if imp == nil {
				// create a new fake package
				// come up with a sensible package name (heuristic)
				name := path
				if i := len(name); i > 0 && name[i-1] == '/' {
					name = name[:i-1]
				}
				if i := strings.LastIndex(name, "/"); i >= 0 {
					name = name[i+1:]
				}
				imp = NewPackage(path, name)
			}
			// continue to use the package as best as we can

  };

  // Array of names of each positional argument, terminated by nullptr.
  static const char** StaticArgNames() {
    static const char* kNames[] = {"myfeed", nullptr};
    return kNames;
  }

  // Array of names of each positional variable, terminated by nullptr.
  static const char** StaticVariableNames() {
    static const char* kNames[] = {"myvar_readonly", "myvar", "myvar2", nullptr};

}

type opSet struct {
	lo    As
	names []string
}

// Not even worth sorting
var aSpace []opSet

// RegisterOpcode binds a list of instruction names
// to a given instruction number range.
func RegisterOpcode(lo As, Anames []string) {
	if len(Anames) > AllowedOpCodes {
		panic(fmt.Sprintf("too many instructions, have %d max %d", len(Anames), AllowedOpCodes))
	}

func nameWithoutInst(name string) string {
	start := strings.Index(name, "[")
	if start < 0 {
		return name
	}
	end := strings.LastIndex(name, "]")
	if end < 0 {
		// Malformed name, should contain closing bracket too.
		return name
	}
	return name[0:start] + name[end+1:]
}

// splitExampleName attempts to split example name s at index i,
// and reports if that produces a valid split. The suffix may be

	//           constraints to make sure we don't rely on them if they
	//           are not properly set yet.
	tname := NewTypeName(name.Pos(), check.pkg, name.Value, nil)
	tpar := check.newTypeParam(tname, Typ[Invalid]) // assigns type to tname as a side-effect
	check.declare(check.scope, name, tname, scopePos)
	return tpar
}

func (check *Checker) collectMethods(obj *TypeName) {
	// get associated methods

	REG_T4   = REG_X29
	REG_T5   = REG_X30
	REG_T6   = REG_X31 // aka REG_TMP

	// Go runtime register names.
	REG_CTXT = REG_S10 // Context for closures.
	REG_G    = REG_S11 // G pointer.
	REG_LR   = REG_RA  // Link register.
	REG_TMP  = REG_T6  // Reserved for assembler use.

	// ABI names for floating point registers.
	REG_FT0  = REG_F0
	REG_FT1  = REG_F1
	REG_FT2  = REG_F2
	REG_FT3  = REG_F3

		path := append(empty, o.Name()...)
		path = append(path, opType)

		T := o.Type()

		if tname.IsAlias() {
			// type alias
			if r := find(obj, T, path, nil); r != nil {
				return Path(r), nil
			}
		} else {
			if named, _ := T.(*types.Named); named != nil {
				if r := findTypeParam(obj, named.TypeParams(), path, nil); r != nil {
					// generic named type
					return Path(r), nil
				}
			}

	pkg := importPkg(t, "strings", ".")

	scope := pkg.Scope()
	for _, name := range scope.Names() {
		obj := scope.Lookup(name)
		if obj.Pkg() == nil {
			t.Errorf("no pkg for %s", obj)
		}
		if tname, _ := obj.(*types.TypeName); tname != nil {
			named := tname.Type().(*types.Named)
			for i := 0; i < named.NumMethods(); i++ {
				m := named.Method(i)
				if m.Pkg() == nil {
					t.Errorf("no pkg for %s", m)
				}

	setScopePos(pos syntax.Pos)
}

func isExported(name string) bool {
	ch, _ := utf8.DecodeRuneInString(name)
	return unicode.IsUpper(ch)
}

// Id returns name if it is exported, otherwise it
// returns the name qualified with the package path.
func Id(pkg *Package, name string) string {
	if isExported(name) {
		return name
	}
	// unexported names need the package path for differentiation

			return err
		}
		for _, gw := range waypoints.Items {
			names = append(names, gw.Name)
		}
	}

	var wg sync.WaitGroup
	var mu sync.Mutex
	for _, name := range names {
		wg.Add(1)
		go func(name string) {
			defer wg.Done()
			if err := kubeClient.GatewayAPI().GatewayV1().Gateways(namespace).
				Delete(context.Background(), name, metav1.DeleteOptions{}); err != nil {
				if errors.IsNotFound(err) {