var pendingPodsSummary = "activeQ:%v; backoffQ:%v; unschedulablePods:%v"

// PendingPods returns all the pending pods in the queue; accompanied by a debugging string
// recording showing the number of pods in each queue respectively.
// This function is used for debugging purposes in the scheduler cache dumper and comparer.
func (p *PriorityQueue) PendingPods() ([]*v1.Pod, string) {
	p.lock.RLock()
	defer p.lock.RUnlock()

The Gradle build model makes heavy use of container objects (or just "containers").
For example, both `configurations` and `tasks` are container objects that contain `Configuration` and `Task` objects respectively.
Community plugins also contribute containers, like the `android.buildTypes` container contributed by the Android Plugin.

The Kotlin DSL provides several ways for build authors to interact with containers.

    # Many test cases for quantization involve creating and saving the input
    # model and saving the output quantized model. These two member
    # attributes can be used to specify the paths for such models,
    # respectively. These paths will be cleaned up after each test case.
    self._input_saved_model_path = self.create_tempdir('input').full_path
    self._output_saved_model_path = self.create_tempdir('output').full_path

		}
		if e != ERROR_INSUFFICIENT_BUFFER {
			return "", e
		}
		if n <= uint32(len(b)) {
			return "", e
		}
	}
}

// IsElevated returns whether the current token is elevated from a UAC perspective.
func (token Token) IsElevated() bool {
	var isElevated uint32
	var outLen uint32
	err := GetTokenInformation(token, TokenElevation, (*byte)(unsafe.Pointer(&isElevated)), uint32(unsafe.Sizeof(isElevated)), &outLen)

		}
	}
}

func TestNonController(t *testing.T) {
	testCases := []struct {
		name string
		refs []metav1.OwnerReference
		// The set and pod objets will be created with names "set" and "pod", respectively.
		setUID        types.UID
		podUID        types.UID
		nonController bool
	}{
		{
			// API validation should prevent two controllers from being set,

	}
	got1, got2 := b1.String(), b2.String()
	if got1 != want {
		t.Fatalf(`Template "foo" rendered %q, want %q`, got1, want)
	}
	if got1 != got2 {
		t.Fatalf(`Template "foo" and "bar" rendered %q and %q respectively, expected equal values`, got1, got2)
	}

// Instead we want {S,&,X} to denote the infinite list [S, S&X,
// S&X&X',S&X&X'&X'', ...] where X, X', X'' are predicates that assert Cond is
// true on iteration 0, 1, 2 respectively.  This is made more precise in the
// comment on the AndRecurrence class.
//
// The general algorithm that deals with cycles does two topological-order

	if getg() == gp.m.g0 {
		return
	}
	if mp := getg().m; mp.locks > 0 || mp.preemptoff != "" {
		return
	}

	// This extremely verbose boolean indicates whether we've
	// entered mark assist from the perspective of the tracer.
	//
	// In the tracer, this is just before we call gcAssistAlloc1
	// *regardless* of whether tracing is enabled. This is because
	// the tracer allows for tracing to begin (and advance

//    it prints message about the condition violation, including the
//    condition itself, plus additional message streamed into it, if any,
//    and then it aborts the program. It aborts the program irrespective of
//    whether it is built in the debug mode or not.
#define GTEST_CHECK_(condition) \
    GTEST_AMBIGUOUS_ELSE_BLOCKER_ \
    if (::testing::internal::IsTrue(condition)) \
      ; \
    else \

  // provided by users through jit_scope APIs, while _XlaInternalScope is
  // automatically generated by the ClusterScopingPass when auto_jit is on.  As
  // such, we respect _XlaScope only when auto_jit is off, while respecting
  // _XlaInternalScope only when auto_jit is on.
  //
  // We may want to restrict the _XlaScope behavior to require all nodes marked
  // with _XlaCompile=true to also have a _XlaScope property set (and raise an