// result: (LoweredAtomicAnd32 (AND <typ.UInt32Ptr> (MOVVconst [^3]) ptr) (OR <typ.UInt64> (SLLV <typ.UInt32> (ZeroExt8to32 val) (SLLVconst <typ.UInt64> [3] (ANDconst <typ.UInt64> [3] (XORconst <typ.UInt64> [3] ptr)))) (NORconst [0] <typ.UInt64> (SLLV <typ.UInt64> (MOVVconst [0xff]) (SLLVconst <typ.UInt64> [3] (ANDconst <typ.UInt64> [3] (XORconst <typ.UInt64> [3] ptr)))))) mem)
	for {
		ptr := v_0
		val := v_1
		mem := v_2

)

var (
	smallIntAsm   int64
	bigIntAsm     uint64
	stringAsm     [len(stringVal)]byte
	longStringAsm [len(longStringVal)]byte
)

type typ struct {
	a uint64
	b [100]uint8
	c uint8
}

var (
	typSize uint64

	typA, typB, typC uint64
)

func main() {
	if smallInt != smallIntAsm {
		println("smallInt", smallInt, "!=", smallIntAsm)
	}
	if bigInt != bigIntAsm {

	t.Int8 = types.Types[types.TINT8]
	t.Int16 = types.Types[types.TINT16]
	t.Int32 = types.Types[types.TINT32]
	t.Int64 = types.Types[types.TINT64]
	t.UInt8 = types.Types[types.TUINT8]
	t.UInt16 = types.Types[types.TUINT16]
	t.UInt32 = types.Types[types.TUINT32]
	t.UInt64 = types.Types[types.TUINT64]
	t.Int = types.Types[types.TINT]
	t.Float32 = types.Types[types.TFLOAT32]
	t.Float64 = types.Types[types.TFLOAT64]

func (c *sigctxt) rbp() uint64 { return uint64(c.regs().gregs[_REG_RBP]) }
func (c *sigctxt) rsp() uint64 { return uint64(c.regs().gregs[_REG_RSP]) }
func (c *sigctxt) r8() uint64  { return uint64(c.regs().gregs[_REG_R8]) }
func (c *sigctxt) r9() uint64  { return uint64(c.regs().gregs[_REG_R9]) }
func (c *sigctxt) r10() uint64 { return uint64(c.regs().gregs[_REG_R10]) }
func (c *sigctxt) r11() uint64 { return uint64(c.regs().gregs[_REG_R11]) }

	// Assign values just to make sure the compiler doesn't optimize away the statements.
	var (
		i int64
		u uint64
		f float64
		b bool
		s string
		x any
		p = &i
		d time.Duration
	)
	a := int(testing.AllocsPerRun(5, func() {
		i = Int64("key", 1).Value.Int64()
		u = Uint64("key", 1).Value.Uint64()
		f = Float64("key", 1).Value.Float64()
		b = Bool("key", true).Value.Bool()

	for _, f := range fields {
		checkSchemaField(t, user, f, func(f *schema.Field) {})
	}
}

type (
	ID      int64
	INT     int
	INT8    int8
	INT16   int16
	INT32   int32
	INT64   int64
	UINT    uint
	UINT8   uint8
	UINT16  uint16
	UINT32  uint32
	UINT64  uint64
	FLOAT32 float32
	FLOAT64 float64
	BOOL    bool
	STRING  string
	TIME    time.Time
	BYTES   []byte

	return b.order.Uint32(a)
}

func (b *buf) uint64() uint64 {
	a := b.bytes(8)
	if a == nil {
		return 0
	}
	return b.order.Uint64(a)
}

// Read a varint, which is 7 bits per byte, little endian.
// the 0x80 bit means read another byte.
func (b *buf) varint() (c uint64, bits uint) {
	for i := 0; i < len(b.data); i++ {
		byte := b.data[i]
		c |= uint64(byte&0x7F) << bits
		bits += 7

	s.Rdev = st.Rdev
	s.Size = st.Size
	s.Atim = Timespec{int64(st.Atime), int64(st.Atime_nsec)}
	s.Mtim = Timespec{int64(st.Mtime), int64(st.Mtime_nsec)}
	s.Ctim = Timespec{int64(st.Ctime), int64(st.Ctime_nsec)}
	s.Blksize = st.Blksize
	s.Blocks = st.Blocks
}

func (r *PtraceRegs) PC() uint64 { return r.Regs[64] }

func (r *PtraceRegs) SetPC(pc uint64) { r.Regs[64] = pc }

func (iov *Iovec) SetLen(length int) {

		`state.encodeUint(uint64(len(x)))
		state.b.WriteString(x)`,
	},
	{
		"uint",
		"Uint",
		"0",
		`state.encodeUint(uint64(x))`,
	},
	{
		"uint16",
		"Uint16",
		"0",
		`state.encodeUint(uint64(x))`,
	},
	{
		"uint32",
		"Uint32",
		"0",
		`state.encodeUint(uint64(x))`,
	},
	{
		"uint64",
		"Uint64",
		"0",
		`state.encodeUint(x)`,
	},
	{

	Flags     SectionFlag
	Addr      uint64
	Offset    uint64
	Size      uint64
	Link      uint32
	Info      uint32
	Addralign uint64
	Entsize   uint64

	// FileSize is the size of this section in the file in bytes.
	// If a section is compressed, FileSize is the size of the
	// compressed data, while Size (above) is the size of the
	// uncompressed data.
	FileSize uint64
}