}
	ft = &FixedType{Base: base, Accum: ft.Accum, Sat: ft.Sat}
	if r := fn(ft); r != nil {
		return r
	}
	return ft
}

func (ft *FixedType) GoString() string {
	return ft.goString(0, "")
}

func (ft *FixedType) goString(indent int, field string) string {
	return fmt.Sprintf("%*s%sFixedType: Accum: %t; Sat: %t\n%s", indent, "", field,
		ft.Accum, ft.Sat,

	}
	return tmp1.Int64()
}

func nextTerm(k int64) {
	y2 := k*2 + 1
	accum.Add(accum, tmp1.Lsh(numer, 1))
	accum.Mul(accum, tmp1.SetInt64(y2))
	numer.Mul(numer, tmp1.SetInt64(k))
	denom.Mul(denom, tmp1.SetInt64(y2))
}

func eliminateDigit(d int64) {
	accum.Sub(accum, tmp1.Mul(denom, tmp1.SetInt64(d)))
	accum.Mul(accum, ten)
	numer.Mul(numer, ten)
}

func main() {
	i := 0
	k := int64(0)
	for {

// license that can be found in the LICENSE file.

package main

import "fmt"

var s string

func accum(args ...interface{}) {
	s += fmt.Sprintln(args...)
}

func f(){
	v := 0.0
	for i := 0; i < 3; i++ {
		v += 0.1
		defer accum(v)
	}
}

func main() {
	f()
	if s != "0.30000000000000004\n0.2\n0.1\n" {
		println("BUG: defer")
		print(s)
	}

     )
   ),
   // accum_new = accum + grad * grad
   (TF_AddV2Op:$accum_new
     (CreateTFReadVariableOp $src_op, $grad, $accum),
     (TF_SquareOp $grad)
   ),
   // if multiply_linear_by_lr:
   //   linear += grad_with_shrinkage * lr - (accum_new^(-lr_power) - accum^(-lr_power)) * var
   // else:
   //   linear += grad_with_shrinkage - (accum_new^(-lr_power) - accum^(-lr_power)) / lr * var

	switch v := obj.(type) {
	case map[string]any:
		accum := make([]string, 0)
		for key, vv := range v {
			childwalk, err := walk(fmt.Sprintf("%s%s%s", path, separator, pathComponent(key)), ".", vv)
			if err != nil {
				return accum, err
			}
			accum = append(accum, childwalk...)
		}
		return accum, nil
	case []any:
		accum := make([]string, 0)
		for idx, vv := range v {

          A result(Collector<T, A, R> collector, Iterable<T> inputs) {
        A accum = collector.supplier().get();
        for (T input : inputs) {
          A newAccum = collector.supplier().get();
          collector.accumulator().accept(newAccum, input);
          accum = collector.combiner().apply(accum, newAccum);
        }
        return accum;
      }
    },

	// otherwise TestCPUProfileMultithreaded can fail if only one
	// thread is scheduled during the testing period.
	t0 := time.Now()
	accum := *y
	for i := 0; i < 500 || time.Since(t0) < dur; i++ {
		accum = f(accum)
	}
	*y = accum
}

var (
	salt1 = 0
)

// The actual CPU hogging function.
// Must not call other functions nor access heap/globals in the loop,

      default:
        // continue below to handle the general case
    }
    int accum = 1;
    while (true) {
      switch (k) {
        case 0:
          return accum;
        case 1:
          return checkedMultiply(accum, b);
        default:
          if ((k & 1) != 0) {
            accum = checkedMultiply(accum, b);
          }
          k >>= 1;
          if (k > 0) {

	x64 = 201
	f(500)
}

func newfunc() func(int) int { return func(x int) int { return x } }

func main() {
	runtime.GOMAXPROCS(1)
	var fail bool

	go f()
	check([]int{1, 4, 5, 4})

	a := accum(0)
	b := accum(1)
	go g(a, b)
	check([]int{2, 4, 6, 9})

	go h()
	check([]int{100, 200, 101, 201, 500, 101, 201, 500})

	memstats := new(runtime.MemStats)
	runtime.ReadMemStats(memstats)
	n0 := memstats.Mallocs

func IterateBitMasks(bits []int, callback func(BitMask)) {
	var iterate func(bits, accum []int, size int)
	iterate = func(bits, accum []int, size int) {
		if len(accum) == size {
			mask, _ := NewBitMask(accum...)
			callback(mask)
			return
		}
		for i := range bits {
			iterate(bits[i+1:], append(accum, bits[i]), size)
		}
	}

	for i := 1; i <= len(bits); i++ {
		iterate(bits, []int{}, i)