const int num_args = ps.parameters_size();
  // feed_size() + variable_size() is the maximum number of args as an
  // implementation may not create an argument for an unused variable.
  if (config.feed_size() + config.variable_size() < num_args) {
    return errors::InvalidArgument(
        "mismatch between feed_size(", config.feed_size(), ")+variable_size(",

	PrivateKeySize = 64
	// SignatureSize is the size, in bytes, of signatures generated and verified by this package.
	SignatureSize = 64
	// SeedSize is the size, in bytes, of private key seeds. These are the private key representations used by RFC 8032.
	SeedSize = 32
)

// PublicKey is the type of Ed25519 public keys.
type PublicKey []byte

// Any methods implemented on PublicKey might need to also be implemented on

// bytes that represent host endianness values.
// The read_size parameter is present to allow reading both float16 and float32
// without a case split.
template <typename T>
llvm::SmallVector<mlir::APInt> ReadAsHostEndian(ArrayRef<uint8_t> bytes) {
  llvm::SmallVector<mlir::APInt> ret;
  size_t read_size = sizeof(T);
  int bytes_len = bytes.size();
  assert(bytes_len % read_size == 0);

  int elem_count = bytes_len / read_size;

	if boring.Enabled {
		t.Skip("skipping allocations test with BoringCrypto")
	}
	testenv.SkipIfOptimizationOff(t)

	if allocs := testing.AllocsPerRun(100, func() {
		seed := make([]byte, SeedSize)
		message := []byte("Hello, world!")
		priv := NewKeyFromSeed(seed)
		pub := priv.Public().(PublicKey)
		signature := Sign(priv, message)
		if !Verify(pub, message, signature) {

		if _, err := asn1.Unmarshal(privKey.PrivateKey, &curvePrivateKey); err != nil {
			return nil, fmt.Errorf("x509: invalid Ed25519 private key: %v", err)
		}
		if l := len(curvePrivateKey); l != ed25519.SeedSize {
			return nil, fmt.Errorf("x509: invalid Ed25519 private key length: %d", l)
		}
		return ed25519.NewKeyFromSeed(curvePrivateKey), nil

	case privKey.Algo.Algorithm.Equal(oidPublicKeyX25519):

  // CHECK-NEXT: "tf.AssignVariableOp"(%[[BUFFER]], %[[UPDATE]]) : (tensor<!tf_type.resource<tensor<10xf32>>>, tensor<10xf32>) -> ()
  // CHECK-NEXT: %[[CONST1:.*]] = "tf.Const"() <{value = dense<1> : tensor<1xi32>}> : () -> tensor<1xi32>

  bool signature_change;
  func::FuncOp decomposed_callee;
  llvm::SmallDenseMap<int64_t, int64_t> buffer_arg_to_size_arg;
  // Each element is a tuple of (buffer_return_index, size_return_index,
  // fixed_size).
  llvm::SmallVector<std::tuple<int64_t, int64_t, bool>, 8>
      buffer_ret_to_size_ret;
};

LogicalResult DecomposeTensorListOpsInternal(
    Block*, ModuleOp, llvm::SmallDenseMap<Value, SizeInfo>*,

	Geniv       [64]int8
	Blocksize   uint32
	Maxauthsize uint32
	Ivsize      uint32
}

type CryptoReportComp struct {
	Type [64]int8
}

type CryptoReportRNG struct {
	Type     [64]int8
	Seedsize uint32
}

type CryptoReportAKCipher struct {
	Type [64]int8
}

type CryptoReportKPP struct {
	Type [64]int8
}

type CryptoReportAcomp struct {
	Type [64]int8
}

	Geniv       [64]int8
	Blocksize   uint32
	Maxauthsize uint32
	Ivsize      uint32
}

type CryptoReportComp struct {
	Type [64]int8
}

type CryptoReportRNG struct {
	Type     [64]int8
	Seedsize uint32
}

type CryptoReportAKCipher struct {
	Type [64]int8
}

type CryptoReportKPP struct {
	Type [64]int8
}

type CryptoReportAcomp struct {
	Type [64]int8
}

	Blocksize   uint32
	Maxauthsize uint32
	Ivsize      uint32
}

type CryptoReportComp struct {
	Type [64]uint8
}

type CryptoReportRNG struct {
	Type     [64]uint8
	Seedsize uint32
}

type CryptoReportAKCipher struct {
	Type [64]uint8
}

type CryptoReportKPP struct {
	Type [64]uint8
}

type CryptoReportAcomp struct {
	Type [64]uint8
}