return when {
          b2bit8 && b3bit8 -> 127
          b3bit8 -> 126
          b2bit8 -> 125
          else -> 124
        }
      }

    val b2: Int
      get() = mappedTo[0] and 0x7f

    val b3: Int
      get() = mappedTo[1] and 0x7f
  }

  data class InlineDelta(
    override val rangeStart: Int,
    val codepointDelta: Int,
  ) : MappedRange {

	if d.Gid, b, ok = gstring(b); !ok {
		return nil, ErrBadStat
	}
	if d.Muid, b, ok = gstring(b); !ok {
		return nil, ErrBadStat
	}

	return &d, nil
}

// pbit8 copies the 8-bit number v to b and returns the remaining slice of b.
func pbit8(b []byte, v uint8) []byte {
	b[0] = byte(v)
	return b[1:]
}

// pbit16 copies the 16-bit number v to b in little-endian order and returns the remaining slice of b.

	if d.Gid, b, ok = gstring(b); !ok {
		return nil, ErrBadStat
	}
	if d.Muid, b, ok = gstring(b); !ok {
		return nil, ErrBadStat
	}

	return &d, nil
}

// pbit8 copies the 8-bit number v to b and returns the remaining slice of b.
func pbit8(b []byte, v uint8) []byte {
	b[0] = byte(v)
	return b[1:]
}

// pbit16 copies the 16-bit number v to b in little-endian order and returns the remaining slice of b.

		m int   = 1.0 << s       // 1.0 has type int
		n       = 1.0<<s != i    // 1.0 has type int; n == false if ints are 32bits in size
		o       = 1<<s == 2<<s   // 1 and 2 have type int; o == true if ints are 32bits in size
		// next test only fails on 32bit systems
		// p = 1<<s == 1<<33  // illegal if ints are 32bits in size: 1 has type int, but 1<<33 overflows int
		u          = 1.0 << s    // ERROR "non-integer|float64"

func test32(a, b float32) {
	abits := math.Float32bits(a)
	bbits := math.Float32bits(b)
	if abits != bbits {
		panic(fmt.Sprintf("%08x != %08x\n", abits, bbits))
	}
}

func test64(a, b float64) {
	abits := math.Float64bits(a)
	bbits := math.Float64bits(b)
	if abits != bbits {
		panic(fmt.Sprintf("%016x != %016x\n", abits, bbits))
	}

  // For historical reasons this is limited to 32bit length. At this files
  // inception, sizes were represented using 32bit which forced an implicit cap
  // on the size of the buffer. When this was refactored to use size_t (which
  // could be 64bit) we enforce that the buffer remains at most 32bit length to
  // avoid a change in behavior.
  const size_t max_length_;
};
}  // namespace mlir::TFL

func TestSizeof(t *testing.T) {
	const _64bit = unsafe.Sizeof(uintptr(0)) == 8

	var tests = []struct {
		val    interface{} // type as a value
		_32bit uintptr     // size on 32bit platforms
		_64bit uintptr     // size on 64bit platforms
	}{
		{Addr{}, 32, 48},
		{LSym{}, 72, 120},
		{Prog{}, 132, 200},
	}

	for _, tt := range tests {
		want := tt._32bit
		if _64bit {

	}

	// convert bits
	// We use uint values where we can because those will
	// fit into a single register even on a 32bit machine.
	if base == 10 {
		// common case: use constants for / because
		// the compiler can optimize it into a multiply+shift

		if host32bit {
			// convert the lower digits using 32bit operations
			for u >= 1e9 {
				// Avoid using r = a%b in addition to q = a/b

		k = uint64(1<<s)   // 1 has type uint64; k == 1<<33
		m int = 1.0<<s     // 1.0 has type int
		n = 1.0<<s != i    // 1.0 has type int; n == false if ints are 32bits in size
		o = 1<<s == 2<<s   // 1 and 2 have type int; o == true if ints are 32bits in size
		p = 1<<s == 1<<33  // illegal if ints are 32bits in size: 1 has type int, but 1<<33 overflows int
		u = 1.0 /* ERROR "must be integer" */ <<s         // illegal: 1.0 has type float64, cannot shift

func TestSizeof(t *testing.T) {
	const _64bit = unsafe.Sizeof(uintptr(0)) == 8
	var tests = []struct {
		val    any     // type as a value
		_32bit uintptr // size on 32bit platforms
		_64bit uintptr // size on 64bit platforms
	}{
		{runtime.G{}, 272, 432},   // g, but exported for testing
		{runtime.Sudog{}, 56, 88}, // sudog, but exported for testing
	}

	for _, tt := range tests {