i++
	}

	return
}

// bigEndianWord returns the contents of buf interpreted as a big-endian encoded Word value.
func bigEndianWord(buf []byte) Word {
	if _W == 64 {
		return Word(byteorder.BeUint64(buf))
	}
	return Word(byteorder.BeUint32(buf))
}

// setBytes interprets buf as the bytes of a big-endian unsigned
// integer, sets z to that value, and returns z.

			}

			const loadSlice = (addr) => {
				const array = getInt64(addr + 0);
				const len = getInt64(addr + 8);
				return new Uint8Array(this._inst.exports.mem.buffer, array, len);
			}

			const loadSliceOfValues = (addr) => {
				const array = getInt64(addr + 0);
				const len = getInt64(addr + 8);
				const a = new Array(len);
				for (let i = 0; i < len; i++) {

					v.Op = OpCopy
					v.Type = f.Config.Types.UInt64
				}
				newInt64 = newInt64 || v.Type.Size() == 8
			} else if (v.Op == OpStore || v.Op == OpZero || v.Op == OpMove) && v.Aux.(*types.Type).IsFloat() {
				switch size := v.Aux.(*types.Type).Size(); size {
				case 4:
					v.Aux = f.Config.Types.UInt32
				case 8:
					v.Aux = f.Config.Types.UInt64
					newInt64 = true
				default:
					v.Fatalf("bad float type with size %d", size)

	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 {
		d := int64(-1)

	case "uint8":
		max = max.SetUint64(maxU8)
	case "int64":
		min = min.SetInt64(minI64)
		max = max.SetInt64(maxI64)
	case "int32":
		min = min.SetInt64(minI32)
		max = max.SetInt64(maxI32)
	case "int16":
		min = min.SetInt64(minI16)
		max = max.SetInt64(maxI16)
	case "int8":
		min = min.SetInt64(minI8)
		max = max.SetInt64(maxI8)
	default:
		panic("unexpected type")
	}

//
// i.e., for the nth term, use
//
//	   1          if   n mod 3 != 1
//	(n-1)/3 * 2   if   n mod 3 == 1
func recur(n, lim int64) *big.Rat {
	term := new(big.Rat)
	if n%3 != 1 {
		term.SetInt64(1)
	} else {
		term.SetInt64((n - 1) / 3 * 2)
	}

	if n > lim {
		return term
	}

	// Directly initialize frac as the fractional
	// inverse of the result of recur.
	frac := new(big.Rat).Inv(recur(n+1, lim))

}

func rthashString(s string, state uint64) uint64 {
	return rthash([]byte(s), state)
}

func randUint64() uint64 {
	buf := make([]byte, 8)
	_, _ = rand.Read(buf)
	return byteorder.LeUint64(buf)
}

// This is a port of wyhash implementation in runtime/hash64.go,
// without using unsafe for purego.

const (
	m1 = 0xa0761d6478bd642f
	m2 = 0xe7037ed1a0b428db
	m3 = 0x8ebc6af09c88c6e3

package big_test

import (
	"fmt"
	"math"
	"math/big"
)

func ExampleFloat_Add() {
	// Operate on numbers of different precision.
	var x, y, z big.Float
	x.SetInt64(1000)          // x is automatically set to 64bit precision
	y.SetFloat64(2.718281828) // y is automatically set to 53bit precision
	z.SetPrec(32)
	z.Add(&x, &y)

	}
	var r = new(Rat)
	for i, want := range testCases {
		r.SetInt64(want)
		if !r.IsInt() {
			t.Errorf("#%d: Rat.SetInt64(%d) is not an integer", i, want)
		}
		num := r.Num()
		if !num.IsInt64() {
			t.Errorf("#%d: Rat.SetInt64(%d) numerator is not an int64", i, want)
		}
		got := num.Int64()
		if got != want {
			t.Errorf("#%d: Rat.SetInt64(%d) = %d, but expected %d", i, want, got, want)
		}
	}
}

	}

	// Bits 0:51 (bytes 0:8, bits 0:64, shift 0, mask 51).
	v.l0 = byteorder.LeUint64(x[0:8])
	v.l0 &= maskLow51Bits
	// Bits 51:102 (bytes 6:14, bits 48:112, shift 3, mask 51).
	v.l1 = byteorder.LeUint64(x[6:14]) >> 3
	v.l1 &= maskLow51Bits
	// Bits 102:153 (bytes 12:20, bits 96:160, shift 6, mask 51).
	v.l2 = byteorder.LeUint64(x[12:20]) >> 6
	v.l2 &= maskLow51Bits