return
	}

	for _, elfsym := range syms {
		if elf.ST_TYPE(elfsym.Info) == elf.STT_NOTYPE || elf.ST_TYPE(elfsym.Info) == elf.STT_SECTION {
			continue
		}

		// Symbols whose names start with "type:" are compiler generated,
		// so make functions with that prefix internal.
		ver := 0
		symname := elfsym.Name // (unmangled) symbol name

	rv.enqueue(svm)
}

func (rv *ResourceVersionController) updateSVM(logger klog.Logger, oldObj, newObj interface{}) {
	oldSVM := oldObj.(*svmv1alpha1.StorageVersionMigration)
	newSVM := newObj.(*svmv1alpha1.StorageVersionMigration)
	logger.V(4).Info("Updating", "svm", klog.KObj(oldSVM))
	rv.enqueue(newSVM)
}

func (rv *ResourceVersionController) enqueue(svm *svmv1alpha1.StorageVersionMigration) {

	StartLine int32
	Text      *Prog
	Autot     map[*LSym]struct{}
	Pcln      Pcln
	InlMarks  []InlMark
	spills    []RegSpill

	dwarfInfoSym       *LSym
	dwarfLocSym        *LSym
	dwarfRangesSym     *LSym
	dwarfAbsFnSym      *LSym
	dwarfDebugLinesSym *LSym

	GCArgs             *LSym
	GCLocals           *LSym
	StackObjects       *LSym
	OpenCodedDeferInfo *LSym

	svmc.enqueue(svm)
}

func (svmc *SVMController) updateSVM(logger klog.Logger, oldObj, newObj interface{}) {
	oldSVM := oldObj.(*svmv1alpha1.StorageVersionMigration)
	newSVM := newObj.(*svmv1alpha1.StorageVersionMigration)
	logger.V(4).Info("Updating", "svm", klog.KObj(oldSVM))
	svmc.enqueue(newSVM)
}

func (svmc *SVMController) enqueue(svm *svmv1alpha1.StorageVersionMigration) {

	})
}

// GCLocalsSym generates a content-addressable sym containing data.
func (ctxt *Link) GCLocalsSym(data []byte) *LSym {
	sum := notsha256.Sum256(data)
	str := base64.StdEncoding.EncodeToString(sum[:16])
	return ctxt.LookupInit(fmt.Sprintf("gclocals·%s", str), func(lsym *LSym) {
		lsym.P = data
		lsym.Set(AttrContentAddressable, true)
	})
}

// Assign index to symbols.

			l.objSyms[oldi] = objSym{r.objidx, li}
		}
		return oldi
	}
	oldr, oldli := l.toLocal(oldi)
	oldsym := oldr.Sym(oldli)
	if oldsym.Dupok() {
		return oldi
	}
	overwrite := r.DataSize(li) != 0
	if overwrite {
		// new symbol overwrites old symbol.
		oldtyp := sym.AbiSymKindToSymKind[objabi.SymKind(oldsym.Type())]
		if !(oldtyp.IsData() && oldr.DataSize(oldli) == 0) {

		if ctxt.Debugasm > 1 {
			fn := func(par *LSym, aux *LSym) {
				writeAuxSymDebug(ctxt, par, aux)
			}
			ctxt.traverseAuxSyms(traverseAux, fn)
		}
	}
}

func (ctxt *Link) writeSymDebug(s *LSym) {
	ctxt.writeSymDebugNamed(s, s.Name)
}

func (ctxt *Link) writeSymDebugNamed(s *LSym, name string) {
	ver := ""
	if ctxt.Debugasm > 1 {

  return e->typ == typ && e->which == which && e->state == state && e->keysym.scancode == scan && e->keysym.sym == sym && e->keysym.mod == mod && e->keysym.unicode == uni;
}

void cTest(SDL_KeyboardEvent *event) {
 printf("C: %#x %#x %#x %#x %#x %#x %#x\n", event->typ, event->which, event->state,
   event->keysym.scancode, event->keysym.sym, event->keysym.mod, event->keysym.unicode);
 fflush(stdout);
}

// api

	if c.fe == nil {
		pkg := types.NewPkg("my/import/path", "path")
		fn := ir.NewFunc(src.NoXPos, src.NoXPos, pkg.Lookup("function"), types.NewSignature(nil, nil, nil))
		fn.DeclareParams(true)
		fn.LSym = &obj.LSym{Name: "my/import/path.function"}

		c.fe = TestFrontend{
			t:    c.tb,
			ctxt: c.config.ctxt,
			f:    fn,
		}
	}
	return c.fe
}

func (c *Conf) Temp(typ *types.Type) *ir.Name {

}

// globalMapInitLsyms records the LSym of each map.init.NNN outlined
// map initializer function created by the compiler.
var globalMapInitLsyms map[*obj.LSym]struct{}

// RegisterMapInitLsym records "s" in the set of outlined map initializer
// functions.
func RegisterMapInitLsym(s *obj.LSym) {
	if globalMapInitLsyms == nil {
		globalMapInitLsyms = make(map[*obj.LSym]struct{})
	}
	globalMapInitLsyms[s] = struct{}{}