type nodeUpdateItem struct {
	nodeName string
}

type podUpdateItem struct {
	podName      string
	podNamespace string
	nodeName     string
}

func hash(val string, max int) int {
	hasher := fnv.New32a()
	io.WriteString(hasher, val)
	return int(hasher.Sum32() % uint32(max))
}

// GetPodsByNodeNameFunc returns the list of pods assigned to the specified node.

// of probe is added written to the hash as well. The returned hash will be a safe encoded string to avoid bad words.
func HashControllerRevision(revision *apps.ControllerRevision, probe *int32) string {
	hf := fnv.New32()
	if len(revision.Data.Raw) > 0 {
		hf.Write(revision.Data.Raw)
	}
	if revision.Data.Object != nil {
		hashutil.DeepHashObject(hf, revision.Data.Object)
	}
	if probe != nil {

constexpr char kDefaultShardingValue[] = "";
constexpr char kMirroredVariableIndicesAttr[] = "_mirrored_variable_indices";

std::string GetRandomStateVariableName() {
  return absl::StrCat("VariablesFormatState_", tensorflow::random::New64());
}

#define GEN_PASS_DEF_TPUVARIABLERUNTIMEREFORMATTINGPASS
#include "tensorflow/compiler/mlir/tensorflow/transforms/host_runtime/runtime_passes.h.inc"

struct TPUVariableRuntimeReformattingPass

)

func fakePC(n ir.Node) ir.Node {
	// In order to get deterministic IDs, we include the package path, absolute filename, line number, column number
	// in the calculation of the fakePC for the IR node.
	hash := fnv.New32()
	// We ignore the errors here because the `io.Writer` in the `hash.Hash` interface never returns an error.
	io.WriteString(hash, base.Ctxt.Pkgpath)
	io.WriteString(hash, base.Ctxt.PosTable.Pos(n.Pos()).AbsFilename())

			}
		}
	}
}

func TestSize(t *testing.T) {
	c := New()
	if got := c.Size(); got != Size {
		t.Errorf("Size = %d; want %d", got, Size)
	}
	c = New384()
	if got := c.Size(); got != Size384 {
		t.Errorf("New384.Size = %d; want %d", got, Size384)
	}
	c = New512_224()
	if got := c.Size(); got != Size224 {
		t.Errorf("New512224.Size = %d; want %d", got, Size224)
	}
	c = New512_256()

	{0x5CEAECFED289E5D2, 0x8DA471A9DE737E24}, // 1e221
	{0x7425A83E872C5F47, 0xB10D8E1456105DAD}, // 1e222
	{0xD12F124E28F77719, 0xDD50F1996B947518}, // 1e223
	{0x82BD6B70D99AAA6F, 0x8A5296FFE33CC92F}, // 1e224
	{0x636CC64D1001550B, 0xACE73CBFDC0BFB7B}, // 1e225
	{0x3C47F7E05401AA4E, 0xD8210BEFD30EFA5A}, // 1e226
	{0x65ACFAEC34810A71, 0x8714A775E3E95C78}, // 1e227
	{0x7F1839A741A14D0D, 0xA8D9D1535CE3B396}, // 1e228

//
// The current algorithm to allocate IPs is deterministic across all istiods.
func autoAllocateIPs(services []*model.Service) []*model.Service {
	hashedServices := make([]*model.Service, maxIPs)
	hash := fnv.New32a()
	// First iterate through the range of services and determine its position by hash
	// so that we can deterministically allocate an IP.
	// We use "Double Hashning" for collision detection.
	// The hash algorithm is

	dkB := dk.dk[:0]

	for i := range s {
		dkB = polyByteEncode(dkB, s[i])
	}

	for i := range t {
		dkB = polyByteEncode(dkB, t[i])
	}
	dkB = append(dkB, ρ...)

	H := sha3.New256()
	H.Write(dkB[decryptionKeySize:])
	dkB = H.Sum(dkB)

	dkB = append(dkB, z[:]...)

	if len(dkB) != len(dk.dk) {
		panic("mlkem768: internal error: invalid decapsulation key size")
	}

	return dk

// a collisionCount to avoid hash collision. The hash will be safe encoded to
// avoid bad words.
func ComputeHash(template *v1.PodTemplateSpec, collisionCount *int32) string {
	podTemplateSpecHasher := fnv.New32a()
	hashutil.DeepHashObject(podTemplateSpecHasher, *template)

	// Add collisionCount in the hash if it exists.
	if collisionCount != nil {
		collisionCountBytes := make([]byte, 8)

	q := new(*float64)
	_ = *p == **q
	new /* ERROR "not used" */ (int)
        _ = &new /* ERROR "cannot take address" */ (int)

	_ = new(int... /* ERROR "invalid use of ..." */ )
}

func new2() {
	f1 := func() (x []int) { return }
	_ = new(f0 /* ERROR "not a type" */ ())
	_ = new(f1 /* ERROR "not a type" */ ())
}

func panic1() {
	panic() // ERROR "not enough arguments"