However, it's not because an artifact passes signature verification that you can trust it: you need to _trust the keys_.

In practice, it means you need to list the keys that you trust for each artifact, which is done by adding a `pgp` entry instead of a `sha1` for example:

[source,xml]
----

#ifndef GTEST_HAS_GLOBAL_STRING
// The user didn't tell us whether ::string is available, so we need
// to figure it out.

# define GTEST_HAS_GLOBAL_STRING 0

#endif  // GTEST_HAS_GLOBAL_STRING

#ifndef GTEST_HAS_STD_WSTRING
// The user didn't tell us whether ::std::wstring is available, so we need
// to figure it out.
// TODO(******@****.***): uses autoconf to detect whether ::std::wstring
//   is available.

 private:
  // Returns if any resources need lifting.
  bool NeedsLifting() const { return !resources_.empty(); }

  // Returns the number of results generated by the lifted op.
  int GetLiftedNumResults() const { return num_new_results_; }

  // Generates hoisted reads for resources that need them before the op.
  void GenerateHoistedReads();

		}
	}

	// Set the expire_nodest_conn sysctl we need for
	if err := proxyutil.EnsureSysctl(sysctl, sysctlExpireNoDestConn, 1); err != nil {
		return nil, err
	}

	// Set the expire_quiescent_template sysctl we need for
	if err := proxyutil.EnsureSysctl(sysctl, sysctlExpireQuiescentTemplate, 1); err != nil {
		return nil, err
	}

	// Set the ip_forward sysctl we need for

		// If k-1 is S-type (text[k-1] < text[k]), queue -k to save for the caller.
		// If k is zero, k-1 doesn't exist, so we only need to leave it
		// for the caller. The caller can't tell the difference between
		// an empty slot and a non-empty zero, but there's no need
		// to distinguish them anyway: the final suffix array will end up
		// with one zero somewhere, and that will be a real zero.
		k := j - 1

	}
	switch transport {
	case istionetworking.TransportProtocolTCP:
		// TODO: need to sanitize the opts.bind if its a UDS socket, as it could have colons, that envoy doesn't like
		res.Name = getListenerName(opts.bind, opts.port, istionetworking.TransportProtocolTCP)
		log.Debugf("buildGatewayListener: building TCP listener %s", res.Name)
		// TODO: need to sanitize the opts.bind if its a UDS socket, as it could have colons, that envoy doesn't like

            return true;
        }
        // We need to ignore external variants when all edges are artifact ones
        for (EdgeState incomingEdge : incomingEdges) {
            if (!incomingEdge.isArtifactOnlyEdge()) {
                return false;
            }
        }
        return true;
    }

    /*
     * When a node exits the graph, its constraints need to be cleaned up.
     * This means:

import static org.gradle.security.internal.SecuritySupport.toHexString

class DependencyVerificationSignatureCheckIntegTest extends AbstractSignatureVerificationIntegrationTest {

    def "doesn't need checksums if signature is verified"() {
        createMetadataFile {
            keyServer(keyServerFixture.uri)
            verifySignatures()
            addTrustedKey("org:foo:1.0", validPublicKeyHexString)

		return nil
	}
	return ds
}

// podsShouldBeOnNode figures out the DaemonSet pods to be created and deleted on the given node:
//   - nodesNeedingDaemonPods: the pods need to start on the node
//   - podsToDelete: the Pods need to be deleted on the node
//   - err: unexpected error
func (dsc *DaemonSetsController) podsShouldBeOnNode(
	logger klog.Logger,
	node *v1.Node,
	nodeToDaemonPods map[string][]*v1.Pod,

major release.

Plugin authors who want to stay compatible with older Gradle versions need to limit their API usage to a subset that is compatible with these old versions. It’s not really different from any other new API in Gradle. E.g. if we introduce a new API for dependency resolution and a plugin wants to use that API, then they either need to drop support for older Gradle versions or they need to do some clever organization of their code to only execute the new code path on newer versions....