}
		hv[i] = byte(x)
	}

	// Return hash and meta-data len
	return hv, base.Flag.Cfg.CoverageInfo.MetaLen
}

func registerMeta(cnames names, hashv [16]byte, mdlen int) {
	// Materialize expression for hash (an array literal)
	pos := cnames.InitFn.Pos()
	elist := make([]ir.Node, 0, 16)
	for i := 0; i < 16; i++ {
		elem := ir.NewInt(base.Pos, int64(hashv[i]))
		elist = append(elist, elem)
	}

	})
	return usersAndGroups, err
}

// DeepHashObject writes specified object to hash using the spew library
// which follows pointers and prints actual values of the nested objects
// ensuring the hash does not change when a pointer changes.
// Copied from k8s.io/kubernetes/pkg/util/hash/hash.go#DeepHashObject
func DeepHashObject(hasher hash.Hash, objectToWrite interface{}) {
	hasher.Reset()

		fatal("concurrent map read and map write")
	}
	var b *bmap
	if h.B == 0 {
		// One-bucket table. No need to hash.
		b = (*bmap)(h.buckets)
	} else {
		hash := t.Hasher(noescape(unsafe.Pointer(&key)), uintptr(h.hash0))
		m := bucketMask(h.B)
		b = (*bmap)(add(h.buckets, (hash&m)*uintptr(t.BucketSize)))
		if c := h.oldbuckets; c != nil {
			if !h.sameSizeGrow() {

		fatal("concurrent map read and map write")
	}
	var b *bmap
	if h.B == 0 {
		// One-bucket table. No need to hash.
		b = (*bmap)(h.buckets)
	} else {
		hash := t.Hasher(noescape(unsafe.Pointer(&key)), uintptr(h.hash0))
		m := bucketMask(h.B)
		b = (*bmap)(add(h.buckets, (hash&m)*uintptr(t.BucketSize)))
		if c := h.oldbuckets; c != nil {
			if !h.sameSizeGrow() {

		t.Errorf("hashes don't match: want %x, got %x", x, y)
	}
}

// Make sure a Hash implements the hash.Hash and hash.Hash64 interfaces.
var _ hash.Hash = &Hash{}
var _ hash.Hash64 = &Hash{}

func benchmarkSize(b *testing.B, size int) {
	h := &Hash{}
	buf := make([]byte, size)
	s := string(buf)

	b.Run("Write", func(b *testing.B) {
		b.SetBytes(int64(size))
		for i := 0; i < b.N; i++ {
			h.Reset()

	tab *Table
}

// New creates a new hash.Hash64 computing the CRC-64 checksum using the
// polynomial represented by the [Table]. Its Sum method will lay the
// value out in big-endian byte order. The returned Hash64 also
// implements [encoding.BinaryMarshaler] and [encoding.BinaryUnmarshaler] to
// marshal and unmarshal the internal state of the hash.
func New(tab *Table) hash.Hash64 { return &digest{0, tab} }

// Its Sum method will lay the value out in big-endian byte order.
func New64() hash.Hash64 {
	var s sum64 = offset64
	return &s
}

// New64a returns a new 64-bit FNV-1a [hash.Hash].
// Its Sum method will lay the value out in big-endian byte order.
func New64a() hash.Hash64 {
	var s sum64a = offset64
	return &s
}

// New128 returns a new 128-bit FNV-1 [hash.Hash].

		return unsafe.Pointer(&zeroVal[0])
	}
dohash:
	hash := t.Hasher(noescape(unsafe.Pointer(&ky)), uintptr(h.hash0))
	m := bucketMask(h.B)
	b := (*bmap)(add(h.buckets, (hash&m)*uintptr(t.BucketSize)))
	if c := h.oldbuckets; c != nil {
		if !h.sameSizeGrow() {
			// There used to be half as many buckets; mask down one more power of two.
			m >>= 1
		}
		oldb := (*bmap)(add(c, (hash&m)*uintptr(t.BucketSize)))
		if !evacuated(oldb) {

  }
};

// Functor that incrementally computes a Signature's hash given its current hash
// and one of its args.
struct SignatureHashCombiner {
  explicit SignatureHashCombiner(const uint64 h) : h(h) {}
  uint64 h;
  uint64 operator()(const Tensor& arg) {
    h = Hash64Combine(h, std::hash<int>()(static_cast<int>(arg.dtype())));
    h = Hash64Combine(
        h, Hash64(arg.tensor_data().data(), arg.tensor_data().size()));

				if !h.sameSizeGrow() {
					// Compute hash to make our evacuation decision (whether we need
					// to send this key/elem to bucket x or bucket y).
					hash := t.Hasher(k2, uintptr(h.hash0))
					if h.flags&iterator != 0 && !t.ReflexiveKey() && !t.Key.Equal(k2, k2) {
						// If key != key (NaNs), then the hash could be (and probably
						// will be) entirely different from the old hash. Moreover,