let constructor = "CreateOptimizeOpOrderPass()";
}

def PartitionedTopologicalSortPass : Pass<"tfl-partitioned-topological-sort", "mlir::func::FuncOp"> {
  let summary = "Re-sort execution order such that delegated ops stay together";
  let constructor = "CreatePartitionedTopologicalSortPass()";
    let description = [{
      This transformation reorders operations such that operations that will be

	"k8s.io/kubernetes/pkg/scheduler/util"
	"k8s.io/utils/clock"
)

const (
	// DefaultPodMaxInUnschedulablePodsDuration is the default value for the maximum
	// time a pod can stay in unschedulablePods. If a pod stays in unschedulablePods
	// for longer than this value, the pod will be moved from unschedulablePods to
	// backoffQ or activeQ. If this value is empty, the default value (5min)
	// will be used.

Furthermore, the process will be a _worker daemon_ that will stay alive and can be reused for future work items with the same requirements.

	i := len(z)
	for i > 0 && z[i-1] == 0 {
		i--
	}
	return z[0:i]
}

func (z nat) make(n int) nat {
	if n <= cap(z) {
		return z[:n] // reuse z
	}
	if n == 1 {
		// Most nats start small and stay that way; don't over-allocate.
		return make(nat, 1)
	}
	// Choosing a good value for e has significant performance impact
	// because it increases the chance that a value can be reused.
	const e = 4 // extra capacity

//
// A block argument can also become a member (or even a root member), however
// only operations will become a part of the outline `tf_device.cluster`, block
// arguments will stay as block arguments, and will later become cluster
// function inputs.
struct Member {
  Member(unsigned root, Source source, Operation *insertion_point,
         ValuesConstraintSet constraints = {})
      : root(root),

      echo "${instances[@]}"
      return "${list_instances_rc}"
    fi

    process_count_left=${node_upgrade_parallelism}
    pids=()
    ret_code_sum=0  # Should stay 0 in the loop iff all parallel node upgrades succeed.
    for instance in "${instances[@]}"; do
      do-single-node-upgrade "${instance}" & pids+=("$!")

        chain_arg.getLoc(), chain_arg.getType(), chain_arg);
    auto chain_sink_island =
        CreateIsland(sink_identity, {}, builder_chain_sink);

    // Add the chain sink data output to fetch. These might stay empty.
    fetch.getFetchesMutable().append(chain_sink_island.getOutputs().front());

    // Iterate over all members of the current equivalence class (represented

                }
            }

            // In the code below, we always maintain the contract that `classId` and `qualifiedAccess` should stay "in-sync", i.e. they
            // refer to the same class and classId should be null if `qualifiedAccess` references to a package.
            var classId: ClassId? = referencedClassId

            // Handle nested classes.

func (b *B) Run(name string, f func(b *B)) bool {
	// Since b has subbenchmarks, we will no longer run it as a benchmark itself.
	// Release the lock and acquire it on exit to ensure locks stay paired.
	b.hasSub.Store(true)
	benchmarkLock.Unlock()
	defer benchmarkLock.Lock()

	benchName, ok, partial := b.name, true, false
	if b.context != nil {

	// Envoy asks for it or not (See https://github.com/envoyproxy/envoy/issues/33607 for more details).
	// Without this logic, there are cases where the clusters we send could stay warming forever,
	// expecting an EDS response. Note that in SotW, Envoy sends an EDS request after the delayed
	// CDS request; however, this is not guaranteed in delta, and has been observed to cause issues
	// with EDS and SDS.