}
			return false
		}
		if trace != nil && trace.PutIdleConn != nil {
			trace.PutIdleConn(nil)
		}
		return true
	}

	// eofc is used to block caller goroutines reading from Response.Body
	// at EOF until this goroutines has (potentially) added the connection
	// back to the idle pool.
	eofc := make(chan struct{})
	defer close(eofc) // unblock reader on errors

	    Allocations made in C or using C.malloc are not counted.

	-blockprofile block.out
	    Write a goroutine blocking profile to the specified file
	    when all tests are complete.
	    Writes test binary as -c would.

	-blockprofilerate n
	    Control the detail provided in goroutine blocking profiles by
	    calling runtime.SetBlockProfileRate with n.
	    See 'go doc runtime.SetBlockProfileRate'.

// by a client to resume a TLS session with a given server. ClientSessionCache
// implementations should expect to be called concurrently from different
// goroutines. Up to TLS 1.2, only ticket-based resumption is supported, not
// SessionID-based resumption. In TLS 1.3 they were merged into PSK modes, which
// are supported via this interface.
type ClientSessionCache interface {

	// other goroutine has updated it in the meantime. We therefore cannot use
	// SSA here to add the pod because then we would have to send the entire slice
	// or use different field manager strings for each entry.
	//
	// With a strategic-merge-patch, we can simply send one new entry. The apiserver
	// validation will catch if two goroutines try to do that at the same time and

				if c.Namespace != attributesTest1.GetNamespace() {
					t.Errorf("Expected %s namespace, got %s", attributesTest1.GetNamespace(), c.Namespace)
				}
			}
		}()
	}

	// and here we wait for all the goroutines
	wg.Wait()
	// since all the calls with the same namespace will be holded, they must be catched on the singleflight group,
	// There are two different sets of namespace calls
	// hence only 2
	if testCount != 1 {

          "intervalFactor": 1,
          "legendFormat": "{{server}}",
          "metric": "process_start_time_seconds",
          "refId": "A",
          "step": 60
        }
      ],
      "title": "Goroutines",
      "type": "timeseries"
    },
    {
      "datasource": {
        "type": "prometheus",
        "uid": "${DS_PROMETHEUS}"
      },
      "fieldConfig": {
        "defaults": {

	// EOF) instead of (n, nil), to signal to the HTTP response reading
	// goroutine that the connection is now closed. This eliminates a race
	// where the HTTP response reading goroutine would otherwise not observe
	// the EOF until its next read, by which time a client goroutine might
	// have already tried to reuse the HTTP connection for a new request.

		s.parked = false

		// Ready the goroutine by injecting it. We use injectglist instead
		// of ready or goready in order to allow us to run this function
		// without a P. injectglist also avoids placing the goroutine in
		// the current P's runnext slot, which is desirable to prevent
		// the scavenger from interfering with user goroutine scheduling
		// too much.
		var list gList
		list.push(s.g)

	}

	tc.informerFactory.Start(tc.ctx.Done())
	t.Cleanup(func() {
		// Need to cancel before waiting for the shutdown.
		tCtx.Cancel("test is done")
		// Now we can wait for all goroutines to stop.
		tc.informerFactory.Shutdown()
	})

	tc.informerFactory.WaitForCacheSync(tc.ctx.Done())

	for _, node := range nodes {
		nodeInfo := framework.NewNodeInfo()
		nodeInfo.SetNode(node)

// debugCallV2 is the entry point for debugger-injected function
// calls on running goroutines. It informs the runtime that a
// debug call has been injected and creates a call frame for the
// debugger to fill in.
//
// To inject a function call, a debugger should:
// 1. Check that the goroutine is in state _Grunning and that
//    there are at least 256 bytes free on the stack.