{45, "EL2NSYNC", "level 2 not synchronized"},
	{46, "EL3HLT", "level 3 halted"},
	{47, "EL3RST", "level 3 reset"},
	{48, "ELNRNG", "link number out of range"},
	{49, "EUNATCH", "protocol driver not attached"},
	{50, "ENOCSI", "no CSI structure available"},
	{51, "EL2HLT", "level 2 halted"},
	{52, "EBADE", "invalid exchange"},
	{53, "EBADR", "invalid request descriptor"},

	{45, "EL2NSYNC", "level 2 not synchronized"},
	{46, "EL3HLT", "level 3 halted"},
	{47, "EL3RST", "level 3 reset"},
	{48, "ELNRNG", "link number out of range"},
	{49, "EUNATCH", "protocol driver not attached"},
	{50, "ENOCSI", "no CSI structure available"},
	{51, "EL2HLT", "level 2 halted"},
	{52, "EBADE", "invalid exchange"},
	{53, "EBADR", "invalid request descriptor"},

	{45, "EL2NSYNC", "level 2 not synchronized"},
	{46, "EL3HLT", "level 3 halted"},
	{47, "EL3RST", "level 3 reset"},
	{48, "ELNRNG", "link number out of range"},
	{49, "EUNATCH", "protocol driver not attached"},
	{50, "ENOCSI", "no CSI structure available"},
	{51, "EL2HLT", "level 2 halted"},
	{52, "EBADE", "invalid exchange"},
	{53, "EBADR", "invalid request descriptor"},

// then, exactly one thread can call notesleep
// and exactly one thread can call notewakeup (once).
// once notewakeup has been called, the notesleep
// will return.  future notesleep will return immediately.
// subsequent noteclear must be called only after
// previous notesleep has returned, e.g. it's disallowed
// to call noteclear straight after notewakeup.
//

}

func sigblock(exiting bool) {
}

// Called to initialize a new m (including the bootstrap m).
// Called on the new thread, cannot allocate memory.
func minit() {
	if atomic.Load(&exiting) != 0 {
		exits(&emptystatus[0])
	}
	// Mask all SSE floating-point exceptions
	// when running on the 64-bit kernel.
	setfpmasks()
}

// Called from dropm to undo the effect of an minit.
func unminit() {
}

			return nil
		}
	}
	return getg()
}

// sigtrampgo is called from the signal handler function, sigtramp,
// written in assembly code.
// This is called by the signal handler, and the world may be stopped.
//
// It must be nosplit because getg() is still the G that was running
// (if any) when the signal was delivered, but it's (usually) called
// on the gsignal stack. Until this switches the G to gsignal, the

type ServiceHandler interface {
	// OnServiceAdd is called whenever creation of new service object
	// is observed.
	OnServiceAdd(service *v1.Service)
	// OnServiceUpdate is called whenever modification of an existing
	// service object is observed.
	OnServiceUpdate(oldService, service *v1.Service)
	// OnServiceDelete is called whenever deletion of an existing service
	// object is observed.

will be explicitly unblocked as described above. If Notify is called
for a blocked signal, it will be unblocked. If, later, Reset is
called for that signal, or Stop is called on all channels passed to
Notify for that signal, the signal will once again be blocked.

# SIGPIPE

When a Go program writes to a broken pipe, the kernel will raise a
SIGPIPE signal.

If the program has not called Notify to receive SIGPIPE signals, then

    @SuppressWarnings("unused") // Called by reflection
    private void privateMethod() {}

    @SuppressWarnings("unused") // Called by reflection
    void packagePrivateMethod() {}

    @SuppressWarnings("unused") // Called by reflection
    protected void protectedMethod() {}

    @SuppressWarnings("unused") // Called by reflection
    public void publicMethod() {}
  }

// Caller must hold worldsema.
//
// nosplit to ensure it can be called in as many contexts as possible.
//
//go:nosplit
func worldStarted() {
	if stopped := worldIsStopped.Add(-1); stopped != 0 {
		systemstack(func() {
			print("world stop count=", stopped, "\n")
			throw("released non-stopped world stop")
		})
	}
}

// nosplit to ensure it can be called in as many contexts as possible.
//
//go:nosplit