if v.LackingPos() {
			continue
		}
		return false
	}
	return true
}

func (b *Block) AuxIntString() string {
	switch b.Kind.AuxIntType() {
	case "int8":
		return fmt.Sprintf("%v", int8(b.AuxInt))
	case "uint8":
		return fmt.Sprintf("%v", uint8(b.AuxInt))
	case "": // no aux int type
		return ""
	default: // type specified but not implemented - print as int64

// to the `output_buffer`. Both `model_buffer` and `output_buffer` should be a
// valid FlatBuffer format for Model supported by TFLite.
//
// The `input_type`, `output_type` and `inference_type` can be float32 / qint8 /
// int8 / int16.
//
// Returns a partially quantized model if `fully_quantize` is false. Returns a
// non-OK status if the quantization fails.
//
// When `verify_numeric` is true, the model will have it's original float ops

	}

	nx := byte(d.nx)
	t := nx - 56                 // if nx < 56 then the MSB of t is one
	mask1b := byte(int8(t) >> 7) // mask1b is 0xFF iff one block is enough

	separator := byte(0x80) // gets reset to 0x00 once used
	for i := byte(0); i < chunk; i++ {
		mask := byte(int8(i-nx) >> 7) // 0x00 after the end of data

		// if we reached the end of the data, replace with 0x80 or 0x00

      return DT_QUINT8;
    case toco::IODataType::QUANTIZED_INT8:
      return DT_QINT8;
    case toco::IODataType::QUANTIZED_INT16:
      return DT_QINT16;
    case toco::IODataType::INT8:
      return DT_INT8;
    case toco::IODataType::INT16:
      return DT_INT16;
    case toco::IODataType::UINT16:
      return DT_UINT16;
    case toco::IODataType::INT32:
      return DT_INT32;

	// It is saved so next Read call can start where the previous
	// one finished.
	readVal int64
	// readPos indicates the number of low-order bytes of readVal
	// that are still valid.
	readPos int8
}

// New returns a new [Rand] that uses random values from src
// to generate other random values.
func New(src Source) *Rand {
	s64, _ := src.(Source64)
	return &Rand{src: src, s64: s64}
}

			return nil
		}
	}

	var sv reflect.Value

	switch d := dest.(type) {
	case *string:
		sv = reflect.ValueOf(src)
		switch sv.Kind() {
		case reflect.Bool,
			reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64,
			reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64,
			reflect.Float32, reflect.Float64:
			*d = asString(src)
			return nil
		}

	externalEnc int          // xGob, xBinary, or xText
	externalDec int          // xGob, xBinary, or xText
	encIndir    int8         // number of indirections to reach the receiver type; may be negative
	decIndir    int8         // number of indirections to reach the receiver type; may be negative
}

// externalEncoding bits
const (
	xGob    = 1 + iota // GobEncoder or GobDecoder

	}
	return int32(sh<<16 | mb<<8 | me)
}

func GetPPC64Shiftsh(auxint int64) int64 {
	return int64(int8(auxint >> 16))
}

func GetPPC64Shiftmb(auxint int64) int64 {
	return int64(int8(auxint >> 8))
}

func GetPPC64Shiftme(auxint int64) int64 {
	return int64(int8(auxint))
}

// Test if this value can encoded as a mask for a rlwinm like

func signextendAndMask8to64(a int8) (s, z uint64) {
	// ppc64x: "MOVB", "ANDCC\t[$]1015,"
	s = uint64(a) & 0x3F7
	// ppc64x: -"MOVB", "ANDCC\t[$]247,"
	z = uint64(uint8(a)) & 0x3F7
	return
}

// Verify zero-extended values are not sign-extended under a bit mask (#61297)
func zeroextendAndMask8to64(a int8, b int16) (x, y uint64) {
	// ppc64x: -"MOVB\t", -"ANDCC", "MOVBZ"

  && symIsRO(scon)
  => (MakeResult (Eq8 (Load <typ.Int8> sptr mem) (Const8 <typ.Int8> [int8(read8(scon,0))])) mem)

(StaticLECall {callAux} (Addr {scon} (SB)) sptr (Const64 [1]) mem)
  && isSameCall(callAux, "runtime.memequal")
  && symIsRO(scon)
  => (MakeResult (Eq8 (Load <typ.Int8> sptr mem) (Const8 <typ.Int8> [int8(read8(scon,0))])) mem)