}
			trustAnchorSet = trustAnchorSet.Insert(string(b.Bytes))
		}
	}

	// Give the list a stable ordering that changes each time Kubelet restarts.
	trustAnchorList := sets.List(trustAnchorSet)
	rand.Shuffle(len(trustAnchorList), func(i, j int) {
		trustAnchorList[i], trustAnchorList[j] = trustAnchorList[j], trustAnchorList[i]
	})

	pemTrustAnchors := []byte{}
	for _, ta := range trustAnchorList {
		b := &pem.Block{

            spec.resolveStrategy = Closure.DELEGATE_FIRST
            spec()
            children.add(childBuilder)
        }

        ProjectDescriptor build() {
            children.shuffle()
            def childDescriptors = children*.build() as Set<TestProjectDescriptor>
            def thisProject = new TestProjectDescriptor()
            thisProject.name = name

      indexes.add(index);
      expectedBuilder.put(index, expectedLargeDatasetPercentile(index));
    }
    Random random = new Random(770683168895677741L);
    Collections.shuffle(indexes, random);
    assertThat(percentiles().indexes(Ints.toArray(indexes)).compute(PSEUDORANDOM_DATASET))
        .comparingValuesUsing(QUANTILE_CORRESPONDENCE)
        .containsExactlyEntriesIn(expectedBuilder.buildOrThrow());

				f0, f1, f2 = f1, f2, f0
			}
		} else {
			for i := 1; i < n; i++ {
				f2 := nat(nil).add(f1, f0) // allocate a new f2 each time
				f0, f1 = f1, f2
			}
		}
	}
	return f1 // was f2 before shuffle
}

var tests = []struct {
	n    int
	want string
}{
	{0, "0"},
	{1, "1"},
	{2, "1"},
	{3, "2"},
	{4, "3"},
	{5, "5"},
	{6, "8"},
	{7, "13"},
	{8, "21"},
	{9, "34"},

              return null;
            }
          });
    }
    assertEquals(allTasks.size() + 1, barrier.getParties());
    for (int i = 0; i < 1000; i++) {
      Collections.shuffle(allTasks);
      final AbstractFuture<String> future = new AbstractFuture<String>() {};
      currentFuture.set(future);
      for (Callable<?> task : allTasks) {

  // +optional
  optional int32 queues = 1;

  // `handSize` is a small positive number that configures the
  // shuffle sharding of requests into queues.  When enqueuing a request
  // at this priority level the request's flow identifier (a string
  // pair) is hashed and the hash value is used to shuffle the list
  // of queues and deal a hand of the size specified here.  The

  // +optional
  optional int32 queues = 1;

  // `handSize` is a small positive number that configures the
  // shuffle sharding of requests into queues.  When enqueuing a request
  // at this priority level the request's flow identifier (a string
  // pair) is hashed and the hash value is used to shuffle the list
  // of queues and deal a hand of the size specified here.  The

  // +optional
  optional int32 queues = 1;

  // `handSize` is a small positive number that configures the
  // shuffle sharding of requests into queues.  When enqueuing a request
  // at this priority level the request's flow identifier (a string
  // pair) is hashed and the hash value is used to shuffle the list
  // of queues and deal a hand of the size specified here.  The

  // +optional
  optional int32 queues = 1;

  // `handSize` is a small positive number that configures the
  // shuffle sharding of requests into queues.  When enqueuing a request
  // at this priority level the request's flow identifier (a string
  // pair) is hashed and the hash value is used to shuffle the list
  // of queues and deal a hand of the size specified here.  The

              return null;
            }
          });
    }
    assertEquals(allTasks.size() + 1, barrier.getParties());
    for (int i = 0; i < 1000; i++) {
      Collections.shuffle(allTasks);
      final AbstractFuture<String> future = new AbstractFuture<String>() {};
      currentFuture.set(future);
      for (Callable<?> task : allTasks) {