// Package fstests provides generic integration tests for the Fs and // Object interfaces. // // These tests are concerned with the basic functionality of a // backend. The tests in fs/sync and fs/operations tests more // cornercases that these tests don't. package fstests import ( "bytes" "context" "errors" "fmt" "io" "math/bits" "os" "path" "path/filepath" "reflect" "sort" "strconv" "strings" "testing" "time" "github.com/rclone/rclone/fs" "github.com/rclone/rclone/fs/config" "github.com/rclone/rclone/fs/fserrors" "github.com/rclone/rclone/fs/fspath" "github.com/rclone/rclone/fs/hash" "github.com/rclone/rclone/fs/object" "github.com/rclone/rclone/fs/operations" "github.com/rclone/rclone/fs/walk" "github.com/rclone/rclone/fstest" "github.com/rclone/rclone/fstest/testserver" "github.com/rclone/rclone/lib/encoder" "github.com/rclone/rclone/lib/random" "github.com/rclone/rclone/lib/readers" "github.com/stretchr/testify/assert" "github.com/stretchr/testify/require" ) // InternalTester is an optional interface for Fs which allows to execute internal tests // // This interface should be implemented in 'backend'_internal_test.go and not in 'backend'.go type InternalTester interface { InternalTest(*testing.T) } // ChunkedUploadConfig contains the values used by TestFsPutChunked // to determine the limits of chunked uploading type ChunkedUploadConfig struct { // Minimum allowed chunk size MinChunkSize fs.SizeSuffix // Maximum allowed chunk size, 0 is no limit MaxChunkSize fs.SizeSuffix // Rounds the given chunk size up to the next valid value // nil will disable rounding // e.g. the next power of 2 CeilChunkSize func(fs.SizeSuffix) fs.SizeSuffix // More than one chunk is required on upload NeedMultipleChunks bool // Skip this particular remote Skip bool } // SetUploadChunkSizer is a test only interface to change the upload chunk size at runtime type SetUploadChunkSizer interface { // Change the configured UploadChunkSize. // Will only be called while no transfer is in progress. SetUploadChunkSize(fs.SizeSuffix) (fs.SizeSuffix, error) } // SetUploadCutoffer is a test only interface to change the upload cutoff size at runtime type SetUploadCutoffer interface { // Change the configured UploadCutoff. // Will only be called while no transfer is in progress. SetUploadCutoff(fs.SizeSuffix) (fs.SizeSuffix, error) } // SetCopyCutoffer is a test only interface to change the copy cutoff size at runtime type SetCopyCutoffer interface { // Change the configured CopyCutoff. // Will only be called while no transfer is in progress. SetCopyCutoff(fs.SizeSuffix) (fs.SizeSuffix, error) } // NextPowerOfTwo returns the current or next bigger power of two. // All values less or equal 0 will return 0 func NextPowerOfTwo(i fs.SizeSuffix) fs.SizeSuffix { return 1 << uint(64-bits.LeadingZeros64(uint64(i)-1)) } // NextMultipleOf returns a function that can be used as a CeilChunkSize function. // This function will return the next multiple of m that is equal or bigger than i. // All values less or equal 0 will return 0. func NextMultipleOf(m fs.SizeSuffix) func(fs.SizeSuffix) fs.SizeSuffix { if m <= 0 { panic(fmt.Sprintf("invalid multiplier %s", m)) } return func(i fs.SizeSuffix) fs.SizeSuffix { if i <= 0 { return 0 } return (((i - 1) / m) + 1) * m } } // dirsToNames returns a sorted list of names func dirsToNames(dirs []fs.Directory) []string { names := []string{} for _, dir := range dirs { names = append(names, fstest.Normalize(dir.Remote())) } sort.Strings(names) return names } // objsToNames returns a sorted list of object names func objsToNames(objs []fs.Object) []string { names := []string{} for _, obj := range objs { names = append(names, fstest.Normalize(obj.Remote())) } sort.Strings(names) return names } // findObject finds the object on the remote func findObject(ctx context.Context, t *testing.T, f fs.Fs, Name string) fs.Object { var obj fs.Object var err error sleepTime := 1 * time.Second for i := 1; i <= *fstest.ListRetries; i++ { obj, err = f.NewObject(ctx, Name) if err == nil { break } t.Logf("Sleeping for %v for findObject eventual consistency: %d/%d (%v)", sleepTime, i, *fstest.ListRetries, err) time.Sleep(sleepTime) sleepTime = (sleepTime * 3) / 2 } require.NoError(t, err) return obj } // retry f() until no retriable error func retry(t *testing.T, what string, f func() error) { const maxTries = 10 var err error for tries := 1; tries <= maxTries; tries++ { err = f() // exit if no error, or error is not retriable if err == nil || !fserrors.IsRetryError(err) { break } t.Logf("%s error: %v - low level retry %d/%d", what, err, tries, maxTries) time.Sleep(2 * time.Second) } require.NoError(t, err, what) } // check interface // PutTestContentsMetadata puts file with given contents to the remote and checks it but unlike TestPutLarge doesn't remove // // It uploads the object with the mimeType and metadata passed in if set. // // It returns the object which will have been checked if check is set func PutTestContentsMetadata(ctx context.Context, t *testing.T, f fs.Fs, file *fstest.Item, contents string, check bool, mimeType string, metadata fs.Metadata) fs.Object { var ( err error obj fs.Object uploadHash *hash.MultiHasher ) retry(t, "Put", func() error { buf := bytes.NewBufferString(contents) uploadHash = hash.NewMultiHasher() in := io.TeeReader(buf, uploadHash) file.Size = int64(buf.Len()) obji := object.NewStaticObjectInfo(file.Path, file.ModTime, file.Size, true, nil, nil) if mimeType != "" || metadata != nil { // force the --metadata flag on temporarily if metadata != nil { ci := fs.GetConfig(ctx) previousMetadata := ci.Metadata ci.Metadata = true defer func() { ci.Metadata = previousMetadata }() } obji.WithMetadata(metadata).WithMimeType(mimeType) } obj, err = f.Put(ctx, in, obji) return err }) file.Hashes = uploadHash.Sums() if check { // Overwrite time with that in metadata if it is already specified mtime, ok := metadata["mtime"] if ok { modTime, err := time.Parse(time.RFC3339Nano, mtime) require.NoError(t, err) file.ModTime = modTime } file.Check(t, obj, f.Precision()) // Re-read the object and check again obj = findObject(ctx, t, f, file.Path) file.Check(t, obj, f.Precision()) } return obj } // PutTestContents puts file with given contents to the remote and checks it but unlike TestPutLarge doesn't remove func PutTestContents(ctx context.Context, t *testing.T, f fs.Fs, file *fstest.Item, contents string, check bool) fs.Object { return PutTestContentsMetadata(ctx, t, f, file, contents, check, "", nil) } // testPut puts file with random contents to the remote func testPut(ctx context.Context, t *testing.T, f fs.Fs, file *fstest.Item) (string, fs.Object) { contents := random.String(100) return contents, PutTestContents(ctx, t, f, file, contents, true) } // testPutMimeType puts file with random contents to the remote and the mime type given func testPutMimeType(ctx context.Context, t *testing.T, f fs.Fs, file *fstest.Item, mimeType string, metadata fs.Metadata) (string, fs.Object) { contents := random.String(100) return contents, PutTestContentsMetadata(ctx, t, f, file, contents, true, mimeType, metadata) } // testPutLarge puts file to the remote, checks it and removes it on success. // // If stream is set, then it uploads the file with size -1 func testPutLarge(ctx context.Context, t *testing.T, f fs.Fs, file *fstest.Item, stream bool) { var ( err error obj fs.Object uploadHash *hash.MultiHasher ) retry(t, "PutLarge", func() error { r := readers.NewPatternReader(file.Size) uploadHash = hash.NewMultiHasher() in := io.TeeReader(r, uploadHash) size := file.Size if stream { size = -1 } obji := object.NewStaticObjectInfo(file.Path, file.ModTime, size, true, nil, nil) obj, err = f.Put(ctx, in, obji) if file.Size == 0 && err == fs.ErrorCantUploadEmptyFiles { t.Skip("Can't upload zero length files") } return err }) file.Hashes = uploadHash.Sums() file.Check(t, obj, f.Precision()) // Re-read the object and check again obj = findObject(ctx, t, f, file.Path) file.Check(t, obj, f.Precision()) // Download the object and check it is OK downloadHash := hash.NewMultiHasher() download, err := obj.Open(ctx) require.NoError(t, err) n, err := io.Copy(downloadHash, download) require.NoError(t, err) assert.Equal(t, file.Size, n) require.NoError(t, download.Close()) assert.Equal(t, file.Hashes, downloadHash.Sums()) // Remove the object require.NoError(t, obj.Remove(ctx)) } // TestPutLarge puts file to the remote, checks it and removes it on success. func TestPutLarge(ctx context.Context, t *testing.T, f fs.Fs, file *fstest.Item) { testPutLarge(ctx, t, f, file, false) } // TestPutLargeStreamed puts file of unknown size to the remote, checks it and removes it on success. func TestPutLargeStreamed(ctx context.Context, t *testing.T, f fs.Fs, file *fstest.Item) { testPutLarge(ctx, t, f, file, true) } // ReadObject reads the contents of an object as a string func ReadObject(ctx context.Context, t *testing.T, obj fs.Object, limit int64, options ...fs.OpenOption) string { what := fmt.Sprintf("readObject(%q) limit=%d, options=%+v", obj, limit, options) in, err := obj.Open(ctx, options...) require.NoError(t, err, what) var r io.Reader = in if limit >= 0 { r = &io.LimitedReader{R: r, N: limit} } contents, err := io.ReadAll(r) require.NoError(t, err, what) err = in.Close() require.NoError(t, err, what) return string(contents) } // ExtraConfigItem describes a config item for the tests type ExtraConfigItem struct{ Name, Key, Value string } // Opt is options for Run type Opt struct { RemoteName string NilObject fs.Object ExtraConfig []ExtraConfigItem SkipBadWindowsCharacters bool // skips unusable characters for windows if set SkipFsMatch bool // if set skip exact matching of Fs value TiersToTest []string // List of tiers which can be tested in setTier test ChunkedUpload ChunkedUploadConfig UnimplementableFsMethods []string // List of methods which can't be implemented in this wrapping Fs UnimplementableObjectMethods []string // List of methods which can't be implemented in this wrapping Fs SkipFsCheckWrap bool // if set skip FsCheckWrap SkipObjectCheckWrap bool // if set skip ObjectCheckWrap SkipInvalidUTF8 bool // if set skip invalid UTF-8 checks QuickTestOK bool // if set, run this test with make quicktest } // returns true if x is found in ss func stringsContains(x string, ss []string) bool { for _, s := range ss { if x == s { return true } } return false } // toUpperASCII returns a copy of the string s with all Unicode // letters mapped to their upper case. func toUpperASCII(s string) string { return strings.Map(func(r rune) rune { if 'a' <= r && r <= 'z' { r -= 'a' - 'A' } return r }, s) } // removeConfigID removes any {xyz} parts of the name put in for // config disambiguation func removeConfigID(s string) string { bra := strings.IndexRune(s, '{') ket := strings.IndexRune(s, '}') if bra >= 0 && ket > bra { s = s[:bra] + s[ket+1:] } return s } // InternalTestFiles is the state of the remote at the moment the internal tests are called var InternalTestFiles []fstest.Item // Run runs the basic integration tests for a remote using the options passed in. // // They are structured in a hierarchical way so that dependencies for the tests can be created. // // For example some tests require the directory to be created - these // are inside the "FsMkdir" test. Some tests require some tests files // - these are inside the "FsPutFiles" test. func Run(t *testing.T, opt *Opt) { var ( f fs.Fs remoteName = opt.RemoteName subRemoteName string subRemoteLeaf string file1 = fstest.Item{ ModTime: fstest.Time("2001-02-03T04:05:06.499999999Z"), Path: "file name.txt", } file1Contents string file1MimeType = "text/csv" file1Metadata = fs.Metadata{"rclone-test": "potato"} file2 = fstest.Item{ ModTime: fstest.Time("2001-02-03T04:05:10.123123123Z"), Path: `hello? sausage/êé/Hello, 世界/ " ' @ < > & ? + ≠/z.txt`, } isLocalRemote bool purged bool // whether the dir has been purged or not ctx = context.Background() ci = fs.GetConfig(ctx) unwrappableFsMethods = []string{"Command"} // these Fs methods don't need to be wrapped ever ) if strings.HasSuffix(os.Getenv("RCLONE_CONFIG"), "/notfound") && *fstest.RemoteName == "" && !opt.QuickTestOK { t.Skip("quicktest only") } // Skip the test if the remote isn't configured skipIfNotOk := func(t *testing.T) { if f == nil { t.Skipf("WARN: %q not configured", remoteName) } } // Skip if remote is not ListR capable, otherwise set the useListR // flag, returning a function to restore its value skipIfNotListR := func(t *testing.T) func() { skipIfNotOk(t) if f.Features().ListR == nil { t.Skip("FS has no ListR interface") } previous := ci.UseListR ci.UseListR = true return func() { ci.UseListR = previous } } // Skip if remote is not SetTier and GetTier capable skipIfNotSetTier := func(t *testing.T) { skipIfNotOk(t) if !f.Features().SetTier || !f.Features().GetTier { t.Skip("FS has no SetTier & GetTier interfaces") } } // Return true if f (or any of the things it wraps) is bucket // based but not at the root. isBucketBasedButNotRoot := func(f fs.Fs) bool { f = fs.UnWrapFs(f) return f.Features().BucketBased && strings.Contains(strings.Trim(f.Root(), "/"), "/") } // Initialise the remote fstest.Initialise() // Set extra config if supplied for _, item := range opt.ExtraConfig { config.FileSet(item.Name, item.Key, item.Value) } if *fstest.RemoteName != "" { remoteName = *fstest.RemoteName } oldFstestRemoteName := fstest.RemoteName fstest.RemoteName = &remoteName defer func() { fstest.RemoteName = oldFstestRemoteName }() t.Logf("Using remote %q", remoteName) var err error if remoteName == "" { remoteName, err = fstest.LocalRemote() require.NoError(t, err) isLocalRemote = true } // Start any test servers if required finish, err := testserver.Start(remoteName) require.NoError(t, err) defer finish() // Make the Fs we are testing with, initialising the local variables // subRemoteName - name of the remote after the TestRemote: // subRemoteLeaf - a subdirectory to use under that // remote - the result of fs.NewFs(TestRemote:subRemoteName) subRemoteName, subRemoteLeaf, err = fstest.RandomRemoteName(remoteName) require.NoError(t, err) f, err = fs.NewFs(context.Background(), subRemoteName) if err == fs.ErrorNotFoundInConfigFile { t.Logf("Didn't find %q in config file - skipping tests", remoteName) return } require.NoError(t, err, fmt.Sprintf("unexpected error: %v", err)) // Get fsInfo which contains type, etc. of the fs fsInfo, _, _, _, err := fs.ConfigFs(subRemoteName) require.NoError(t, err, fmt.Sprintf("unexpected error: %v", err)) // Skip the rest if it failed skipIfNotOk(t) // Check to see if Fs that wrap other Fs implement all the optional methods t.Run("FsCheckWrap", func(t *testing.T) { skipIfNotOk(t) if opt.SkipFsCheckWrap { t.Skip("Skipping FsCheckWrap on this Fs") } ft := new(fs.Features).Fill(ctx, f) if ft.UnWrap == nil && !f.Features().Overlay { t.Skip("Not a wrapping Fs") } v := reflect.ValueOf(ft).Elem() vType := v.Type() for i := 0; i < v.NumField(); i++ { vName := vType.Field(i).Name if stringsContains(vName, opt.UnimplementableFsMethods) { continue } if stringsContains(vName, unwrappableFsMethods) { continue } field := v.Field(i) // skip the bools if field.Type().Kind() == reflect.Bool { continue } if field.IsNil() { t.Errorf("Missing Fs wrapper for %s", vName) } } }) // Check to see if Fs advertises commands and they work and have docs t.Run("FsCommand", func(t *testing.T) { skipIfNotOk(t) doCommand := f.Features().Command if doCommand == nil { t.Skip("No commands in this remote") } // Check the correct error is generated _, err := doCommand(context.Background(), "NOTFOUND", nil, nil) assert.Equal(t, fs.ErrorCommandNotFound, err, "Incorrect error generated on command not found") // Check there are some commands in the fsInfo fsInfo, _, _, _, err := fs.ConfigFs(remoteName) require.NoError(t, err) assert.True(t, len(fsInfo.CommandHelp) > 0, "Command is declared, must return some help in CommandHelp") }) // TestFsRmdirNotFound tests deleting a nonexistent directory t.Run("FsRmdirNotFound", func(t *testing.T) { skipIfNotOk(t) if isBucketBasedButNotRoot(f) { t.Skip("Skipping test as non root bucket-based remote") } err := f.Rmdir(ctx, "") assert.Error(t, err, "Expecting error on Rmdir nonexistent") }) // Make the directory err = f.Mkdir(ctx, "") require.NoError(t, err) fstest.CheckListing(t, f, []fstest.Item{}) // TestFsString tests the String method t.Run("FsString", func(t *testing.T) { skipIfNotOk(t) str := f.String() require.NotEqual(t, "", str) }) // TestFsName tests the Name method t.Run("FsName", func(t *testing.T) { skipIfNotOk(t) got := removeConfigID(f.Name()) var want string if isLocalRemote { want = "local" } else { want = remoteName[:strings.LastIndex(remoteName, ":")] comma := strings.IndexRune(remoteName, ',') if comma >= 0 { want = want[:comma] } } require.Equal(t, want, got) }) // TestFsRoot tests the Root method t.Run("FsRoot", func(t *testing.T) { skipIfNotOk(t) got := f.Root() want := subRemoteName colon := strings.LastIndex(want, ":") if colon >= 0 { want = want[colon+1:] } if isLocalRemote { // only check last path element on local require.Equal(t, filepath.Base(subRemoteName), filepath.Base(got)) } else { require.Equal(t, want, got) } }) // TestFsRmdirEmpty tests deleting an empty directory t.Run("FsRmdirEmpty", func(t *testing.T) { skipIfNotOk(t) err := f.Rmdir(ctx, "") require.NoError(t, err) }) // TestFsMkdir tests making a directory // // Tests that require the directory to be made are within this t.Run("FsMkdir", func(t *testing.T) { skipIfNotOk(t) err := f.Mkdir(ctx, "") require.NoError(t, err) fstest.CheckListing(t, f, []fstest.Item{}) err = f.Mkdir(ctx, "") require.NoError(t, err) // TestFsMkdirRmdirSubdir tests making and removing a sub directory t.Run("FsMkdirRmdirSubdir", func(t *testing.T) { skipIfNotOk(t) dir := "dir/subdir" err := operations.Mkdir(ctx, f, dir) require.NoError(t, err) fstest.CheckListingWithPrecision(t, f, []fstest.Item{}, []string{"dir", "dir/subdir"}, fs.GetModifyWindow(ctx, f)) err = operations.Rmdir(ctx, f, dir) require.NoError(t, err) fstest.CheckListingWithPrecision(t, f, []fstest.Item{}, []string{"dir"}, fs.GetModifyWindow(ctx, f)) err = operations.Rmdir(ctx, f, "dir") require.NoError(t, err) fstest.CheckListingWithPrecision(t, f, []fstest.Item{}, []string{}, fs.GetModifyWindow(ctx, f)) }) // TestFsListEmpty tests listing an empty directory t.Run("FsListEmpty", func(t *testing.T) { skipIfNotOk(t) fstest.CheckListing(t, f, []fstest.Item{}) }) // TestFsListDirEmpty tests listing the directories from an empty directory TestFsListDirEmpty := func(t *testing.T) { skipIfNotOk(t) objs, dirs, err := walk.GetAll(ctx, f, "", true, 1) if !f.Features().CanHaveEmptyDirectories { if err != fs.ErrorDirNotFound { require.NoError(t, err) } } else { require.NoError(t, err) } assert.Equal(t, []string{}, objsToNames(objs)) assert.Equal(t, []string{}, dirsToNames(dirs)) } t.Run("FsListDirEmpty", TestFsListDirEmpty) // TestFsListRDirEmpty tests listing the directories from an empty directory using ListR t.Run("FsListRDirEmpty", func(t *testing.T) { defer skipIfNotListR(t)() TestFsListDirEmpty(t) }) // TestFsListDirNotFound tests listing the directories from an empty directory TestFsListDirNotFound := func(t *testing.T) { skipIfNotOk(t) objs, dirs, err := walk.GetAll(ctx, f, "does not exist", true, 1) if !f.Features().CanHaveEmptyDirectories { if err != fs.ErrorDirNotFound { assert.NoError(t, err) assert.Equal(t, 0, len(objs)+len(dirs)) } } else { assert.Equal(t, fs.ErrorDirNotFound, err) } } t.Run("FsListDirNotFound", TestFsListDirNotFound) // TestFsListRDirNotFound tests listing the directories from an empty directory using ListR t.Run("FsListRDirNotFound", func(t *testing.T) { defer skipIfNotListR(t)() TestFsListDirNotFound(t) }) // FsEncoding tests that file name encodings are // working by uploading a series of unusual files // Must be run in an empty directory t.Run("FsEncoding", func(t *testing.T) { skipIfNotOk(t) if testing.Short() { t.Skip("not running with -short") } // check no files or dirs as pre-requisite fstest.CheckListingWithPrecision(t, f, []fstest.Item{}, []string{}, fs.GetModifyWindow(ctx, f)) for _, test := range []struct { name string path string }{ // See lib/encoder/encoder.go for list of things that go here {"control chars", "\x00\x01\x02\x03\x04\x05\x06\x07\x08\x09\x0A\x0B\x0C\x0D\x0E\x0F\x10\x11\x12\x13\x14\x15\x16\x17\x18\x19\x1A\x1B\x1C\x1D\x1E\x1F\x7F"}, {"dot", "."}, {"dot dot", ".."}, {"punctuation", "!\"#$%&'()*+,-./:;<=>?@[\\]^_`{|}~"}, {"leading space", " leading space"}, {"leading tilde", "~leading tilde"}, {"leading CR", "\rleading CR"}, {"leading LF", "\nleading LF"}, {"leading HT", "\tleading HT"}, {"leading VT", "\vleading VT"}, {"leading dot", ".leading dot"}, {"trailing space", "trailing space "}, {"trailing CR", "trailing CR\r"}, {"trailing LF", "trailing LF\n"}, {"trailing HT", "trailing HT\t"}, {"trailing VT", "trailing VT\v"}, {"trailing dot", "trailing dot."}, {"invalid UTF-8", "invalid utf-8\xfe"}, {"URL encoding", "test%46.txt"}, } { t.Run(test.name, func(t *testing.T) { if opt.SkipInvalidUTF8 && test.name == "invalid UTF-8" { t.Skip("Skipping " + test.name) } // turn raw strings into Standard encoding fileName := encoder.Standard.Encode(test.path) dirName := fileName t.Logf("testing %q", fileName) assert.NoError(t, f.Mkdir(ctx, dirName)) file := fstest.Item{ ModTime: time.Now(), Path: dirName + "/" + fileName, // test creating a file and dir with that name } _, o := testPut(context.Background(), t, f, &file) fstest.CheckListingWithPrecision(t, f, []fstest.Item{file}, []string{dirName}, fs.GetModifyWindow(ctx, f)) assert.NoError(t, o.Remove(ctx)) assert.NoError(t, f.Rmdir(ctx, dirName)) fstest.CheckListingWithPrecision(t, f, []fstest.Item{}, []string{}, fs.GetModifyWindow(ctx, f)) }) } }) // TestFsNewObjectNotFound tests not finding an object t.Run("FsNewObjectNotFound", func(t *testing.T) { skipIfNotOk(t) // Object in an existing directory o, err := f.NewObject(ctx, "potato") assert.Nil(t, o) assert.Equal(t, fs.ErrorObjectNotFound, err) // Now try an object in a nonexistent directory o, err = f.NewObject(ctx, "directory/not/found/potato") assert.Nil(t, o) assert.Equal(t, fs.ErrorObjectNotFound, err) }) // TestFsPutError tests uploading a file where there is an error // // It makes sure that aborting a file half way through does not create // a file on the remote. // // go test -v -run 'TestIntegration/Test(Setup|Init|FsMkdir|FsPutError)$' t.Run("FsPutError", func(t *testing.T) { skipIfNotOk(t) var N int64 = 5 * 1024 if *fstest.SizeLimit > 0 && N > *fstest.SizeLimit { N = *fstest.SizeLimit t.Logf("Reduce file size due to limit %d", N) } // Read N bytes then produce an error contents := random.String(int(N)) buf := bytes.NewBufferString(contents) er := &readers.ErrorReader{Err: errors.New("potato")} in := io.MultiReader(buf, er) obji := object.NewStaticObjectInfo(file2.Path, file2.ModTime, 2*N, true, nil, nil) _, err := f.Put(ctx, in, obji) // assert.Nil(t, obj) - FIXME some remotes return the object even on nil assert.NotNil(t, err) obj, err := f.NewObject(ctx, file2.Path) assert.Nil(t, obj) assert.Equal(t, fs.ErrorObjectNotFound, err) }) t.Run("FsPutZeroLength", func(t *testing.T) { skipIfNotOk(t) TestPutLarge(ctx, t, f, &fstest.Item{ ModTime: fstest.Time("2001-02-03T04:05:06.499999999Z"), Path: "zero-length-file", Size: int64(0), }) }) t.Run("FsOpenWriterAt", func(t *testing.T) { skipIfNotOk(t) openWriterAt := f.Features().OpenWriterAt if openWriterAt == nil { t.Skip("FS has no OpenWriterAt interface") } path := "writer-at-subdir/writer-at-file" out, err := openWriterAt(ctx, path, -1) require.NoError(t, err) var n int n, err = out.WriteAt([]byte("def"), 3) assert.NoError(t, err) assert.Equal(t, 3, n) n, err = out.WriteAt([]byte("ghi"), 6) assert.NoError(t, err) assert.Equal(t, 3, n) n, err = out.WriteAt([]byte("abc"), 0) assert.NoError(t, err) assert.Equal(t, 3, n) assert.NoError(t, out.Close()) obj := findObject(ctx, t, f, path) assert.Equal(t, "abcdefghi", ReadObject(ctx, t, obj, -1), "contents of file differ") assert.NoError(t, obj.Remove(ctx)) assert.NoError(t, f.Rmdir(ctx, "writer-at-subdir")) }) // TestFsOpenChunkWriter tests writing in chunks to fs // then reads back the contents and check if they match // go test -v -run 'TestIntegration/FsMkdir/FsOpenChunkWriter' t.Run("FsOpenChunkWriter", func(t *testing.T) { skipIfNotOk(t) openChunkWriter := f.Features().OpenChunkWriter if openChunkWriter == nil { t.Skip("FS has no OpenChunkWriter interface") } size5MBs := 5 * 1024 * 1024 contents1 := random.String(size5MBs) contents2 := random.String(size5MBs) size1MB := 1 * 1024 * 1024 contents3 := random.String(size1MB) path := "writer-at-subdir/writer-at-file" objSrc := object.NewStaticObjectInfo(path+"-WRONG-REMOTE", file1.ModTime, -1, true, nil, nil) _, out, err := openChunkWriter(ctx, path, objSrc, &fs.ChunkOption{ ChunkSize: int64(size5MBs), }) require.NoError(t, err) var n int64 n, err = out.WriteChunk(ctx, 1, strings.NewReader(contents2)) assert.NoError(t, err) assert.Equal(t, int64(size5MBs), n) n, err = out.WriteChunk(ctx, 2, strings.NewReader(contents3)) assert.NoError(t, err) assert.Equal(t, int64(size1MB), n) n, err = out.WriteChunk(ctx, 0, strings.NewReader(contents1)) assert.NoError(t, err) assert.Equal(t, int64(size5MBs), n) assert.NoError(t, out.Close(ctx)) obj := findObject(ctx, t, f, path) originalContents := contents1 + contents2 + contents3 fileContents := ReadObject(ctx, t, obj, -1) isEqual := originalContents == fileContents assert.True(t, isEqual, "contents of file differ") assert.NoError(t, obj.Remove(ctx)) assert.NoError(t, f.Rmdir(ctx, "writer-at-subdir")) }) // TestFsChangeNotify tests that changes are properly // propagated // // go test -v -remote TestDrive: -run '^Test(Setup|Init|FsChangeNotify)$' -verbose t.Run("FsChangeNotify", func(t *testing.T) { skipIfNotOk(t) // Check have ChangeNotify doChangeNotify := f.Features().ChangeNotify if doChangeNotify == nil { t.Skip("FS has no ChangeNotify interface") } err := operations.Mkdir(ctx, f, "dir") require.NoError(t, err) pollInterval := make(chan time.Duration) dirChanges := map[string]struct{}{} objChanges := map[string]struct{}{} doChangeNotify(ctx, func(x string, e fs.EntryType) { fs.Debugf(nil, "doChangeNotify(%q, %+v)", x, e) if strings.HasPrefix(x, file1.Path[:5]) || strings.HasPrefix(x, file2.Path[:5]) { fs.Debugf(nil, "Ignoring notify for file1 or file2: %q, %v", x, e) return } if e == fs.EntryDirectory { dirChanges[x] = struct{}{} } else if e == fs.EntryObject { objChanges[x] = struct{}{} } }, pollInterval) defer func() { close(pollInterval) }() pollInterval <- time.Second var dirs []string for _, idx := range []int{1, 3, 2} { dir := fmt.Sprintf("dir/subdir%d", idx) err = operations.Mkdir(ctx, f, dir) require.NoError(t, err) dirs = append(dirs, dir) } var objs []fs.Object for _, idx := range []int{2, 4, 3} { file := fstest.Item{ ModTime: time.Now(), Path: fmt.Sprintf("dir/file%d", idx), } _, o := testPut(ctx, t, f, &file) objs = append(objs, o) } // Looks for each item in wants in changes - // if they are all found it returns true contains := func(changes map[string]struct{}, wants []string) bool { for _, want := range wants { _, ok := changes[want] if !ok { return false } } return true } // Wait a little while for the changes to come in wantDirChanges := []string{"dir/subdir1", "dir/subdir3", "dir/subdir2"} wantObjChanges := []string{"dir/file2", "dir/file4", "dir/file3"} ok := false for tries := 1; tries < 10; tries++ { ok = contains(dirChanges, wantDirChanges) && contains(objChanges, wantObjChanges) if ok { break } t.Logf("Try %d/10 waiting for dirChanges and objChanges", tries) time.Sleep(3 * time.Second) } if !ok { t.Errorf("%+v does not contain %+v or \n%+v does not contain %+v", dirChanges, wantDirChanges, objChanges, wantObjChanges) } // tidy up afterwards for _, o := range objs { assert.NoError(t, o.Remove(ctx)) } dirs = append(dirs, "dir") for _, dir := range dirs { assert.NoError(t, f.Rmdir(ctx, dir)) } }) // TestFsPut files writes file1, file2 and tests an update // // Tests that require file1, file2 are within this t.Run("FsPutFiles", func(t *testing.T) { skipIfNotOk(t) file1Contents, _ = testPut(ctx, t, f, &file1) /* file2Contents = */ testPut(ctx, t, f, &file2) file1Contents, _ = testPutMimeType(ctx, t, f, &file1, file1MimeType, file1Metadata) // Note that the next test will check there are no duplicated file names // TestFsListDirFile2 tests the files are correctly uploaded by doing // Depth 1 directory listings TestFsListDirFile2 := func(t *testing.T) { skipIfNotOk(t) list := func(dir string, expectedDirNames, expectedObjNames []string) { var objNames, dirNames []string for i := 1; i <= *fstest.ListRetries; i++ { objs, dirs, err := walk.GetAll(ctx, f, dir, true, 1) if errors.Is(err, fs.ErrorDirNotFound) { objs, dirs, err = walk.GetAll(ctx, f, dir, true, 1) } require.NoError(t, err) objNames = objsToNames(objs) dirNames = dirsToNames(dirs) if len(objNames) >= len(expectedObjNames) && len(dirNames) >= len(expectedDirNames) { break } t.Logf("Sleeping for 1 second for TestFsListDirFile2 eventual consistency: %d/%d", i, *fstest.ListRetries) time.Sleep(1 * time.Second) } assert.Equal(t, expectedDirNames, dirNames) assert.Equal(t, expectedObjNames, objNames) } dir := file2.Path deepest := true for dir != "" { expectedObjNames := []string{} expectedDirNames := []string{} child := dir dir = path.Dir(dir) if dir == "." { dir = "" expectedObjNames = append(expectedObjNames, file1.Path) } if deepest { expectedObjNames = append(expectedObjNames, file2.Path) deepest = false } else { expectedDirNames = append(expectedDirNames, child) } list(dir, expectedDirNames, expectedObjNames) } } t.Run("FsListDirFile2", TestFsListDirFile2) // TestFsListRDirFile2 tests the files are correctly uploaded by doing // Depth 1 directory listings using ListR t.Run("FsListRDirFile2", func(t *testing.T) { defer skipIfNotListR(t)() TestFsListDirFile2(t) }) // Test the files are all there with walk.ListR recursive listings t.Run("FsListR", func(t *testing.T) { skipIfNotOk(t) objs, dirs, err := walk.GetAll(ctx, f, "", true, -1) require.NoError(t, err) assert.Equal(t, []string{ "hello? sausage", "hello? sausage/êé", "hello? sausage/êé/Hello, 世界", "hello? sausage/êé/Hello, 世界/ \" ' @ < > & ? + ≠", }, dirsToNames(dirs)) assert.Equal(t, []string{ "file name.txt", "hello? sausage/êé/Hello, 世界/ \" ' @ < > & ? + ≠/z.txt", }, objsToNames(objs)) }) // Test the files are all there with // walk.ListR recursive listings on a sub dir t.Run("FsListRSubdir", func(t *testing.T) { skipIfNotOk(t) objs, dirs, err := walk.GetAll(ctx, f, path.Dir(path.Dir(path.Dir(path.Dir(file2.Path)))), true, -1) require.NoError(t, err) assert.Equal(t, []string{ "hello? sausage/êé", "hello? sausage/êé/Hello, 世界", "hello? sausage/êé/Hello, 世界/ \" ' @ < > & ? + ≠", }, dirsToNames(dirs)) assert.Equal(t, []string{ "hello? sausage/êé/Hello, 世界/ \" ' @ < > & ? + ≠/z.txt", }, objsToNames(objs)) }) // TestFsListDirRoot tests that DirList works in the root TestFsListDirRoot := func(t *testing.T) { skipIfNotOk(t) rootRemote, err := fs.NewFs(context.Background(), remoteName) require.NoError(t, err) _, dirs, err := walk.GetAll(ctx, rootRemote, "", true, 1) require.NoError(t, err) assert.Contains(t, dirsToNames(dirs), subRemoteLeaf, "Remote leaf not found") } t.Run("FsListDirRoot", TestFsListDirRoot) // TestFsListRDirRoot tests that DirList works in the root using ListR t.Run("FsListRDirRoot", func(t *testing.T) { defer skipIfNotListR(t)() TestFsListDirRoot(t) }) // TestFsListSubdir tests List works for a subdirectory TestFsListSubdir := func(t *testing.T) { skipIfNotOk(t) fileName := file2.Path var err error var objs []fs.Object var dirs []fs.Directory for i := 0; i < 2; i++ { dir, _ := path.Split(fileName) dir = dir[:len(dir)-1] objs, dirs, err = walk.GetAll(ctx, f, dir, true, -1) } require.NoError(t, err) require.Len(t, objs, 1) assert.Equal(t, fileName, objs[0].Remote()) require.Len(t, dirs, 0) } t.Run("FsListSubdir", TestFsListSubdir) // TestFsListRSubdir tests List works for a subdirectory using ListR t.Run("FsListRSubdir", func(t *testing.T) { defer skipIfNotListR(t)() TestFsListSubdir(t) }) // TestFsListLevel2 tests List works for 2 levels TestFsListLevel2 := func(t *testing.T) { skipIfNotOk(t) objs, dirs, err := walk.GetAll(ctx, f, "", true, 2) if err == fs.ErrorLevelNotSupported { return } require.NoError(t, err) assert.Equal(t, []string{file1.Path}, objsToNames(objs)) assert.Equal(t, []string{"hello? sausage", "hello? sausage/êé"}, dirsToNames(dirs)) } t.Run("FsListLevel2", TestFsListLevel2) // TestFsListRLevel2 tests List works for 2 levels using ListR t.Run("FsListRLevel2", func(t *testing.T) { defer skipIfNotListR(t)() TestFsListLevel2(t) }) // TestFsListFile1 tests file present t.Run("FsListFile1", func(t *testing.T) { skipIfNotOk(t) fstest.CheckListing(t, f, []fstest.Item{file1, file2}) }) // TestFsNewObject tests NewObject t.Run("FsNewObject", func(t *testing.T) { skipIfNotOk(t) obj := findObject(ctx, t, f, file1.Path) file1.Check(t, obj, f.Precision()) }) // FsNewObjectCaseInsensitive tests NewObject on a case insensitive file system t.Run("FsNewObjectCaseInsensitive", func(t *testing.T) { skipIfNotOk(t) if !f.Features().CaseInsensitive { t.Skip("Not Case Insensitive") } obj := findObject(ctx, t, f, toUpperASCII(file1.Path)) file1.Check(t, obj, f.Precision()) t.Run("Dir", func(t *testing.T) { obj := findObject(ctx, t, f, toUpperASCII(file2.Path)) file2.Check(t, obj, f.Precision()) }) }) // TestFsListFile1and2 tests two files present t.Run("FsListFile1and2", func(t *testing.T) { skipIfNotOk(t) fstest.CheckListing(t, f, []fstest.Item{file1, file2}) }) // TestFsNewObjectDir tests NewObject on a directory which should produce fs.ErrorIsDir if possible or fs.ErrorObjectNotFound if not t.Run("FsNewObjectDir", func(t *testing.T) { skipIfNotOk(t) dir := path.Dir(file2.Path) obj, err := f.NewObject(ctx, dir) assert.Nil(t, obj) assert.True(t, err == fs.ErrorIsDir || err == fs.ErrorObjectNotFound, fmt.Sprintf("Wrong error: expecting fs.ErrorIsDir or fs.ErrorObjectNotFound but got: %#v", err)) }) // TestFsPurge tests Purge t.Run("FsPurge", func(t *testing.T) { skipIfNotOk(t) // Check have Purge doPurge := f.Features().Purge if doPurge == nil { t.Skip("FS has no Purge interface") } // put up a file to purge fileToPurge := fstest.Item{ ModTime: fstest.Time("2001-02-03T04:05:06.499999999Z"), Path: "dirToPurge/fileToPurge.txt", } _, _ = testPut(ctx, t, f, &fileToPurge) fstest.CheckListingWithPrecision(t, f, []fstest.Item{file1, file2, fileToPurge}, []string{ "dirToPurge", "hello? sausage", "hello? sausage/êé", "hello? sausage/êé/Hello, 世界", "hello? sausage/êé/Hello, 世界/ \" ' @ < > & ? + ≠", }, fs.GetModifyWindow(ctx, f)) // Now purge it err = operations.Purge(ctx, f, "dirToPurge") require.NoError(t, err) fstest.CheckListingWithPrecision(t, f, []fstest.Item{file1, file2}, []string{ "hello? sausage", "hello? sausage/êé", "hello? sausage/êé/Hello, 世界", "hello? sausage/êé/Hello, 世界/ \" ' @ < > & ? + ≠", }, fs.GetModifyWindow(ctx, f)) }) // TestFsPurge tests Purge on the Root t.Run("FsPurgeRoot", func(t *testing.T) { skipIfNotOk(t) // Check have Purge doPurge := f.Features().Purge if doPurge == nil { t.Skip("FS has no Purge interface") } // put up a file to purge fileToPurge := fstest.Item{ ModTime: fstest.Time("2001-02-03T04:05:06.499999999Z"), Path: "dirToPurgeFromRoot/fileToPurgeFromRoot.txt", } _, _ = testPut(ctx, t, f, &fileToPurge) fstest.CheckListingWithPrecision(t, f, []fstest.Item{file1, file2, fileToPurge}, []string{ "dirToPurgeFromRoot", "hello? sausage", "hello? sausage/êé", "hello? sausage/êé/Hello, 世界", "hello? sausage/êé/Hello, 世界/ \" ' @ < > & ? + ≠", }, fs.GetModifyWindow(ctx, f)) // Create a new Fs pointing at the directory remoteName := subRemoteName + "/" + "dirToPurgeFromRoot" fPurge, err := fs.NewFs(context.Background(), remoteName) require.NoError(t, err) // Now purge it from the root err = operations.Purge(ctx, fPurge, "") require.NoError(t, err) fstest.CheckListingWithPrecision(t, f, []fstest.Item{file1, file2}, []string{ "hello? sausage", "hello? sausage/êé", "hello? sausage/êé/Hello, 世界", "hello? sausage/êé/Hello, 世界/ \" ' @ < > & ? + ≠", }, fs.GetModifyWindow(ctx, f)) }) // TestFsCopy tests Copy t.Run("FsCopy", func(t *testing.T) { skipIfNotOk(t) // Check have Copy doCopy := f.Features().Copy if doCopy == nil { t.Skip("FS has no Copier interface") } // Test with file2 so have + and ' ' in file name var file2Copy = file2 file2Copy.Path += "-copy" // do the copy src := findObject(ctx, t, f, file2.Path) dst, err := doCopy(ctx, src, file2Copy.Path) if err == fs.ErrorCantCopy { t.Skip("FS can't copy") } require.NoError(t, err, fmt.Sprintf("Error: %#v", err)) // check file exists in new listing fstest.CheckListing(t, f, []fstest.Item{file1, file2, file2Copy}) // Check dst lightly - list above has checked ModTime/Hashes assert.Equal(t, file2Copy.Path, dst.Remote()) // Delete copy err = dst.Remove(ctx) require.NoError(t, err) }) // TestFsMove tests Move t.Run("FsMove", func(t *testing.T) { skipIfNotOk(t) // Check have Move doMove := f.Features().Move if doMove == nil { t.Skip("FS has no Mover interface") } // state of files now: // 1: file name.txt // 2: hello sausage?/../z.txt var file1Move = file1 var file2Move = file2 // check happy path, i.e. no naming conflicts when rename and move are two // separate operations file2Move.Path = "other.txt" src := findObject(ctx, t, f, file2.Path) dst, err := doMove(ctx, src, file2Move.Path) if err == fs.ErrorCantMove { t.Skip("FS can't move") } require.NoError(t, err) // check file exists in new listing fstest.CheckListing(t, f, []fstest.Item{file1, file2Move}) // Check dst lightly - list above has checked ModTime/Hashes assert.Equal(t, file2Move.Path, dst.Remote()) // 1: file name.txt // 2: other.txt // Check conflict on "rename, then move" file1Move.Path = "moveTest/other.txt" src = findObject(ctx, t, f, file1.Path) _, err = doMove(ctx, src, file1Move.Path) require.NoError(t, err) fstest.CheckListing(t, f, []fstest.Item{file1Move, file2Move}) // 1: moveTest/other.txt // 2: other.txt // Check conflict on "move, then rename" src = findObject(ctx, t, f, file1Move.Path) _, err = doMove(ctx, src, file1.Path) require.NoError(t, err) fstest.CheckListing(t, f, []fstest.Item{file1, file2Move}) // 1: file name.txt // 2: other.txt src = findObject(ctx, t, f, file2Move.Path) _, err = doMove(ctx, src, file2.Path) require.NoError(t, err) fstest.CheckListing(t, f, []fstest.Item{file1, file2}) // 1: file name.txt // 2: hello sausage?/../z.txt // Tidy up moveTest directory require.NoError(t, f.Rmdir(ctx, "moveTest")) }) // Move src to this remote using server-side move operations. // // Will only be called if src.Fs().Name() == f.Name() // // If it isn't possible then return fs.ErrorCantDirMove // // If destination exists then return fs.ErrorDirExists // TestFsDirMove tests DirMove // // go test -v -run 'TestIntegration/Test(Setup|Init|FsMkdir|FsPutFile1|FsPutFile2|FsUpdateFile1|FsDirMove)$ t.Run("FsDirMove", func(t *testing.T) { skipIfNotOk(t) // Check have DirMove doDirMove := f.Features().DirMove if doDirMove == nil { t.Skip("FS has no DirMover interface") } // Check it can't move onto itself err := doDirMove(ctx, f, "", "") require.Equal(t, fs.ErrorDirExists, err) // new remote newRemote, _, removeNewRemote, err := fstest.RandomRemote() require.NoError(t, err) defer removeNewRemote() const newName = "new_name/sub_new_name" // try the move err = newRemote.Features().DirMove(ctx, f, "", newName) require.NoError(t, err) // check remotes // remote should not exist here _, err = f.List(ctx, "") assert.True(t, errors.Is(err, fs.ErrorDirNotFound)) //fstest.CheckListingWithPrecision(t, remote, []fstest.Item{}, []string{}, remote.Precision()) file1Copy := file1 file1Copy.Path = path.Join(newName, file1.Path) file2Copy := file2 file2Copy.Path = path.Join(newName, file2.Path) fstest.CheckListingWithPrecision(t, newRemote, []fstest.Item{file2Copy, file1Copy}, []string{ "new_name", "new_name/sub_new_name", "new_name/sub_new_name/hello? sausage", "new_name/sub_new_name/hello? sausage/êé", "new_name/sub_new_name/hello? sausage/êé/Hello, 世界", "new_name/sub_new_name/hello? sausage/êé/Hello, 世界/ \" ' @ < > & ? + ≠", }, newRemote.Precision()) // move it back err = doDirMove(ctx, newRemote, newName, "") require.NoError(t, err) // check remotes fstest.CheckListingWithPrecision(t, f, []fstest.Item{file2, file1}, []string{ "hello? sausage", "hello? sausage/êé", "hello? sausage/êé/Hello, 世界", "hello? sausage/êé/Hello, 世界/ \" ' @ < > & ? + ≠", }, f.Precision()) fstest.CheckListingWithPrecision(t, newRemote, []fstest.Item{}, []string{ "new_name", }, newRemote.Precision()) }) // TestFsRmdirFull tests removing a non empty directory t.Run("FsRmdirFull", func(t *testing.T) { skipIfNotOk(t) if isBucketBasedButNotRoot(f) { t.Skip("Skipping test as non root bucket-based remote") } err := f.Rmdir(ctx, "") require.Error(t, err, "Expecting error on RMdir on non empty remote") }) // TestFsPrecision tests the Precision of the Fs t.Run("FsPrecision", func(t *testing.T) { skipIfNotOk(t) precision := f.Precision() if precision == fs.ModTimeNotSupported { return } if precision > time.Second || precision < 0 { t.Fatalf("Precision out of range %v", precision) } // FIXME check expected precision }) // TestObjectString tests the Object String method t.Run("ObjectString", func(t *testing.T) { skipIfNotOk(t) obj := findObject(ctx, t, f, file1.Path) assert.Equal(t, file1.Path, obj.String()) if opt.NilObject != nil { assert.Equal(t, "", opt.NilObject.String()) } }) // TestObjectFs tests the object can be found t.Run("ObjectFs", func(t *testing.T) { skipIfNotOk(t) obj := findObject(ctx, t, f, file1.Path) // If this is set we don't do the direct comparison of // the Fs from the object as it may be different if opt.SkipFsMatch { return } testRemote := f if obj.Fs() != testRemote { // Check to see if this wraps something else if doUnWrap := testRemote.Features().UnWrap; doUnWrap != nil { testRemote = doUnWrap() } } assert.Equal(t, obj.Fs(), testRemote) }) // TestObjectRemote tests the Remote is correct t.Run("ObjectRemote", func(t *testing.T) { skipIfNotOk(t) obj := findObject(ctx, t, f, file1.Path) assert.Equal(t, file1.Path, obj.Remote()) }) // TestObjectHashes checks all the hashes the object supports t.Run("ObjectHashes", func(t *testing.T) { skipIfNotOk(t) obj := findObject(ctx, t, f, file1.Path) file1.CheckHashes(t, obj) }) // TestObjectModTime tests the ModTime of the object is correct TestObjectModTime := func(t *testing.T) { skipIfNotOk(t) obj := findObject(ctx, t, f, file1.Path) file1.CheckModTime(t, obj, obj.ModTime(ctx), f.Precision()) } t.Run("ObjectModTime", TestObjectModTime) // TestObjectMimeType tests the MimeType of the object is correct t.Run("ObjectMimeType", func(t *testing.T) { skipIfNotOk(t) features := f.Features() obj := findObject(ctx, t, f, file1.Path) do, ok := obj.(fs.MimeTyper) if !ok { require.False(t, features.ReadMimeType, "Features.ReadMimeType is set but Object.MimeType method not found") t.Skip("MimeType method not supported") } mimeType := do.MimeType(ctx) if !features.ReadMimeType { require.Equal(t, "", mimeType, "Features.ReadMimeType is not set but Object.MimeType returned a non-empty MimeType") } else if features.WriteMimeType { assert.Equal(t, file1MimeType, mimeType, "can read and write mime types but failed") } else { if strings.ContainsRune(mimeType, ';') { assert.Equal(t, "text/plain; charset=utf-8", mimeType) } else { assert.Equal(t, "text/plain", mimeType) } } }) // TestObjectMetadata tests the Metadata of the object is correct t.Run("ObjectMetadata", func(t *testing.T) { skipIfNotOk(t) ctx, ci := fs.AddConfig(ctx) ci.Metadata = true features := f.Features() obj := findObject(ctx, t, f, file1.Path) do, objectHasMetadata := obj.(fs.Metadataer) if objectHasMetadata || features.ReadMetadata || features.WriteMetadata || features.UserMetadata { fsInfo := fs.FindFromFs(f) require.NotNil(t, fsInfo) require.NotNil(t, fsInfo.MetadataInfo, "Object declares metadata support but no MetadataInfo in RegInfo") } if !objectHasMetadata { require.False(t, features.ReadMetadata, "Features.ReadMetadata is set but Object.Metadata method not found") t.Skip("Metadata method not supported") } metadata, err := do.Metadata(ctx) require.NoError(t, err) // check standard metadata for k, v := range metadata { switch k { case "atime", "btime", "mtime": mtime, err := time.Parse(time.RFC3339Nano, v) require.NoError(t, err) if k == "mtime" { fstest.AssertTimeEqualWithPrecision(t, file1.Path, file1.ModTime, mtime, f.Precision()) } } } if !features.ReadMetadata { if metadata != nil { require.Equal(t, "", metadata, "Features.ReadMetadata is not set but Object.Metadata returned a non nil Metadata") } } else if features.WriteMetadata { require.NotNil(t, metadata) if features.UserMetadata { // check all the metadata bits we uploaded are present - there may be more we didn't write for k, v := range file1Metadata { assert.Equal(t, v, metadata[k], "can read and write metadata but failed on key %q (want=%+v, got=%+v)", k, file1Metadata, metadata) } } // Now test we can set the mtime and content-type via the metadata and these take precedence t.Run("mtime", func(t *testing.T) { path := "metadatatest" mtimeModTime := fstest.Time("2002-02-03T04:05:06.499999999Z") modTime := fstest.Time("2003-02-03T04:05:06.499999999Z") item := fstest.NewItem(path, path, modTime) metaMimeType := "application/zip" mimeType := "application/gzip" metadata := fs.Metadata{ "mtime": mtimeModTime.Format(time.RFC3339Nano), "content-type": metaMimeType, } // This checks the mtime is correct also and returns the re-read object _, obj := testPutMimeType(ctx, t, f, &item, mimeType, metadata) defer func() { assert.NoError(t, obj.Remove(ctx)) }() // Check content-type got updated too if features.ReadMimeType && features.WriteMimeType { // read the object from scratch o, err := f.NewObject(ctx, path) require.NoError(t, err) // Check the mimetype is correct do, ok := o.(fs.MimeTyper) require.True(t, ok) gotMimeType := do.MimeType(ctx) assert.Equal(t, metaMimeType, gotMimeType) } }) } // else: Have some metadata here we didn't write - can't really check it! }) // TestObjectSetModTime tests that SetModTime works t.Run("ObjectSetModTime", func(t *testing.T) { skipIfNotOk(t) newModTime := fstest.Time("2011-12-13T14:15:16.999999999Z") obj := findObject(ctx, t, f, file1.Path) err := obj.SetModTime(ctx, newModTime) if err == fs.ErrorCantSetModTime || err == fs.ErrorCantSetModTimeWithoutDelete { t.Log(err) return } require.NoError(t, err) file1.ModTime = newModTime file1.CheckModTime(t, obj, obj.ModTime(ctx), f.Precision()) // And make a new object and read it from there too TestObjectModTime(t) }) // TestObjectSize tests that Size works t.Run("ObjectSize", func(t *testing.T) { skipIfNotOk(t) obj := findObject(ctx, t, f, file1.Path) assert.Equal(t, file1.Size, obj.Size()) }) // TestObjectOpen tests that Open works t.Run("ObjectOpen", func(t *testing.T) { skipIfNotOk(t) obj := findObject(ctx, t, f, file1.Path) assert.Equal(t, file1Contents, ReadObject(ctx, t, obj, -1), "contents of file1 differ") }) // TestObjectOpenSeek tests that Open works with SeekOption t.Run("ObjectOpenSeek", func(t *testing.T) { skipIfNotOk(t) obj := findObject(ctx, t, f, file1.Path) assert.Equal(t, file1Contents[50:], ReadObject(ctx, t, obj, -1, &fs.SeekOption{Offset: 50}), "contents of file1 differ after seek") }) // TestObjectOpenRange tests that Open works with RangeOption // // go test -v -run 'TestIntegration/Test(Setup|Init|FsMkdir|FsPutFile1|FsPutFile2|FsUpdateFile1|ObjectOpenRange)$' t.Run("ObjectOpenRange", func(t *testing.T) { skipIfNotOk(t) obj := findObject(ctx, t, f, file1.Path) for _, test := range []struct { ro fs.RangeOption wantStart, wantEnd int }{ {fs.RangeOption{Start: 5, End: 15}, 5, 16}, {fs.RangeOption{Start: 80, End: -1}, 80, 100}, {fs.RangeOption{Start: 81, End: 100000}, 81, 100}, {fs.RangeOption{Start: -1, End: 20}, 80, 100}, // if start is omitted this means get the final bytes // {fs.RangeOption{Start: -1, End: -1}, 0, 100}, - this seems to work but the RFC doesn't define it } { got := ReadObject(ctx, t, obj, -1, &test.ro) foundAt := strings.Index(file1Contents, got) help := fmt.Sprintf("%#v failed want [%d:%d] got [%d:%d]", test.ro, test.wantStart, test.wantEnd, foundAt, foundAt+len(got)) assert.Equal(t, file1Contents[test.wantStart:test.wantEnd], got, help) } }) // TestObjectPartialRead tests that reading only part of the object does the correct thing t.Run("ObjectPartialRead", func(t *testing.T) { skipIfNotOk(t) obj := findObject(ctx, t, f, file1.Path) assert.Equal(t, file1Contents[:50], ReadObject(ctx, t, obj, 50), "contents of file1 differ after limited read") }) // TestObjectUpdate tests that Update works t.Run("ObjectUpdate", func(t *testing.T) { skipIfNotOk(t) contents := random.String(200) var h *hash.MultiHasher file1.Size = int64(len(contents)) obj := findObject(ctx, t, f, file1.Path) remoteBefore := obj.Remote() obji := object.NewStaticObjectInfo(file1.Path+"-should-be-ignored.bin", file1.ModTime, int64(len(contents)), true, nil, obj.Fs()) retry(t, "Update object", func() error { buf := bytes.NewBufferString(contents) h = hash.NewMultiHasher() in := io.TeeReader(buf, h) return obj.Update(ctx, in, obji) }) remoteAfter := obj.Remote() assert.Equal(t, remoteBefore, remoteAfter, "Remote should not change") file1.Hashes = h.Sums() // check the object has been updated file1.Check(t, obj, f.Precision()) // Re-read the object and check again obj = findObject(ctx, t, f, file1.Path) file1.Check(t, obj, f.Precision()) // check contents correct assert.Equal(t, contents, ReadObject(ctx, t, obj, -1), "contents of updated file1 differ") file1Contents = contents }) // TestObjectStorable tests that Storable works t.Run("ObjectStorable", func(t *testing.T) { skipIfNotOk(t) obj := findObject(ctx, t, f, file1.Path) require.NotNil(t, !obj.Storable(), "Expecting object to be storable") }) // TestFsIsFile tests that an error is returned along with a valid fs // which points to the parent directory. t.Run("FsIsFile", func(t *testing.T) { skipIfNotOk(t) remoteName := subRemoteName + "/" + file2.Path file2Copy := file2 file2Copy.Path = "z.txt" fileRemote, err := fs.NewFs(context.Background(), remoteName) require.NotNil(t, fileRemote) assert.Equal(t, fs.ErrorIsFile, err) if strings.HasPrefix(remoteName, "TestChunker") && strings.Contains(remoteName, "Nometa") { // TODO fix chunker and remove this bypass t.Logf("Skip listing check -- chunker can't yet handle this tricky case") return } fstest.CheckListing(t, fileRemote, []fstest.Item{file2Copy}) }) // TestFsIsFileNotFound tests that an error is not returned if no object is found t.Run("FsIsFileNotFound", func(t *testing.T) { skipIfNotOk(t) remoteName := subRemoteName + "/not found.txt" fileRemote, err := fs.NewFs(context.Background(), remoteName) require.NoError(t, err) fstest.CheckListing(t, fileRemote, []fstest.Item{}) }) // Test that things work from the root t.Run("FromRoot", func(t *testing.T) { if features := f.Features(); features.BucketBased && !features.BucketBasedRootOK { t.Skip("Can't list from root on this remote") } parsed, err := fspath.Parse(subRemoteName) require.NoError(t, err) configName, configLeaf := parsed.ConfigString, parsed.Path if configName == "" { configName, configLeaf = path.Split(subRemoteName) } else { configName += ":" } t.Logf("Opening root remote %q path %q from %q", configName, configLeaf, subRemoteName) rootRemote, err := fs.NewFs(context.Background(), configName) require.NoError(t, err) file1Root := file1 file1Root.Path = path.Join(configLeaf, file1Root.Path) file2Root := file2 file2Root.Path = path.Join(configLeaf, file2Root.Path) var dirs []string dir := file2.Path for { dir = path.Dir(dir) if dir == "" || dir == "." || dir == "/" { break } dirs = append(dirs, path.Join(configLeaf, dir)) } // Check that we can see file1 and file2 from the root t.Run("List", func(t *testing.T) { fstest.CheckListingWithRoot(t, rootRemote, configLeaf, []fstest.Item{file1Root, file2Root}, dirs, rootRemote.Precision()) }) // Check that listing the entries is OK t.Run("ListEntries", func(t *testing.T) { entries, err := rootRemote.List(context.Background(), configLeaf) require.NoError(t, err) fstest.CompareItems(t, entries, []fstest.Item{file1Root}, dirs[len(dirs)-1:], rootRemote.Precision(), "ListEntries") }) // List the root with ListR t.Run("ListR", func(t *testing.T) { doListR := rootRemote.Features().ListR if doListR == nil { t.Skip("FS has no ListR interface") } file1Found, file2Found := false, false stopTime := time.Now().Add(10 * time.Second) errTooMany := errors.New("too many files") errFound := errors.New("found") err := doListR(context.Background(), "", func(entries fs.DirEntries) error { for _, entry := range entries { remote := entry.Remote() if remote == file1Root.Path { file1Found = true } if remote == file2Root.Path { file2Found = true } if file1Found && file2Found { return errFound } } if time.Now().After(stopTime) { return errTooMany } return nil }) if !errors.Is(err, errFound) && !errors.Is(err, errTooMany) { assert.NoError(t, err) } if !errors.Is(err, errTooMany) { assert.True(t, file1Found, "file1Root %q not found", file1Root.Path) assert.True(t, file2Found, "file2Root %q not found", file2Root.Path) } else { t.Logf("Too many files to list - giving up") } }) // Create a new file t.Run("Put", func(t *testing.T) { file3Root := fstest.Item{ ModTime: time.Now(), Path: path.Join(configLeaf, "created from root.txt"), } _, file3Obj := testPut(ctx, t, rootRemote, &file3Root) fstest.CheckListingWithRoot(t, rootRemote, configLeaf, []fstest.Item{file1Root, file2Root, file3Root}, nil, rootRemote.Precision()) // And then remove it t.Run("Remove", func(t *testing.T) { require.NoError(t, file3Obj.Remove(context.Background())) fstest.CheckListingWithRoot(t, rootRemote, configLeaf, []fstest.Item{file1Root, file2Root}, nil, rootRemote.Precision()) }) }) }) // TestPublicLink tests creation of sharable, public links // go test -v -run 'TestIntegration/Test(Setup|Init|FsMkdir|FsPutFile1|FsPutFile2|FsUpdateFile1|PublicLink)$' t.Run("PublicLink", func(t *testing.T) { skipIfNotOk(t) publicLinkFunc := f.Features().PublicLink if publicLinkFunc == nil { t.Skip("FS has no PublicLinker interface") } type PublicLinkFunc func(ctx context.Context, remote string, expire fs.Duration, unlink bool) (link string, err error) wrapPublicLinkFunc := func(f PublicLinkFunc) PublicLinkFunc { return func(ctx context.Context, remote string, expire fs.Duration, unlink bool) (link string, err error) { link, err = publicLinkFunc(ctx, remote, expire, unlink) if err == nil { return } // For OneDrive Personal, link expiry is a premium feature // Don't let it fail the test (https://github.com/rclone/rclone/issues/5420) if fsInfo.Name == "onedrive" && strings.Contains(err.Error(), "accountUpgradeRequired") { t.Log("treating accountUpgradeRequired as success for PublicLink") link, err = "bogus link to "+remote, nil } return } } expiry := fs.Duration(120 * time.Second) doPublicLink := wrapPublicLinkFunc(publicLinkFunc) // if object not found link, err := doPublicLink(ctx, file1.Path+"_does_not_exist", expiry, false) require.Error(t, err, "Expected to get error when file doesn't exist") require.Equal(t, "", link, "Expected link to be empty on error") // sharing file for the first time link1, err := doPublicLink(ctx, file1.Path, expiry, false) require.NoError(t, err) require.NotEqual(t, "", link1, "Link should not be empty") link2, err := doPublicLink(ctx, file2.Path, expiry, false) require.NoError(t, err) require.NotEqual(t, "", link2, "Link should not be empty") require.NotEqual(t, link1, link2, "Links to different files should differ") // sharing file for the 2nd time link1, err = doPublicLink(ctx, file1.Path, expiry, false) require.NoError(t, err) require.NotEqual(t, "", link1, "Link should not be empty") // sharing directory for the first time path := path.Dir(file2.Path) link3, err := doPublicLink(ctx, path, expiry, false) if err != nil && (errors.Is(err, fs.ErrorCantShareDirectories) || errors.Is(err, fs.ErrorObjectNotFound)) { t.Log("skipping directory tests as not supported on this backend") } else { require.NoError(t, err) require.NotEqual(t, "", link3, "Link should not be empty") // sharing directory for the second time link3, err = doPublicLink(ctx, path, expiry, false) require.NoError(t, err) require.NotEqual(t, "", link3, "Link should not be empty") // sharing the "root" directory in a subremote subRemote, _, removeSubRemote, err := fstest.RandomRemote() require.NoError(t, err) defer removeSubRemote() // ensure sub remote isn't empty buf := bytes.NewBufferString("somecontent") obji := object.NewStaticObjectInfo("somefile", time.Now(), int64(buf.Len()), true, nil, nil) retry(t, "Put", func() error { _, err := subRemote.Put(ctx, buf, obji) return err }) link4, err := wrapPublicLinkFunc(subRemote.Features().PublicLink)(ctx, "", expiry, false) require.NoError(t, err, "Sharing root in a sub-remote should work") require.NotEqual(t, "", link4, "Link should not be empty") } }) // TestSetTier tests SetTier and GetTier functionality t.Run("SetTier", func(t *testing.T) { skipIfNotSetTier(t) obj := findObject(ctx, t, f, file1.Path) setter, ok := obj.(fs.SetTierer) assert.NotNil(t, ok) getter, ok := obj.(fs.GetTierer) assert.NotNil(t, ok) // If interfaces are supported TiersToTest should contain // at least one entry supportedTiers := opt.TiersToTest assert.NotEmpty(t, supportedTiers) // test set tier changes on supported storage classes or tiers for _, tier := range supportedTiers { err := setter.SetTier(tier) assert.Nil(t, err) got := getter.GetTier() assert.Equal(t, tier, got) } }) // Check to see if Fs that wrap other Objects implement all the optional methods t.Run("ObjectCheckWrap", func(t *testing.T) { skipIfNotOk(t) if opt.SkipObjectCheckWrap { t.Skip("Skipping FsCheckWrap on this Fs") } ft := new(fs.Features).Fill(ctx, f) if ft.UnWrap == nil { t.Skip("Not a wrapping Fs") } obj := findObject(ctx, t, f, file1.Path) _, unsupported := fs.ObjectOptionalInterfaces(obj) for _, name := range unsupported { if !stringsContains(name, opt.UnimplementableObjectMethods) { t.Errorf("Missing Object wrapper for %s", name) } } }) // State of remote at the moment the internal tests are called InternalTestFiles = []fstest.Item{file1, file2} // TestObjectRemove tests Remove t.Run("ObjectRemove", func(t *testing.T) { skipIfNotOk(t) // remove file1 obj := findObject(ctx, t, f, file1.Path) err := obj.Remove(ctx) require.NoError(t, err) // check listing without modtime as TestPublicLink may change the modtime fstest.CheckListingWithPrecision(t, f, []fstest.Item{file2}, nil, fs.ModTimeNotSupported) // Show the internal tests file2 is gone InternalTestFiles = []fstest.Item{file2} }) // TestAbout tests the About optional interface t.Run("ObjectAbout", func(t *testing.T) { skipIfNotOk(t) // Check have About doAbout := f.Features().About if doAbout == nil { t.Skip("FS does not support About") } // Can't really check the output much! usage, err := doAbout(context.Background()) require.NoError(t, err) require.NotNil(t, usage) assert.NotEqual(t, int64(0), usage.Total) }) // Just file2 remains for Purge to clean up // TestFsPutStream tests uploading files when size isn't known in advance. // This may trigger large buffer allocation in some backends, keep it // close to the end of suite. (See fs/operations/xtra_operations_test.go) t.Run("FsPutStream", func(t *testing.T) { skipIfNotOk(t) if f.Features().PutStream == nil { t.Skip("FS has no PutStream interface") } for _, contentSize := range []int{0, 100} { t.Run(strconv.Itoa(contentSize), func(t *testing.T) { file := fstest.Item{ ModTime: fstest.Time("2001-02-03T04:05:06.499999999Z"), Path: "piped data.txt", Size: -1, // use unknown size during upload } var ( err error obj fs.Object uploadHash *hash.MultiHasher ) retry(t, "PutStream", func() error { contents := random.String(contentSize) buf := bytes.NewBufferString(contents) uploadHash = hash.NewMultiHasher() in := io.TeeReader(buf, uploadHash) file.Size = -1 obji := object.NewStaticObjectInfo(file.Path, file.ModTime, file.Size, true, nil, nil) obj, err = f.Features().PutStream(ctx, in, obji) return err }) file.Hashes = uploadHash.Sums() file.Size = int64(contentSize) // use correct size when checking file.Check(t, obj, f.Precision()) // Re-read the object and check again obj = findObject(ctx, t, f, file.Path) file.Check(t, obj, f.Precision()) require.NoError(t, obj.Remove(ctx)) }) } }) // TestInternal calls InternalTest() on the Fs t.Run("Internal", func(t *testing.T) { skipIfNotOk(t) if it, ok := f.(InternalTester); ok { it.InternalTest(t) } else { t.Skipf("%T does not implement InternalTester", f) } }) }) // TestFsPutChunked may trigger large buffer allocation with // some backends (see fs/operations/xtra_operations_test.go), // keep it closer to the end of suite. t.Run("FsPutChunked", func(t *testing.T) { skipIfNotOk(t) if testing.Short() { t.Skip("not running with -short") } if opt.ChunkedUpload.Skip { t.Skip("skipping as ChunkedUpload.Skip is set") } setUploadChunkSizer, _ := f.(SetUploadChunkSizer) if setUploadChunkSizer == nil { t.Skipf("%T does not implement SetUploadChunkSizer", f) } setUploadCutoffer, _ := f.(SetUploadCutoffer) minChunkSize := opt.ChunkedUpload.MinChunkSize if minChunkSize < 100 { minChunkSize = 100 } if opt.ChunkedUpload.CeilChunkSize != nil { minChunkSize = opt.ChunkedUpload.CeilChunkSize(minChunkSize) } maxChunkSize := 2 * fs.Mebi if maxChunkSize < 2*minChunkSize { maxChunkSize = 2 * minChunkSize } if opt.ChunkedUpload.MaxChunkSize > 0 && maxChunkSize > opt.ChunkedUpload.MaxChunkSize { maxChunkSize = opt.ChunkedUpload.MaxChunkSize } if opt.ChunkedUpload.CeilChunkSize != nil { maxChunkSize = opt.ChunkedUpload.CeilChunkSize(maxChunkSize) } next := func(f func(fs.SizeSuffix) fs.SizeSuffix) fs.SizeSuffix { s := f(minChunkSize) if s > maxChunkSize { s = minChunkSize } return s } chunkSizes := fs.SizeSuffixList{ minChunkSize, minChunkSize + (maxChunkSize-minChunkSize)/3, next(NextPowerOfTwo), next(NextMultipleOf(100000)), next(NextMultipleOf(100001)), maxChunkSize, } chunkSizes.Sort() // Set the minimum chunk size, upload cutoff and reset it at the end oldChunkSize, err := setUploadChunkSizer.SetUploadChunkSize(minChunkSize) require.NoError(t, err) var oldUploadCutoff fs.SizeSuffix if setUploadCutoffer != nil { oldUploadCutoff, err = setUploadCutoffer.SetUploadCutoff(minChunkSize) require.NoError(t, err) } defer func() { _, err := setUploadChunkSizer.SetUploadChunkSize(oldChunkSize) assert.NoError(t, err) if setUploadCutoffer != nil { _, err := setUploadCutoffer.SetUploadCutoff(oldUploadCutoff) assert.NoError(t, err) } }() var lastCs fs.SizeSuffix for _, cs := range chunkSizes { if cs <= lastCs { continue } if opt.ChunkedUpload.CeilChunkSize != nil { cs = opt.ChunkedUpload.CeilChunkSize(cs) } lastCs = cs t.Run(cs.String(), func(t *testing.T) { _, err := setUploadChunkSizer.SetUploadChunkSize(cs) require.NoError(t, err) if setUploadCutoffer != nil { _, err = setUploadCutoffer.SetUploadCutoff(cs) require.NoError(t, err) } var testChunks []fs.SizeSuffix if opt.ChunkedUpload.NeedMultipleChunks { // If NeedMultipleChunks is set then test with > cs testChunks = []fs.SizeSuffix{cs + 1, 2 * cs, 2*cs + 1} } else { testChunks = []fs.SizeSuffix{cs - 1, cs, 2*cs + 1} } for _, fileSize := range testChunks { t.Run(fmt.Sprintf("%d", fileSize), func(t *testing.T) { TestPutLarge(ctx, t, f, &fstest.Item{ ModTime: fstest.Time("2001-02-03T04:05:06.499999999Z"), Path: fmt.Sprintf("chunked-%s-%s.bin", cs.String(), fileSize.String()), Size: int64(fileSize), }) t.Run("Streamed", func(t *testing.T) { if f.Features().PutStream == nil { t.Skip("FS has no PutStream interface") } TestPutLargeStreamed(ctx, t, f, &fstest.Item{ ModTime: fstest.Time("2001-02-03T04:05:06.499999999Z"), Path: fmt.Sprintf("chunked-%s-%s-streamed.bin", cs.String(), fileSize.String()), Size: int64(fileSize), }) }) }) } }) } }) // Copy files with chunked copy if available t.Run("FsCopyChunked", func(t *testing.T) { skipIfNotOk(t) if testing.Short() { t.Skip("not running with -short") } // Check have Copy doCopy := f.Features().Copy if doCopy == nil { t.Skip("FS has no Copier interface") } if opt.ChunkedUpload.Skip { t.Skip("skipping as ChunkedUpload.Skip is set") } do, _ := f.(SetCopyCutoffer) if do == nil { t.Skipf("%T does not implement SetCopyCutoff", f) } minChunkSize := opt.ChunkedUpload.MinChunkSize if minChunkSize < 100 { minChunkSize = 100 } if opt.ChunkedUpload.CeilChunkSize != nil { minChunkSize = opt.ChunkedUpload.CeilChunkSize(minChunkSize) } chunkSizes := fs.SizeSuffixList{ minChunkSize, minChunkSize + 1, 2*minChunkSize - 1, 2 * minChunkSize, 2*minChunkSize + 1, } for _, chunkSize := range chunkSizes { t.Run(fmt.Sprintf("%d", chunkSize), func(t *testing.T) { contents := random.String(int(chunkSize)) item := fstest.NewItem("chunked-copy", contents, fstest.Time("2001-05-06T04:05:06.499999999Z")) src := PutTestContents(ctx, t, f, &item, contents, true) defer func() { assert.NoError(t, src.Remove(ctx)) }() var itemCopy = item itemCopy.Path += ".copy" // Set copy cutoff to mininum value so we make chunks origCutoff, err := do.SetCopyCutoff(minChunkSize) require.NoError(t, err) defer func() { _, err = do.SetCopyCutoff(origCutoff) require.NoError(t, err) }() // Do the copy dst, err := doCopy(ctx, src, itemCopy.Path) require.NoError(t, err) defer func() { assert.NoError(t, dst.Remove(ctx)) }() // Check size assert.Equal(t, src.Size(), dst.Size()) // Check modtime srcModTime := src.ModTime(ctx) dstModTime := dst.ModTime(ctx) assert.True(t, srcModTime.Equal(dstModTime)) // Make sure contents are correct gotContents := ReadObject(ctx, t, dst, -1) assert.Equal(t, contents, gotContents) }) } }) // TestFsUploadUnknownSize ensures Fs.Put() and Object.Update() don't panic when // src.Size() == -1 // // This may trigger large buffer allocation in some backends, keep it // closer to the suite end. (See fs/operations/xtra_operations_test.go) t.Run("FsUploadUnknownSize", func(t *testing.T) { skipIfNotOk(t) t.Run("FsPutUnknownSize", func(t *testing.T) { defer func() { assert.Nil(t, recover(), "Fs.Put() should not panic when src.Size() == -1") }() contents := random.String(100) in := bytes.NewBufferString(contents) obji := object.NewStaticObjectInfo("unknown-size-put.txt", fstest.Time("2002-02-03T04:05:06.499999999Z"), -1, true, nil, nil) obj, err := f.Put(ctx, in, obji) if err == nil { require.NoError(t, obj.Remove(ctx), "successfully uploaded unknown-sized file but failed to remove") } // if err != nil: it's okay as long as no panic }) t.Run("FsUpdateUnknownSize", func(t *testing.T) { unknownSizeUpdateFile := fstest.Item{ ModTime: fstest.Time("2002-02-03T04:05:06.499999999Z"), Path: "unknown-size-update.txt", } testPut(ctx, t, f, &unknownSizeUpdateFile) defer func() { assert.Nil(t, recover(), "Object.Update() should not panic when src.Size() == -1") }() newContents := random.String(200) in := bytes.NewBufferString(newContents) obj := findObject(ctx, t, f, unknownSizeUpdateFile.Path) obji := object.NewStaticObjectInfo(unknownSizeUpdateFile.Path, unknownSizeUpdateFile.ModTime, -1, true, nil, obj.Fs()) err := obj.Update(ctx, in, obji) if err == nil { require.NoError(t, obj.Remove(ctx), "successfully updated object with unknown-sized source but failed to remove") } // if err != nil: it's okay as long as no panic }) }) // TestFsRootCollapse tests if the root of an fs "collapses" to the // absolute root. It creates a new fs of the same backend type with its // root set to a *nonexistent* folder, and attempts to read the info of // an object in that folder, whose name is taken from a directory that // exists in the absolute root. // This test is added after // https://github.com/rclone/rclone/issues/3164. t.Run("FsRootCollapse", func(t *testing.T) { deepRemoteName := subRemoteName + "/deeper/nonexisting/directory" deepRemote, err := fs.NewFs(context.Background(), deepRemoteName) require.NoError(t, err) colonIndex := strings.IndexRune(deepRemoteName, ':') firstSlashIndex := strings.IndexRune(deepRemoteName, '/') firstDir := deepRemoteName[colonIndex+1 : firstSlashIndex] _, err = deepRemote.NewObject(ctx, firstDir) require.Equal(t, fs.ErrorObjectNotFound, err) // If err is not fs.ErrorObjectNotFound, it means the backend is // somehow confused about root and absolute root. }) // Purge the folder err = operations.Purge(ctx, f, "") if !errors.Is(err, fs.ErrorDirNotFound) { require.NoError(t, err) } purged = true fstest.CheckListing(t, f, []fstest.Item{}) // Check purging again if not bucket-based if !isBucketBasedButNotRoot(f) { err = operations.Purge(ctx, f, "") assert.Error(t, err, "Expecting error after on second purge") if !errors.Is(err, fs.ErrorDirNotFound) { t.Log("Warning: this should produce fs.ErrorDirNotFound") } } }) // Check directory is purged if !purged { _ = operations.Purge(ctx, f, "") } t.Run("FsShutdown", func(t *testing.T) { do := f.Features().Shutdown if do == nil { t.Skip("Shutdown method not supported") } require.NoError(t, do(ctx)) require.NoError(t, do(ctx), "must be able to call Shutdown twice") }) // Remove the local directory so we don't clutter up /tmp if strings.HasPrefix(remoteName, "/") { t.Log("remoteName", remoteName) // Remove temp directory err := os.Remove(remoteName) require.NoError(t, err) } }