{
					Signal: evictionapi.SignalNodeFsAvailable,
				},
				{
					Signal: evictionapi.SignalPIDAvailable,
				},
				{
					Signal: evictionapi.SignalMemoryAvailable,
				},
			},
			expected: []evictionapi.Threshold{
				{
					Signal: evictionapi.SignalMemoryAvailable,
				},
				{
					Signal: evictionapi.SignalNodeFsAvailable,
				},
				{

		exit(1)
	}

	// Save and block signals before getting an M.
	// The signal handler may call needm itself,
	// and we must avoid a deadlock. Also, once g is installed,
	// any incoming signals will try to execute,
	// but we won't have the sigaltstack settings and other data
	// set up appropriately until the end of minit, which will
	// unblock the signals. This is the same dance as when

		PressureTransitionPeriod: time.Minute * 5,
		Thresholds: []evictionapi.Threshold{
			{
				Signal:   evictionapi.SignalMemoryAvailable,
				Operator: evictionapi.OpLessThan,
				Value: evictionapi.ThresholdValue{
					Quantity: quantityMustParse("1Gi"),
				},
			},
			{
				Signal:   evictionapi.SignalMemoryAvailable,
				Operator: evictionapi.OpLessThan,
				Value: evictionapi.ThresholdValue{

)

// Signals
const (
	SIGABRT = syscall.Signal(0x6)
	SIGALRM = syscall.Signal(0xe)
	SIGFPE  = syscall.Signal(0x8)
	SIGHUP  = syscall.Signal(0x1)
	SIGILL  = syscall.Signal(0x4)
	SIGINT  = syscall.Signal(0x2)
	SIGIOT  = syscall.Signal(0x6)
	SIGKILL = syscall.Signal(0x9)
	SIGPIPE = syscall.Signal(0xd)
	SIGQUIT = syscall.Signal(0x3)
	SIGSEGV = syscall.Signal(0xb)

		}
	}

	prs, ok := peerResults[local]
	if ok {
		prs.WaitingDrives = waitingDrivesNode()
		peerResults[local] = prs
	}

	if globalIsDistErasure {
		// Notify all other MinIO peers signal service.
		ng := WithNPeers(len(globalNotificationSys.peerClients))
		for idx, client := range globalNotificationSys.peerClients {
			_, ok := failedClients[idx]
			if ok {
				continue
			}
			client := client

				reason = container.State.Terminated.Reason
			} else if container.State.Terminated != nil && container.State.Terminated.Reason == "" {
				if container.State.Terminated.Signal != 0 {
					reason = fmt.Sprintf("Signal:%d", container.State.Terminated.Signal)
				} else {
					reason = fmt.Sprintf("ExitCode:%d", container.State.Terminated.ExitCode)
				}
			} else if container.Ready && container.State.Running != nil {

	ErrWriteAfterFlush = errors.New("unused")
)

// A Handler responds to an HTTP request.
//
// [Handler.ServeHTTP] should write reply headers and data to the [ResponseWriter]
// and then return. Returning signals that the request is finished; it
// is not valid to use the [ResponseWriter] or read from the
// [Request.Body] after or concurrently with the completion of the
// ServeHTTP call.
//

	freeConn     []*driverConn // free connections ordered by returnedAt oldest to newest
	connRequests connRequestSet
	numOpen      int // number of opened and pending open connections
	// Used to signal the need for new connections
	// a goroutine running connectionOpener() reads on this chan and
	// maybeOpenNewConnections sends on the chan (one send per needed connection)

			} else {
				// If there are no input files passed to cmd/cover,
				// then we don't want to pass -covercfg when building
				// the package with the compiler, so set covermode to
				// the empty string so as to signal that we need to do
				// that.
				p.Internal.Cover.Mode = ""
			}
			if ba, ok := a.Actor.(*buildActor); ok && ba.covMetaFileName != "" {
				b.cacheObjdirFile(a, cache.Default(), ba.covMetaFileName)
			}
		}

  let summary = "2D real-valued fast Fourier transform.";

  let description = [{
Computes the 2-dimensional discrete Fourier transform of a real-valued signal
over the inner-most 2 dimensions of `input`.

Since the DFT of a real signal is Hermitian-symmetric, `RFFT2D` only returns the
`fft_length / 2 + 1` unique components of the FFT for the inner-most dimension