/**
     * This function is provided for a few use-cases where it's hard to go without it.
     *
     * **Please avoid using it**; it will probably be removed in the future.
     *
     * The function is instantly deprecated, so it's not shown in the completion.
     *
     * @receiver A target callable symbol.
     * @return A dispatch receiver type for this symbol if it has any.
     */

      #
      # If the probe is disabled, it is recommended to have delay=1s,period=2s,failureThreshold=30.
      # This ensures the startup is reasonable fast (polling every 2s). 1s delay is used since the startup is not often ready instantly.
      startupProbe:
        enabled: true
        failureThreshold: 600 # 10 minutes
      # Resources for the sidecar.
      resources:
        requests:
          cpu: 100m
          memory: 128Mi

      #
      # If the probe is disabled, it is recommended to have delay=1s,period=2s,failureThreshold=30.
      # This ensures the startup is reasonable fast (polling every 2s). 1s delay is used since the startup is not often ready instantly.
      startupProbe:
        enabled: true
        failureThreshold: 600 # 10 minutes

      # Resources for the sidecar.
      resources:
        requests:
          cpu: 100m

// written as happening atomically.
type traceLocker struct {
	mp  *m
	gen uintptr
}

// debugTraceReentrancy checks if the trace is reentrant.
//
// This is optional because throwing in a function makes it instantly
// not inlineable, and we want traceAcquire to be inlineable for
// low overhead when the trace is disabled.
const debugTraceReentrancy = false

// traceAcquire prepares this M for writing one or more trace events.

// They can limit the scaling velocity by specifying scaling policies.
// They can prevent flapping by specifying the stabilization window, so that the
// number of replicas is not set instantly, instead, the safest value from the stabilization
// window is chosen.
type HPAScalingRules struct {
	// stabilizationWindowSeconds is the number of seconds for which past recommendations should be

	// If the bug we expect is happening, then the Sleep CPU time will be accounted for
	// as user time rather than idle time. In an ideal world we'd expect the whole application
	// to go instantly idle the moment this goroutine goes to sleep, and stay asleep for that
	// duration. However, the Go runtime can easily eat into idle time while this goroutine is

// to emit a flow event from, indicating explicitly that this goroutine was unblocked by the system.
func (gs *gState[R]) blockedSyscallEnd(ts trace.Time, stack trace.Stack, ctx *traceContext) {
	name := "exit blocked syscall"
	gs.setStartCause(ts, name, trace.SyscallP, stack)

	// Emit an syscall exit instant event for the "Syscall" lane.
	ctx.Instant(traceviewer.InstantEvent{
		Name:     name,

        return injector.getInstance(Session.class);
    }

    static class DefaultSession extends AbstractSession {

        private final Map<String, String> systemProperties;
        private Instant startTime = Instant.now();

        DefaultSession(RepositorySystemSession session, RepositorySystem repositorySystem, Lookup lookup) {
            this(session, repositorySystem, Collections.emptyList(), null, lookup);
        }

          },
          "exemplar": true,
          "expr": "max(minio_node_drive_total{job=~\"$scrape_jobs\",server=\"$server\"})",
          "format": "table",
          "hide": false,
          "instant": true,
          "interval": "",
          "intervalFactor": 1,
          "legendFormat": "",
          "metric": "process_start_time_seconds",
          "refId": "A",
          "step": 60
        }

		return
	}

	// Construct the name to present.
	log := ev.Log()
	name := log.Message
	if log.Category != "" {
		name = "[" + log.Category + "] " + name
	}

	// Emit an instant event.
	ctx.Instant(traceviewer.InstantEvent{
		Name:     name,
		Ts:       ctx.elapsed(ev.Time()),
		Category: "user event",
		Resource: uint64(id),
		Stack:    ctx.Stack(viewerFrames(ev.Stack())),
	})