stdout.stdOut.contains("- main build node (state=SHOULD_RUN")
        stdout.stdOut.contains("- :task (state=SHOULD_RUN")
        stdout.stdOut.contains("- Ordinal groups: group 0 entry nodes: [:task (SHOULD_RUN)]")
        stdout.stdOut.contains("- Build ':child':")
        stdout.stdOut.contains("- child build node (state=SHOULD_RUN")
        stdout.stdOut.contains("- :child:task (state=SHOULD_RUN")

	}

	return adapters
}

func (n *networkCounter) listInterfaceStats() []cadvisorapi.InterfaceStats {
	stats := make([]cadvisorapi.InterfaceStats, 0, len(n.adapterStats))
	for _, stat := range n.adapterStats {
		stats = append(stats, stat)
	}
	return stats

			j := j
			expectedWakeup := Now().Add(delay)
			AfterFunc(delay, func() {
				late := Since(expectedWakeup)
				if late < 0 {
					late = 0
				}
				stats[j].count++
				stats[j].sum += float64(late.Nanoseconds())
				if late > stats[j].max {
					stats[j].max = late
				}
				atomic.AddInt32(&count, 1)
				for atomic.LoadInt32(&count) < int32(timerCount) {
					// spin until all timers fired
				}

	// nodeRef is a reference to the node
	nodeRef *v1.ObjectReference
	// used to record events about the node
	recorder record.EventRecorder
	// used to measure usage stats on system
	summaryProvider stats.SummaryProvider
	// records when a threshold was first observed
	thresholdsFirstObservedAt thresholdsObservedAt
	// records the set of thresholds that have been met (including graceperiod) but not yet resolved

		}
	} else {
		result.Memory.Time = metav1.NewTime(time.Unix(0, time.Now().UnixNano()))
		result.Memory.WorkingSetBytes = uint64Ptr(0)
	}
	if stats.Swap != nil {
		result.Swap.Time = metav1.NewTime(time.Unix(0, stats.Swap.Timestamp))
		if stats.Swap.SwapUsageBytes != nil {
			result.Swap.SwapUsageBytes = &stats.Swap.SwapUsageBytes.Value
		}
		if stats.Swap.SwapAvailableBytes != nil {

	if s == nil {
		throw("out of memory")
	}

	// Count the alloc in consistent, external stats.
	stats := memstats.heapStats.acquire()
	atomic.Xadd64(&stats.largeAlloc, int64(npages*pageSize))
	atomic.Xadd64(&stats.largeAllocCount, 1)
	memstats.heapStats.release()

	// Count the alloc in inconsistent, internal stats.
	gcController.totalAlloc.Add(int64(npages * pageSize))

	// Update heapLive.

	// Update consistent stats to match.
	//
	// We're non-preemptible, so it's safe to update consistent stats (our P
	// won't change out from under us).
	stats := memstats.heapStats.acquire()
	atomic.Xaddint64(&stats.committed, -int64(s.npages*pageSize))
	atomic.Xaddint64(&stats.inHeap, -int64(s.npages*pageSize))
	atomic.Xadd64(&stats.largeFreeCount, 1)
	atomic.Xadd64(&stats.largeFree, int64(s.elemsize))

			pl, state.reqsGaugePair, state.execSeatsObs,
			metrics.NewUnionGauge(state.seatDemandIntegrator, state.seatDemandRatioedGauge))
		if err != nil {
			klog.Warningf("Ignoring PriorityLevelConfiguration object %s because its spec (%s) is broken: %s", pl.Name, fcfmt.Fmt(pl.Spec), err)
			continue
		}
		meal.newPLStates[pl.Name] = state
		state.pl = pl
		state.qsCompleter = qsCompleter

			for arn, stat := range flat.ReplicationStats.Targets {
				bui.ReplicationInfo[arn] = BucketTargetUsageInfo{
					ReplicationPendingSize:  stat.PendingSize,
					ReplicatedSize:          stat.ReplicatedSize,
					ReplicationFailedSize:   stat.FailedSize,
					ReplicationPendingCount: stat.PendingCount,
					ReplicationFailedCount:  stat.FailedCount,
					ReplicatedCount:         stat.ReplicatedCount,

      // check too.
      op.emitError() << "Input tensor [" << input_index
                     << "] is a state tensor, but has more than one use.";
      return failure();
    }
    auto stats = mlir::dyn_cast<DenseFPElementsAttr>(stats_op.getLayerStats());
    if (!stats || stats.getNumElements() != 2) {
      stats_op.emitError("Stats should have 2 values.");
      return failure();
    }
    quant::QuantizedType quant_type;