{12, "SIGUSR2", "user defined signal 2"},
	{13, "SIGPIPE", "broken pipe"},
	{14, "SIGALRM", "alarm clock"},
	{15, "SIGTERM", "terminated"},
	{16, "SIGSTKFLT", "stack fault"},
	{17, "SIGCHLD", "child exited"},
	{18, "SIGCONT", "continued"},
	{19, "SIGSTOP", "stopped (signal)"},
	{20, "SIGTSTP", "stopped"},
	{21, "SIGTTIN", "stopped (tty input)"},
	{22, "SIGTTOU", "stopped (tty output)"},

${docker_output}

To retry manually, run:

DOCKER_CLI_EXPERIMENTAL=enabled ${build_cmd[*]}

EOF
    return 1
  }
}

function kube::build::ensure_data_container() {
  # If the data container exists AND exited successfully, we can use it.
  # Otherwise nuke it and start over.
  local ret=0
  local code=0

  code=$(docker inspect \
      -f '{{.State.ExitCode}}' \

				}
			}

			// Provide an explicit opportunity for this Go
			// routine to change Ms.
			runtime.Gosched()

			if once {
				// One waiter routine will have exited.
				routines--
			}

			// Whatever M we are now running on, confirm
			// we see the wanted value too.
			if v, _, e := syscall.Syscall(syscall.SYS_PRCTL, PR_GET_KEEPCAPS, 0, 0); e != 0 {

//
// The finalizer is scheduled to run at some arbitrary time after the
// program can no longer reach the object to which obj points.
// There is no guarantee that finalizers will run before a program exits,
// so typically they are useful only for releasing non-memory resources
// associated with an object during a long-running program.
// For example, an [os.File] object could use a finalizer to close the

// and deletes user-reported metrics.
// It does not affect whether the timer is running.
func (b *B) ResetTimer() {
	if b.extra == nil {
		// Allocate the extra map before reading memory stats.
		// Pre-size it to make more allocation unlikely.
		b.extra = make(map[string]float64, 16)
	} else {
		clear(b.extra)
	}
	if b.timerOn {
		runtime.ReadMemStats(&memStats)
		b.startAllocs = memStats.Mallocs

//
// Must be paired with a traceExitedSyscall call.
func traceExitingSyscall() {
	trace.exitingSyscall.Add(1)
}

// traceExitedSyscall marks a goroutine as having exited the syscall slow path.
func traceExitedSyscall() {
	trace.exitingSyscall.Add(-1)
}

// Gomaxprocs emits a ProcsChange event.
func (tl traceLocker) Gomaxprocs(procs int32) {

		defer func() {
			if r := recover(); r != nil {
				// We expect to crash, so exit 0
				// to indicate failure.
				os.Exit(0)
			}
		}()
		runtime.PanicForTesting(nil, 1)
		// We expect to crash, so exit 0 to indicate failure.
		os.Exit(0)
	}
	if os.Getenv("GO_TEST_RUNTIME_NPE_READMEMSTATS") == "1" {
		runtime.ReadMemStats(nil)
		os.Exit(0)
	}
	if os.Getenv("GO_TEST_RUNTIME_NPE_FUNCMETHOD") == "1" {

	// zero because the world is stopped and there are no available Ps for syscall-exited
	// goroutines to run on.
	//
	// Because we set gen before checking this, and because exitingSyscall is always incremented
	// *before* traceAcquire (which checks gen), we can be certain that when exitingSyscall is zero
	// that any goroutine that goes to exit a syscall from then on *must* observe the new gen as
	// well as trace.enabled being set to true.

		if rec := recover(); rec != nil {
			gridLogIf(ctx, fmt.Errorf("handleMessages: panic recovered: %v", rec))
			debug.PrintStack()
		}
		if debugPrint {
			fmt.Println("handleMessages: write goroutine exited")
		}
		cancel(ErrDisconnected)
		c.connChange.L.Lock()
		if atomic.CompareAndSwapUint32((*uint32)(&c.state), StateConnected, StateConnectionError) {
			c.connChange.Broadcast()
		}
		c.disconnected()

	MOVD	R0, R0	// NOP

// prepGoExitFrame saves the current TOC pointer (i.e. the TOC pointer for the
// module containing runtime) to the frame that goexit will execute in when
// the goroutine exits. It's implemented in assembly mainly because that's the
// easiest way to get access to R2.
TEXT runtime·prepGoExitFrame(SB),NOSPLIT,$0-8
	MOVD    sp+0(FP), R3
	MOVD    R2, 24(R3)
	RET