mapPointerKeyT: func() {
			a := make(map[*uint8]uint8)
			for i := 0; i < length; i++ {
				a[new(uint8)] = uint8(i)
				runtime.Gosched()
			}
			for i := 0; i < mods; i++ {
				for k, _ := range a {
					a[k]++
					runtime.Gosched()
				}
			}
		},
		chanT: func() {
			a := make(chan uint8)
			for i := 0; i < mods; i++ {
				go func() { a <- uint8(i) }()
				<-a
				runtime.Gosched()
			}

	for i = range 256 {
	}
	for i := range 256 {
		_ = i
	}

	var u8 uint8
	_ = u8
	for u8 = range - /* ERROR "cannot use -1 (untyped int constant) as uint8 value in range clause (overflows)" */ 1 {
	}
	for u8 = range 0 {
	}
	for u8 = range 255 {
	}
	for u8 = range 256 /* ERROR "cannot use 256 (untyped int constant) as uint8 value in range clause (overflows)" */ {
	}
}

func issue64471() {

//go:noinline
func Xchguintptr(ptr *uintptr, new uintptr) uintptr {
	old := *ptr
	*ptr = new
	return old
}

//go:nosplit
//go:noinline
func And8(ptr *uint8, val uint8) {
	*ptr = *ptr & val
}

//go:nosplit
//go:noinline
func Or8(ptr *uint8, val uint8) {
	*ptr = *ptr | val
}

// NOTE: Do not add atomicxor8 (XOR is not idempotent).

//go:nosplit
//go:noinline
func And(ptr *uint32, val uint32) {

//
//go:nosplit
func libfuzzerTraceCmp1(arg0, arg1 uint8, fakePC uint) {
	fakePC = fakePC % retSledSize
	libfuzzerCallTraceIntCmp(&__sanitizer_cov_trace_cmp1, uintptr(arg0), uintptr(arg1), uintptr(fakePC))
}

//go:nosplit
func libfuzzerTraceCmp2(arg0, arg1 uint16, fakePC uint) {
	fakePC = fakePC % retSledSize

		v := x & (1<<8 - 1)
		rot := (x >> 8) & (1<<4 - 1) * 2
		if rot > 0 && v&3 == 0 {
			// could rotate less
			return ImmAlt{uint8(v), uint8(rot)}
		}
		if rot >= 24 && ((v<<(32-rot))&0xFF)>>(32-rot) == v {
			// could wrap around to rot==0.
			return ImmAlt{uint8(v), uint8(rot)}
		}
		return Imm(v>>rot | v<<(32-rot))

	case arg_endian:
		return Endian((x >> 9) & 1)

	case arg_fbits:

		Uint(maxU16),
		Uint(maxU16 - 1),
		Uint(maxI16 + 1),
		Uint(maxI16),
		Uint(maxI16 - 1),
		Uint(maxU8 + 1),
		Uint(maxU8),
		Uint(maxU8 - 1),
		Uint(maxI8 + 1),
		Uint(maxI8),
		Uint(maxI8 - 1),
		Uint(0),
		Int(minI8 + 1),
		Int(minI8),
		Int(minI8 - 1),
		Int(minI16 + 1),
		Int(minI16),
		Int(minI16 - 1),
		Int(minI32 + 1),
		Int(minI32),
		Int(minI32 - 1),
		Int(minI64 + 1),

// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

package a

type Numeric interface {
	~int | ~int8 | ~int16 | ~int32 | ~int64 |
		~uint | ~uint8 | ~uint16 | ~uint32 | ~uint64 | ~uintptr |
		~float32 | ~float64 |
		~complex64 | ~complex128
}

// numericAbs matches numeric types with an Abs method.
type numericAbs[T any] interface {
	Numeric
	Abs() T

		}
	case reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64:
		return rv.Int(), nil
	case reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32:
		return int64(rv.Uint()), nil
	case reflect.Uint64:
		u64 := rv.Uint()
		if u64 >= 1<<63 {
			return nil, fmt.Errorf("uint64 values with high bit set are not supported")
		}
		return int64(u64), nil

package linalg

// Numeric is type bound that matches any numeric type.
// It would likely be in a constraints package in the standard library.
type Numeric interface {
	~int | ~int8 | ~int16 | ~int32 | ~int64 |
		~uint | ~uint8 | ~uint16 | ~uint32 | ~uint64 | ~uintptr |
		~float32 | ~float64 |
		~complex64 | ~complex128
}

func DotProduct[T Numeric](s1, s2 []T) T {
	if len(s1) != len(s2) {
		panic("DotProduct: slices of unequal length")

	symnum    uint32
	pcrel     uint8
	length    uint8
	extrn     uint8
	type_     uint8
	scattered uint8
	value     uint32
}

type ldMachoSymtab struct {
	symoff  uint32
	nsym    uint32
	stroff  uint32
	strsize uint32
	str     []byte
	sym     []ldMachoSym
}

type ldMachoSym struct {
	name    string
	type_   uint8
	sectnum uint8
	desc    uint16
	kind    int8