keeps their state close to the point of panic. Setting
	dontfreezetheworld=1 disables this preemption, allowing goroutines to
	continue executing during panic processing. Note that goroutines that
	naturally enter the scheduler will still stop. This can be useful when
	debugging the runtime scheduler, as freezetheworld perturbs scheduler
	state and thus may hide problems.

	efence: setting efence=1 causes the allocator to run in a mode

	}
	if state.status != go122.GoRunning {
		return curCtx, false, fmt.Errorf("%s event for goroutine that's not %s", go122.EventString(ev.typ), GoRunning)
	}
	// Goroutine entered a syscall. It's still running on this P and M.
	state.status = go122.GoSyscall
	pState, ok := o.pStates[curCtx.P]
	if !ok {

### Using Components

The framework itself is just a platform for running tests and tracking resources. Without these `resources`, there
isn't much added value. Enter: components.

Components are utilities that provide abstractions for Istio resources. They are maintained in the
[components package](https://github.com/istio/istio/tree/master/pkg/test/framework/components), which defines

	// and thinks that the waitgroup inside httptest.Server is added to concurrently
	// with us closing it. If we timed out immediately, we could close the testserver
	// before we entered the handler. We're not timing out immediately and there's
	// no way we would be done before we entered the handler, but the race detector
	// doesn't know this, so synchronize explicitly.
	defer func() { donec <- true }()

	cst.c.Timeout = 5 * time.Millisecond

// - The goroutine lost its P and acquired a different one, and is now running with that P.
func (tl traceLocker) GoSysExit(lostP bool) {
	ev := traceEvGoSyscallEnd
	procStatus := traceProcSyscall // Procs implicitly enter traceProcSyscall on GoSyscallBegin.
	if lostP {
		ev = traceEvGoSyscallEndBlocked
		procStatus = traceProcRunning // If a G has a P when emitting this event, it reacquired a P and is indeed running.
	} else {

	// the $GOMAXPROCS accounting.
	//
	// fn may call back into Go code, in which case we'll exit the
	// "system call", run the Go code (which may grow the stack),
	// and then re-enter the "system call" reusing the PC and SP
	// saved by entersyscall here.
	entersyscall()

	// Tell asynchronous preemption that we're entering external
	// code. We do this after entersyscall because this may block

			fmt.Println("Refer to the docs here on how to run it as a Windows Service https://github.com/minio/minio-service/tree/master/windows")
			fmt.Println("Press the Enter Key to Exit")
			fmt.Scanln()
			os.Exit(1)
		}
	}

	logger.Init(GOPATH, GOROOT)
	logger.RegisterError(config.FmtError)

	globalBatchJobsMetrics = batchJobMetrics{metrics: make(map[string]*batchJobInfo)}

		semconv.K8SPodNameKey.String(pod.Name),
		attribute.String("k8s.pod.update_type", updateType.String()),
		semconv.K8SNamespaceNameKey.String(pod.Namespace),
	))
	klog.V(4).InfoS("SyncPod enter", "pod", klog.KObj(pod), "podUID", pod.UID)
	defer func() {
		klog.V(4).InfoS("SyncPod exit", "pod", klog.KObj(pod), "podUID", pod.UID, "isTerminal", isTerminal)
		otelSpan.End()
	}()

	if err != nil {
		logger.V(4).Info("Updating PersistentVolumeClaim status: cannot update internal cache", "PVC", klog.KObj(claim), "err", err)
		return newClaim, err
	}
	logger.V(2).Info("Claim entered phase", "PVC", klog.KObj(claim), "phase", phase)
	return newClaim, nil
}

// updateClaimStatusWithEvent saves new claim.Status to API server and emits

	return fmt.Sprintf("Name:%s Port:%d Protocol:%v", p.Name, p.Port, p.Protocol)
}

// PortList is a set of ports
type PortList []*Port

// TrafficDirection defines whether traffic exists a service instance or enters a service instance
type TrafficDirection string

const (
	// TrafficDirectionInbound indicates inbound traffic
	TrafficDirectionInbound TrafficDirection = "inbound"