* problems can exist with methods like FutureTask.done(), not to mention slow calls to
         * Thread.interrupt() (as discussed in InterruptibleTask). At the end of the day, it's
         * unlikely that cancel() will be slow, so we can probably get away with calling it while
         * holding a lock. Still, it would be nice to avoid somehow.
         */

    assertTrue(enormous instanceof RegularContiguousSet);
    // We can't use reserializeAndAssert because it calls hashCode, which is enormously slow.
    ContiguousSet<Integer> enormousReserialized = reserialize(enormous);
    assertEquals(enormous, enormousReserialized);
  }

  private static final DiscreteDomain<Integer> UNBOUNDED_THROWING_DOMAIN =

            });

            cbWithMetrics.executeWithCircuitBreaker(() -> {
                try {
                    Thread.sleep(300);
                } catch (InterruptedException e) {}
                return "slow";
            });

            // Check metrics
            assertTrue(cbWithMetrics.getAverageResponseTime() > 0, "Average response time should be tracked");

        }
    }

    /**
     * Repeatedly match the pattern to the string, calling the closure with the
     * matchers each time there is a match. If there are characters that don't
     * match then blow up. If the closure takes two parameters then the second
     * one is "is this the last match?".
     */
    protected parse(String location, String s, String pattern, Closure c) {
        if (s == null) {

        .withFeatures(features)
        .suppressing(parentBuilder.getSuppressedTests())
        .createTestSuite();
  }

  /**
   * Returns an array of four bogus elements that will always be too high or too low for the
   * display. This includes two values for each extreme.
   *
   * <p>This method (dangerously) assume that the strings {@code "!! a"} and {@code "~~ z"} will

:= 0; i < 2; i++ { word := y.high if i == 1 { word = y.low } // Multiplication works by multiplying z by 16 and adding in // one of the precomputed multiples of H. for j := 0; j < 64; j += 4 { msw := z.high & 0xf z.high >>= 4 z.high |= z.low << 60 z.low >>= 4 z.low ^= uint64(ghashReductionTable[msw]) << 48 // the values in |table| are ordered for little-endian bit // positions. See the comment in New. t := productTable[word&0xf] z.low ^= t.low z.high ^= t.high word >>= 4 } } *y = z } // updateBlocks...

    HashTestUtils.assertInvariants(Hashing.fingerprint2011());
    assertThat(Hashing.fingerprint2011().toString()).isEqualTo("Hashing.fingerprint2011()");
  }

  @AndroidIncompatible // slow TODO(cpovirk): Maybe just reduce iterations under Android.
  public void testGoodFastHash() {
    for (int i = 1; i < 200; i += 17) {
      HashFunction hasher = Hashing.goodFastHash(i);

  final boolean threadStarted;

  /** Constructs a new queue. */
  public FinalizableReferenceQueue() {
    // We could start the finalizer lazily, but I'd rather it blow up early.
    queue = new ReferenceQueue<>();
    frqRef = new PhantomReference<>(this, queue);
    boolean threadStarted = false;
    try {

	// WorkerMinLimit min number of workers per node for "slow" mode
	WorkerMinLimit = 50

	// WorkerAutoDefault is default number of workers for "auto" mode
	WorkerAutoDefault = 100

	// MRFWorkerMaxLimit max number of mrf workers per node for "fast" mode
	MRFWorkerMaxLimit = 8

	// MRFWorkerMinLimit min number of mrf workers per node for "slow" mode
	MRFWorkerMinLimit = 2

:= 0; i < 2; i++ { word := y.high if i == 1 { word = y.low } // Multiplication works by multiplying z by 16 and adding in // one of the precomputed multiples of H. for j := 0; j < 64; j += 4 { msw := z.high & 0xf z.high >>= 4 z.high |= z.low << 60 z.low >>= 4 z.low ^= uint64(ghashReductionTable[msw]) << 48 // the values in |table| are ordered for little-endian bit // positions. See the comment in New. t := productTable[word&0xf] z.low ^= t.low z.high ^= t.high word >>= 4 } } *y = z } // updateBlocks...