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BinaryOps.cpp
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#include <ATen/native/BinaryOps.h>
#include <type_traits>
#include <ATen/ATen.h>
#include <ATen/Dispatch.h>
#include <ATen/MemoryOverlap.h>
#include <ATen/NativeFunctions.h>
#include <ATen/native/TensorIterator.h>
#include <torch/library.h>
namespace at {
namespace native {
// These are still needed because we don't have C++ conversions from number
// types (int, float, etc.) to Tensor (only to Scalar). They're not exposed
// to Python.
static void check_convert(const Scalar& scalar, ScalarType scalarType) {
// Validate that is possible to convert scalar to tensor dtype without
// overflow
AT_DISPATCH_ALL_TYPES_AND_COMPLEX_AND3(
at::ScalarType::Bool,
at::ScalarType::BFloat16,
at::ScalarType::Half,
scalarType,
"check_convert",
[&] { scalar.to<scalar_t>(); });
}
static Tensor wrapped_scalar_tensor_and_check_convert(
const Scalar& scalar,
Tensor tensor) {
check_convert(scalar, tensor.scalar_type());
return at::native::wrapped_scalar_tensor(scalar);
}
} // namespace native
namespace meta {
TORCH_META_FUNC2(add, Tensor) (
const Tensor& self, const Tensor& other, const Scalar& alpha
) {
build_borrowing_binary_op(maybe_get_output(), self, other);
native::alpha_check(dtype(), alpha);
}
TORCH_META_FUNC2(sub, Tensor) (
const Tensor& self, const Tensor& other, const Scalar& alpha
) {
native::sub_check(self, other);
build_borrowing_binary_op(maybe_get_output(), self, other);
native::alpha_check(dtype(), alpha);
}
TORCH_META_FUNC2(mul, Tensor) (
const Tensor& self, const Tensor& other
) {
build_borrowing_binary_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC2(div, Tensor) (const Tensor& self, const Tensor& other) {
build_borrowing_binary_float_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC2(div, Tensor_mode) (const Tensor& self, const Tensor& other, c10::optional<c10::string_view> rounding_mode) {
if (!rounding_mode.has_value()) {
build_borrowing_binary_float_op(maybe_get_output(), self, other);
// NOLINTNEXTLINE(bugprone-branch-clone)
} else if (*rounding_mode == "trunc") {
build_borrowing_binary_op(maybe_get_output(), self, other);
} else if (*rounding_mode == "floor") {
build_borrowing_binary_op(maybe_get_output(), self, other);
} else {
TORCH_CHECK(false,
"div expected rounding_mode to be one of None, 'trunc', or 'floor' "
"but found '", *rounding_mode, "'");
}
}
TORCH_META_FUNC(special_xlog1py) (const Tensor& self, const Tensor& other) {
build_borrowing_binary_float_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC(special_zeta) (const Tensor& self, const Tensor& other) {
build_borrowing_binary_float_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC2(copysign, Tensor) (
const Tensor& self, const Tensor& other
) {
build_borrowing_binary_float_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC(heaviside) (
const Tensor& self, const Tensor& other
) {
TORCH_CHECK(!self.is_complex() && !other.is_complex() &&
(maybe_get_output().defined() ? !maybe_get_output().is_complex() : true),
"heaviside is not yet implemented for complex tensors.");
TORCH_CHECK(self.dtype() == other.dtype() &&
(maybe_get_output().defined() ? maybe_get_output().dtype() == self.dtype() : true),
"heaviside is not yet implemented for tensors with different dtypes.");
build_binary_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC(atan2) (const Tensor& self, const Tensor& other) {
build_borrowing_binary_float_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC2(remainder, Tensor)(const Tensor& self, const Tensor& other) {
build_borrowing_binary_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC2(bitwise_left_shift, Tensor) (
const Tensor& self, const Tensor& other
) {
build_borrowing_binary_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC2(bitwise_right_shift, Tensor) (
const Tensor& self, const Tensor& other
) {
build_borrowing_binary_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC2(bitwise_and, Tensor) (const Tensor& self, const Tensor& other) {
build_borrowing_binary_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC2(bitwise_or, Tensor) (const Tensor& self, const Tensor& other) {
build_borrowing_binary_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC2(bitwise_xor, Tensor) (const Tensor& self, const Tensor& other) {
build_borrowing_binary_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC2(fmod, Tensor) (const Tensor& self, const Tensor& other) {
build_borrowing_binary_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC2(xlogy, Tensor) (const Tensor& self, const Tensor& other) {
build_borrowing_binary_float_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC(logit_backward) (const Tensor& grad_output, const Tensor& input, c10::optional<double> eps) {
build_borrowing_binary_op(maybe_get_output(), grad_output, input);
}
TORCH_META_FUNC(sigmoid_backward) (const Tensor& grad_output, const Tensor& output) {
build_borrowing_binary_op(maybe_get_output(), grad_output, output);
}
TORCH_META_FUNC(tanh_backward) (const Tensor& grad_output, const Tensor& output) {
build_borrowing_binary_op(maybe_get_output(), grad_output, output);
}
// These are normal binary ops that preserve dtype
#define CREATE_BINARY_META_FUNC(func) \
TORCH_META_FUNC(func) (const Tensor& self, const Tensor& other) { \
build_borrowing_binary_op(maybe_get_output(), self, other); \
}
CREATE_BINARY_META_FUNC(logaddexp);
CREATE_BINARY_META_FUNC(logaddexp2);
CREATE_BINARY_META_FUNC(gcd);
CREATE_BINARY_META_FUNC(lcm);
CREATE_BINARY_META_FUNC(hypot);
CREATE_BINARY_META_FUNC(igamma);
CREATE_BINARY_META_FUNC(igammac);
CREATE_BINARY_META_FUNC(nextafter);
TORCH_META_FUNC(maximum) (const Tensor& self, const Tensor& other) {
TORCH_CHECK(!self.is_complex() && !other.is_complex(), "maximum not implemented for complex tensors.");
build_borrowing_binary_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC(minimum) (const Tensor& self, const Tensor& other) {
TORCH_CHECK(!self.is_complex() && !other.is_complex(), "minimum not implemented for complex tensors.");
build_borrowing_binary_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC(fmax) (const Tensor& self, const Tensor& other) {
TORCH_CHECK(!self.is_complex() && !other.is_complex(), "fmax not implemented for complex tensors.");
build_binary_op(maybe_get_output(), self, other);
}
TORCH_META_FUNC(fmin) (const Tensor& self, const Tensor& other) {
TORCH_CHECK(!self.is_complex() && !other.is_complex(), "fmin not implemented for complex tensors.");
build_binary_op(maybe_get_output(), self, other);
}
void comparison_op_check(const Tensor& self, const Tensor& other, const Tensor& result) {
// Validate that is possible to convert zero-dim tensor's dtype to other dtype
// without overflow
if (self.scalar_type() != other.scalar_type()) {
if (self.dim() != 0 && other.dim() == 0) {
native::check_convert(other.item(), self.scalar_type());
} else if (self.dim() == 0 && other.dim() != 0) {
native::check_convert(self.item(), other.scalar_type());
}
}
// In-place operation To avoid overflow during type promotion we will check that
// both dtypes of self and other are same
if (result.is_same(self)) {
TORCH_CHECK(self.dtype() == other.dtype(),
"Expected object of scalar type ", self.dtype(), " but got scalar type ",
other.dtype(), " for argument 'other'");
}
}
#define CREATE_COMPARISON_SCALAR_TENSOR_META_FUNC(func) \
TORCH_META_FUNC2(func, Tensor)(const Tensor& self, const Tensor& other) { \
const Tensor& result = maybe_get_output(); \
comparison_op_check(self, other, result); \
build_comparison_op(result, self, other); \
} \
\
TORCH_META_FUNC2(func, Scalar)(const Tensor& self, const Scalar& other) { \
auto other_tensor = \
native::wrapped_scalar_tensor_and_check_convert(other, self); \
build_comparison_op(maybe_get_output(), self, other_tensor); \
}
CREATE_COMPARISON_SCALAR_TENSOR_META_FUNC(eq);
CREATE_COMPARISON_SCALAR_TENSOR_META_FUNC(ne);
CREATE_COMPARISON_SCALAR_TENSOR_META_FUNC(lt);
CREATE_COMPARISON_SCALAR_TENSOR_META_FUNC(le);
CREATE_COMPARISON_SCALAR_TENSOR_META_FUNC(gt);
CREATE_COMPARISON_SCALAR_TENSOR_META_FUNC(ge);
} // namespace meta
namespace native {
DEFINE_DISPATCH(add_stub);
DEFINE_DISPATCH(add_clamp_stub);
DEFINE_DISPATCH(sub_stub);
DEFINE_DISPATCH(mul_stub);
DEFINE_DISPATCH(div_true_stub);
DEFINE_DISPATCH(div_floor_stub);
DEFINE_DISPATCH(div_trunc_stub);
DEFINE_DISPATCH(remainder_stub);
DEFINE_DISPATCH(atan2_stub);
DEFINE_DISPATCH(bitwise_and_stub);
DEFINE_DISPATCH(bitwise_or_stub);
DEFINE_DISPATCH(bitwise_xor_stub);
DEFINE_DISPATCH(lshift_stub);
DEFINE_DISPATCH(rshift_stub);
DEFINE_DISPATCH(logical_and_stub);
DEFINE_DISPATCH(logical_or_stub);
DEFINE_DISPATCH(logical_xor_stub);
DEFINE_DISPATCH(lt_stub);
DEFINE_DISPATCH(le_stub);
DEFINE_DISPATCH(gt_stub);
DEFINE_DISPATCH(ge_stub);
DEFINE_DISPATCH(eq_stub);
DEFINE_DISPATCH(ne_stub);
DEFINE_DISPATCH(sigmoid_backward_stub);
DEFINE_DISPATCH(logit_backward_stub);
DEFINE_DISPATCH(tanh_backward_stub);
DEFINE_DISPATCH(maximum_stub);
DEFINE_DISPATCH(minimum_stub);
DEFINE_DISPATCH(fmax_stub);
DEFINE_DISPATCH(fmin_stub);
DEFINE_DISPATCH(fmod_stub);
DEFINE_DISPATCH(logaddexp_stub);
DEFINE_DISPATCH(logaddexp2_stub);
DEFINE_DISPATCH(gcd_stub);
DEFINE_DISPATCH(lcm_stub);
DEFINE_DISPATCH(hypot_stub);
DEFINE_DISPATCH(igamma_stub);
DEFINE_DISPATCH(igammac_stub);
DEFINE_DISPATCH(nextafter_stub);
DEFINE_DISPATCH(heaviside_stub);
DEFINE_DISPATCH(copysign_stub);
DEFINE_DISPATCH(xlogy_stub);
DEFINE_DISPATCH(xlog1py_stub);
DEFINE_DISPATCH(zeta_stub);
TORCH_IMPL_FUNC(add_out) (
const Tensor& self, const Tensor& other, const Scalar& alpha, const Tensor& result
) {
add_stub(device_type(), *this, alpha);
TORCH_INTERNAL_ASSERT(result.scalar_type() == output().dtype());
}
TORCH_IMPL_FUNC(sub_out) (
const Tensor& self, const Tensor& other, const Scalar& alpha, const Tensor& result
) {
sub_stub(device_type(), *this, alpha);
TORCH_INTERNAL_ASSERT(result.scalar_type() == output().dtype());
}
TORCH_IMPL_FUNC(mul_out) (
const Tensor& self, const Tensor& other, const Tensor& result
) {
mul_stub(device_type(), *this);
}
TORCH_IMPL_FUNC(div_out) (const Tensor& self, const Tensor& other, const Tensor& result) {
div_true_stub(device_type(), *this);
}
TORCH_IMPL_FUNC(div_out_mode) (
const Tensor& self, const Tensor& other, c10::optional<c10::string_view> rounding_mode, const Tensor& result
) {
if (!rounding_mode.has_value()) {
div_true_stub(device_type(), *this);
} else if (*rounding_mode == "trunc") {
div_trunc_stub(device_type(), *this);
} else if (*rounding_mode == "floor") {
div_floor_stub(device_type(), *this);
}
}
TORCH_IMPL_FUNC(logit_backward_out) (const Tensor& grad_output, const Tensor& input, c10::optional<double> eps, const Tensor& result) {
logit_backward_stub(device_type(), *this, Scalar(eps ? eps.value() : -1.0));
}
TORCH_IMPL_FUNC(sigmoid_backward_out) (const Tensor& grad_output, const Tensor& output, const Tensor& result) {
sigmoid_backward_stub(device_type(), *this);
}
TORCH_IMPL_FUNC(special_xlog1py_out) (const Tensor& self, const Tensor& other, const Tensor& result) {
xlog1py_stub(device_type(), *this);
}
TORCH_IMPL_FUNC(special_zeta_out) (const Tensor& self, const Tensor& other, const Tensor& result) {
zeta_stub(device_type(), *this);
}
TORCH_IMPL_FUNC(tanh_backward_out) (const Tensor& grad_output, const Tensor& output, const Tensor& result) {
tanh_backward_stub(device_type(), *this);
}
#define CREATE_BINARY_TORCH_IMPL_FUNC(func_out, func_stub) \
TORCH_IMPL_FUNC(func_out) (const Tensor& self, const Tensor& other, const Tensor& result) { \
func_stub(device_type(), *this); \
}
CREATE_BINARY_TORCH_IMPL_FUNC(bitwise_and_out, bitwise_and_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(bitwise_or_out, bitwise_or_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(bitwise_xor_out, bitwise_xor_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(maximum_out, maximum_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(minimum_out, minimum_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(fmax_out, fmax_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(fmin_out, fmin_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(fmod_out, fmod_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(logaddexp_out, logaddexp_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(logaddexp2_out, logaddexp2_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(gcd_out, gcd_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(lcm_out, lcm_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(hypot_out, hypot_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(igamma_out, igamma_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(igammac_out, igammac_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(nextafter_out, nextafter_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(remainder_out, remainder_stub);
CREATE_BINARY_TORCH_IMPL_FUNC(xlogy_out, xlogy_stub);
Tensor special_xlog1py(const Scalar& x, const Tensor& y) {
return at::special_xlog1py(wrapped_scalar_tensor(x), y);
}
Tensor special_xlog1py(const Tensor& x, const Scalar& y) {
return at::special_xlog1py(x, wrapped_scalar_tensor(y));
}
Tensor& special_xlog1py_out(const Scalar& self, const Tensor& other, Tensor& result) {
return at::special_xlog1py_out(result, wrapped_scalar_tensor(self), other);
}
Tensor& special_xlog1py_out(const Tensor& self, const Scalar& other, Tensor& result) {
return at::special_xlog1py_out(result, self, wrapped_scalar_tensor(other));
}
Tensor special_zeta(const Scalar& x, const Tensor& y) {
return at::special_zeta(wrapped_scalar_tensor(x), y);
}
Tensor special_zeta(const Tensor& x, const Scalar& y) {
return at::special_zeta(x, wrapped_scalar_tensor(y));
}
Tensor& special_zeta_out(const Scalar& self, const Tensor& other, Tensor& result) {
return at::special_zeta_out(result, wrapped_scalar_tensor(self), other);
}
Tensor& special_zeta_out(const Tensor& self, const Scalar& other, Tensor& result) {
return at::special_zeta_out(result, self, wrapped_scalar_tensor(other));
}
Tensor& special_gammainc_out(const Tensor& self, const Tensor& other, Tensor& result) {
return at::igamma_out(result, self, other);
}
Tensor special_gammainc(const Tensor& self, const Tensor& other) {
return at::igamma(self, other);
}
Tensor& special_gammaincc_out(const Tensor& self, const Tensor& other, Tensor& result) {
return at::igammac_out(result, self, other);
}
Tensor special_gammaincc(const Tensor& self, const Tensor& other) {
return at::igammac(self, other);
}
TORCH_IMPL_FUNC(atan2_out) (const Tensor& self, const Tensor& other, const Tensor& result) {
atan2_stub(device_type(), *this);
}
Tensor& add_relu_impl(
Tensor& result, const Tensor& self, const Tensor& other, const Scalar& alpha) {
auto iter = TensorIterator::binary_op(result, self, other);
Scalar min_val;
Scalar max_val;
if (self.dtype() == at::kInt) {
min_val = 0;
max_val = std::numeric_limits<int32_t>::max();
} else if (self.dtype() == at::kLong) {
min_val = 0;
max_val = std::numeric_limits<int64_t>::max();
} else if (self.dtype() == at::kShort) {
min_val = 0;
max_val = std::numeric_limits<int16_t>::max();
} else if (self.dtype() == at::kChar) {
min_val = 0;
max_val = std::numeric_limits<int8_t>::max();
} else if (self.dtype() == at::kFloat) {
min_val = 0.0;
max_val = std::numeric_limits<float>::max();
} else if (self.dtype() == at::kDouble) {
min_val = 0.0;
max_val = std::numeric_limits<double>::max();
} else {
TORCH_INTERNAL_ASSERT(
"Unsupported datatype for add_relu:", self.dtype().name());
}
result = iter.output();
add_clamp_stub(iter.device_type(), iter, alpha, min_val, max_val);
return result;
}
Tensor& add_relu_out(const Tensor& self, const Tensor& other, const Scalar& alpha, Tensor& result) {
return add_relu_impl(result, self, other, alpha);
}
Tensor add_relu(const Tensor& self, const Tensor& other, const Scalar& alpha) {
Tensor result;
return add_relu_impl(result, self, other, alpha);
}
Tensor add_relu(const Tensor& self, const Scalar& other, const Scalar& alpha) {
return add_relu(self, wrapped_scalar_tensor(other), alpha);
}
Tensor& add_relu_(Tensor& self, const Tensor& other, const Scalar& alpha) {
return add_relu_impl(self, self, other, alpha);
}
Tensor& add_relu_(Tensor& self, const Scalar& other, const Scalar& alpha) {
return add_relu_(self, wrapped_scalar_tensor(other), alpha);
}
TORCH_IMPL_FUNC(copysign_out) (
const Tensor& self, const Tensor& other, const Tensor& result
) {
copysign_stub(device_type(), *this);
}
Tensor copysign(const Tensor& self, const Scalar& other) {
// redispatch!
return at::copysign(self, wrapped_scalar_tensor(other));
}
Tensor& copysign_(Tensor& self, const Scalar& other) {
// redispatch!
return self.copysign_(wrapped_scalar_tensor(other));
}
Tensor& copysign_out(const Tensor& self, const Scalar& other, Tensor& result) {
// redispatch!
return at::copysign_out(result, self, wrapped_scalar_tensor(other));
}
// WARNING: There doesn't appear to be any testing for this function
// with sparse self input.
Tensor div(const Tensor& self, const Scalar& other) {
return self.div(wrapped_scalar_tensor(other)); // redispatch!
}
// WARNING: This function, with a sparse self, is currently only
// exercised by DistributedDataParallelTest.test_sparse_gradients
// (you need to exercise it from C++, because this overload is never
// used for Python)
Tensor& div_(Tensor& self, const Scalar& other) {
return self.div_(wrapped_scalar_tensor(other)); // redispatch!
}
Tensor div(const Tensor& self, const Scalar& other, c10::optional<c10::string_view> rounding_mode) {
return self.div(wrapped_scalar_tensor(other), std::move(rounding_mode)); // redispatch!
}
Tensor& div_(Tensor& self, const Scalar& other, c10::optional<c10::string_view> rounding_mode) {
return self.div_(wrapped_scalar_tensor(other), std::move(rounding_mode)); // redispatch!
}
// divide, alias for div
Tensor& divide_out(const Tensor& self, const Tensor& other, Tensor& result) {
return at::div_out(result, self, other);
}
Tensor divide(const Tensor& self, const Tensor& other) {
return self.div(other);
}
Tensor& divide_(Tensor& self, const Tensor& other) {
return self.div_(other);
}
Tensor divide(const Tensor& self, const Scalar& other) {
return self.div(other);
}
Tensor& divide_(Tensor& self, const Scalar& other) {
return self.div_(other);
}
Tensor& divide_out(const Tensor& self, const Tensor& other, c10::optional<c10::string_view> rounding_mode, Tensor& result) {
return at::div_out(result, self, other, std::move(rounding_mode));
}
Tensor divide(const Tensor& self, const Tensor& other, c10::optional<c10::string_view> rounding_mode) {
return self.div(other, std::move(rounding_mode));
}
Tensor& divide_(Tensor& self, const Tensor& other, c10::optional<c10::string_view> rounding_mode) {
return self.div_(other, std::move(rounding_mode));
}
Tensor divide(const Tensor& self, const Scalar& other, c10::optional<c10::string_view> rounding_mode) {
return self.div(other, std::move(rounding_mode));
}
Tensor& divide_(Tensor& self, const Scalar& other, c10::optional<c10::string_view> rounding_mode) {
return self.div_(other, std::move(rounding_mode));
}
// true_divide, an alias for div
Tensor& true_divide_out(const Tensor& self, const Tensor& divisor, Tensor& result) {
return at::div_out(result, self, divisor);
}
Tensor true_divide(const Tensor& self, const Tensor& divisor) {
return self.div(divisor);
}
Tensor& true_divide_(Tensor& self, const Tensor& divisor) {
return self.div_(divisor);
}
Tensor true_divide(const Tensor& self, const Scalar& divisor) {
return self.div(divisor);
}
Tensor& true_divide_(Tensor& self, const Scalar& divisor) {
return self.div_(divisor);
}
Tensor& floor_divide_out(const Tensor& self, const Tensor& other, Tensor& result) {
TORCH_WARN_ONCE(
"floor_divide is deprecated, and will be removed in a future version of pytorch. "
"It currently rounds toward 0 (like the 'trunc' function NOT 'floor'). "
"This results in incorrect rounding for negative values.\n"
"To keep the current behavior, use torch.div(a, b, rounding_mode='trunc'), "
"or for actual floor division, use torch.div(a, b, rounding_mode='floor')."
);
// FIXME: Not actually doing floor division (#43874)
auto iter = TensorIterator::binary_op(result, self, other);
div_trunc_stub(iter.device_type(), iter);
if (!result.defined()) {
result = iter.output();
}
return result;
}
Tensor floor_divide(const Tensor& self, const Tensor& other) {
TORCH_WARN_ONCE(
"floor_divide is deprecated, and will be removed in a future version of pytorch. "
"It currently rounds toward 0 (like the 'trunc' function NOT 'floor'). "
"This results in incorrect rounding for negative values.\n"
"To keep the current behavior, use torch.div(a, b, rounding_mode='trunc'), "
"or for actual floor division, use torch.div(a, b, rounding_mode='floor')."
);
// FIXME: Not actually doing floor division (#43874)
Tensor result;
auto iter = TensorIterator::binary_op(result, self, other);
div_trunc_stub(iter.device_type(), iter);
return iter.output();
}
Tensor& floor_divide_(Tensor& self, const Tensor& other) {
return native::floor_divide_out(self, other, self);
}
// TODO: Make this structured to undo the perf regression from native:: removal
// in call here
Tensor mul(const Tensor& self, const Scalar& other) {
return at::mul(self, wrapped_scalar_tensor(other)); // redispatch!
}
Tensor& mul_(Tensor& self, const Scalar& other) {
return at::mul_out(self, wrapped_scalar_tensor(other), self); // redispatch!
}
// multiply, alias for mul
Tensor& multiply_out(const Tensor& self, const Tensor& other, Tensor& result) {
return at::mul_out(result, self, other);
}
Tensor multiply(const Tensor& self, const Tensor& other) {
return self.mul(other);
}
Tensor& multiply_(Tensor& self, const Tensor& other) {
return self.mul_(other);
}
Tensor multiply(const Tensor& self, const Scalar& other) {
return self.mul(other);
}
Tensor& multiply_(Tensor& self, const Scalar& other) {
return self.mul_(other);
}
Tensor sub(const Tensor& self, const Scalar& other, const Scalar& alpha) {
return at::sub(self, wrapped_scalar_tensor(other), alpha); // redispatch!
}
Tensor& sub_(Tensor& self, const Scalar& other, const Scalar& alpha) {
return self.sub_(wrapped_scalar_tensor(other), alpha); // redispatch!
}
// subtract, alias for sub
Tensor& subtract_out(const Tensor& self, const Tensor& other, const Scalar& alpha, Tensor& result) {
return at::sub_out(result, self, other, alpha);
}
Tensor subtract(const Tensor& self, const Tensor& other, const Scalar& alpha) {
return self.sub(other, alpha);
}
Tensor& subtract_(Tensor& self, const Tensor& other, const Scalar& alpha) {
return self.sub_(other, alpha);
}
Tensor subtract(const Tensor& self, const Scalar& other, const Scalar& alpha) {
return self.sub(other, alpha);
}
Tensor& subtract_(Tensor& self, const Scalar& other, const Scalar& alpha) {
return self.sub_(other, alpha);
}
Tensor rsub(const Tensor& self, const Tensor& other, const Scalar& alpha) {
return at::sub(other, self, alpha); // redispatch!
}
// TODO: Make this structured to undo the perf regression from native:: removal
// in call here
Tensor add(const Tensor& self, const Scalar& other, const Scalar& alpha) {
return at::add(self, wrapped_scalar_tensor(other), alpha);
}
Tensor& add_(Tensor& self, const Scalar& other, const Scalar& alpha) {
return self.add_(wrapped_scalar_tensor(other), alpha);
}
Tensor remainder(const Tensor& self, const Scalar& other) {
// redispatch
return at::remainder(self, wrapped_scalar_tensor(other));
}
Tensor& remainder_(Tensor& self, const Scalar& other) {
// redispatch
return self.remainder_(wrapped_scalar_tensor(other));
}
Tensor& remainder_out(const Tensor& self, const Scalar& other, Tensor& result) {
// redispatch
return at::remainder_out(result, self, wrapped_scalar_tensor(other));
}
Tensor remainder(const Scalar& self, const Tensor& other) {
return at::remainder(wrapped_scalar_tensor(self), other);
}
Tensor rsub(const Tensor& self, const Scalar& other, const Scalar& alpha) {
return native::rsub(self, wrapped_scalar_tensor(other), alpha);
}
Tensor& bitwise_and_out(const Tensor& self, const Scalar& other, Tensor& result) {
return at::bitwise_and_out(result, self, wrapped_scalar_tensor(other));
}
Tensor bitwise_and(const Tensor& self, const Scalar& other) {
return at::bitwise_and(self, wrapped_scalar_tensor(other));
}
Tensor& bitwise_and_(Tensor& self, const Scalar& other) {
return self.bitwise_and_(wrapped_scalar_tensor(other));
}
// Legacy and interfaces. They are aliased to bitwise_and* functions
Tensor __and__(const Tensor& self, const Tensor& other) {
return at::bitwise_and(self, other);
}
Tensor __and__(const Tensor& self, const Scalar& other) {
return at::bitwise_and(self, other);
}
Tensor& __iand__(Tensor& self, const Tensor& other) {
return self.bitwise_and_(other);
}
Tensor& __iand__(Tensor& self, const Scalar& other) {
return self.bitwise_and_(other);
}
Tensor& bitwise_or_out(const Tensor& self, const Scalar& other, Tensor& result) {
return at::bitwise_or_out(result, self, wrapped_scalar_tensor(other));
}
Tensor bitwise_or(const Tensor& self, const Scalar& other) {
return at::bitwise_or(self, wrapped_scalar_tensor(other));
}
Tensor& bitwise_or_(Tensor& self, const Scalar& other) {
return self.bitwise_or_(wrapped_scalar_tensor(other));
}
// Legacy or interfaces. They are aliased to bitwise_or* functions
Tensor __or__(const Tensor& self, const Tensor& other) {
return at::bitwise_or(self, other);
}
Tensor __or__(const Tensor& self, const Scalar& other) {
return at::bitwise_or(self, other);
}
Tensor& __ior__(Tensor& self, const Tensor& other) {
return self.bitwise_or_(other);
}
Tensor& __ior__(Tensor& self, const Scalar& other) {
return self.bitwise_or_(other);
}
Tensor& bitwise_xor_out(const Tensor& self, const Scalar& other, Tensor& result) {
return at::bitwise_xor_out(result, self, wrapped_scalar_tensor(other));
}
Tensor bitwise_xor(const Tensor& self, const Scalar& other) {
return at::bitwise_xor(self, wrapped_scalar_tensor(other));
}
Tensor& bitwise_xor_(Tensor& self, const Scalar& other) {
return self.bitwise_xor_(wrapped_scalar_tensor(other));
}
// Legacy xor interfaces. They are aliased to bitwise_xor* functions
Tensor __xor__(const Tensor& self, const Tensor& other) {
return at::bitwise_xor(self, other);
}
Tensor __xor__(const Tensor& self, const Scalar& other) {
return at::bitwise_xor(self, other);
}
Tensor& __ixor__(Tensor& self, const Tensor& other) {
return self.bitwise_xor_(other);
}
Tensor& __ixor__(Tensor& self, const Scalar& other) {
return self.bitwise_xor_(other);
}
Tensor __lshift__(const Tensor& self, const Tensor& other) {
Tensor result;
auto iter = TensorIterator::binary_op(result, self, other);
lshift_stub(iter.device_type(), iter);
return iter.output();
}
Tensor __lshift__(const Tensor& self, const Scalar& other) {
Tensor result;
auto wrapper = wrapped_scalar_tensor(other).toType(self.scalar_type());
auto iter = TensorIterator::binary_op(result, self, wrapper);
lshift_stub(iter.device_type(), iter);
return iter.output();
}
Tensor& __ilshift__(Tensor& self, const Tensor& other) {
auto iter = TensorIterator::binary_op(self, self, other);
lshift_stub(iter.device_type(), iter);
return self;
}
Tensor& __ilshift__(Tensor& self, const Scalar& other) {
auto wrapper = wrapped_scalar_tensor(other).toType(self.scalar_type());
auto iter = TensorIterator::binary_op(self, self, wrapper);
lshift_stub(iter.device_type(), iter);
return self;
}
TORCH_IMPL_FUNC(bitwise_left_shift_out) (const Tensor& self, const Tensor& other, const Tensor& result) {
lshift_stub(device_type(), *this);
}
Tensor& bitwise_left_shift_out(const Tensor& self, const Scalar& other, Tensor& result) {
return at::bitwise_left_shift_out(result, self, wrapped_scalar_tensor(other).toType(self.scalar_type()));
}
Tensor bitwise_left_shift(const Tensor& self, const Scalar& other) {
return at::bitwise_left_shift(self, wrapped_scalar_tensor(other).toType(self.scalar_type()));
}
Tensor& bitwise_left_shift_(Tensor& self, const Scalar& other) {
return at::bitwise_left_shift_out(self, self, wrapped_scalar_tensor(other).toType(self.scalar_type()));
}
Tensor bitwise_left_shift(const Scalar& self, const Tensor& other) {
return at::bitwise_left_shift(wrapped_scalar_tensor(self).toType(other.scalar_type()), other);
}
Tensor __rshift__(const Tensor& self, const Tensor& other) {
Tensor result;
auto iter = TensorIterator::binary_op(result, self, other);
rshift_stub(iter.device_type(), iter);
return iter.output();
}
Tensor __rshift__(const Tensor& self, const Scalar& other) {
Tensor result;
auto wrapper = wrapped_scalar_tensor(other).toType(self.scalar_type());
auto iter = TensorIterator::binary_op(result, self, wrapper);
rshift_stub(iter.device_type(), iter);
return iter.output();
}
Tensor& __irshift__(Tensor& self, const Tensor& other) {
auto iter = TensorIterator::binary_op(self, self, other);
rshift_stub(iter.device_type(), iter);
return self;
}
Tensor& __irshift__(Tensor& self, const Scalar& other) {
auto wrapper = wrapped_scalar_tensor(other).toType(self.scalar_type());
auto iter = TensorIterator::binary_op(self, self, wrapper);
rshift_stub(iter.device_type(), iter);
return self;
}
TORCH_IMPL_FUNC(bitwise_right_shift_out) (const Tensor& self, const Tensor& other, const Tensor& result) {
rshift_stub(device_type(), *this);
}
Tensor& bitwise_right_shift_out(const Tensor& self, const Scalar& other, Tensor& result) {
return at::bitwise_right_shift_out(result, self, wrapped_scalar_tensor(other).toType(self.scalar_type()));
}
Tensor bitwise_right_shift(const Tensor& self, const Scalar& other) {
return at::bitwise_right_shift(self, wrapped_scalar_tensor(other).toType(self.scalar_type()));
}
Tensor& bitwise_right_shift_(Tensor& self, const Scalar& other) {
return at::bitwise_right_shift_out(self, self, wrapped_scalar_tensor(other).toType(self.scalar_type()));
}
Tensor bitwise_right_shift(const Scalar& self, const Tensor& other) {
return at::bitwise_right_shift(wrapped_scalar_tensor(self).toType(other.scalar_type()), other);
}
template <typename Stub>
Tensor& comparison_op_out(Tensor& result, const Tensor& self, const Tensor& other, Stub& stub) {
// Validate that is possible to convert zero-dim tensor's dtype to other dtype without overflow
if (self.scalar_type() != other.scalar_type()) {
if (self.dim() != 0 && other.dim() == 0) {
check_convert(other.item(), self.scalar_type());
} else if (self.dim() == 0 && other.dim() != 0) {
check_convert(self.item(), other.scalar_type());
}
}
auto iter = TensorIterator::comparison_op(result, self, other);
stub(iter.device_type(), iter);
return result;
}
template <typename OutImpl>
Tensor comparison_op(const Tensor& self, const Tensor& other, OutImpl& out_impl) {
Tensor result = at::empty({0}, self.options().dtype(kBool));
return out_impl(result, self, other);
}
// To avoid overflow during type promotion we will check that both dtypes of self and other are same
template <typename OutImpl>
Tensor& comparison_op_(Tensor& self, const Tensor& other, OutImpl& out_impl) {
TORCH_CHECK(self.dtype() == other.dtype(),
"Expected object of scalar type ", self.dtype(), " but got scalar type ",
other.dtype(), " for argument 'other'");
return out_impl(self, self, other);
}
// validates that is possible to convert Scalar other to self's dtype without overflow.
// This behavior is unique to comparison ops; arithmetic operations don't do this.
// In the future, we should reconsider this inconsistency and decide if we want to add the same check to arithmetic ops.
template <typename OutImpl>
Tensor& comparison_op_out(Tensor& result, const Tensor& self, const Scalar& other, OutImpl& out_impl) {
return out_impl(result, self, wrapped_scalar_tensor_and_check_convert(other, self));
}
template <typename OutImpl>
Tensor comparison_op(const Tensor& self, const Scalar& other, OutImpl& out_impl) {
return comparison_op(self, wrapped_scalar_tensor_and_check_convert(other, self), out_impl);
}
template <typename OutImpl>
Tensor& comparison_op_(Tensor& self, const Scalar& other, OutImpl& out_impl) {
return out_impl(self, self, wrapped_scalar_tensor_and_check_convert(other, self));
}
// We need explicit cast to OutFunc because each *_out func is overloaded twice. Without An explicit cast, merely
// referring to *_out function is ambiguious.
using OutFunc = std::add_const<Tensor&(&)(Tensor&, const Tensor&, const Tensor&)>::type;
// less, alias for torch.lt
Tensor& less_out(const Tensor& self, const Tensor& other, Tensor& result) { return at::lt_out(result, self, other); }
Tensor less(const Tensor& self, const Tensor& other) { return self.lt(other); }
Tensor& less_(Tensor& self, const Tensor& other) { return self.lt_(other); }
Tensor& less_out(const Tensor& self, const Scalar& other, Tensor& result) { return at::lt_out(result, self, other); }
Tensor less(const Tensor& self, const Scalar& other) { return self.lt(other); }
Tensor& less_(Tensor& self, const Scalar& other) { return self.lt_(other); }
// less_equal, alias for torch.le
Tensor& less_equal_out(const Tensor& self, const Tensor& other, Tensor& result) { return at::le_out(result, self, other); }
Tensor less_equal(const Tensor& self, const Tensor& other) { return self.le(other); }
Tensor& less_equal_(Tensor& self, const Tensor& other) { return self.le_(other); }
Tensor& less_equal_out(const Tensor& self, const Scalar& other, Tensor& result) { return at::le_out(result, self, other); }
Tensor less_equal(const Tensor& self, const Scalar& other) { return self.le(other); }
Tensor& less_equal_(Tensor& self, const Scalar& other) { return self.le_(other); }
// greater, alias for torch.gt
Tensor& greater_out(const Tensor& self, const Tensor& other, Tensor& result) { return at::gt_out(result, self, other); }
Tensor greater(const Tensor& self, const Tensor& other) { return self.gt(other); }
Tensor& greater_(Tensor& self, const Tensor& other) { return self.gt_(other); }
Tensor& greater_out(const Tensor& self, const Scalar& other, Tensor& result) { return at::gt_out(result, self, other); }
Tensor greater(const Tensor& self, const Scalar& other) { return self.gt(other); }
Tensor& greater_(Tensor& self, const Scalar& other) { return self.gt_(other); }
// greater_equal, alias for torch.ge
Tensor& greater_equal_out(const Tensor& self, const Tensor& other, Tensor& result) { return at::ge_out(result, self, other); }
Tensor greater_equal(const Tensor& self, const Tensor& other) { return self.ge(other); }
Tensor& greater_equal_(Tensor& self, const Tensor& other) { return self.ge_(other); }
Tensor& greater_equal_out(const Tensor& self, const Scalar& other, Tensor& result) { return at::ge_out(result, self, other); }
Tensor greater_equal(const Tensor& self, const Scalar& other) { return self.ge(other); }
Tensor& greater_equal_(Tensor& self, const Scalar& other) { return self.ge_(other); }
#define CREATE_COMPARISON_SCALAR_TENSOR_IMPL_FUNC(func) \
TORCH_IMPL_FUNC(func##_Tensor_out) \
(const Tensor& self, const Tensor& other, const Tensor& result) { \
func##_stub(device_type(), *this); \
} \
\
TORCH_IMPL_FUNC(func##_Scalar_out) \
(const Tensor& self, const Scalar& other, const Tensor& result) { \
func##_stub(device_type(), *this); \
}
CREATE_COMPARISON_SCALAR_TENSOR_IMPL_FUNC(eq);
CREATE_COMPARISON_SCALAR_TENSOR_IMPL_FUNC(ne);
CREATE_COMPARISON_SCALAR_TENSOR_IMPL_FUNC(gt);
CREATE_COMPARISON_SCALAR_TENSOR_IMPL_FUNC(ge);
CREATE_COMPARISON_SCALAR_TENSOR_IMPL_FUNC(lt);
CREATE_COMPARISON_SCALAR_TENSOR_IMPL_FUNC(le);
// not_equal, alias for torch.ne
Tensor& not_equal_out(const Tensor& self, const Tensor& other, Tensor& result) { return at::ne_out(result, self, other); }
Tensor not_equal(const Tensor& self, const Tensor& other) { return self.ne(other); }
Tensor& not_equal_(Tensor& self, const Tensor& other) { return self.ne_(other); }
Tensor& not_equal_out(const Tensor& self, const Scalar& other, Tensor& result) { return at::ne_out(result, self, other); }