b := m.Bounds()
	if b.Dx() >= 1<<16 || b.Dy() >= 1<<16 {
		return errors.New("gif: image is too large to encode")
	}

	opts := Options{}
	if o != nil {
		opts = *o
	}
	if opts.NumColors < 1 || 256 < opts.NumColors {
		opts.NumColors = 256
	}
	if opts.Drawer == nil {
		opts.Drawer = draw.FloydSteinberg
	}

	pm, _ := m.(*image.Paletted)
	if pm == nil {

	// Get page size from the 'pagesize' option value
	for _, opt := range mountPoint.Opts {
		opt = strings.TrimSpace(opt)
		prefix := "pagesize="
		if strings.HasPrefix(opt, prefix) {
			// NOTE: Adding suffix 'i' as result should be comparable with a medium size.
			// pagesize mount option is specified without a suffix,
			// e.g. pagesize=2M or pagesize=1024M for x86 CPUs
			trimmedOpt := strings.TrimPrefix(opt, prefix)

}

Node* Unary(ops::NodeOut a, const GraphDefBuilder::Options& opts) {
  return ops::UnaryOp("UnaryTest", std::move(a), opts);
}

Node* Binary(ops::NodeOut a, ops::NodeOut b,
             const GraphDefBuilder::Options& opts) {
  return ops::BinaryOp("BinaryTest", std::move(a), std::move(b), opts);
}

Node* BinaryUnknownShape(ops::NodeOut a, ops::NodeOut b,

	}

	domainSuffix := defaultFakeDomainSuffix
	if opts.DomainSuffix != "" {
		domainSuffix = opts.DomainSuffix
	}
	if opts.Client == nil {
		opts.Client = kubelib.NewFakeClient()
	}
	if opts.MeshWatcher == nil {
		opts.MeshWatcher = mesh.NewFixedWatcher(&meshconfig.MeshConfig{TrustDomain: "cluster.local"})
	}
	cleanupStop := false
	stop := opts.Stop
	if stop == nil {

// by number of free CPUs that their cores contain. Finally, for each core, the CPUs in it are
// sorted by numerical ID. The order is always ascending. In other words, the relative order of two
// CPUs is determined as follows:
//  1. If the two CPUs belong to different sockets, the CPU in the socket with the smaller amount of
//     free CPUs appears first.

	target := &EtcdVersionPair{
		version:        MustParseEtcdVersion(opts.targetVersion),
		storageVersion: MustParseEtcdStorageVersion(opts.targetStorage),
	}

	migrate(
		opts.name, opts.port, opts.peerListenUrls, opts.peerAdvertiseUrls, opts.clientListenUrls,
		opts.binDir, opts.dataDir, opts.etcdDataPrefix, opts.ttlKeysDirectory, opts.initialCluster,
		target, opts.supportedVersions, opts.etcdServerArgs)
}

func copyBinaries() {

struct IslandSourcesAndSinks {
  // Sub-ops that need a control dependency going into the island. This includes
  // sub-ops that do not depend on other sub-ops in the island and functional
  // control ops (e.g. if, while, case) with side effects that must not take
  // effect before the previous island is finished executing.
  llvm::SmallPtrSet<Operation*, 4> sources;

  // Sub-ops that need a control dependency going out of the island. This

def TF_IfrtRestoreVariableOp : TF_Op<"IfrtRestoreVariableOp", []> {
  let summary = "Restore variable tensors";
  let description = [{
    This Op is similar to a combination of RestoreV2 and AssignVariable Op, but
    this Op's execution is asynchronous.

    This Op is specific to TFRT + IFRT runtime and is not a stable interface for
    serialization.

    This Op will restore the tensors asynchronously. There are N restored tensors

									opts := opts.DeepCopy()
									opts.To = to

									if c.expectSuccess(from, opts) {
										opts.Check = check.OK()

										// Check HTTP headers to confirm expected use of mTLS in the request.
										if c.expectMTLS(from, opts) {
											opts.Check = check.And(opts.Check, check.MTLSForHTTP())
										} else {

Anis Eleuch <******@****.***> 1717513952 +0100