//   can free a whole span if none of the objects are marked, but that
//   isn't its goal. This can be driven either synchronously by
//   mcentral.cacheSpan for mcentral spans, or asynchronously by
//   sweepone, which looks at all the mcentral lists.
//
// * The span reclaimer looks for spans that contain no marked objects
//   and frees whole spans. This is a separate algorithm because

	s.scavenger.wake()
}

// Stop cleans up the scavenger's resources. The scavenger
// must be parked for this to work.
func (s *Scavenger) Stop() {
	lock(&s.scavenger.lock)
	parked := s.scavenger.parked
	unlock(&s.scavenger.lock)
	if !parked {
		panic("tried to clean up scavenger that is not parked")
	}
	close(s.stop)
	s.Wake()
	<-s.done
}

type ScavengeIndex struct {
	i scavengeIndex

     *
     * @implSpec Usage: This method should only be called on resolvable configurations and will emit a deprecation warning if
     * called on a configuration that does not permit this usage, or has allowed this usage but marked it as deprecated.
     *
     * @return The files of this configuration.
     */
    Set<File> resolve();

    /**

nosplit functions
-----------------

Most functions start with a prologue that inspects the stack pointer
and the current G's stack bound and calls `morestack` if the stack
needs to grow.

Functions can be marked `//go:nosplit` (or `NOSPLIT` in assembly) to
indicate that they should not get this prologue. This has several
uses:

- Functions that must run on the user stack, but must not call into

		wantReport = 3
	}
	if cReport != wantReport {
		t.Errorf("got %d race reports, want %d", cReport, wantReport)
	}

	// Regardless of when the stacks are printed, we expect each subtest to be
	// marked as failed, and that failure should propagate up to the parents.
	cFail := bytes.Count(out, []byte("--- FAIL:"))
	wantFail := 0
	if race.Enabled {
		wantFail = 4
	}
	if cFail != wantFail {

            objectOutputStream.writeInt(42)
        }

        private
        fun readObject(objectInputStream: ObjectInputStream) {
            markRead("superclass")
            intValue = objectInputStream.readInt()
        }

        protected
        fun markRead(from: String) {
            if (readOrder == null) {
                readOrder = arrayListOf()
            }
            readOrder!!.add(from)

LogicalResult MarkUncompilableOps(
    const Dialect* tf_dialect, Block* block,
    llvm::DenseSet<OperationName>& supported_ops) {
  // Automatically marked ops for outside compilation have
  // `_xla_outside_compilation` attribute value of "auto" plus
  // an increasing counter.  Manually marked ops for outside compilation only
  // have an increasing counteri for the attribute value.  Therefore there is no
  // collision in

struct MarkForCompilationPassFlags {
  XlaAutoJitFlag xla_auto_jit_flag;

  // Minimum number of operators in an XLA compilation. Ignored for operators
  // placed on an XLA device or operators explicitly marked for compilation.
  int32 tf_xla_min_cluster_size;

  // Maximum number of operators in an XLA compilation.
  int32 tf_xla_max_cluster_size;

  // If non-empty, limit XLA clustering to the following TF operations.

// It also contains operations to be able to store marked addresses
// to ensure that they're not overridden until they've been seen.
type atomicOffAddr struct {
	// a contains the offset address, unlike offAddr.
	a atomic.Int64
}

// Clear attempts to store minOffAddr in atomicOffAddr. It may fail
// if a marked value is placed in the box in the meanwhile.
func (b *atomicOffAddr) Clear() {
	for {

  }) {allow_soft_placement = true, num_cores_per_replica = 1, topology =  "", device_assignment =  []} : () -> tensor<i32>
  func.return %0 : tensor<i32>
}

// Test that operations inside tf.IfRegion op are corrected marked for outside
// compilation.

// CHECK-LABEL: func @ops_inside_tf_if_outside_compiled
func.func @ops_inside_tf_if_outside_compiled(%arg0: tensor<i1>, %arg1: tensor<!tf_type.string>) -> tensor<f32> {