ans = i % j
		}
	case "<<":
		ans = i << uint64(j)
	case ">>":
		ans = i >> uint64(j)
	}
	switch t {
	case "int32":
		ans = int64(int32(ans))
	case "int16":
		ans = int64(int16(ans))
	case "int8":
		ans = int64(int8(ans))
	}
	return fmt.Sprintf("%d", ans)
}

func main() {
	w := new(bytes.Buffer)
	fmt.Fprintf(w, "// run\n")

			is := *(*[]int16)(v.ptr)
			return func(i, j int) { is[i], is[j] = is[j], is[i] }
		case 1:
			is := *(*[]int8)(v.ptr)
			return func(i, j int) { is[i], is[j] = is[j], is[i] }
		}
	}

	s := (*unsafeheader.Slice)(v.ptr)
	tmp := unsafe_New(typ) // swap scratch space

	return func(i, j int) {
		if uint(i) >= uint(s.Len) || uint(j) >= uint(s.Len) {
			panic("reflect: slice index out of range")
		}

// 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

			return func(i, j int) { is[i], is[j] = is[j], is[i] }
		case 1:
			is := *(*[]int8)(v.ptr)
			return func(i, j int) { is[i], is[j] = is[j], is[i] }
		}
	}

	s := (*unsafeheader.Slice)(v.ptr)
	tmp := unsafe_New(typ) // swap scratch space

	return func(i, j int) {
		if uint(i) >= uint(s.Len) || uint(j) >= uint(s.Len) {
			panic("reflect: slice index out of range")
		}

			obj.SetString(obj.String() + "x")
		case reflect.Bool:
			obj.SetBool(!obj.Bool())
		case reflect.Float32, reflect.Float64:
			obj.SetFloat(obj.Float()*2.0 + 1.0)
		case reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64, reflect.Int:
			obj.SetInt(obj.Int() + 1)
		case reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64, reflect.Uint:
			obj.SetUint(obj.Uint() + 1)
		default:
		}
	}

func archRegForAbiReg(r abi.RegIndex, c *Config) uint8 {
	var m int8
	if int(r) < len(c.intParamRegs) {
		m = c.intParamRegs[r]
	} else {
		m = c.floatParamRegs[int(r)-len(c.intParamRegs)]
	}
	return uint8(m)
}

// For ABI register index r, returns the register number used in the obj
// package (assembler).
func ObjRegForAbiReg(r abi.RegIndex, c *Config) int16 {
	m := archRegForAbiReg(r, c)
	return c.registers[m].objNum

	}
	return fmt.Sprintf("v%d", v.ID)
}

func (v *Value) AuxInt8() int8 {
	if opcodeTable[v.Op].auxType != auxInt8 && opcodeTable[v.Op].auxType != auxNameOffsetInt8 {
		v.Fatalf("op %s doesn't have an int8 aux field", v.Op)
	}
	return int8(v.AuxInt)
}

func (v *Value) AuxUInt8() uint8 {
	if opcodeTable[v.Op].auxType != auxUInt8 {

func New() hash.Hash {
	if boring.Enabled {
		return boring.NewSHA1()
	}
	d := new(digest)
	d.Reset()
	return d
}

func (d *digest) Size() int { return Size }

func (d *digest) BlockSize() int { return BlockSize }

func (d *digest) Write(p []byte) (nn int, err error) {
	boring.Unreachable()
	nn = len(p)
	d.len += uint64(nn)
	if d.nx > 0 {
		n := copy(d.x[d.nx:], p)
		d.nx += n
		if d.nx == chunk {

func fEqPtrEqPtr(a, b *int, f float64) bool {
	return a == b && f > Cf2 || a == b && f < -Cf2 // ERROR "Redirect EqPtr based on EqPtr$"
}

func fEqPtrNeqPtr(a, b *int, f float64) bool {
	return a == b && f > Cf2 || a != b && f < -Cf2 // ERROR "Redirect NeqPtr based on EqPtr$"
}

func fNeqPtrEqPtr(a, b *int, f float64) bool {

Oliver Liu <******@****.***> 1520311744 -0800