{"crc64", func() hash.Hash { return crc64.New(crc64.MakeTable(crc64.ISO)) }, fromHex("6372630273ba8484bbcd5def5d51c83c581695be")},
	{"fnv32", func() hash.Hash { return fnv.New32() }, fromHex("666e760171ba3d77")},
	{"fnv32a", func() hash.Hash { return fnv.New32a() }, fromHex("666e76027439f86f")},
	{"fnv64", func() hash.Hash { return fnv.New64() }, fromHex("666e7603cc64e0e97692c637")},

	~uint
}

type T2[U Unsigned] struct {
    s U
}

func (u T2[U]) Add1() U {
    return u.s + 1
}

func NewT2[U any]() T2[U /* ERROR "U does not satisfy Unsigned" */ ] {
    return T2[U /* ERROR "U does not satisfy Unsigned" */ ]{}
}

func _() {
    u := NewT2[string]()
    _ = u.Add1()
}

// When we encounter an instantiated type such as Elem[T] we must

	offset128Higher = 0x6c62272e07bb0142
	prime32         = 16777619
	prime64         = 1099511628211
	prime128Lower   = 0x13b
	prime128Shift   = 24
)

// New32 returns a new 32-bit FNV-1 [hash.Hash].
// Its Sum method will lay the value out in big-endian byte order.
func New32() hash.Hash32 {
	var s sum32 = offset32
	return &s
}

// New32a returns a new 32-bit FNV-1a [hash.Hash].

	// further move the stack.
	new2 := uintptr(unsafe.Pointer(new))

	t.Logf("old stack pointer %x, new stack pointer %x", old, new2)
	if new2 == old {
		// Check that we didn't screw up the test's escape analysis.
		if cls := runtime.GCTestPointerClass(unsafe.Pointer(new)); cls != "stack" {
			t.Fatalf("test bug: new (%#x) should be a stack pointer, not %s", new2, cls)
		}
		// This was a real failure.

	"k8s.io/apiserver/pkg/authentication/user"
)

// compute a hash of a policy rule so we can sort in a deterministic order
func hashOf(p rbacv1.PolicyRule) string {
	hash := fnv.New32()
	writeStrings := func(slis ...[]string) {
		for _, sli := range slis {
			for _, s := range sli {
				io.WriteString(hash, s)
			}
		}
	}

	}

	// Code changed, but not selected, price should not change
	DB.Model(&product).Select("Name", "Price").Updates(map[string]interface{}{"Name": "Product New2", "code": "L1213"})

	if product.Name != "Product New2" || product.Price != 170 || product.Code != "L1212" {
		t.Errorf("invalid data after update, got %+v", product)
	}

	// Code changed, price should changed

// of probe is added written to the hash as well. The returned hash will be a safe encoded string to avoid bad words.
func HashControllerRevision(revision *apps.ControllerRevision, probe *int32) string {
	hf := fnv.New32()
	if len(revision.Data.Raw) > 0 {
		hf.Write(revision.Data.Raw)
	}
	if revision.Data.Object != nil {
		hashutil.DeepHashObject(hf, revision.Data.Object)
	}
	if probe != nil {

)

func fakePC(n ir.Node) ir.Node {
	// In order to get deterministic IDs, we include the package path, absolute filename, line number, column number
	// in the calculation of the fakePC for the IR node.
	hash := fnv.New32()
	// We ignore the errors here because the `io.Writer` in the `hash.Hash` interface never returns an error.
	io.WriteString(hash, base.Ctxt.Pkgpath)
	io.WriteString(hash, base.Ctxt.PosTable.Pos(n.Pos()).AbsFilename())

	q := new(*float64)
	_ = *p == **q
	new /* ERROR "not used" */ (int)
        _ = &new /* ERROR "cannot take address" */ (int)

	_ = new(int... /* ERROR "invalid use of ..." */ )
}

func new2() {
	f1 := func() (x []int) { return }
	_ = new(f0 /* ERROR "not a type" */ ())
	_ = new(f1 /* ERROR "not a type" */ ())
}

func panic1() {
	panic() // ERROR "not enough arguments"

					}
				} else if wantError {
					t.Fatal("unexpected success")
				}
			})
		}
	}
}

func shardMatch(name string) bool {
	if *shards <= 1 {
		return true
	}
	h := fnv.New32()
	io.WriteString(h, name)
	return int(h.Sum32()%uint32(*shards)) == *shard
}

func goFiles(t *testing.T, dir string) []string {
	f, err := os.Open(filepath.Join(testenv.GOROOT(t), "test", dir))
	if err != nil {