// of type cmd/internal/objabi.SymKind) to values of type SymKind.
var AbiSymKindToSymKind = [...]SymKind{
	objabi.Sxxx:                    Sxxx,
	objabi.STEXT:                   STEXT,
	objabi.SRODATA:                 SRODATA,
	objabi.SNOPTRDATA:              SNOPTRDATA,
	objabi.SDATA:                   SDATA,
	objabi.SBSS:                    SBSS,
	objabi.SNOPTRBSS:               SNOPTRBSS,

		t.Errorf("SymType(es3): expected %v, got %v", sym.Sxxx, es3typ)
	}
	sb3.SetType(sym.SRODATA)
	es3typ = sb3.Type()
	if es3typ != sym.SRODATA {
		t.Errorf("SymType(es3): expected %v, got %v", sym.SRODATA, es3typ)
	}
	es3typ = ldr.SymType(es3)
	if es3typ != sym.SRODATA {
		t.Errorf("SymType(es3): expected %v, got %v", sym.SRODATA, es3typ)
	}

	// New symbols should not initially be reachable.

		s.WriteFloat64(ctxt, 0, f)
		s.Type = objabi.SRODATA
		s.Set(AttrLocal, true)
		s.Set(AttrContentAddressable, true)
		ctxt.constSyms = append(ctxt.constSyms, s)
	})
}

func (ctxt *Link) Int32Sym(i int64) *LSym {
	name := fmt.Sprintf("$i32.%08x", uint64(i))
	return ctxt.LookupInit(name, func(s *LSym) {
		s.Size = 4
		s.WriteInt(ctxt, 0, 4, i)
		s.Type = objabi.SRODATA
		s.Set(AttrLocal, true)

	ctxt.xdefine("runtime.pclntab", sym.SRODATA, int64(pclntab.Vaddr))
	ctxt.defineInternal("runtime.pcheader", sym.SRODATA)
	ctxt.defineInternal("runtime.funcnametab", sym.SRODATA)
	ctxt.defineInternal("runtime.cutab", sym.SRODATA)
	ctxt.defineInternal("runtime.filetab", sym.SRODATA)
	ctxt.defineInternal("runtime.pctab", sym.SRODATA)

	var x [1]struct{}
	_ = x[Sxxx-0]
	_ = x[STEXT-1]
	_ = x[SELFRXSECT-2]
	_ = x[SMACHOPLT-3]
	_ = x[STYPE-4]
	_ = x[SSTRING-5]
	_ = x[SGOSTRING-6]
	_ = x[SGOFUNC-7]
	_ = x[SGCBITS-8]
	_ = x[SRODATA-9]
	_ = x[SFUNCTAB-10]
	_ = x[SELFROSECT-11]
	_ = x[STYPERELRO-12]
	_ = x[SSTRINGRELRO-13]
	_ = x[SGOSTRINGRELRO-14]
	_ = x[SGOFUNCRELRO-15]
	_ = x[SGCBITSRELRO-16]
	_ = x[SRODATARELRO-17]

		sh := ldr.Lookup("runtime.runtime_inittasks", 0)
		sb := ldr.MakeSymbolUpdater(sh)
		sb.SetSize(0)
		sb.SetType(sym.SNOPTRDATA) // Could be SRODATA, but see issue 58857.
		sb.AddAddr(ctxt.Arch, t)
		sb.AddUint(ctxt.Arch, uint64(ldr.SymSize(t)/int64(ctxt.Arch.PtrSize)))
		sb.AddUint(ctxt.Arch, uint64(ldr.SymSize(t)/int64(ctxt.Arch.PtrSize)))
	}
}

		flag |= goobj.SymFlagReflectMethod
	}
	if strings.HasPrefix(s.Name, "type:") && s.Name[5] != '.' && s.Type == objabi.SRODATA {
		flag |= goobj.SymFlagGoType
	}
	flag2 := uint8(0)
	if s.UsedInIface() {
		flag2 |= goobj.SymFlagUsedInIface
	}
	if strings.HasPrefix(s.Name, "go:itab.") && s.Type == objabi.SRODATA {
		flag2 |= goobj.SymFlagItab
	}

	// signal to the symtab() phase that it needs to be grouped in with
	// other similar symbols (gcdata, etc); the dodata() phase will
	// eventually switch the type back to SRODATA.
	inlTreeSym.SetType(sym.SGOFUNC)
	ldr.SetAttrReachable(its, true)
	ldr.SetSymAlign(its, 4) // it has 32-bit fields
	ninl := fi.NumInlTree()
	for i := 0; i < int(ninl); i++ {
		call := fi.InlTree(i)

func symIsRO(sym interface{}) bool {
	lsym := sym.(*obj.LSym)
	return lsym.Type == objabi.SRODATA && len(lsym.R) == 0
}

// symIsROZero reports whether sym is a read-only global whose data contains all zeros.
func symIsROZero(sym Sym) bool {
	lsym := sym.(*obj.LSym)
	if lsym.Type != objabi.SRODATA || len(lsym.R) != 0 {
		return false
	}
	for _, b := range lsym.P {
		if b != 0 {

		switch sect.flags & (elf.SHF_ALLOC | elf.SHF_WRITE | elf.SHF_EXECINSTR) {
		default:
			return errorf("%s: unexpected flags for ELF section %s", pn, sect.name)

		case elf.SHF_ALLOC:
			sb.SetType(sym.SRODATA)

		case elf.SHF_ALLOC + elf.SHF_WRITE:
			if sect.type_ == elf.SHT_NOBITS {
				sb.SetType(sym.SNOPTRBSS)
			} else {
				sb.SetType(sym.SNOPTRDATA)
			}

		case elf.SHF_ALLOC + elf.SHF_EXECINSTR: