E	ab?bc			abbc		(0,4)
E	ab?bc			abc		(0,3)
E	ab?c			abc		(0,3)
BE	^abc$			abc		(0,3)
BE	^abc			abcc		(0,3)
BE	abc$			aabc		(1,4)
BE	^			abc		(0,0)
BE	$			abc		(3,3)
BE	a.c			abc		(0,3)
BE	a.c			axc		(0,3)
BE	a.*c			axyzc		(0,5)
BE	a[bc]d			abd		(0,3)
BE	a[b-d]e			ace		(0,3)
BE	a[b-d]			aac		(1,3)
BE	a[-b]			a-		(0,2)
BE	a[b-]			a-		(0,2)
BE	a]			a]		(0,2)
BE	a[]]b			a]b		(0,3)

		// 		return true
		// 	}

		// 	return fn(r)
		// })
	}

	return FromIterator[R](IteratorFunc[R](it))
}

func Reduce[T, U any](s Stream[T], identity U, acc func(U, T) U) (r U) {
	r = identity
	s.Iterate(func(t T) bool {
		r = acc(r, t)
		return true
	})

	return r
}

type myIterator struct {
}

func (myIterator) Iterate(fn func(int) bool) {
}

func main() {

  const auto str_attr = cast<DenseStringElementsAttr>(const_value);

  // Sum the sizes of each string.
  return absl::c_accumulate(
      str_attr.getRawStringData(), 0,
      [](int64_t acc, const StringRef str_value) -> int64_t {
        return acc + str_value.size();
      });
}

// Arbitrarily calculate the size of const of type whose size is unkown or
// varying. Each element of such a type is considered to have

            equalTo(1024)
        )
    }

    sealed class Peano {

        companion object {

            fun fromInt(n: Int): Peano = (0 until n).fold(Z as Peano) { acc, _ -> S(acc) }
        }

        fun toInt(): Int = sequence().count() - 1

        object Z : Peano() {
            override fun toString() = "Z"
        }

        data class S(val n: Peano) : Peano() {

	if obj.GetObjectKind().GroupVersionKind().Empty() {
		return fmt.Errorf("missing apiVersion or kind; try GetObjectKind().SetGroupVersionKind() if you know the type")
	}

	name := "<unknown>"
	if acc, err := meta.Accessor(obj); err == nil {
		if n := acc.GetName(); len(n) > 0 {
			name = n
		}
	}

	return printObj(w, name, p.Operation, p.ShortOutput, GetObjectGroupKind(obj))
}

	case arm.AMULA, arm.AMULS, arm.AMMULA, arm.AMMULS, arm.AMULABB, arm.AMULAWB, arm.AMULAWT:
		return true
	}
	return false
}

var bcode = []obj.As{
	arm.ABEQ,
	arm.ABNE,
	arm.ABCS,
	arm.ABCC,
	arm.ABMI,
	arm.ABPL,
	arm.ABVS,
	arm.ABVC,
	arm.ABHI,
	arm.ABLS,
	arm.ABGE,
	arm.ABLT,
	arm.ABGT,
	arm.ABLE,
	arm.AB,
	obj.ANOP,
}

ffff ffff ffff 9292 69ae 6f4d 8fb1 8f6d 9191 9494 9797 9999 9b9b 9999 8b8b 7f7f 7e7e 7e7e 7d7d 7777 6262 54d2 25d7 1773 10c8 0c12 0bd7 2f1b acac ffff ffff ffff 
ffff ffff ffff 9494 67f1 6a00 8517 8fb1 905f 9393 9371 7a19 7f65 97fa 9e9e 9c9c 8e8e 7e7e 6a6a 5a5a 57af 2ce6 1b97 1264 0cd0 07e7 0b27 2403 d6d6 ffff ffff ffff 

	AAND = obj.ABaseARM + obj.A_ARCHSPECIFIC + iota
	AEOR
	ASUB
	ARSB
	AADD
	AADC
	ASBC
	ARSC
	ATST
	ATEQ
	ACMP
	ACMN
	AORR
	ABIC

	AMVN

	/*
	 * Do not reorder or fragment the conditional branch
	 * opcodes, or the predication code will break
	 */
	ABEQ
	ABNE
	ABCS
	ABHS
	ABCC
	ABLO
	ABMI
	ABPL
	ABVS
	ABVC
	ABHI
	ABLS
	ABGE
	ABLT

	}

	// exponent
	var exp int64
	var ebase int
	exp, ebase, err = scanExponent(r, true, base == 0)
	if err != nil {
		return
	}

	// special-case 0
	if len(z.mant) == 0 {
		z.prec = prec
		z.acc = Exact
		z.form = zero
		f = z
		return
	}
	// len(z.mant) > 0

	// The mantissa may have a radix point (fcount <= 0) and there
	// may be a nonzero exponent exp. The radix point amounts to a