},
		{
			name:         "service cidr is too big",
			expectErrors: true,
			options:      makeOptionsWithCIDRs("10.0.0.0/8", ""),
		},
		{
			name:         "service cidr IPv4 is too big but gate enbled",
			expectErrors: false,
			options:      makeOptionsWithCIDRs("10.0.0.0/8", ""),
			gate:         true,
		},
		{
			name:         "service cidr IPv6 is too big but gate enbled",
			expectErrors: false,

  // of small endian, as documented in the header). This will protentially break
  // when TFLite is ported to big endian platforms.
  // TODO(b/165919229): This code will need changing if/when we port to a
  // big-endian platform.
  memcpy(*buffer, &num_strings, sizeof(int32_t));

  // Set offset of strings.
  int32_t start = sizeof(int32_t) * (num_strings + 2);

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].
// Its Sum method will lay the value out in big-endian byte order.

func (z *Rat) UnmarshalText(text []byte) error {
	// TODO(gri): get rid of the []byte/string conversion
	if _, ok := z.SetString(string(text)); !ok {
		return fmt.Errorf("math/big: cannot unmarshal %q into a *big.Rat", text)
	}
	return nil

func (curve *nistCurve[Point]) pointToAffine(p Point) (x, y *big.Int, err error) {
	out := p.Bytes()
	if len(out) == 1 && out[0] == 0 {
		// This is the encoding of the point at infinity.
		return nil, nil, errors.New("ecdsa: public key point is the infinity")
	}
	byteLen := (curve.curve.Params().BitSize + 7) / 8
	x = new(big.Int).SetBytes(out[1 : 1+byteLen])
	y = new(big.Int).SetBytes(out[1+byteLen:])
	return x, y, nil
}

	}
}

func bigFromString(s string) *big.Int {
	ret := new(big.Int)
	ret.SetString(s, 10)
	return ret
}

func fromBase10(base10 string) *big.Int {
	i := new(big.Int)
	i.SetString(base10, 10)
	return i
}

func bigFromHexString(s string) *big.Int {
	ret := new(big.Int)
	ret.SetString(s, 16)
	return ret
}

var rsaPrivateKey = &rsa.PrivateKey{

// Bigger than we need, not too big to worry about overflow
const big = 0xFFFFFF

// Decimal to integer.
// Returns number, characters consumed, success.
func dtoi(s string) (n int, i int, ok bool) {
	n = 0
	for i = 0; i < len(s) && '0' <= s[i] && s[i] <= '9'; i++ {
		n = n*10 + int(s[i]-'0')
		if n >= big {
			return big, i, false
		}
	}
	if i == 0 {
		return 0, 0, false
	}

// effect.
func (z *Float) UnmarshalText(text []byte) error {
	// TODO(gri): get rid of the []byte/string conversion
	_, _, err := z.Parse(string(text), 0)
	if err != nil {
		err = fmt.Errorf("math/big: cannot unmarshal %q into a *big.Float (%v)", text, err)
	}
	return err

func TestLittleEndianPtrWrite(t *testing.T) { testWrite(t, LittleEndian, little, &s) }

func TestBigEndianRead(t *testing.T)     { testRead(t, BigEndian, big, s) }
func TestBigEndianWrite(t *testing.T)    { testWrite(t, BigEndian, big, s) }
func TestBigEndianPtrWrite(t *testing.T) { testWrite(t, BigEndian, big, &s) }

func TestReadSlice(t *testing.T) {
	t.Run("Read", func(t *testing.T) {
		slice := make([]int32, 2)

const streamBufferSize = 32 * BlockSize

type aesctr struct {
	block   *aesCipherAsm          // block cipher
	ctr     [2]uint64              // next value of the counter (big endian)
	buffer  []byte                 // buffer for the encrypted counter values
	storage [streamBufferSize]byte // array backing buffer slice
}

// NewCTR returns a Stream which encrypts/decrypts using the AES block