}
// Load atomically loads and returns the value stored in x.
-func (x *Bool) Load() bool { return LoadUint32((*uint32)(unsafe.Pointer(x))) != 0 }
+func (x *Bool) Load() bool { return LoadUint32(&x.v) != 0 }
// Store atomically stores val into x.
-func (x *Bool) Store(val bool) { StoreUint32((*uint32)(unsafe.Pointer(x)), b32(val)) }
+func (x *Bool) Store(val bool) { StoreUint32(&x.v, b32(val)) }
// Swap atomically stores new into x and returns the previous value.
-func (x *Bool) Swap(new bool) (old bool) {
- return SwapUint32((*uint32)(unsafe.Pointer(x)), b32(new)) != 0
-}
+func (x *Bool) Swap(new bool) (old bool) { return SwapUint32(&x.v, b32(new)) != 0 }
// CompareAndSwap executes the compare-and-swap operation for the boolean value x.
func (x *Bool) CompareAndSwap(old, new bool) (swapped bool) {
- return CompareAndSwapUint32((*uint32)(unsafe.Pointer(x)), b32(old), b32(new))
+ return CompareAndSwapUint32(&x.v, b32(old), b32(new))
}
// b32 returns a uint32 0 or 1 representing b.
}
// Load atomically loads and returns the value stored in x.
-func (x *Pointer[T]) Load() *T { return (*T)(LoadPointer((*unsafe.Pointer)(unsafe.Pointer(x)))) }
+func (x *Pointer[T]) Load() *T { return (*T)(LoadPointer(&x.v)) }
// Store atomically stores val into x.
-func (x *Pointer[T]) Store(val *T) {
- StorePointer((*unsafe.Pointer)(unsafe.Pointer(x)), unsafe.Pointer(val))
-}
+func (x *Pointer[T]) Store(val *T) { StorePointer(&x.v, unsafe.Pointer(val)) }
// Swap atomically stores new into x and returns the previous value.
-func (x *Pointer[T]) Swap(new *T) (old *T) {
- return (*T)(SwapPointer((*unsafe.Pointer)(unsafe.Pointer(x)), unsafe.Pointer(new)))
-}
+func (x *Pointer[T]) Swap(new *T) (old *T) { return (*T)(SwapPointer(&x.v, unsafe.Pointer(new))) }
// CompareAndSwap executes the compare-and-swap operation for x.
func (x *Pointer[T]) CompareAndSwap(old, new *T) (swapped bool) {
- return CompareAndSwapPointer((*unsafe.Pointer)(unsafe.Pointer(x)), unsafe.Pointer(old), unsafe.Pointer(new))
+ return CompareAndSwapPointer(&x.v, unsafe.Pointer(old), unsafe.Pointer(new))
}
// An Int32 is an atomic int32. The zero value is zero.
}
// Load atomically loads and returns the value stored in x.
-func (x *Int32) Load() int32 { return LoadInt32((*int32)(unsafe.Pointer(x))) }
+func (x *Int32) Load() int32 { return LoadInt32(&x.v) }
// Store atomically stores val into x.
-func (x *Int32) Store(val int32) { StoreInt32((*int32)(unsafe.Pointer(x)), val) }
+func (x *Int32) Store(val int32) { StoreInt32(&x.v, val) }
// Swap atomically stores new into x and returns the previous value.
-func (x *Int32) Swap(new int32) (old int32) { return SwapInt32((*int32)(unsafe.Pointer(x)), new) }
+func (x *Int32) Swap(new int32) (old int32) { return SwapInt32(&x.v, new) }
// CompareAndSwap executes the compare-and-swap operation for x.
func (x *Int32) CompareAndSwap(old, new int32) (swapped bool) {
- return CompareAndSwapInt32((*int32)(unsafe.Pointer(x)), old, new)
+ return CompareAndSwapInt32(&x.v, old, new)
}
// Add atomically adds delta to x and returns the new value.
-func (x *Int32) Add(delta int32) (new int32) { return AddInt32((*int32)(unsafe.Pointer(x)), delta) }
+func (x *Int32) Add(delta int32) (new int32) { return AddInt32(&x.v, delta) }
// An Int64 is an atomic int64. The zero value is zero.
type Int64 struct {
}
// Load atomically loads and returns the value stored in x.
-func (x *Int64) Load() int64 { return LoadInt64((*int64)(unsafe.Pointer(x))) }
+func (x *Int64) Load() int64 { return LoadInt64(&x.v) }
// Store atomically stores val into x.
-func (x *Int64) Store(val int64) { StoreInt64((*int64)(unsafe.Pointer(x)), val) }
+func (x *Int64) Store(val int64) { StoreInt64(&x.v, val) }
// Swap atomically stores new into x and returns the previous value.
-func (x *Int64) Swap(new int64) (old int64) { return SwapInt64((*int64)(unsafe.Pointer(x)), new) }
+func (x *Int64) Swap(new int64) (old int64) { return SwapInt64(&x.v, new) }
// CompareAndSwap executes the compare-and-swap operation for x.
func (x *Int64) CompareAndSwap(old, new int64) (swapped bool) {
- return CompareAndSwapInt64((*int64)(unsafe.Pointer(x)), old, new)
+ return CompareAndSwapInt64(&x.v, old, new)
}
// Add atomically adds delta to x and returns the new value.
-func (x *Int64) Add(delta int64) (new int64) { return AddInt64((*int64)(unsafe.Pointer(x)), delta) }
+func (x *Int64) Add(delta int64) (new int64) { return AddInt64(&x.v, delta) }
// An Uint32 is an atomic uint32. The zero value is zero.
type Uint32 struct {
}
// Load atomically loads and returns the value stored in x.
-func (x *Uint32) Load() uint32 { return LoadUint32((*uint32)(unsafe.Pointer(x))) }
+func (x *Uint32) Load() uint32 { return LoadUint32(&x.v) }
// Store atomically stores val into x.
-func (x *Uint32) Store(val uint32) { StoreUint32((*uint32)(unsafe.Pointer(x)), val) }
+func (x *Uint32) Store(val uint32) { StoreUint32(&x.v, val) }
// Swap atomically stores new into x and returns the previous value.
-func (x *Uint32) Swap(new uint32) (old uint32) { return SwapUint32((*uint32)(unsafe.Pointer(x)), new) }
+func (x *Uint32) Swap(new uint32) (old uint32) { return SwapUint32(&x.v, new) }
// CompareAndSwap executes the compare-and-swap operation for x.
func (x *Uint32) CompareAndSwap(old, new uint32) (swapped bool) {
- return CompareAndSwapUint32((*uint32)(unsafe.Pointer(x)), old, new)
+ return CompareAndSwapUint32(&x.v, old, new)
}
// Add atomically adds delta to x and returns the new value.
-func (x *Uint32) Add(delta uint32) (new uint32) {
- return AddUint32((*uint32)(unsafe.Pointer(x)), delta)
-}
+func (x *Uint32) Add(delta uint32) (new uint32) { return AddUint32(&x.v, delta) }
// An Uint64 is an atomic uint64. The zero value is zero.
type Uint64 struct {
}
// Load atomically loads and returns the value stored in x.
-func (x *Uint64) Load() uint64 { return LoadUint64((*uint64)(unsafe.Pointer(x))) }
+func (x *Uint64) Load() uint64 { return LoadUint64(&x.v) }
// Store atomically stores val into x.
-func (x *Uint64) Store(val uint64) { StoreUint64((*uint64)(unsafe.Pointer(x)), val) }
+func (x *Uint64) Store(val uint64) { StoreUint64(&x.v, val) }
// Swap atomically stores new into x and returns the previous value.
-func (x *Uint64) Swap(new uint64) (old uint64) { return SwapUint64((*uint64)(unsafe.Pointer(x)), new) }
+func (x *Uint64) Swap(new uint64) (old uint64) { return SwapUint64(&x.v, new) }
// CompareAndSwap executes the compare-and-swap operation for x.
func (x *Uint64) CompareAndSwap(old, new uint64) (swapped bool) {
- return CompareAndSwapUint64((*uint64)(unsafe.Pointer(x)), old, new)
+ return CompareAndSwapUint64(&x.v, old, new)
}
// Add atomically adds delta to x and returns the new value.
-func (x *Uint64) Add(delta uint64) (new uint64) {
- return AddUint64((*uint64)(unsafe.Pointer(x)), delta)
-}
+func (x *Uint64) Add(delta uint64) (new uint64) { return AddUint64(&x.v, delta) }
// An Uintptr is an atomic uintptr. The zero value is zero.
type Uintptr struct {
}
// Load atomically loads and returns the value stored in x.
-func (x *Uintptr) Load() uintptr { return LoadUintptr((*uintptr)(unsafe.Pointer(x))) }
+func (x *Uintptr) Load() uintptr { return LoadUintptr(&x.v) }
// Store atomically stores val into x.
-func (x *Uintptr) Store(val uintptr) { StoreUintptr((*uintptr)(unsafe.Pointer(x)), val) }
+func (x *Uintptr) Store(val uintptr) { StoreUintptr(&x.v, val) }
// Swap atomically stores new into x and returns the previous value.
-func (x *Uintptr) Swap(new uintptr) (old uintptr) {
- return SwapUintptr((*uintptr)(unsafe.Pointer(x)), new)
-}
+func (x *Uintptr) Swap(new uintptr) (old uintptr) { return SwapUintptr(&x.v, new) }
// CompareAndSwap executes the compare-and-swap operation for x.
func (x *Uintptr) CompareAndSwap(old, new uintptr) (swapped bool) {
- return CompareAndSwapUintptr((*uintptr)(unsafe.Pointer(x)), old, new)
+ return CompareAndSwapUintptr(&x.v, old, new)
}
// Add atomically adds delta to x and returns the new value.
-func (x *Uintptr) Add(delta uintptr) (new uintptr) {
- return AddUintptr((*uintptr)(unsafe.Pointer(x)), delta)
-}
+func (x *Uintptr) Add(delta uintptr) (new uintptr) { return AddUintptr(&x.v, delta) }
// noCopy may be added to structs which must not be copied
// after the first use.