// state for writing objects
	Text []*LSym
	Data []*LSym

	// Constant symbols (e.g. $i64.*) are data symbols created late
	// in the concurrent phase. To ensure a deterministic order, we
	// add them to a separate list, sort at the end, and append it
	// to Data.
	constSyms []*LSym

	// Windows SEH symbols are also data symbols that can be created
	// concurrently.
	SEHSyms []*LSym

		sort.SliceStable(ctxt.Data, func(i, j int) bool {
			return ctxt.Data[i].Name < ctxt.Data[j].Name
		})
	}

	// Constant symbols are created late in the concurrent phase. Sort them
	// to ensure a deterministic order.
	sort.Slice(ctxt.constSyms, func(i, j int) bool {
		return ctxt.constSyms[i].Name < ctxt.constSyms[j].Name
	})
	ctxt.Data = append(ctxt.Data, ctxt.constSyms...)
	ctxt.constSyms = nil

			p.start(operands[0])
			if name, abi, ok := p.funcAddress(); ok {
				fmt.Fprintf(w, "def %s %s\n", name, abi)
			}
		}
		return
	case "GLOBL", "PCDATA":
		// No text definitions or symbol references.
	case "DATA", "FUNCDATA":
		// For DATA, operands[0] is defined symbol.
		// For FUNCDATA, operands[0] is an immediate constant.
		// Remaining operands may have references.
		if len(operands) < 2 {
			return

	}
	return fmt.Sprintf("A???%d", a)
}

var Anames = []string{
	"XXX",
	"CALL",
	"DUFFCOPY",
	"DUFFZERO",
	"END",
	"FUNCDATA",
	"JMP",
	"NOP",
	"PCALIGN",
	"PCALIGNMAX",
	"PCDATA",
	"RET",
	"GETCALLERPC",
	"TEXT",
	"UNDEF",
}

func Bool2int(b bool) int {
	// The compiler currently only optimizes this form.
	// See issue 6011.
	var i int
	if b {
		i = 1

	ADDV	$-16, R29
	MOVV	R1, 8(R29)
	MOVV	R0, 0(R29)
	JAL	runtime·newproc(SB)
	ADDV	$16, R29

	// start this M
	JAL	runtime·mstart(SB)

	MOVV	R0, 1(R0)
	RET

DATA	runtime·mainPC+0(SB)/8,$runtime·main(SB)
GLOBL	runtime·mainPC(SB),RODATA,$8

TEXT runtime·breakpoint(SB),NOSPLIT|NOFRAME,$0-0
	MOVV	R0, 2(R0) // TODO: TD
	RET

TEXT runtime·asminit(SB),NOSPLIT|NOFRAME,$0-0
	RET

TEXT runtime·panicSliceConvert<ABIInternal>(SB),NOSPLIT,$0-16
	MOV	T2, X10
	MOV	T3, X11
	JMP	runtime·goPanicSliceConvert<ABIInternal>(SB)

DATA	runtime·mainPC+0(SB)/8,$runtime·main<ABIInternal>(SB)

	MOVD 	R2, 8(R15)
	MOVD 	$0, 0(R15)
	BL	runtime·newproc(SB)
	ADD	$16, R15

	// start this M
	BL	runtime·mstart(SB)

	MOVD	$0, 1(R0)
	RET

DATA	runtime·mainPC+0(SB)/8,$runtime·main(SB)
GLOBL	runtime·mainPC(SB),RODATA,$8

TEXT runtime·breakpoint(SB),NOSPLIT|NOFRAME,$0-0
	BRRK
	RET

TEXT runtime·asminit(SB),NOSPLIT|NOFRAME,$0-0
	RET

TEXT runtime·mstart(SB),NOSPLIT|TOPFRAME,$0

	ADDU	$-8, R29
	MOVW	R1, 4(R29)
	MOVW	R0, 0(R29)
	JAL	runtime·newproc(SB)
	ADDU	$8, R29

	// start this M
	JAL	runtime·mstart(SB)

	UNDEF
	RET

DATA	runtime·mainPC+0(SB)/4,$runtime·main(SB)
GLOBL	runtime·mainPC(SB),RODATA,$4

TEXT runtime·breakpoint(SB),NOSPLIT,$0-0
	BREAK
	RET

TEXT runtime·asminit(SB),NOSPLIT,$0-0
	RET

TEXT runtime·mstart(SB),NOSPLIT|TOPFRAME,$0

	ADDV	$-16, R3
	MOVV	R19, 8(R3)
	MOVV	R0, 0(R3)
	JAL	runtime·newproc(SB)
	ADDV	$16, R3

	// start this M
	JAL	runtime·mstart(SB)

	MOVV	R0, 1(R0)
	RET

DATA	runtime·mainPC+0(SB)/8,$runtime·main<ABIInternal>(SB)
GLOBL	runtime·mainPC(SB),RODATA,$8

TEXT runtime·breakpoint(SB),NOSPLIT|NOFRAME,$0-0
	BREAK
	RET

TEXT runtime·asminit(SB),NOSPLIT|NOFRAME,$0-0
	RET

TEXT runtime·mstart(SB),NOSPLIT|TOPFRAME,$0

	BL	runtime·newproc(SB)
	ADD	$8, R13	// pop args and LR

	// start this M
	BL	runtime·mstart(SB)

	MOVW	$1234, R0
	MOVW	$1000, R1
	MOVW	R0, (R1)	// fail hard

DATA	runtime·mainPC+0(SB)/4,$runtime·main(SB)
GLOBL	runtime·mainPC(SB),RODATA,$4

TEXT runtime·breakpoint(SB),NOSPLIT,$0-0
	// gdb won't skip this breakpoint instruction automatically,
	// so you must manually "set $pc+=4" to skip it and continue.