}

  return absl::OkStatus();
}

// Rewrites loop cond to add a node which sends loop cond to host.
TF_ATTRIBUTE_NOINLINE Status AddSendLoopPredToLoopCond(
    const string& cond_xla_func_name, const string& host_transfer_key,
    NameAttrList* loop_cond_func, FunctionLibraryDefinition* fld,
    Node* while_node) {
  // Instantiate the loop cond function.
  std::unique_ptr<FunctionBody> fbody;

  }];
  let constructor = "TF::CreateRemoveUnusedWhileResultsPass()";
}

def HoistLoopInvariantPass : Pass<"tf-hoist-loop-invariant", "mlir::func::FuncOp"> {
  let summary = "Hoists loop invariant ops to the outside of the loop";
   let description = [{
      Hoists loop invariant to the outside of the loop. The pass is similar to
      LoopInvariantCodeMotion pass, but it also hoists ReadVariableOps,
      if the variable is read only.

		assert.NotNil(t, fp.ipsetList["KUBE-LOOP-BACK"])

		activeEntries1 := fp.ipsetList["KUBE-LOOP-BACK"].activeEntries

		if tc.expectLocalEntries {
			assert.Equal(t, 1, activeEntries1.Len(), "Expected 1 active entry in KUBE-LOOP-BACK")
		} else {
			assert.Equal(t, 0, activeEntries1.Len(), "Expected no active entry in KUBE-LOOP-BACK")
		}

		if tc.expectVirtualServer {

	kernelMemcgNotification bool,
	experimentalNodeAllocatableIgnoreEvictionThreshold bool,
	minimumGCAge metav1.Duration,
	maxPerPodContainerCount int32,
	maxContainerCount int32,
	registerSchedulable bool,
	nodeLabels map[string]string,
	nodeStatusMaxImages int32,
	seccompDefault bool,
) (*Kubelet, error) {
	ctx := context.Background()
	logger := klog.TODO()

	if rootDirectory == "" {

		{new(float64), [...]bool{false, false, false, false}},
		{new(complex64), [...]bool{false, false, false, false}},
		{new([5]int), [...]bool{false, false, false, false}},
		{new(integer), [...]bool{false, false, false, false}},
		{new(map[int]int), [...]bool{false, false, false, false}},
		{new(chan<- int), [...]bool{false, false, false, false}},
		{new(func(a int8)), [...]bool{false, false, false, false}},

func gt_1_uint32(x uint32) bool          { return x > 1 }
func ge_1_uint32(x uint32) bool          { return x >= 1 }
func eq_1_uint32(x uint32) bool          { return x == 1 }
func ne_1_uint32(x uint32) bool          { return x != 1 }
func lt_126_uint32(x uint32) bool        { return x < 126 }
func le_126_uint32(x uint32) bool        { return x <= 126 }
func gt_126_uint32(x uint32) bool        { return x > 126 }

  // the called function and propagating the return type.
  bool InferShapeForCall(CallOpInterface call_op);

  bool InferShapeForCast(Operation* op);

  bool InferShapeForRestore(Operation* op);

  // Infers the shape IfOp outputs based on the shapes of the then and else
  // function result types.
  bool InferShapeForIf(IfOp op);

		{
			name:            "timeout after third loop",
			beforeMarkReady: 9,
			beforeNextReady: 9,
			beforeTimeout:   2,
			wantCalls:       3,
		},
		{
			name:            "already ready on third loop",
			beforeMarkReady: 9,
			beforeNextReady: 1,
			beforeTimeout:   9,
			wantCalls:       2,
		},
		{
			name:            "turns ready on third loop",
			beforeMarkReady: 2,

}
func rewriteValueWasm_OpIsNonNil(v *Value) bool {
	v_0 := v.Args[0]
	b := v.Block
	typ := &b.Func.Config.Types
	// match: (IsNonNil p)
	// result: (I64Eqz (I64Eqz p))
	for {
		p := v_0
		v.reset(OpWasmI64Eqz)
		v0 := b.NewValue0(v.Pos, OpWasmI64Eqz, typ.Bool)
		v0.AddArg(p)
		v.AddArg(v0)
		return true
	}
}
func rewriteValueWasm_OpLeq16(v *Value) bool {
	v_1 := v.Args[1]

		s = s[:max]
	}
	return s
}

// The printState type holds information needed to print an AST.
type printState struct {
	tparams         bool // whether to print template parameters
	enclosingParams bool // whether to print enclosing parameters
	llvmStyle       bool
	max             int // maximum output length

	// The scopes field is used to avoid unnecessary parentheses