platform_fns_->destroy_device(platform_, &device_);
  }

  absl::Status Init() override { return absl::OkStatus(); }

  DeviceMemoryBase Allocate(uint64 size, int64_t memory_space) override {
    SP_DeviceMemoryBase mem = {SP_DEVICE_MEMORY_BASE_STRUCT_SIZE};
    stream_executor_->allocate(&device_, size, memory_space, &mem);
    absl::Status status = ValidateSPDeviceMemoryBase(mem);
    if (!status.ok()) {

	apps.Mesh = inMesh.GetMatches(echos)
	apps.MeshExternal = match.Not(inMesh).GetMatches(echos)

	// TODO(https://github.com/istio/istio/issues/51083) remove manually allocate
	if err := cdeployment.DeployExternalServiceEntry(t.ConfigIstio(), apps.Namespace, apps.ExternalNamespace, true).
		Apply(apply.CleanupConditionally); err != nil {
		return err
	}

	if apps.WaypointProxies == nil {

	if err != nil {
		return pi, toObjectErr(err, bucket, object)
	}

	// Fetch buffer for I/O, returns from the pool if not allocates a new one and returns.
	var buffer []byte
	switch size := data.Size(); {
	case size == 0:
		buffer = make([]byte, 1) // Allocate at least a byte to reach EOF
	case size == -1:
		if size := data.ActualSize(); size > 0 && size < fi.Erasure.BlockSize {

func listIAMConfigItems(ctx context.Context, objAPI ObjectLayer, pathPrefix string) <-chan itemOrErr[string] {
	ch := make(chan itemOrErr[string])

	go func() {
		defer xioutil.SafeClose(ch)

		// Allocate new results channel to receive ObjectInfo.
		objInfoCh := make(chan itemOrErr[ObjectInfo])

		if err := objAPI.Walk(ctx, minioMetaBucket, pathPrefix, objInfoCh, WalkOptions{}); err != nil {
			select {

	r.SetScalar(name, r.ScalarResources[name]+quantity)
}

// SetScalar sets a resource by a scalar value of this resource.
func (r *Resource) SetScalar(name v1.ResourceName, quantity int64) {
	// Lazily allocate scalar resource map.
	if r.ScalarResources == nil {
		r.ScalarResources = map[v1.ResourceName]int64{}
	}
	r.ScalarResources[name] = quantity
}

func newUnifier(tparams []*TypeParam, targs []Type, enableInterfaceInference bool) *unifier {
	assert(len(tparams) >= len(targs))
	handles := make(map[*TypeParam]*Type, len(tparams))
	// Allocate all handles up-front: in a correct program, all type parameters
	// must be resolved and thus eventually will get a handle.
	// Also, sharing of handles caused by unified type parameters is rare and

func newUnifier(tparams []*TypeParam, targs []Type, enableInterfaceInference bool) *unifier {
	assert(len(tparams) >= len(targs))
	handles := make(map[*TypeParam]*Type, len(tparams))
	// Allocate all handles up-front: in a correct program, all type parameters
	// must be resolved and thus eventually will get a handle.
	// Also, sharing of handles caused by unified type parameters is rare and

	// parameters are live all the time.  In addition, any locals
	// that are pointers to heap-allocated output parameters are
	// also always live (post-deferreturn code needs these
	// pointers to copy values back to the stack).
	// TODO: if the output parameter is heap-allocated, then we
	// don't need to keep the stack copy live?
	if lv.fn.HasDefer() {
		for i, n := range lv.vars {

		Dir:   c.Dir,
		Files: childFiles,
		Env:   env,
		Sys:   c.SysProcAttr,
	})
	if err != nil {
		return err
	}
	started = true

	// Don't allocate the goroutineErr channel unless there are goroutines to start.
	if len(c.goroutine) > 0 {
		goroutineErr := make(chan error, 1)
		c.goroutineErr = goroutineErr

		type goroutineStatus struct {
			running  int

// objects in memory. See https://go.dev/ref/spec#Size_and_alignment_guarantees.
//
// It is not guaranteed that a finalizer will run for objects allocated
// in initializers for package-level variables. Such objects may be
// linker-allocated, not heap-allocated.
//
// Note that because finalizers may execute arbitrarily far into the future
// after an object is no longer referenced, the runtime is allowed to perform