* really testing a Future implementation (e.g., in the case of immediate*Future()). But it's OK
   * to use in the case of the majority of Futures that are AbstractFutures.
   */

  public void testImmediateFuture() throws Exception {
    ListenableFuture<String> future = immediateFuture(DATA1);

    assertSame(DATA1, getDone(future));
    assertSame(DATA1, getDoneFromTimeoutOverload(future));

   * really testing a Future implementation (e.g., in the case of immediate*Future()). But it's OK
   * to use in the case of the majority of Futures that are AbstractFutures.
   */

  public void testImmediateFuture() throws Exception {
    ListenableFuture<String> future = immediateFuture(DATA1);

    assertSame(DATA1, getDone(future));
    assertSame(DATA1, getDoneFromTimeoutOverload(future));

	if c.bufr != nil {
		// Steal the bufio.Reader (~4KB worth of memory) and its associated
		// reader for a future connection.
		putBufioReader(c.bufr)
		c.bufr = nil
	}

	if c.bufw != nil {
		c.bufw.Flush()
		// Steal the bufio.Writer (~4KB worth of memory) and its associated
		// writer for a future connection.
		putBufioWriter(c.bufw)
		c.bufw = nil
	}
}

// Close the connection.

// set of main modules. The argument to the use directive is the directory
// containing the module's go.mod file.
//
// The go directive specifies the version of Go the file was written at. It
// is possible there may be future changes in the semantics of workspaces
// that could be controlled by this version, but for now the version
// specified has no effect.
//
// The replace directive has the same syntax as the replace directive in a

	if tool == "" {
		tool = base.Tool("vet")
	}
	runErr := sh.run(p.Dir, p.ImportPath, env, cfg.BuildToolexec, tool, vetFlags, a.Objdir+"vet.cfg")

	// If vet wrote export data, save it for input to future vets.
	if f, err := os.Open(vcfg.VetxOutput); err == nil {
		a.built = vcfg.VetxOutput
		cache.Default().Put(key, f)
		f.Close()
	}

	return runErr
}

	windowsEtcHostsPath = "C:\\Windows\\System32\\drivers\\etc\\hosts"

	// Capacity of the channel for receiving pod lifecycle events. This number
	// is a bit arbitrary and may be adjusted in the future.
	plegChannelCapacity = 1000

	// Generic PLEG relies on relisting for discovering container events.
	// A longer period means that kubelet will take longer to detect container

// queues), so it is not possible to compute global predicates on fast paths;
// (2) for optimal thread management we would need to know the future (don't park
// a worker thread when a new goroutine will be readied in near future).
//
// Three rejected approaches that would work badly:
// 1. Centralize all scheduler state (would inhibit scalability).

	}{
		{
			name:                    "unset",
			deletionTimestamp:       nil,
			expectDeletionTimestamp: newTimePointer(now),
		},
		{
			name:                    "set to future",
			deletionTimestamp:       newTimePointer(soon),
			expectDeletionTimestamp: newTimePointer(now),
		},
		{
			name:                    "set to past",
			deletionTimestamp:       newTimePointer(past),

  let description = [{
    This pass is performing fusion specific to GPU targets. This is an ad-hoc
    pass for now, but should be integrated with some notion of "target" in the
    MLIR pipeline in the future.
  }];
  let constructor = "TF::CreateGpuOpFusionPass()";
}

def BatchMatMulToEinsumPass : Pass<"tf-batch-matmul-to-tf-einsum", "mlir::func::FuncOp"> {
  let summary = "Replace TF BatchMatMul op by TF Einsum op.";

	// the function, so that we don't remove volumes associated with terminated
	// but not yet deleted pods.
	// TODO: this method could more aggressively cleanup terminated pods
	// in the future (volumes, mount dirs, logs, and containers could all be
	// better separated)
	klog.V(3).InfoS("Clean up orphaned pod directories")
	err = kl.cleanupOrphanedPodDirs(allPods, runningRuntimePods)
	if err != nil {