CMP	$0, R6
	BEQ	sigtramp    // g.m == nil
	MOVW	m_ncgo(R6), R7
	CMPW	$0, R7
	BEQ	sigtramp    // g.m.ncgo = 0
	MOVD	m_curg(R6), R7
	CMP	$0, R7
	BEQ	sigtramp    // g.m.curg == nil
	MOVD	g_syscallsp(R7), R7
	CMP	$0, R7
	BEQ	sigtramp    // g.m.curg.syscallsp == 0
	MOVD	m_cgoCallers(R6), R7 // R7 is the fifth arg in C calling convention.
	CMP	$0, R7
	BEQ	sigtramp    // g.m.cgoCallers == nil
	MOVW	m_cgoCallersUse(R6), R8

		// Examine the execution tracer's view of the CPU profile samples. Filter it
		// to only include samples from the single test goroutine. Use the goroutine
		// ID that was recorded in the events: that should reflect getg().m.curg,
		// same as the profiler's labels (even when the M is using its g0 stack).
		totalTraceSamples := 0
		traceSamples := 0
		traceStacks := make(map[string]int)
		r, err := trace.NewReader(bytes.NewReader(tb))

// See racecallback for command codes.
TEXT	runtime·racecallbackthunk(SB), NOSPLIT|NOFRAME, $0
	// Handle command raceGetProcCmd (0) here.
	// First, code below assumes that we are on curg, while raceGetProcCmd
	// can be executed on g0. Second, it is called frequently, so will
	// benefit from this fast path.
	MOVD	$0, R0		// clear R0 since we came from C code
	CMP	R3, $0
	BNE	rest

		if gp.trace.statusWasTraced(gen) {
			return
		}
		// Scribble down information about this goroutine.
		ug := untracedG{gp: gp, mid: -1}
		systemstack(func() {
			me := getg().m.curg
			// We don't have to handle this G status transition because we
			// already eliminated ourselves from consideration above.
			casGToWaitingForGC(me, _Grunning, waitReasonTraceGoroutineStatus)

	semacquire1(addr, false, 0, 0, waitReasonSemacquire)
}

func semacquire1(addr *uint32, lifo bool, profile semaProfileFlags, skipframes int, reason waitReason) {
	gp := getg()
	if gp != gp.m.curg {
		throw("semacquire not on the G stack")
	}

	// Easy case.
	if cansemacquire(addr) {
		return
	}

	// Harder case:
	//	increment waiter count

	sigmask       sigset            // storage for saved signal mask
	tls           [tlsSlots]uintptr // thread-local storage (for x86 extern register)
	mstartfn      func()
	curg          *g       // current running goroutine
	caughtsig     guintptr // goroutine running during fatal signal
	p             puintptr // attached p for executing go code (nil if not executing go code)
	nextp         puintptr

}

// GoStart emits a GoStart event.
//
// Must be called with a valid P.
func (tl traceLocker) GoStart() {
	gp := getg().m.curg
	pp := gp.m.p
	w := tl.eventWriter(traceGoRunnable, traceProcRunning)
	w = w.write(traceEvGoStart, traceArg(gp.goid), gp.trace.nextSeq(tl.gen))
	if pp.ptr().gcMarkWorkerMode != gcMarkWorkerNotWorker {

	// allocate and skew the stats.
	metricsLock()
	initMetrics()

	systemstack(func() {
		// Donate the racectx to g0. readMetricsLocked calls into the race detector
		// via map access.
		getg().racectx = getg().m.curg.racectx

		// Read the metrics once before in case it allocates and skews the metrics.
		// readMetricsLocked is designed to only allocate the first time it is called

	registry.AppendServiceHandler(c.handlers.NotifyServiceHandlers)
	registry.AppendServiceHandler(func(prev, curr *model.Service, event model.Event) {
		for _, handlers := range c.getClusterHandlers() {
			handlers.NotifyServiceHandlers(prev, curr, event)
		}
	})
}

func (c *Controller) getClusterHandlers() []*model.ControllerHandlers {
	c.storeLock.Lock()
	defer c.storeLock.Unlock()

    -o jsonpath='{.spec.ports[?(@.protocol=="TCP")].port}')
  echo "curl-ing $service address from Linux pod: $service_ip:$service_port"

  # curl-ing the metrics-server service downloads 14 bytes of unprintable binary
  # data and sets a return code of success (0).
  if ! $kubectl exec "$linux_command_pod" -- \
      curl -s -m 20 --insecure "https://$service_ip:$service_port" &> $output_file; then
    cleanup_deployments