// our test by setting a static field. We are changing the field in the parallel version of FRQ
    // and each test creates its own one of those, so there is no test interference here.
    Class<?> sepFrqSystemLoaderC =
        sepLoader.loadClass(FinalizableReferenceQueue.SystemLoader.class.getName());
    Field disabled = sepFrqSystemLoaderC.getDeclaredField("disabled");

	gmp := runtime.GOMAXPROCS(0)
	if gmp < 2 || runtime.NumCPU() < gmp {
		b.Skip("skipping with GOMAXPROCS < 2 or NumCPU < GOMAXPROCS")
	}

	// allocate memory now to avoid GC interference later.
	timerCount := gmp - 1
	stats := make([]struct {
		sum   float64
		max   Duration
		count int64
		_     [5]int64 // cache line padding
	}, timerCount)

			}
			if v.Op == OpStoreReg {
				s.values[v.Args[0].ID].spill = v
			}
		}
	}

	// Compute liveness info for values needing a slot.
	s.computeLive(spillLive)

	// Build interference graph among values needing a slot.
	s.buildInterferenceGraph()
}

func (s *stackAllocState) stackalloc() {
	f := s.f

	// Build map from values to their names, if any.

        then:
        fixture.taskCount == 1
        fixture.task(':longRunningTask').output == 'First incremental output\nSecond incremental output'
    }

    def "parses tasks with progress bar interference"() {
        given:
        def consoleOutput = """

		// so we do all our parsing manually in Run, below.
		// DisableFlagParsing=true provides the full set of flags passed to the kubelet in the
		// `args` arg to Run, without Cobra's interference.
		DisableFlagParsing: true,
		SilenceUsage:       true,
		RunE: func(cmd *cobra.Command, args []string) error {
			// initial flag parse, since we disable cobra's flag parsing