// CRI implementation will use to handle pods of this class. The possible
  // values are specific to the node & CRI configuration.  It is assumed that
  // all handlers are available on every node, and handlers of the same name are
  // equivalent on every node.
  // For example, a handler called "runc" might specify that the runc OCI
  // runtime (using native Linux containers) will be used to run the containers
  // in a pod.

    protected DependencyTraverser getDependencyTraverser() {
        return new FatArtifactTraverser();
    }

    protected DependencyManager getDependencyManager() {
        return getDependencyManager(true); // same default as in Maven4
    }

    public DependencyManager getDependencyManager(boolean transitive) {
        return new ClassicDependencyManager(transitive, getScopeManager());
    }

    }

    protected InternalScopeManager getScopeManager() {
        return scopeManager;
    }

    protected DependencyManager getDependencyManager() {
        return getDependencyManager(true); // same default as in Maven4
    }

    public DependencyManager getDependencyManager(boolean transitive) {
        return new ClassicDependencyManager(transitive, getScopeManager());
    }

   * (unless the executor has been shutdown).
   *
   * <p>The returned executor is backed by the executor returned by {@link
   * MoreExecutors#newDirectExecutorService} and subject to the same constraints.
   *
   * <p>Although all tasks are immediately executed in the thread that submitted the task, this
   * {@code ExecutorService} imposes a small locking overhead on each task submission in order to

				w.mu.Unlock()
				return
			}
			w.wait.Wait()
			w.waiting--
		}

		// Pick something to do at random,
		// to eliminate pathological contention
		// in case items added at about the same time
		// are most likely to contend.
		i := rand.Intn(len(w.todo))
		item := w.todo[i]
		w.todo[i] = w.todo[len(w.todo)-1]
		w.todo = w.todo[:len(w.todo)-1]
		w.mu.Unlock()

		w.f(item)
	}
}

// A State holds the state for a single random generator.
// It must be used from one goroutine at a time.
// If used by multiple goroutines at a time, the goroutines
// may see the same random values, but the code will not
// crash or cause out-of-bounds memory accesses.
type State struct {
	buf  [32]uint64
	seed [4]uint64
	i    uint32
	n    uint32
	c    uint32
}

	// counter value corresponding to the "HERE" block, which will
	// then be interpreted as the start of another live function.
	// Things will go downhill from there.
	//
	// This same scenario is also a potential risk if the program is
	// running on an architecture that permits reordering of
	// writes/stores, since the inconsistency described above could
	// arise here. Example scenario:
	//

func ServiceName(n echo.NamespacedName) Matcher {
	return func(i echo.Instance) bool {
		return n == i.NamespacedName()
	}
}

// AnyServiceName matches instances if they have the same Service and Namespace as any of the provided instances.
func AnyServiceName(expected echo.NamespacedNames) Matcher {
	return func(instance echo.Instance) bool {
		serviceName := instance.NamespacedName()

            diff = artifact1.getType().compareTo(artifact2.getType());
            if (diff != 0) {
                return diff;
            }
            // Use an arbitrary ordering when the artifacts have the same public attributes
            return Integer.compare(artifact1.hashCode(), artifact2.hashCode());
        }
    }

// The test uses naked client (no sidecar) with custom certificates of different trust domains and covers the following:
// - plaintext requests are not affected
// - same trust domain (cluster.local) and aliases (trust-domain-foo and trust-domain-bar)
// - works for both HTTP and TCP protocol
// - works for pass through filter chains
func TestTrustDomainValidation(t *testing.T) {