self.assertCountEqual(root.signatures.keys(), {'serving_default'})
    new_outputs_1 = root.signatures['serving_default'](
        x=ops.convert_to_tensor(input_data)
    )

    root = load.load(output_saved_model_path_2)
    self.assertCountEqual(root.signatures.keys(), {'serving_default'})
    new_outputs_2 = root.signatures['serving_default'](
        x=ops.convert_to_tensor(input_data)
    )

	return checkSignature(c.SignatureAlgorithm, c.RawTBSCertificate, c.Signature, parent.PublicKey, false)
}

// CheckSignature verifies that signature is a valid signature over signed from
// c's public key.
//
// This is a low-level API that performs no validity checks on the certificate.
//
// [MD5WithRSA] signatures are rejected, while [SHA1WithRSA] and [ECDSAWithSHA1]
// signatures are currently accepted.

import org.jetbrains.kotlin.analysis.api.resolution.symbol
import org.jetbrains.kotlin.analysis.api.signatures.KaCallableSignature
import org.jetbrains.kotlin.analysis.api.signatures.KaFunctionLikeSignature
import org.jetbrains.kotlin.analysis.api.signatures.KaVariableLikeSignature
import org.jetbrains.kotlin.analysis.api.symbols.*
import org.jetbrains.kotlin.analysis.api.symbols.KaSymbol

   <configuration>
      <verify-metadata>false</verify-metadata>
      <verify-signatures>true</verify-signatures>
      <keyring-format>armored</keyring-format>
      <key-servers enabled="false"/>
      <trusted-artifacts>
         <trust group="gradle" name="gradle"/>

}

// signatureErr is a signature returned when an error occurs.
var signatureErr = [4]byte{'e', 'r', 'r', 0}

// getSignature will return a signature that is expected to be the same across all disks.
func (j xlMetaV2Version) getSignature() [4]byte {
	switch j.Type {
	case ObjectType:
		return j.ObjectV2.Signature()
	case DeleteType:
		return j.DeleteMarker.Signature()
	case LegacyType:

	// is being used (see RFC 4492, Section 5.1.2).
	SupportedPoints []uint8

	// SignatureSchemes lists the signature and hash schemes that the client
	// is willing to verify. SignatureSchemes is set only if the Signature
	// Algorithms Extension is being used (see RFC 5246, Section 7.4.1.4.1).
	SignatureSchemes []SignatureScheme

func (s brokenSigner) Sign(rand io.Reader, digest []byte, opts crypto.SignerOpts) (signature []byte, err error) {
	// Replace opts with opts.HashFunc(), so rsa.PSSOptions are discarded.
	return s.Signer.Sign(rand, digest, opts.HashFunc())
}

// TestPKCS1OnlyCert uses a client certificate with a broken crypto.Signer that
// always makes PKCS #1 v1.5 signatures, so can't be used with RSA-PSS.
func TestPKCS1OnlyCert(t *testing.T) {

		cert:   testECDSACertificate,
		key:    testECDSAPrivateKey,
	}

	runClientTestTLS10(t, test)
	runClientTestTLS12(t, test)
}

// TestHandshakeClientCertRSAPSS tests rsa_pss_rsae_sha256 signatures from both
// client and server certificates. It also serves from both sides a certificate
// signed itself with RSA-PSS, mostly to check that crypto/x509 chain validation
// works.

	req.URL.RawQuery = query.Encode()

	// Save signature finally.
	req.URL.RawQuery += "&Signature=" + url.QueryEscape(signature)
	return nil
}

// Sign given request using Signature V2.
func signRequestV2(req *http.Request, accessKey, secretKey string) error {
	signer.SignV2(*req, accessKey, secretKey, false)
	return nil
}

// Sign given request using Signature V4.

                                          context, input_pair.value()->name)}));
  }
  // Multiple signature outputs can refer to the same tensor. Avoid setting
  // signature output attribute at the same index by maintaining a set.
  std::set<int> seen_indices;
  for (const auto& output_pair : llvm::enumerate(signature->outputs)) {
    const int arg_index =
        GetTensorIndex(tensors[output_pair.value()->tensor_index]->name,