/**
   * Invokes a specified Callable, timing out after the specified time limit. If the target method
   * call finishes before the limit is reached, the return value or a wrapped exception is
   * propagated. If, on the other hand, the time limit is reached, we attempt to abort the call to
   * the target, and throw a {@link TimeoutException} to the caller.
   *

}

func TestTestFSWrappedErrors(t *testing.T) {
	err := TestFS(failPermFS{})
	if err == nil {
		t.Fatal("error expected")
	}
	t.Logf("Error (expecting wrapped fs.ErrPermission):\n%v", err)

	if !errors.Is(err, fs.ErrPermission) {
		t.Errorf("error should be a wrapped ErrPermission: %#v", err)
	}

	// TestFS is expected to return a list of errors.
	// Enforce that the list can be extracted for browsing.

    after a _TPUCompileMlir op if there is no predecessor _TPUCompileMlir op.
    Both the embedding op and compile op are assumed to be wrapped in separate
    tf_device.launch() ops. This is because the embedding op is head outside
    compiled and the compile op is wrapped in launch to execute on host
    during TPURewritePass.

    For example, the tf.OpA with the `mini_batch_splits` attribute will be

		// Try looking at the code to see if it's a breakpoint.
		// The assumption is that we're very unlikely to get an
		// asynchronous SIGTRAP at just the moment that the
		// PC started to point at unmapped memory.
		pc := uintptr(c.rip())
		// OS X will leave the pc just after the INT 3 instruction.
		// INT 3 is usually 1 byte, but there is a 2-byte form.
		code := (*[2]byte)(unsafe.Pointer(pc - 2))

   * running will have the given name.
   *
   * @param callable The callable to wrap
   * @param nameSupplier The supplier of thread names, {@link Supplier#get get} will be called once
   *     for each invocation of the wrapped callable.
   */
  @J2ktIncompatible
  @GwtIncompatible // threads
  static <T extends @Nullable Object> Callable<T> threadRenaming(
      Callable<T> callable, Supplier<String> nameSupplier) {

func NewVerifier(opts x509.VerifyOptions, auth authenticator.Request, allowedCommonNames sets.String) authenticator.Request {
	return NewDynamicCAVerifier(StaticVerifierFn(opts), auth, StaticStringSlice(allowedCommonNames.List()))
}

// NewDynamicCAVerifier create a request.Authenticator by verifying a client cert on the request, then delegating to the wrapped auth

	}
}

// CancelRequest is propagated to the Delegate RoundTripper within
// if the wrapped RoundTripper implements this function.
func (c *CommandHeaderRoundTripper) CancelRequest(req *http.Request) {
	type canceler interface {
		CancelRequest(*http.Request)
	}
	// If possible, call "CancelRequest" on the wrapped Delegate RoundTripper.
	if cr, ok := c.Delegate.(canceler); ok {
		cr.CancelRequest(req)
	}

// be discarded.
type WrappedStatus struct {
	// Status is the object that is wrapped.
	config.Status
	// Dirty indicates if this object has been modified at all.
	// Note: only changes wrapped in Mutate are tracked.
	Dirty bool
}

func Wrap(s config.Status) *WrappedStatus {
	return &WrappedStatus{config.DeepCopy(s), false}
}

                @Inject
                public abstract Problems getProblems();

                @Override
                public void execute() {
                    Exception wrappedException = new Exception("Wrapped cause");
                    // Create and report a problem
                    // This needs to be Java 6 compatible, as we are in a worker

		},
		"UpgradeFailure error should return true": {
			err:      &UpgradeFailureError{},
			expected: true,
		},
		"Wrapped Non-UpgradeFailure error should return false": {
			err:      fmt.Errorf("%s: %w", "first error", errors.New("Non-upgrade error")),
			expected: false,
		},
		"Wrapped UpgradeFailure error should return true": {
			err:      fmt.Errorf("%s: %w", "first error", &UpgradeFailureError{}),
			expected: true,