16), (TensorProto.INT32,
tf.int32),
(TensorProto.INT64, tf.int64), (TensorProto.BOOL, tf.bool),
(TensorProto.FLOAT16, tf.float16),
(TensorProto.DOUBLE, tf.float64),
(TensorProto.COMPLEX64, tf.complex64),
(TensorProto.COMPLEX128, tf.complex128)]
for ty, tf_type in test_cases:
node_def = helper.make_node("Cast", ["input"], ["output"], to=ty)
vector = [2, 3]
output = run_node(node_def, [vector])
np.testing.assert_equal(output["output"].dtype, tf_type)
def test_transpose(self):
node_def = helper.make_node("Transpose", ["X"], ["Y"], perm=[0, 2, 1])
x = self._get_rnd([1000]).reshape([10, 10, 10])
output = run_node(node_def, [x])
np.testing.assert_almost_equal(output["Y"], np.transpose(x, (0, 2, 1)))
def test_tanh(self):
node_def = helper.make_node("Tanh", ["X"], ["Y"])
x = self._get_rnd([1000]) + 1.0
output = run_node(node_def, [x])
np.testing.assert_almost_equal(output["Y"], np.tanh(x), decimal=5)
def test_sub(self):
node_def = helper.make_node("Sub", ["X", "Y"], ["Z"])
x = self._get_rnd([10, 10])
y = self._get_rnd([10, 10])
output = run_node(node_def, [x, y])
np.testing.assert_almost_equal(output["Z"], np.subtract(x, y))
def test_squeeze(self):
node_def = helper.make_node("Squeeze", ["X"], ["Y"], axes=[2])
x = np.array([[[0], [1], [2]]])
output = run_node(node_def, [x])
np.testing.assert_almost_equal(output["Y"], np.squeeze(x, axis=2))
def test_softsign(self):
node_def = helper.make_node("Softsign", ["X"], ["Y"])
x = self._get_rnd([3, 4, 5])
output = run_node(node_def, [x])
np.testing.assert_almost_equal(output["Y"], x / (1 + np.abs(x)))
def test_softplus(self):
node_def = helper.make_node("Softplus", ["X"], ["Y"])
x = self._get_rnd([3, 4, 5])
output = run_node(node_def, [x])
np.testing.assert_almost_equal(output["Y"], np.log(np.exp(x) + 1))
def test_size(self):
node_def = helper.make_node("Size", ["X"], ["Y"])
x = self._get_rnd([5, 10, 10, 3])
output = run_node(node_def, [x])
np.testing.assert_almost_equal(output["Y"], np.size(x))
def test_sigmoid(self):
node_def = helper.make_node("Sigmoid", ["X"], ["Y"])
x = self._get_rnd([1000])
output = run_node(node_def, [x])
np.testing.assert_almost_equal(output["Y"], 1 / (1 + np.exp(-x)))
def test_shape(self):
node_def = helper.make_node("Shape", ["X"], ["Y"])
x = self._get_rnd([5, 10, 10, 3])
output = run_node(node_def, [x])
np.testing.assert_allclose(output["Y"], np.shape(x))
def test_pow(self):
node_def = helper.make_node("Pow", ["X", "Y"], ["Z"])
x = self._get_rnd(1000) / 2.0 + 0.5
y = self._get_rnd(1000) / 2.0 + 0.5
output = run_node(node_def, [x, y])
np.testing.assert_almost_equal(output["Z"], np.power(x, y))
