const OpDef* op_def;
      TF_RETURN_IF_ERROR(
          graph_->op_registry()->LookUpOpDef(node->type_string(), &op_def));
      if (op_def->is_stateful()) {
        // It is easiest to demonstrate the problem we're trying to solve with
        // an example.  Say we have this graph:
        //
        //   shape = RandomUniformInt();
        //   reshape = Reshape(input, shape)
        //

                    }
                }
            }
"""


        when:
        fails ":impl:checkDeps"

        then:
        failure.assertHasDescription("A problem occurred evaluating root project 'depsub'.")
        failure.assertHasCause("Project with path ':doesnotexist' not found in build ':'.")
    }

    private void stopRunningBuilds() {
        for (GradleHandle handle : running) {
            try {
                handle.abort().waitForExit();
            } catch (Exception e) {
                getLogger().warn("Problem stopping running build", e);
            }
        }
    }

    private void cleanupIsolatedDaemons() {
        List<DaemonLogsAnalyzer> analyzers = new ArrayList<>();

If the above isn't enough to pinpoint the problem, you can enable the `org.gradle.kotlin.dsl.logging.tapi` system property in your IDE. This will cause the Gradle Daemon to log extra information in its log file located in `$HOME/.gradle/daemon`. In IntelliJ IDEA this can be done by opening `Help > Edit Custom VM Options...` and adding `-Dorg.gradle.kotlin.dsl.logging.tapi=true`.

// parameters for random inputs. The types of arguments passed to (*F).Add must
// be identical to the types of these parameters. The fuzz target may signal
// that it's found a problem the same way tests do: by calling T.Fail (or any
// method that calls it like T.Error or T.Fatal) or by panicking.
//
// When fuzzing is enabled (by setting the -fuzz flag to a regular expression

					if dr == nil {
						// Don't bother giving the match conditions, the problem is that there are unknowns in the VirtualService
						mismatchNotes = append(mismatchNotes, fmt.Sprintf("Warning: Route to subset %s but NO DESTINATION RULE defining subsets!", dest.Destination.Subset))
					} else {
						// Don't bother giving the match conditions, the problem is that there are unknowns in the VirtualService
						mismatchNotes = append(mismatchNotes,

    }

    /**
     * Cuts this string up into alternating parameter names and values. This divides a query string
     * like `subject=math&easy&problem=5-2=3` into the list `["subject", "math", "easy", null,
     * "problem", "5-2=3"]`. Note that values may be null and may contain '=' characters.
     */
    private fun String.toQueryNamesAndValues(): MutableList<String?> {

func isProbeTerminationGracePeriodSecondsSet(pod *v1.Pod, containerSpec *v1.Container, probe *v1.Probe, containerName string, containerID kubecontainer.ContainerID, probeType string) bool {
	if probe != nil && probe.TerminationGracePeriodSeconds != nil {
		if *probe.TerminationGracePeriodSeconds > *pod.Spec.TerminationGracePeriodSeconds {

to download imported code. This functionality is critical to the decentralized
Go package ecosystem, in which code can be imported from any server,
but it is also a potential security problem, if a malicious server finds a
way to cause the invoked version control command to run unintended code.

To balance the functionality and security concerns, the 'go get' command

	//
	// This mechanism avoids the following problem:
	// - Pod A triggers allocation for claim X.
	// - Pod B shares access to that claim and gets scheduled because
	//   the claim is assumed to be allocated.
	// - PreBind for pod B is called first, tries to update reservedFor and
	//   fails because the claim is not really allocated yet.
	//
	// We could avoid the ordering problem by allowing either pod A or pod B