// it, but that complicates signal handling.
		handoffp(releasep())
		lock(&sched.lock)
		sched.nmfreed++
		checkdead()
		unlock(&sched.lock)
		mPark()
		throw("locked m0 woke up")
	}

	sigblock(true)
	unminit()

	// Free the gsignal stack.
	if mp.gsignal != nil {
		stackfree(mp.gsignal.stack)

*/

package runtime

/*
#define __DARWIN_UNIX03 0
#include <mach/mach_time.h>
#include <sys/types.h>
#include <sys/time.h>
#include <errno.h>
#include <signal.h>
#include <sys/event.h>
#include <sys/mman.h>
#include <pthread.h>
#include <fcntl.h>
*/
import "C"

const (
	EINTR     = C.EINTR
	EFAULT    = C.EFAULT
	EAGAIN    = C.EAGAIN

        when:
        contendedAction.accept(signal)

        then:
        1 * lock.close()
        1 * signal.trigger()
        0 * _
    }

    def "releases retained lock at completion of action on contention"() {
        def action = Mock(Supplier)
        def lock = Mock(FileLock)
        def signal = Mock(FileLockReleasedSignal)
        Consumer contendedAction

        when:

    }

    public static <T extends Signal> ExponentialBackoff<T> of(int amount, TimeUnit unit, T signal) {
        return new ExponentialBackoff<T>((int) TimeUnit.MILLISECONDS.convert(amount, unit), signal, SLOT_TIME);
    }

    public static ExponentialBackoff<Signal> of(int amount, TimeUnit unit, int slotTime, TimeUnit slotTimeUnit) {

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

	case <-c.quic.cancelc:
		return c.sendAlertLocked(alertCloseNotify)
	}
	// The QUICConn reads from signalc to notify us that the handshake may
	// be able to proceed. (The QUICConn reads, because we close signalc to
	// indicate that the handshake has completed.)
	select {
	case c.quic.signalc <- struct{}{}:
		c.hand.Write(c.quic.readbuf)
		c.quic.readbuf = nil
	case <-c.quic.cancelc:

	"runtime"
	"syscall"
	"time"
)

// The only signal values guaranteed to be present in the os package
// on all systems are Interrupt (send the process an interrupt) and
// Kill (force the process to exit). Interrupt is not implemented on
// Windows; using it with [os.Process.Signal] will return an error.
var (
	Interrupt Signal = syscall.Note("interrupt")
	Kill      Signal = syscall.Note("kill")
)

	return e == EINTR || e == EMFILE || e.Timeout()
}

func (e Errno) Timeout() bool {
	return e == EAGAIN || e == ETIMEDOUT
}

// A Signal is a number describing a process signal.
// It implements the [os.Signal] interface.
type Signal uint8

const (
	SIGNONE Signal = iota
	SIGHUP
	SIGINT
	SIGQUIT
	SIGILL
	SIGTRAP
	SIGABRT
	SIGBUS
	SIGFPE
	SIGKILL
	SIGUSR1
	SIGSEGV
	SIGUSR2

	"runtime"
	"syscall"
)

// The only signal values guaranteed to be present in the os package on all
// systems are os.Interrupt (send the process an interrupt) and os.Kill (force
// the process to exit). On Windows, sending os.Interrupt to a process with
// os.Process.Signal is not implemented; it will return an error instead of
// sending a signal.
var (
	Interrupt Signal = syscall.SIGINT
	Kill      Signal = syscall.SIGKILL
)

      terminated:
        containerID: containerIDValue
        exitCode: 1
        finishedAt: "2006-01-01T01:01:01Z"
        message: messageValue
        reason: reasonValue
        signal: 2
        startedAt: "2005-01-01T01:01:01Z"
      waiting:
        message: messageValue
        reason: reasonValue
    name: nameValue
    ready: true
    resources:
      claims:
      - name: nameValue