}

func mspinning() {
	// startm's caller incremented nmspinning. Set the new M's spinning.
	getg().m.spinning = true
}

// Schedules some M to run the p (creates an M if necessary).
// If p==nil, tries to get an idle P, if no idle P's does nothing.
// May run with m.p==nil, so write barriers are not allowed.
// If spinning is set, the caller has incremented nmspinning and must provide a

		lock mutex
		list gList
	}

	// cycles is the number of completed GC cycles, where a GC
	// cycle is sweep termination, mark, mark termination, and
	// sweep. This differs from memstats.numgc, which is
	// incremented at mark termination.
	cycles atomic.Uint32

	// Timing/utilization stats for this cycle.
	stwprocs, maxprocs                 int32
	tSweepTerm, tMark, tMarkTerm, tEnd int64 // nanotime() of phase start

	podBackoffQ *heap.Heap
	// unschedulablePods holds pods that have been tried and determined unschedulable.
	unschedulablePods *UnschedulablePods
	// schedulingCycle represents sequence number of scheduling cycle and is incremented
	// when a pod is popped.
	schedulingCycle int64
	// moveRequestCycle caches the sequence number of scheduling cycle when we
	// received a move request. Unschedulable pods in and before this scheduling

                     loop_operands_ip1, /*flag_for_inlining=*/false);
  Value C_ip1 = cond_caller_ip1->getResults().front();

  // Build the ReturnOp. This mirrors the construction of the operands with
  // 'i' values incremented.
  std::vector<Value> tmp_body_results;
  Append(tmp_body_results, loop_operands_im1);
  Append(tmp_body_results, loop_operands_i);
  Append(tmp_body_results, loop_operands_ip1);

		s.freeindex = snelems
		return snelems
	}

	s.allocCache >>= uint(bitIndex + 1)
	sfreeindex = result + 1

	if sfreeindex%64 == 0 && sfreeindex != snelems {
		// We just incremented s.freeindex so it isn't 0.
		// As each 1 in s.allocCache was encountered and used for allocation
		// it was shifted away. At this point s.allocCache contains all 0s.
		// Refill s.allocCache so that it corresponds

	cont := out.Continue

	// the second list call should try to get 2 more items from etcd
	// but since there is only one item left, that is all we should get with no continueValue
	// both read counters should be incremented for the singular calls they make in this case
	out = &example.PodList{}
	options = storage.ListOptions{
		// ResourceVersion should be unset when setting continuation token.
		ResourceVersion: "",

	// prevent memory leaks.
	if event == model.EventDelete {
		inboundServiceDeletes.Increment()
		s.Env.EndpointIndex.DeleteServiceShard(shard, hostname, namespace, false)
	} else {
		inboundServiceUpdates.Increment()
	}
}

// EDSUpdate computes destination address membership across all clusters and networks.
// This is the main method implementing EDS.

package telemetrystats

import (
	"cmd/go/internal/base"
	"cmd/go/internal/cfg"
	"cmd/go/internal/modload"
	"cmd/internal/telemetry"
)

func Increment() {
	incrementConfig()
	incrementVersionCounters()
}

// incrementConfig increments counters for the configuration
// the command is running in.
func incrementConfig() {
	if !modload.WillBeEnabled() {
		telemetry.Inc("go/mode:gopath")

for `tf.EmptyTensorList` or the specified size for `tf.TensorListReserve`.
Each push will be turned into `tf.XlaDynamicUpdateSlice` with the incremented
size, and each pop will be turned into a `tf.Slice` and a copy of the buffer
with decremented size. Each `tf.TensorListSetItem` will be turned into a
`tf.XlaDynamicUpdateSlice` with unchanged size, and each `tf.TensorListGetItem`
will be rewritten to a `tf.Slice`.

		return TerminatedPod
	}
	if s.IsTerminationRequested() {
		return TerminatingPod
	}
	return SyncPod
}

// mergeLastUpdate records the most recent state from a new update. Pod and MirrorPod are
// incremented. KillPodOptions is accumulated. If RunningPod is set, Pod is synthetic and
// will *not* be used as the last pod state unless no previous pod state exists (because