// appending the names to names. It returns the number of
// bytes consumed from buf, the number of entries added
// to names, and the new names slice.
func ParseDirent(buf []byte, max int, names []string) (consumed int, count int, newnames []string) {
	origlen := len(buf)
	count = 0
	for max != 0 && len(buf) > 0 {
		reclen, ok := direntReclen(buf)
		if !ok || reclen > uint64(len(buf)) {
			return origlen, count, names
		}
		rec := buf[:reclen]

				err = pe.Err
			}
			return &LinkError{"rename", oldname, newname, err}
		} else if newname == oldname || !SameFile(fi, ofi) {
			return &LinkError{"rename", oldname, newname, syscall.EEXIST}
		}
	}
	err = ignoringEINTR(func() error {
		return syscall.Rename(oldname, newname)
	})
	if err != nil {
		return &LinkError{"rename", oldname, newname, err}
	}
	return nil
}

	fdate = fdate[len(fdate)-len("2006-01-02"):]

	newname := filepath.Join(u.dir.UploadDir(), fdate+".json")
	if _, err := os.Stat(newname); err == nil {
		// Another process uploaded but failed to clean up (or hasn't yet cleaned
		// up). Ensure that cleanup occurs.
		_ = os.Remove(fname)
		return false
	}

	// Lock the upload, to prevent duplicate uploads.
	{
		lockname := newname + ".lock"

// and will automatically implement the various interfaces to return the name, namespace, and a key based on these two.
type Named struct {
	Name, Namespace string
}

// NewNamed builds a Named object from a Kubernetes object type.
func NewNamed(o metav1.Object) Named {
	return Named{Name: o.GetName(), Namespace: o.GetNamespace()}
}

func (n Named) ResourceName() string {
	return n.Namespace + "/" + n.Name
}

	m := makeRenameMap(renames...)
	ast.Inspect(f, func(n ast.Node) bool {
		switch n := n.(type) {
		case *ast.SelectorExpr:
			m.renameSel(n)
			return false
		}
		return true
	})
}

// renameImportPath is like renameIdents but renames import paths.
func renameImportPath(f *ast.File, renames ...string) {
	m := makeRenameMap(renames...)
	ast.Inspect(f, func(n ast.Node) bool {

	typ := a.Type.GetTypeInfo().Type

	name := fmt.Sprintf("#rv%d", i+1)
	obj.name = name
	s.scope.Insert(obj)
	obj.setScopePos(pos)

	tv := syntax.TypeAndValue{Type: typ}
	tv.SetIsValue()

	n := syntax.NewName(pos, obj.Name())
	n.SetTypeInfo(tv)

	a.Name = n

	return obj, n

		}
	}
	return err
}

// Symlink creates a symlink newname -> oldname.
func (sh *Shell) Symlink(oldname, newname string) error {
	// It's not an error to try to recreate an existing symlink.
	if link, err := os.Readlink(newname); err == nil && link == oldname {
		return nil
	}

	if cfg.BuildN || cfg.BuildX {
		sh.ShowCmd("", "ln -s %s %s", oldname, newname)
		if cfg.BuildN {
			return nil
		}
	}

// Must only be called while holding n.mu.
func (n *Named) setState(state namedState) {
	atomic.StoreUint32(&n.state_, uint32(state))
}

// newNamed is like NewNamed but with a *Checker receiver.
func (check *Checker) newNamed(obj *TypeName, underlying Type, methods []*Func) *Named {
	typ := &Named{check: check, obj: obj, fromRHS: underlying, underlying: underlying, methods: methods}
	if obj.typ == nil {

// Must only be called while holding n.mu.
func (n *Named) setState(state namedState) {
	atomic.StoreUint32(&n.state_, uint32(state))
}

// newNamed is like NewNamed but with a *Checker receiver.
func (check *Checker) newNamed(obj *TypeName, underlying Type, methods []*Func) *Named {
	typ := &Named{check: check, obj: obj, fromRHS: underlying, underlying: underlying, methods: methods}
	if obj.typ == nil {

     *
     * Some variables can have their names changed by special annotations like `@ParameterName(name = "newName")`. This is used to preserve
     * the names of the lambda parameters in the situations like this:
     *
     * ```
     * // compiled library
     * fun foo(): (bar: String) -> Unit { ... }
     *