feat(templates): add TAtomic and the corresponding testing

This commit is contained in:
_Redstone_c_ 2022-04-12 08:33:19 +08:00
parent 98e8e87c7a
commit 4f769a9207
4 changed files with 393 additions and 0 deletions

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@ -23,6 +23,7 @@ void TestTemplates()
TestAny();
TestTuple();
TestFunction();
TestAtomic();
TestMiscTemplates();
}
@ -1241,6 +1242,116 @@ void TestFunction()
}
}
void TestAtomic()
{
{
TAtomic<int32> TempA;
always_check(TempA.bIsAlwaysLockFree);
always_check(TempA.IsLockFree());
always_check((TempA = 11) == 11);
TempA.Store(12);
always_check(TempA.Load() == 12);
always_check((int32)TempA == 12);
always_check(TempA.Exchange(13) == 12);
int32 TempB = 13;
always_check(TempA.CompareExchange(TempB, 15) == true);
always_check(TempA.CompareExchange(TempB, 15) == false);
always_check(TempA.CompareExchange(TempB, 15) == true);
TempA.Wait(13);
TempA.Notify();
always_check(TempA.FetchAdd(1) == 15);
always_check(TempA.FetchSub(1) == 16);
always_check(TempA.FetchMul(3) == 15);
always_check(TempA.FetchDiv(3) == 45);
always_check(TempA.FetchMod(16) == 15);
always_check(TempA.FetchAnd(0xFF) == 15);
always_check(TempA.FetchOr(0xFFFF) == 0xF);
always_check(TempA.FetchXor(0xFF) == 0xFFFF);
always_check(TempA.FetchLsh(4) == 0xFF00);
always_check(TempA.FetchRsh(4) == 0xFF000);
always_check(++TempA == 0xFF01);
always_check(TempA++ == 0xFF01);
always_check(--TempA == 0xFF01);
always_check(TempA-- == 0xFF01);
always_check((TempA += 1) == 0xFF01);
always_check((TempA -= 1) == 0xFF00);
always_check((TempA *= 16) == 0xFF000);
always_check((TempA /= 16) == 0xFF00);
always_check((TempA %= 0x1000) == 0xF00);
always_check((TempA &= 1) == 0x0);
always_check((TempA |= 1) == 0x1);
always_check((TempA ^= 0xF) == 0xE);
always_check((TempA <<= 4) == 0xE0);
always_check((TempA >>= 4) == 0xE);
}
{
int32 A;
TAtomicRef<int32> TempA(A);
always_check(TempA.bIsAlwaysLockFree);
always_check(TempA.IsLockFree());
always_check((TempA = 11) == 11);
TempA.Store(12);
always_check(TempA.Load() == 12);
always_check((int32)TempA == 12);
always_check(TempA.Exchange(13) == 12);
int32 TempB = 13;
always_check(TempA.CompareExchange(TempB, 15) == true);
always_check(TempA.CompareExchange(TempB, 15) == false);
always_check(TempA.CompareExchange(TempB, 15) == true);
TempA.Wait(13);
TempA.Notify();
always_check(TempA.FetchAdd(1) == 15);
always_check(TempA.FetchSub(1) == 16);
always_check(TempA.FetchMul(3) == 15);
always_check(TempA.FetchDiv(3) == 45);
always_check(TempA.FetchMod(16) == 15);
always_check(TempA.FetchAnd(0xFF) == 15);
always_check(TempA.FetchOr(0xFFFF) == 0xF);
always_check(TempA.FetchXor(0xFF) == 0xFFFF);
always_check(TempA.FetchLsh(4) == 0xFF00);
always_check(TempA.FetchRsh(4) == 0xFF000);
always_check(++TempA == 0xFF01);
always_check(TempA++ == 0xFF01);
always_check(--TempA == 0xFF01);
always_check(TempA-- == 0xFF01);
always_check((TempA += 1) == 0xFF01);
always_check((TempA -= 1) == 0xFF00);
always_check((TempA *= 16) == 0xFF000);
always_check((TempA /= 16) == 0xFF00);
always_check((TempA %= 0x1000) == 0xF00);
always_check((TempA &= 1) == 0x0);
always_check((TempA |= 1) == 0x1);
always_check((TempA ^= 0xF) == 0xE);
always_check((TempA <<= 4) == 0xE0);
always_check((TempA >>= 4) == 0xE);
}
{
FAtomicFlag Flag;
always_check(Flag.TestAndSet() == false);
always_check(Flag.Test() == true);
Flag.Clear();
always_check(Flag.Test() == false);
Flag.Wait(true);
Flag.Notify();
}
{
int32 TempA = 10;
int32 TempB = KillDependency(TempA);
always_check(TempB == 10);
}
{
AtomicThreadFence();
AtomicSignalFence();
}
}
NAMESPACE_UNNAMED_BEGIN
template <typename T>

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@ -0,0 +1,280 @@
#pragma once
#include "CoreTypes.h"
#include "Templates/Invoke.h"
#include "Memory/Alignment.h"
#include "Templates/Function.h"
#include "TypeTraits/TypeTraits.h"
#include "Templates/Noncopyable.h"
#include <atomic>
NAMESPACE_REDCRAFT_BEGIN
NAMESPACE_MODULE_BEGIN(Redcraft)
NAMESPACE_MODULE_BEGIN(Utility)
enum class EMemoryOrder : uint8
{
Relaxed = static_cast<typename TUnderlyingType<NAMESPACE_STD::memory_order>::Type>(NAMESPACE_STD::memory_order_relaxed),
Consume = static_cast<typename TUnderlyingType<NAMESPACE_STD::memory_order>::Type>(NAMESPACE_STD::memory_order_consume),
Acquire = static_cast<typename TUnderlyingType<NAMESPACE_STD::memory_order>::Type>(NAMESPACE_STD::memory_order_acquire),
Release = static_cast<typename TUnderlyingType<NAMESPACE_STD::memory_order>::Type>(NAMESPACE_STD::memory_order_release),
AcquireRelease = static_cast<typename TUnderlyingType<NAMESPACE_STD::memory_order>::Type>(NAMESPACE_STD::memory_order_acq_rel),
SequentiallyConsistent = static_cast<typename TUnderlyingType<NAMESPACE_STD::memory_order>::Type>(NAMESPACE_STD::memory_order_seq_cst),
};
#if BUILD_DEBUG
NAMESPACE_PRIVATE_BEGIN
FORCEINLINE void MemoryOrderCheck(EMemoryOrder Order, uint8 Require)
{
switch (Order)
{
case EMemoryOrder::Relaxed: checkf((Require) & 0x01, "Invalid memory order."); break;
case EMemoryOrder::Consume: checkf((Require) & 0x02, "Invalid memory order."); break;
case EMemoryOrder::Acquire: checkf((Require) & 0x04, "Invalid memory order."); break;
case EMemoryOrder::Release: checkf((Require) & 0x08, "Invalid memory order."); break;
case EMemoryOrder::AcquireRelease: checkf((Require) & 0x10, "Invalid memory order."); break;
case EMemoryOrder::SequentiallyConsistent: checkf((Require) & 0x20, "Invalid memory order."); break;
default: check_no_entry();
}
}
NAMESPACE_PRIVATE_END
#define MEMORY_ORDER_CHECK(Order, Require) NAMESPACE_PRIVATE::MemoryOrderCheck(Order, Require)
#else
#define MEMORY_ORDER_CHECK(Order, Require)
#endif
template <typename T, bool bIsRef = false> requires TIsTriviallyCopyable<T>::Value
&& TIsCopyConstructible<T>::Value && TIsMoveConstructible<T>::Value
&& TIsCopyAssignable<T>::Value && TIsMoveAssignable<T>::Value
struct TAtomic : public FSingleton
{
protected:
using ElementType = typename TConditional<bIsRef, NAMESPACE_STD::atomic_ref<T>, NAMESPACE_STD::atomic<T>>::Type;
public:
using ValueType = T;
static constexpr bool bIsAlwaysLockFree = ElementType::is_always_lock_free;
static constexpr size_t RequiredAlignment = NAMESPACE_STD::atomic_ref<T>::required_alignment;
constexpr TAtomic() requires (!bIsRef) : Element() { };
constexpr TAtomic(ValueType Desired) requires (!bIsRef) : Element(Desired) { };
FORCEINLINE explicit TAtomic(ValueType& Desired) requires (bIsRef) : Element(Desired) { check(Memory::IsAligned(&Desired, RequiredAlignment)); };
FORCEINLINE TAtomic(TAtomic& InValue) requires (bIsRef) : Element(InValue) { };
FORCEINLINE ValueType operator=(ValueType Desired) { return Element = Desired; }
FORCEINLINE ValueType operator=(ValueType Desired) volatile requires bIsAlwaysLockFree { return Element = Desired; }
FORCEINLINE bool IsLockFree() const { return Element.is_lock_free(); }
FORCEINLINE bool IsLockFree() const volatile { return Element.is_lock_free(); }
FORCEINLINE void Store(ValueType Desired, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) { MEMORY_ORDER_CHECK(Order, 0x01 | 0x08 | 0x20); Element.store(Desired, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE void Store(ValueType Desired, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires bIsAlwaysLockFree { MEMORY_ORDER_CHECK(Order, 0x01 | 0x08 | 0x20); Element.store(Desired, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType Load(EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) const { MEMORY_ORDER_CHECK(Order, 0x01 | 0x02 | 0x04 | 0x20); return Element.load(static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType Load(EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) const volatile requires bIsAlwaysLockFree { MEMORY_ORDER_CHECK(Order, 0x01 | 0x02 | 0x04 | 0x20); return Element.load(static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE operator ValueType() const { return static_cast<ValueType>(Element); }
FORCEINLINE operator ValueType() const volatile requires bIsAlwaysLockFree { return static_cast<ValueType>(Element); }
FORCEINLINE ValueType Exchange(ValueType Desired, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) { return Element.exchange(Desired, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType Exchange(ValueType Desired, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires bIsAlwaysLockFree { return Element.exchange(Desired, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE bool CompareExchange(ValueType& Expected, ValueType Desired, EMemoryOrder Success, EMemoryOrder Failure, bool bIsWeak = false)
{
MEMORY_ORDER_CHECK(Failure, 0x01 | 0x02 | 0x04 | 0x20);
if (bIsWeak) return Element.compare_exchange_weak(Expected, Desired, static_cast<NAMESPACE_STD::memory_order>(Success), static_cast<NAMESPACE_STD::memory_order>(Failure));
else return Element.compare_exchange_strong(Expected, Desired, static_cast<NAMESPACE_STD::memory_order>(Success), static_cast<NAMESPACE_STD::memory_order>(Failure));
}
FORCEINLINE bool CompareExchange(ValueType& Expected, ValueType Desired, EMemoryOrder Success, EMemoryOrder Failure, bool bIsWeak = false) volatile requires bIsAlwaysLockFree
{
MEMORY_ORDER_CHECK(Failure, 0x01 | 0x02 | 0x04 | 0x20);
if (bIsWeak) return Element.compare_exchange_weak(Expected, Desired, static_cast<NAMESPACE_STD::memory_order>(Success), static_cast<NAMESPACE_STD::memory_order>(Failure));
else return Element.compare_exchange_strong(Expected, Desired, static_cast<NAMESPACE_STD::memory_order>(Success), static_cast<NAMESPACE_STD::memory_order>(Failure));
}
FORCEINLINE bool CompareExchange(ValueType& Expected, ValueType Desired, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent, bool bIsWeak = false)
{
if (bIsWeak) return Element.compare_exchange_weak(Expected, Desired, static_cast<NAMESPACE_STD::memory_order>(Order));
else return Element.compare_exchange_strong(Expected, Desired, static_cast<NAMESPACE_STD::memory_order>(Order));
}
FORCEINLINE bool CompareExchange(ValueType& Expected, ValueType Desired, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent, bool bIsWeak = false) volatile requires bIsAlwaysLockFree
{
if (bIsWeak) return Element.compare_exchange_weak(Expected, Desired, static_cast<NAMESPACE_STD::memory_order>(Order));
else return Element.compare_exchange_strong(Expected, Desired, static_cast<NAMESPACE_STD::memory_order>(Order));
}
FORCEINLINE void Wait(ValueType Old, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) { MEMORY_ORDER_CHECK(Order, 0x01 | 0x02 | 0x04 | 0x20); Element.wait(Old, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE void Wait(ValueType Old, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile { MEMORY_ORDER_CHECK(Order, 0x01 | 0x02 | 0x04 | 0x20); Element.wait(Old, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE void Notify(bool bIsAll = false) { if (bIsAll) Element.notify_all(); else Element.notify_one(); }
FORCEINLINE void Notify(bool bIsAll = false) volatile { if (bIsAll) Element.notify_all(); else Element.notify_one(); }
template <typename F> requires TIsInvocableResult<ValueType, F, ValueType>::Value
FORCEINLINE ValueType FetchFn(F&& Func, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent)
{
ValueType Temp(Load(EMemoryOrder::Relaxed));
while (!CompareExchange(Temp, InvokeResult<ValueType>(Forward<F>(Func), Temp), Order));
return Temp;
}
template <typename F> requires TIsInvocableResult<ValueType, F, ValueType>::Value && bIsAlwaysLockFree
FORCEINLINE ValueType FetchFn(F&& Func, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile
{
ValueType Temp(Load(EMemoryOrder::Relaxed));
while (!CompareExchange(Temp, InvokeResult<ValueType>(Forward<F>(Func), Temp), Order));
return Temp;
}
FORCEINLINE ValueType FetchAdd(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) { return Element.fetch_add(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchAdd(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) && bIsAlwaysLockFree { return Element.fetch_add(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchAdd(ptrdiff InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) requires TIsPointer<T>::Value { return Element.fetch_add(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchAdd(ptrdiff InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires TIsPointer<T>::Value && bIsAlwaysLockFree { return Element.fetch_add(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchSub(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) { return Element.fetch_sub(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchSub(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) && bIsAlwaysLockFree { return Element.fetch_sub(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchSub(ptrdiff InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) requires TIsPointer<T>::Value { return Element.fetch_sub(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchSub(ptrdiff InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires TIsPointer<T>::Value && bIsAlwaysLockFree { return Element.fetch_sub(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchMul(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) { return FetchFn([InValue](ValueType Old) -> ValueType { return Old * InValue; }); }
FORCEINLINE ValueType FetchMul(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) && bIsAlwaysLockFree { return FetchFn([InValue](ValueType Old) -> ValueType { return Old * InValue; }); }
FORCEINLINE ValueType FetchDiv(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) { return FetchFn([InValue](ValueType Old) -> ValueType { return Old / InValue; }); }
FORCEINLINE ValueType FetchDiv(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) && bIsAlwaysLockFree { return FetchFn([InValue](ValueType Old) -> ValueType { return Old / InValue; }); }
FORCEINLINE ValueType FetchMod(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) requires TIsIntegral<T>::Value { return FetchFn([InValue](ValueType Old) -> ValueType { return Old % InValue; }); }
FORCEINLINE ValueType FetchMod(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires TIsIntegral<T>::Value && bIsAlwaysLockFree { return FetchFn([InValue](ValueType Old) -> ValueType { return Old % InValue; }); }
FORCEINLINE ValueType FetchAnd(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) requires TIsIntegral<T>::Value { return Element.fetch_and(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchAnd(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires TIsIntegral<T>::Value && bIsAlwaysLockFree { return Element.fetch_and(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchOr(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) requires TIsIntegral<T>::Value { return Element.fetch_or(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchOr(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires TIsIntegral<T>::Value && bIsAlwaysLockFree { return Element.fetch_or(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchXor(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) requires TIsIntegral<T>::Value { return Element.fetch_xor(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchXor(ValueType InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires TIsIntegral<T>::Value && bIsAlwaysLockFree { return Element.fetch_xor(InValue, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE ValueType FetchLsh(size_t InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) requires TIsIntegral<T>::Value { return FetchFn([InValue](ValueType Old) -> ValueType { return Old << InValue; }); }
FORCEINLINE ValueType FetchLsh(size_t InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires TIsIntegral<T>::Value && bIsAlwaysLockFree { return FetchFn([InValue](ValueType Old) -> ValueType { return Old << InValue; }); }
FORCEINLINE ValueType FetchRsh(size_t InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) requires TIsIntegral<T>::Value { return FetchFn([InValue](ValueType Old) -> ValueType { return Old >> InValue; }); }
FORCEINLINE ValueType FetchRsh(size_t InValue, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile requires TIsIntegral<T>::Value && bIsAlwaysLockFree { return FetchFn([InValue](ValueType Old) -> ValueType { return Old >> InValue; }); }
FORCEINLINE ValueType operator++() requires (TIsIntegral<T>::Value || TIsPointer<T>::Value) { return ++Element; }
FORCEINLINE ValueType operator++() volatile requires (TIsIntegral<T>::Value || TIsPointer<T>::Value) && bIsAlwaysLockFree { return ++Element; }
FORCEINLINE ValueType operator++(int) requires (TIsIntegral<T>::Value || TIsPointer<T>::Value) { return Element++; }
FORCEINLINE ValueType operator++(int) volatile requires (TIsIntegral<T>::Value || TIsPointer<T>::Value) && bIsAlwaysLockFree { return Element++; }
FORCEINLINE ValueType operator--() requires (TIsIntegral<T>::Value || TIsPointer<T>::Value) { return --Element; }
FORCEINLINE ValueType operator--() volatile requires (TIsIntegral<T>::Value || TIsPointer<T>::Value) && bIsAlwaysLockFree { return --Element; }
FORCEINLINE ValueType operator--(int) requires (TIsIntegral<T>::Value || TIsPointer<T>::Value) { return Element--; }
FORCEINLINE ValueType operator--(int) volatile requires (TIsIntegral<T>::Value || TIsPointer<T>::Value) && bIsAlwaysLockFree { return Element--; }
FORCEINLINE ValueType operator+=(ValueType InValue) requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) { return Element += InValue; }
FORCEINLINE ValueType operator+=(ValueType InValue) volatile requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) && bIsAlwaysLockFree { return Element += InValue; }
FORCEINLINE ValueType operator+=(ptrdiff InValue) requires TIsPointer<T>::Value { return Element += InValue; }
FORCEINLINE ValueType operator+=(ptrdiff InValue) volatile requires TIsPointer<T>::Value && bIsAlwaysLockFree { return Element += InValue; }
FORCEINLINE ValueType operator-=(ValueType InValue) requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) { return Element -= InValue; }
FORCEINLINE ValueType operator-=(ValueType InValue) volatile requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) && bIsAlwaysLockFree { return Element -= InValue; }
FORCEINLINE ValueType operator-=(ptrdiff InValue) requires TIsPointer<T>::Value { return Element -= InValue; }
FORCEINLINE ValueType operator-=(ptrdiff InValue) volatile requires TIsPointer<T>::Value && bIsAlwaysLockFree { return Element -= InValue; }
FORCEINLINE ValueType operator*=(ValueType InValue) requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) { return FetchMul(InValue) * InValue; }
FORCEINLINE ValueType operator*=(ValueType InValue) volatile requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) && bIsAlwaysLockFree { return FetchMul(InValue) * InValue; }
FORCEINLINE ValueType operator/=(ValueType InValue) requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) { return FetchDiv(InValue) / InValue; }
FORCEINLINE ValueType operator/=(ValueType InValue) volatile requires (TIsIntegral<T>::Value || TIsFloatingPoint<T>::Value) && bIsAlwaysLockFree { return FetchDiv(InValue) / InValue; }
FORCEINLINE ValueType operator%=(ValueType InValue) requires TIsIntegral<T>::Value { return FetchMod(InValue) % InValue; }
FORCEINLINE ValueType operator%=(ValueType InValue) volatile requires TIsIntegral<T>::Value && bIsAlwaysLockFree { return FetchMod(InValue) % InValue; }
FORCEINLINE ValueType operator&=(ValueType InValue) requires TIsIntegral<T>::Value { return Element &= InValue; }
FORCEINLINE ValueType operator&=(ValueType InValue) volatile requires TIsIntegral<T>::Value && bIsAlwaysLockFree { return Element &= InValue; }
FORCEINLINE ValueType operator|=(ValueType InValue) requires TIsIntegral<T>::Value { return Element |= InValue; }
FORCEINLINE ValueType operator|=(ValueType InValue) volatile requires TIsIntegral<T>::Value && bIsAlwaysLockFree { return Element |= InValue; }
FORCEINLINE ValueType operator^=(ValueType InValue) requires TIsIntegral<T>::Value { return Element ^= InValue; }
FORCEINLINE ValueType operator^=(ValueType InValue) volatile requires TIsIntegral<T>::Value && bIsAlwaysLockFree { return Element ^= InValue; }
FORCEINLINE ValueType operator<<=(size_t InValue) requires TIsIntegral<T>::Value { return FetchLsh(InValue) << InValue; }
FORCEINLINE ValueType operator<<=(size_t InValue) volatile requires TIsIntegral<T>::Value && bIsAlwaysLockFree { return FetchLsh(InValue) << InValue; }
FORCEINLINE ValueType operator>>=(size_t InValue) requires TIsIntegral<T>::Value { return FetchRsh(InValue) >> InValue; }
FORCEINLINE ValueType operator>>=(size_t InValue) volatile requires TIsIntegral<T>::Value && bIsAlwaysLockFree { return FetchRsh(InValue) >> InValue; }
protected:
ElementType Element;
};
template <typename T>
using TAtomicRef = TAtomic<T, true>;
template <typename T>
TAtomic(T) -> TAtomic<T>;
struct FAtomicFlag : public FSingleton
{
public:
constexpr FAtomicFlag() : Element() { };
FORCEINLINE void Clear(EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) { MEMORY_ORDER_CHECK(Order, 0x01 | 0x08 | 0x20); Element.clear(static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE void Clear(EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile { MEMORY_ORDER_CHECK(Order, 0x01 | 0x08 | 0x20); Element.clear(static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE bool TestAndSet(EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) { return Element.test_and_set(static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE bool TestAndSet(EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) volatile { return Element.test_and_set(static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE bool Test(EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) const { MEMORY_ORDER_CHECK(Order, 0x01 | 0x02 | 0x04 | 0x20); return Element.test(static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE bool Test(EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) const volatile { MEMORY_ORDER_CHECK(Order, 0x01 | 0x02 | 0x04 | 0x20); return Element.test(static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE void Wait(bool Old, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) const { MEMORY_ORDER_CHECK(Order, 0x01 | 0x02 | 0x04 | 0x20); const_cast<const NAMESPACE_STD::atomic_flag&>(Element).wait(Old, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE void Wait(bool Old, EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) const volatile { MEMORY_ORDER_CHECK(Order, 0x01 | 0x02 | 0x04 | 0x20); const_cast<const NAMESPACE_STD::atomic_flag&>(Element).wait(Old, static_cast<NAMESPACE_STD::memory_order>(Order)); }
FORCEINLINE void Notify(bool bIsAll = false) { if (bIsAll) const_cast<NAMESPACE_STD::atomic_flag&>(Element).notify_all(); else const_cast<NAMESPACE_STD::atomic_flag&>(Element).notify_one(); }
FORCEINLINE void Notify(bool bIsAll = false) volatile { if (bIsAll) const_cast<NAMESPACE_STD::atomic_flag&>(Element).notify_all(); else const_cast<NAMESPACE_STD::atomic_flag&>(Element).notify_one(); }
protected:
NAMESPACE_STD::atomic_flag Element;
};
template <typename T>
inline T KillDependency(T InValue)
{
T Temp(InValue);
return Temp;
}
extern "C" FORCEINLINE void AtomicThreadFence(EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) { NAMESPACE_STD::atomic_thread_fence(static_cast<NAMESPACE_STD::memory_order>(Order)); }
extern "C" FORCEINLINE void AtomicSignalFence(EMemoryOrder Order = EMemoryOrder::SequentiallyConsistent) { NAMESPACE_STD::atomic_signal_fence(static_cast<NAMESPACE_STD::memory_order>(Order)); }
#undef MEMORY_ORDER_CHECK
NAMESPACE_MODULE_END(Utility)
NAMESPACE_MODULE_END(Redcraft)
NAMESPACE_REDCRAFT_END

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@ -13,3 +13,4 @@
#include "Templates/Tuple.h"
#include "Templates/TypeHash.h"
#include "Templates/Function.h"
#include "Templates/Atomic.h"

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@ -16,6 +16,7 @@ REDCRAFTUTILITY_API void TestVariant();
REDCRAFTUTILITY_API void TestAny();
REDCRAFTUTILITY_API void TestTuple();
REDCRAFTUTILITY_API void TestFunction();
REDCRAFTUTILITY_API void TestAtomic();
REDCRAFTUTILITY_API void TestMiscTemplates();
NAMESPACE_END(Testing)