/usr/local/lib64/python3.6/site-packages/torch/include/c10/core
NameSizeModeActions
impl/-0755rm
Allocator.h87250644editdlrm
AutogradState.h9940644editdlrm
Backend.h84870644editdlrm
CompileTimeFunctionPointer.h16770644editdlrm
CopyBytes.h12290644editdlrm
CPUAllocator.h22670644editdlrm
DefaultDtype.h3940644editdlrm
DefaultTensorOptions.h10320644editdlrm
Device.h53960644editdlrm
DeviceGuard.h75550644editdlrm
DeviceType.h29940644editdlrm
DispatchKey.h180690644editdlrm
DispatchKeySet.h129510644editdlrm
Event.h41690644editdlrm
GeneratorImpl.h37130644editdlrm
GradMode.h12610644editdlrm
InferenceMode.h34710644editdlrm
Layout.h12250644editdlrm
MemoryFormat.h85710644editdlrm
OptionalRef.h5210644editdlrm
QEngine.h8610644editdlrm
QScheme.h15620644editdlrm
Scalar.h60190644editdlrm
ScalarType.h170730644editdlrm
ScalarTypeToTypeMeta.h13650644editdlrm
Storage.h43690644editdlrm
StorageImpl.h56100644editdlrm
Stream.h73730644editdlrm
StreamGuard.h63150644editdlrm
TensorImpl.h961520644editdlrm
TensorOptions.h275930644editdlrm
thread_pool.h29920644editdlrm
UndefinedTensorImpl.h9110644editdlrm
WrapDimMinimal.h8050644editdlrm
Edit: /usr/local/lib64/python3.6/site-packages/torch/include/c10/core/Scalar.h (6019B)
#pragma once #include #include #include #include #include #include #include #include #include #include #include #include namespace c10 { /** * Scalar represents a 0-dimensional tensor which contains a single element. * Unlike a tensor, numeric literals (in C++) are implicitly convertible to * Scalar (which is why, for example, we provide both add(Tensor) and * add(Scalar) overloads for many operations). It may also be used in * circumstances where you statically know a tensor is 0-dim and single size, * but don't know its type. */ class C10_API Scalar { public: Scalar() : Scalar(int64_t(0)) {} #define DEFINE_IMPLICIT_CTOR(type, name) \ Scalar(type vv) : Scalar(vv, true) {} AT_FORALL_SCALAR_TYPES_AND2(Half, BFloat16, DEFINE_IMPLICIT_CTOR) AT_FORALL_COMPLEX_TYPES(DEFINE_IMPLICIT_CTOR) #undef DEFINE_IMPLICIT_CTOR // Value* is both implicitly convertible to SymbolicVariable and bool which // causes ambiguity error. Specialized constructor for bool resolves this // problem. template < typename T, typename std::enable_if::value, bool>::type* = nullptr> Scalar(T vv) : tag(Tag::HAS_b) { v.i = convert(vv); } #define DEFINE_ACCESSOR(type, name) \ type to##name() const { \ if (Tag::HAS_d == tag) { \ return checked_convert(v.d, #type); \ } else if (Tag::HAS_z == tag) { \ return checked_convert>(v.z, #type); \ } \ if (Tag::HAS_b == tag) { \ return checked_convert(v.i, #type); \ } else { \ return checked_convert(v.i, #type); \ } \ } // TODO: Support ComplexHalf accessor AT_FORALL_SCALAR_TYPES_WITH_COMPLEX_EXCEPT_COMPLEX_HALF(DEFINE_ACCESSOR) // also support scalar.to(); // Deleted for unsupported types, but specialized below for supported types template T to() const = delete; #undef DEFINE_ACCESSOR bool isFloatingPoint() const { return Tag::HAS_d == tag; } C10_DEPRECATED_MESSAGE( "isIntegral is deprecated. Please use the overload with 'includeBool' parameter instead.") bool isIntegral() const { return Tag::HAS_i == tag; } bool isIntegral(bool includeBool) const { return Tag::HAS_i == tag || (includeBool && isBoolean()); } bool isComplex() const { return Tag::HAS_z == tag; } bool isBoolean() const { return Tag::HAS_b == tag; } Scalar operator-() const; Scalar conj() const; Scalar log() const; template < typename T, typename std::enable_if::value, int>::type = 0> bool equal(T num) const { if (isComplex()) { auto val = v.z; return (val.real() == num) && (val.imag() == T()); } else if (isFloatingPoint()) { return v.d == num; } else if (isIntegral(/*includeBool=*/false)) { return v.i == num; } else { // boolean scalar does not equal to a non boolean value return false; } } template < typename T, typename std::enable_if::value, int>::type = 0> bool equal(T num) const { if (isComplex()) { return v.z == num; } else if (isFloatingPoint()) { return (v.d == num.real()) && (num.imag() == T()); } else if (isIntegral(/*includeBool=*/false)) { return (v.i == num.real()) && (num.imag() == T()); } else { // boolean scalar does not equal to a non boolean value return false; } } bool equal(bool num) const { if (isBoolean()) { return static_cast(v.i) == num; } else { return false; } } ScalarType type() const { if (isComplex()) { return ScalarType::ComplexDouble; } else if (isFloatingPoint()) { return ScalarType::Double; } else if (isIntegral(/*includeBool=*/false)) { return ScalarType::Long; } else if (isBoolean()) { return ScalarType::Bool; } else { throw std::runtime_error("Unknown scalar type."); } } private: template < typename T, typename std::enable_if< std::is_integral::value && !std::is_same::value, bool>::type* = nullptr> Scalar(T vv, bool) : tag(Tag::HAS_i) { v.i = convert(vv); } template < typename T, typename std::enable_if< !std::is_integral::value && !c10::is_complex::value, bool>::type* = nullptr> Scalar(T vv, bool) : tag(Tag::HAS_d) { v.d = convert(vv); } template < typename T, typename std::enable_if::value, bool>::type* = nullptr> Scalar(T vv, bool) : tag(Tag::HAS_z) { v.z = convert(vv); } // We can't set v in the initializer list using the // syntax v{ .member = ... } because it doesn't work on MSVC enum class Tag { HAS_d, HAS_i, HAS_z, HAS_b }; Tag tag; union v_t { double d; int64_t i; c10::complex z; v_t() {} // default constructor } v; }; using OptionalScalarRef = c10::OptionalRef; // define the scalar.to() specializations #define DEFINE_TO(T, name) \ template <> \ inline T Scalar::to() const { \ return to##name(); \ } AT_FORALL_SCALAR_TYPES_WITH_COMPLEX_EXCEPT_COMPLEX_HALF(DEFINE_TO) #undef DEFINE_TO } // namespace c10