* the pipeline is cancelled.
   *
   * <p>All objects the pipeline has captured for closing will begin to be closed asynchronously
   * <b>after</b> the returned {@code Future} is done: the future completes before closing starts,
   * rather than once it has finished.
   *
   * <p>After calling this method, you may not call {@link
   * #finishToValueAndCloser(ValueAndCloserConsumer, Executor)}, this method, or any other

	var err error
	// skip overwrite of local update if peer sent stale info
	if !updatedAt.IsZero() {
		if p, err := globalIAMSys.store.GetPolicyDoc(policyName); err == nil && p.UpdateDate.After(updatedAt) {
			return nil
		}
	}
	if p == nil {
		err = globalIAMSys.DeletePolicy(ctx, policyName, true)
	} else {
		_, err = globalIAMSys.SetPolicy(ctx, policyName, *p)
	}
	if err != nil {

		opType:             op,
		replicationRequest: opts.ReplicationRequest,
	}
}

// mustReplicate returns 2 booleans - true if object meets replication criteria and true if replication is to be done in
// a synchronous manner.
func mustReplicate(ctx context.Context, bucket, object string, mopts mustReplicateOptions) (dsc ReplicateDecision) {
	// object layer not initialized we return with no decision.
	if newObjectLayerFn() == nil {
		return

        .throttleBody(1, 750, TimeUnit.MILLISECONDS)
        .build(),
    )

    // First request: time out after 1s.
    client =
      client.newBuilder()
        .readTimeout(Duration.ofSeconds(1))
        .build()
    executeSynchronously("/a").assertBody("abc")

    // Second request: time out after 250ms.
    client =
      client.newBuilder()
        .readTimeout(Duration.ofMillis(250))
        .build()

    // client has received the response.
    Thread.sleep(500)
    val response2 = getResponse(newRequest("/b"))
    response1.body.source().timeout().timeout(100, TimeUnit.MILLISECONDS)
    assertContent("This comes after a busted connection", response2)

    // Check that a fresh connection was created, either immediately or after attempting reuse.

  /** Weigher to weigh cache entries. */
  final Weigher<K, V> weigher;

  /** How long after the last access to an entry the map will retain that entry. */
  final long expireAfterAccessNanos;

  /** How long after the last write to an entry the map will retain that entry. */
  final long expireAfterWriteNanos;

  /** How long after the last write an entry becomes a candidate for refresh. */
  final long refreshNanos;

    executor.execute(
        new Runnable() {
          @Override
          public void run() {
            awaitUninterruptibly(beforeFunction);
          }
        });

    // Cancel the future after making input available.
    inputFuture.set("value");
    future.cancel(false);

    // Unpause the executor.
    beforeFunction.countDown();
    executor.shutdown();

</pre>

<p>
the variable <code>a</code> will be initialized after <code>b</code> but
whether <code>x</code> is initialized before <code>b</code>, between
<code>b</code> and <code>a</code>, or after <code>a</code>, and
thus also the moment at which <code>sideEffect()</code> is called (before
or after <code>x</code> is initialized) is not specified.
</p>

<p>

  /** Weigher to weigh cache entries. */
  final Weigher<K, V> weigher;

  /** How long after the last access to an entry the map will retain that entry. */
  final long expireAfterAccessNanos;

  /** How long after the last write to an entry the map will retain that entry. */
  final long expireAfterWriteNanos;

  /** How long after the last write an entry becomes a candidate for refresh. */
  final long refreshNanos;

    executor.execute(
        new Runnable() {
          @Override
          public void run() {
            awaitUninterruptibly(beforeFunction);
          }
        });

    // Cancel the future after making input available.
    inputFuture.set("value");
    future.cancel(false);

    // Unpause the executor.
    beforeFunction.countDown();
    executor.shutdown();