then:
        assertXmlContents """<?xml version="1.0" encoding="UTF-8"?>
<verification-metadata>
   <configuration>
      <verify-metadata>true</verify-metadata>
      <verify-signatures>true</verify-signatures>
      <key-servers>
         <key-server uri="${keyServerFixture.uri}"/>
      </key-servers>
      <trusted-keys>

}

// A Note is a text and signatures.
type Note struct {
	Text           string      // text of note
	Sigs           []Signature // verified signatures
	UnverifiedSigs []Signature // unverified signatures
}

// A Signature is a single signature found in a note.
type Signature struct {
	// Name and Hash give the name and key hash
	// for the key that generated the signature.
	Name string
	Hash uint32

        then:
        contents == """<?xml version="1.0" encoding="UTF-8"?>
<verification-metadata>
   <configuration>
      <verify-metadata>$verifyMetadata</verify-metadata>
      <verify-signatures>$verifySignatures</verify-signatures>
   </configuration>
   <components/>
</verification-metadata>
"""
        and:
        hasNamespaceDeclaration()

        and:
        validateAgainstSchemasSince("1.3")

      signatures = &saved_objects.nodes(child.node_id());
    }
  }

  // Some basic sanity checks that this object is actually our "signatures" map
  if (signatures == nullptr) {
    // This is where the "signatures" attribute is always set:
    // https://github.com/tensorflow/tensorflow/blob/a2c542a0d83227568f9214a2af9a38ae3625976f/tensorflow/python/saved_model/save.py#L1106-L1109
    return errors::FailedPrecondition(

  graph.

  Args:
    signature_def_map: the signatures to validate.
    exported_graph: The PTQ-exported GraphDef.

  Returns:
    The signatures with tensor names prefixed with signature name if necessary.

  Raises:
    ValueError: Iff the signatures are not consistent with the graph.
  """
  for signature_key, signature_def in signature_def_map.items():

        }

        for (Signature.Generator signature : sanitizedGenerators().values()) {
            signature.generate();
        }
    }

    /**
     * The signatures generated by this task.
     */
    @Internal
    public DomainObjectSet<Signature> getSignatures() {
        return signatures.get();
    }

    /**

        return {'output': out}

    model = EinsumModel()
    signatures = {
        'serving_default': model.einsum_with_kernel.get_concrete_function(
            tensor_spec.TensorSpec(
                name='x', shape=x_signature, dtype=dtypes.float32
            )
        ),
    }
    saved_model_save.save(model, saved_model_path, signatures=signatures)

        }

        and:
        assertXmlContents """<?xml version="1.0" encoding="UTF-8"?>
<verification-metadata>
   <configuration>
      <verify-metadata>true</verify-metadata>
      <verify-signatures>false</verify-signatures>
      <trusted-artifacts>
         <trust group="dummy" name="artifact"/>
         <trust group="other" name="artifact" version="with" file="file.jar" regex="true"/>
      </trusted-artifacts>

Plugin adds the ability to digitally sign built files and artifacts. These digital signatures can then be used to prove who built the artifact the signature is attached to as well as other information such as when the signature was generated.

The Signing Plugin currently only provides support for generating https://en.wikipedia.org/wiki/Pretty_Good_Privacy#OpenPGP[OpenPGP signatures] (which is the signature format http://central.sonatype.org/pages/requirements.html#sign-files-with-gpgpgp[required...

func (s *Signature) TypeParams() *TypeParamList { return s.tparams }

// RecvTypeParams returns the receiver type parameters of signature s, or nil.
func (s *Signature) RecvTypeParams() *TypeParamList { return s.rparams }

// Params returns the parameters of signature s, or nil.
func (s *Signature) Params() *Tuple { return s.params }

// Results returns the results of signature s, or nil.