// to do this that has the defer'd func setting the value to be returned, but
	// that would be even less obvious.
	retErr := func() error {
		defer func() {
			if x := recover(); x != nil {
				panicErr = fmt.Errorf("caught panic: %+v", x)
			}
		}()
		return p.template.Execute(w, obj)
	}()
	if panicErr != nil {
		return panicErr
	}
	return retErr
}

func base64decode(v string) (string, error) {

		rv, err := versioner.ParseResourceVersion(resourceVersion)
		if err != nil {
			t.Fatal(err)
		}

		err = c.watchCache.waitUntilFreshAndBlock(context.TODO(), rv)
		if err != nil {
			t.Fatalf("WatchCache didn't caught up to RV: %v", rv)
		}
		c.watchCache.RUnlock()

		c.watchCache.Lock()
		defer c.watchCache.Unlock()
		c.Lock()
		defer c.Unlock()

		if c.watchCache.resourceVersion < rv {

   * they were registered.
   *
   * <p>RuntimeExceptions thrown by a listener will be caught and logged. Any exception thrown
   * during {@code Executor.execute} (e.g., a {@code RejectedExecutionException}) will be caught and
   * logged.
   *
   * @param listener the listener to run when the service changes state is complete

Vet examines Go source code and reports suspicious constructs, such as Printf
calls whose arguments do not align with the format string. Vet uses heuristics
that do not guarantee all reports are genuine problems, but it can find errors
not caught by the compilers.

Vet is normally invoked through the go command.
This command vets the package in the current directory:

	go vet

whereas this one vets the packages whose path is provided:

   * they were registered.
   *
   * <p>RuntimeExceptions thrown by a listener will be caught and logged. Any exception thrown
   * during {@code Executor.execute} (e.g., a {@code RejectedExecutionException}) will be caught and
   * logged.
   *
   * @param listener the listener to run when the service changes state is complete

	if (ss.ss_sp == NULL) {
		die("malloc");
	}
	ss.ss_flags = 0;
	ss.ss_size = CSIGSTKSZ;
	if (sigaltstack(&ss, NULL) < 0) {
		die("sigaltstack");
	}

	// Send ourselves a SIGIO.  This will be caught by the Go
	// signal handler which should forward to the C signal
	// handler.
	i = pthread_kill(pthread_self(), SIGIO);
	if (i != 0) {
		fprintf(stderr, "pthread_kill: %s\n", strerror(i));
		exit(EXIT_FAILURE);
	}

				if err != nil {
					return
				}
			}
		}
		p.last = b
	}
	if len(data) > n {
		m, err = p.output.Write(data[n:])
		n += m
	}
	return
}

// writeError wraps locally caught write errors so we can distinguish
// them from genuine panics which we don't want to return as errors.
type writeError struct {
	err error
}

// printf is a convenience wrapper that takes care of print errors.

   * #containsKey} to forward to this implementation.
   *
   * @since 7.0
   */
  @Override
  protected boolean standardContainsKey(@CheckForNull Object key) {
    try {
      // any CCE or NPE will be caught
      @SuppressWarnings({"unchecked", "nullness"})
      SortedMap<@Nullable Object, V> self = (SortedMap<@Nullable Object, V>) this;
      Object ceilingKey = self.tailMap(key).firstKey();

   * #containsKey} to forward to this implementation.
   *
   * @since 7.0
   */
  @Override
  protected boolean standardContainsKey(@CheckForNull Object key) {
    try {
      // any CCE or NPE will be caught
      @SuppressWarnings({"unchecked", "nullness"})
      SortedMap<@Nullable Object, V> self = (SortedMap<@Nullable Object, V>) this;
      Object ceilingKey = self.tailMap(key).firstKey();

		//
		// Sends the first SIGSEGV and lets lldb catch the
		// second one, avoiding a loop that locks up iOS
		// devices requiring a hard reboot.
		fprintf(stderr, "runtime/cgo: caught exc_bad_access\n");
		fprintf(stderr, "__lr = %llx\n", thread_state.ts_64.__lr);
		fprintf(stderr, "__pc = %llx\n", thread_state.ts_64.__pc);
		static int pass1 = 0;
		if (pass1) {
			return KERN_FAILURE;
		}