// flushLog attempts to flush any pending logs to the appserver.
// It should not be called concurrently.
func (c *context) flushLog(force bool) (flushed bool) {
c.pendingLogs.Lock()
// Grab up to 30 MB. We can get away with up to 32 MB, but let's be cautious.
n, rem := 0, 30<<20
for ; n < len(c.pendingLogs.lines); n++ {
ll := c.pendingLogs.lines[n]
// Each log line will require about 3 bytes of overhead.
nb := proto.Size(ll) + 3
if nb > rem {
break
}
rem -= nb
}
lines := c.pendingLogs.lines[:n]
c.pendingLogs.lines = c.pendingLogs.lines[n:]
c.pendingLogs.Unlock()
if len(lines) == 0 && !force {
// Nothing to flush.
return false
}
rescueLogs := false
defer func() {
if rescueLogs {
c.pendingLogs.Lock()
c.pendingLogs.lines = append(lines, c.pendingLogs.lines...)
c.pendingLogs.Unlock()
}
}()
buf, err := proto.Marshal(&logpb.UserAppLogGroup{
LogLine: lines,
})
if err != nil {
log.Printf("internal.flushLog: marshaling UserAppLogGroup: %v", err)
rescueLogs = true
return false
}
req := &logpb.FlushRequest{
Logs: buf,
}
res := &basepb.VoidProto{}
c.pendingLogs.Lock()
c.pendingLogs.flushes++
c.pendingLogs.Unlock()
if err := c.Call("logservice", "Flush", req, res, nil); err != nil {
log.Printf("internal.flushLog: Flush RPC: %v", err)
rescueLogs = true
return false
}
return true
}
func CreateHekaStream(msgBytes []byte, outBytes *[]byte,
msc *message.MessageSigningConfig) error {
h := &message.Header{}
h.SetMessageLength(uint32(len(msgBytes)))
if msc != nil {
h.SetHmacSigner(msc.Name)
h.SetHmacKeyVersion(msc.Version)
var hm hash.Hash
switch msc.Hash {
case "sha1":
hm = hmac.New(sha1.New, []byte(msc.Key))
h.SetHmacHashFunction(message.Header_SHA1)
default:
hm = hmac.New(md5.New, []byte(msc.Key))
}
hm.Write(msgBytes)
h.SetHmac(hm.Sum(nil))
}
headerSize := proto.Size(h)
requiredSize := message.HEADER_FRAMING_SIZE + headerSize + len(msgBytes)
if requiredSize > message.MAX_RECORD_SIZE {
return fmt.Errorf("Message too big, requires %d (MAX_RECORD_SIZE = %d)",
requiredSize, message.MAX_RECORD_SIZE)
}
if cap(*outBytes) < requiredSize {
*outBytes = make([]byte, requiredSize)
} else {
*outBytes = (*outBytes)[:requiredSize]
}
(*outBytes)[0] = message.RECORD_SEPARATOR
(*outBytes)[1] = uint8(headerSize)
// This looks odd but is correct; it effectively "seeks" the initial write
// position for the protobuf output to be at the
// `(*outBytes)[message.HEADER_DELIMITER_SIZE]` position.
pbuf := proto.NewBuffer((*outBytes)[message.HEADER_DELIMITER_SIZE:message.HEADER_DELIMITER_SIZE])
if err := pbuf.Marshal(h); err != nil {
return err
}
(*outBytes)[headerSize+message.HEADER_DELIMITER_SIZE] = message.UNIT_SEPARATOR
copy((*outBytes)[message.HEADER_FRAMING_SIZE+headerSize:], msgBytes)
return nil
}
func createStream(msgBytes []byte, encoding message.Header_MessageEncoding,
outBytes *[]byte, msc *message.MessageSigningConfig) error {
h := &message.Header{}
h.SetMessageLength(uint32(len(msgBytes)))
if encoding != message.Default_Header_MessageEncoding {
h.SetMessageEncoding(encoding)
}
if msc != nil {
h.SetHmacSigner(msc.Name)
h.SetHmacKeyVersion(msc.Version)
var hm hash.Hash
switch msc.Hash {
case "sha1":
hm = hmac.New(sha1.New, []byte(msc.Key))
h.SetHmacHashFunction(message.Header_SHA1)
default:
hm = hmac.New(md5.New, []byte(msc.Key))
}
hm.Write(msgBytes)
h.SetHmac(hm.Sum(nil))
}
headerSize := uint8(proto.Size(h))
requiredSize := int(3 + headerSize)
if cap(*outBytes) < requiredSize {
*outBytes = make([]byte, requiredSize, requiredSize+len(msgBytes))
} else {
*outBytes = (*outBytes)[:requiredSize]
}
(*outBytes)[0] = message.RECORD_SEPARATOR
(*outBytes)[1] = uint8(headerSize)
pbuf := proto.NewBuffer((*outBytes)[2:2])
err := pbuf.Marshal(h)
if err != nil {
return err
}
(*outBytes)[headerSize+2] = message.UNIT_SEPARATOR
*outBytes = append(*outBytes, msgBytes...)
return nil
}
func OutputsSpec(c gs.Context) {
t := new(ts.SimpleT)
ctrl := gomock.NewController(t)
defer ctrl.Finish()
oth := NewOutputTestHelper(ctrl)
var wg sync.WaitGroup
inChan := make(chan *PipelinePack, 1)
pConfig := NewPipelineConfig(nil)
c.Specify("A FileOutput", func() {
fileOutput := new(FileOutput)
tmpFileName := fmt.Sprintf("fileoutput-test-%d", time.Now().UnixNano())
tmpFilePath := fmt.Sprint(os.TempDir(), string(os.PathSeparator),
tmpFileName)
config := fileOutput.ConfigStruct().(*FileOutputConfig)
config.Path = tmpFilePath
msg := getTestMessage()
pack := NewPipelinePack(pConfig.inputRecycleChan)
pack.Message = msg
pack.Decoded = true
toString := func(outData interface{}) string {
return string(*(outData.(*[]byte)))
}
c.Specify("correctly formats text output", func() {
err := fileOutput.Init(config)
defer os.Remove(tmpFilePath)
c.Assume(err, gs.IsNil)
outData := make([]byte, 0, 20)
c.Specify("by default", func() {
fileOutput.handleMessage(pack, &outData)
c.Expect(toString(&outData), gs.Equals, *msg.Payload+"\n")
})
c.Specify("w/ a prepended timestamp when specified", func() {
fileOutput.prefix_ts = true
fileOutput.handleMessage(pack, &outData)
// Test will fail if date flips btn handleMessage call and
// todayStr calculation... should be extremely rare.
todayStr := time.Now().Format("[2006/Jan/02:")
strContents := toString(&outData)
payload := *msg.Payload
c.Expect(strContents, ts.StringContains, payload)
c.Expect(strContents, ts.StringStartsWith, todayStr)
})
})
c.Specify("correctly formats JSON output", func() {
config.Format = "json"
err := fileOutput.Init(config)
defer os.Remove(tmpFilePath)
c.Assume(err, gs.IsNil)
outData := make([]byte, 0, 200)
c.Specify("when specified", func() {
fileOutput.handleMessage(pack, &outData)
msgJson, err := json.Marshal(pack.Message)
c.Assume(err, gs.IsNil)
c.Expect(toString(&outData), gs.Equals, string(msgJson)+"\n")
})
c.Specify("and with a timestamp", func() {
fileOutput.prefix_ts = true
fileOutput.handleMessage(pack, &outData)
// Test will fail if date flips btn handleMessage call and
// todayStr calculation... should be extremely rare.
todayStr := time.Now().Format("[2006/Jan/02:")
strContents := toString(&outData)
msgJson, err := json.Marshal(pack.Message)
c.Assume(err, gs.IsNil)
c.Expect(strContents, ts.StringContains, string(msgJson)+"\n")
c.Expect(strContents, ts.StringStartsWith, todayStr)
})
})
c.Specify("correctly formats protocol buffer stream output", func() {
config.Format = "protobufstream"
err := fileOutput.Init(config)
defer os.Remove(tmpFilePath)
c.Assume(err, gs.IsNil)
outData := make([]byte, 0, 200)
c.Specify("when specified and timestamp ignored", func() {
fileOutput.prefix_ts = true
err := fileOutput.handleMessage(pack, &outData)
c.Expect(err, gs.IsNil)
b := []byte{30, 2, 8, uint8(proto.Size(pack.Message)), 31, 10, 16} // sanity check the header and the start of the protocol buffer
c.Expect(bytes.Equal(b, outData[:len(b)]), gs.IsTrue)
})
})
c.Specify("processes incoming messages", func() {
err := fileOutput.Init(config)
defer os.Remove(tmpFilePath)
c.Assume(err, gs.IsNil)
// Save for comparison.
payload := fmt.Sprintf("%s\n", pack.Message.GetPayload())
oth.MockOutputRunner.EXPECT().InChan().Return(inChan)
wg.Add(1)
go fileOutput.receiver(oth.MockOutputRunner, &wg)
inChan <- pack
close(inChan)
outBatch := <-fileOutput.batchChan
wg.Wait()
c.Expect(string(outBatch), gs.Equals, payload)
})
c.Specify("Init halts if basedirectory is not writable", func() {
tmpdir := filepath.Join(os.TempDir(), "tmpdir")
err := os.MkdirAll(tmpdir, 0400)
c.Assume(err, gs.IsNil)
config.Path = tmpdir
err = fileOutput.Init(config)
c.Assume(err, gs.Not(gs.IsNil))
})
c.Specify("commits to a file", func() {
outStr := "Write me out to the log file"
outBytes := []byte(outStr)
c.Specify("with default settings", func() {
err := fileOutput.Init(config)
defer os.Remove(tmpFilePath)
c.Assume(err, gs.IsNil)
// Start committer loop
wg.Add(1)
go fileOutput.committer(oth.MockOutputRunner, &wg)
// Feed and close the batchChan
go func() {
fileOutput.batchChan <- outBytes
_ = <-fileOutput.backChan // clear backChan to prevent blocking
close(fileOutput.batchChan)
}()
wg.Wait()
// Wait for the file close operation to happen.
//for ; err == nil; _, err = fileOutput.file.Stat() {
//}
tmpFile, err := os.Open(tmpFilePath)
defer tmpFile.Close()
c.Assume(err, gs.IsNil)
contents, err := ioutil.ReadAll(tmpFile)
c.Assume(err, gs.IsNil)
c.Expect(string(contents), gs.Equals, outStr)
})
c.Specify("with different Perm settings", func() {
config.Perm = "600"
err := fileOutput.Init(config)
defer os.Remove(tmpFilePath)
c.Assume(err, gs.IsNil)
// Start committer loop
wg.Add(1)
go fileOutput.committer(oth.MockOutputRunner, &wg)
// Feed and close the batchChan
go func() {
fileOutput.batchChan <- outBytes
_ = <-fileOutput.backChan // clear backChan to prevent blocking
close(fileOutput.batchChan)
}()
wg.Wait()
// Wait for the file close operation to happen.
//for ; err == nil; _, err = fileOutput.file.Stat() {
//}
tmpFile, err := os.Open(tmpFilePath)
defer tmpFile.Close()
c.Assume(err, gs.IsNil)
fileInfo, err := tmpFile.Stat()
c.Assume(err, gs.IsNil)
fileMode := fileInfo.Mode()
if runtime.GOOS == "windows" {
c.Expect(fileMode.String(), ts.StringContains, "-rw-rw-rw-")
} else {
// 7 consecutive dashes implies no perms for group or other
c.Expect(fileMode.String(), ts.StringContains, "-------")
}
})
})
})
c.Specify("A TcpOutput", func() {
tcpOutput := new(TcpOutput)
config := tcpOutput.ConfigStruct().(*TcpOutputConfig)
tcpOutput.connection = ts.NewMockConn(ctrl)
msg := getTestMessage()
pack := NewPipelinePack(pConfig.inputRecycleChan)
pack.Message = msg
pack.Decoded = true
c.Specify("correctly formats protocol buffer stream output", func() {
outBytes := make([]byte, 0, 200)
err := createProtobufStream(pack, &outBytes)
c.Expect(err, gs.IsNil)
b := []byte{30, 2, 8, uint8(proto.Size(pack.Message)), 31, 10, 16} // sanity check the header and the start of the protocol buffer
c.Expect(bytes.Equal(b, (outBytes)[:len(b)]), gs.IsTrue)
})
c.Specify("writes out to the network", func() {
inChanCall := oth.MockOutputRunner.EXPECT().InChan().AnyTimes()
inChanCall.Return(inChan)
collectData := func(ch chan string) {
ln, err := net.Listen("tcp", "localhost:9125")
if err != nil {
ch <- err.Error()
}
ch <- "ready"
conn, err := ln.Accept()
if err != nil {
ch <- err.Error()
}
b := make([]byte, 1000)
n, _ := conn.Read(b)
ch <- string(b[0:n])
}
ch := make(chan string, 1) // don't block on put
go collectData(ch)
result := <-ch // wait for server
err := tcpOutput.Init(config)
c.Assume(err, gs.IsNil)
outStr := "Write me out to the network"
pack.Message.SetPayload(outStr)
go func() {
wg.Add(1)
tcpOutput.Run(oth.MockOutputRunner, oth.MockHelper)
wg.Done()
}()
inChan <- pack
close(inChan)
wg.Wait() // wait for close to finish, prevents intermittent test failures
matchBytes := make([]byte, 0, 1000)
err = createProtobufStream(pack, &matchBytes)
c.Expect(err, gs.IsNil)
result = <-ch
c.Expect(result, gs.Equals, string(matchBytes))
})
})
c.Specify("Runner restarts a plugin on the first time only", func() {
pc := new(PipelineConfig)
var pluginGlobals PluginGlobals
pluginGlobals.Retries = RetryOptions{
MaxDelay: "1us",
Delay: "1us",
MaxJitter: "1us",
MaxRetries: 1,
}
pw := &PluginWrapper{
name: "stoppingOutput",
configCreator: func() interface{} { return nil },
pluginCreator: func() interface{} { return new(StoppingOutput) },
}
output := new(StoppingOutput)
pc.outputWrappers = make(map[string]*PluginWrapper)
pc.outputWrappers["stoppingOutput"] = pw
oRunner := NewFORunner("stoppingOutput", output, &pluginGlobals)
var wg sync.WaitGroup
cfgCall := oth.MockHelper.EXPECT().PipelineConfig()
cfgCall.Return(pc)
wg.Add(1)
oRunner.Start(oth.MockHelper, &wg) // no panic => success
wg.Wait()
c.Expect(stopoutputTimes, gs.Equals, 2)
})
c.Specify("Runner restarts plugin and resumes feeding it", func() {
pc := new(PipelineConfig)
var pluginGlobals PluginGlobals
pluginGlobals.Retries = RetryOptions{
MaxDelay: "1us",
Delay: "1us",
MaxJitter: "1us",
MaxRetries: 4,
}
pw := &PluginWrapper{
name: "stoppingresumeOutput",
configCreator: func() interface{} { return nil },
pluginCreator: func() interface{} { return new(StopResumeOutput) },
}
output := new(StopResumeOutput)
pc.outputWrappers = make(map[string]*PluginWrapper)
pc.outputWrappers["stoppingresumeOutput"] = pw
oRunner := NewFORunner("stoppingresumeOutput", output, &pluginGlobals)
var wg sync.WaitGroup
cfgCall := oth.MockHelper.EXPECT().PipelineConfig()
cfgCall.Return(pc)
wg.Add(1)
oRunner.Start(oth.MockHelper, &wg) // no panic => success
wg.Wait()
c.Expect(stopresumerunTimes, gs.Equals, 3)
c.Expect(len(stopresumeHolder), gs.Equals, 2)
c.Expect(stopresumeHolder[1], gs.Equals, "woot")
c.Expect(oRunner.retainPack, gs.IsNil)
})
}
func FileOutputSpec(c gs.Context) {
t := new(pipeline_ts.SimpleT)
ctrl := gomock.NewController(t)
defer ctrl.Finish()
oth := plugins_ts.NewOutputTestHelper(ctrl)
var wg sync.WaitGroup
inChan := make(chan *PipelinePack, 1)
pConfig := NewPipelineConfig(nil)
c.Specify("A FileOutput", func() {
fileOutput := new(FileOutput)
tmpFileName := fmt.Sprintf("fileoutput-test-%d", time.Now().UnixNano())
tmpFilePath := fmt.Sprint(os.TempDir(), string(os.PathSeparator),
tmpFileName)
config := fileOutput.ConfigStruct().(*FileOutputConfig)
config.Path = tmpFilePath
msg := pipeline_ts.GetTestMessage()
pack := NewPipelinePack(pConfig.InputRecycleChan())
pack.Message = msg
pack.Decoded = true
toString := func(outData interface{}) string {
return string(*(outData.(*[]byte)))
}
c.Specify("correctly formats text output", func() {
err := fileOutput.Init(config)
defer os.Remove(tmpFilePath)
c.Assume(err, gs.IsNil)
outData := make([]byte, 0, 20)
c.Specify("by default", func() {
err = fileOutput.handleMessage(pack, &outData)
c.Expect(err, gs.IsNil)
c.Expect(toString(&outData), gs.Equals, *msg.Payload+"\n")
})
c.Specify("w/ a prepended timestamp when specified", func() {
fileOutput.prefix_ts = true
err = fileOutput.handleMessage(pack, &outData)
c.Expect(err, gs.IsNil)
// Test will fail if date flips btn handleMessage call and
// todayStr calculation... should be extremely rare.
todayStr := time.Now().Format("[2006/Jan/02:")
strContents := toString(&outData)
payload := *msg.Payload
c.Expect(strContents, pipeline_ts.StringContains, payload)
c.Expect(strContents, pipeline_ts.StringStartsWith, todayStr)
})
c.Specify("even when payload is nil", func() {
pack.Message.Payload = nil
err = fileOutput.handleMessage(pack, &outData)
c.Expect(err, gs.IsNil)
strContents := toString(&outData)
c.Expect(strContents, gs.Equals, "\n")
})
c.Specify("payload is nil and with a timestamp", func() {
pack.Message.Payload = nil
fileOutput.prefix_ts = true
err = fileOutput.handleMessage(pack, &outData)
c.Expect(err, gs.IsNil)
// Test will fail if date flips btn handleMessage call and
// todayStr calculation... should be extremely rare.
todayStr := time.Now().Format("[2006/Jan/02:")
strContents := toString(&outData)
c.Expect(strings.HasPrefix(strContents, todayStr), gs.IsTrue)
c.Expect(strings.HasSuffix(strContents, " \n"), gs.IsTrue)
})
})
c.Specify("correctly formats JSON output", func() {
config.Format = "json"
err := fileOutput.Init(config)
defer os.Remove(tmpFilePath)
c.Assume(err, gs.IsNil)
outData := make([]byte, 0, 200)
c.Specify("when specified", func() {
fileOutput.handleMessage(pack, &outData)
msgJson, err := json.Marshal(pack.Message)
c.Assume(err, gs.IsNil)
c.Expect(toString(&outData), gs.Equals, string(msgJson)+"\n")
})
c.Specify("and with a timestamp", func() {
fileOutput.prefix_ts = true
fileOutput.handleMessage(pack, &outData)
// Test will fail if date flips btn handleMessage call and
// todayStr calculation... should be extremely rare.
todayStr := time.Now().Format("[2006/Jan/02:")
strContents := toString(&outData)
msgJson, err := json.Marshal(pack.Message)
c.Assume(err, gs.IsNil)
c.Expect(strContents, pipeline_ts.StringContains, string(msgJson)+"\n")
c.Expect(strContents, pipeline_ts.StringStartsWith, todayStr)
})
})
c.Specify("correctly formats protocol buffer stream output", func() {
config.Format = "protobufstream"
err := fileOutput.Init(config)
defer os.Remove(tmpFilePath)
c.Assume(err, gs.IsNil)
outData := make([]byte, 0, 200)
c.Specify("when specified and timestamp ignored", func() {
fileOutput.prefix_ts = true
err := fileOutput.handleMessage(pack, &outData)
c.Expect(err, gs.IsNil)
b := []byte{30, 2, 8, uint8(proto.Size(pack.Message)), 31, 10, 16} // sanity check the header and the start of the protocol buffer
c.Expect(bytes.Equal(b, outData[:len(b)]), gs.IsTrue)
})
})
c.Specify("processes incoming messages", func() {
err := fileOutput.Init(config)
defer os.Remove(tmpFilePath)
c.Assume(err, gs.IsNil)
// Save for comparison.
payload := fmt.Sprintf("%s\n", pack.Message.GetPayload())
oth.MockOutputRunner.EXPECT().InChan().Return(inChan)
wg.Add(1)
go fileOutput.receiver(oth.MockOutputRunner, &wg)
inChan <- pack
close(inChan)
outBatch := <-fileOutput.batchChan
wg.Wait()
c.Expect(string(outBatch), gs.Equals, payload)
})
c.Specify("Init halts if basedirectory is not writable", func() {
tmpdir := filepath.Join(os.TempDir(), "tmpdir")
err := os.MkdirAll(tmpdir, 0400)
c.Assume(err, gs.IsNil)
config.Path = tmpdir
err = fileOutput.Init(config)
c.Assume(err, gs.Not(gs.IsNil))
})
c.Specify("commits to a file", func() {
outStr := "Write me out to the log file"
outBytes := []byte(outStr)
c.Specify("with default settings", func() {
err := fileOutput.Init(config)
defer os.Remove(tmpFilePath)
c.Assume(err, gs.IsNil)
// Start committer loop
wg.Add(1)
go fileOutput.committer(oth.MockOutputRunner, &wg)
// Feed and close the batchChan
go func() {
fileOutput.batchChan <- outBytes
_ = <-fileOutput.backChan // clear backChan to prevent blocking
close(fileOutput.batchChan)
}()
wg.Wait()
// Wait for the file close operation to happen.
//for ; err == nil; _, err = fileOutput.file.Stat() {
//}
tmpFile, err := os.Open(tmpFilePath)
defer tmpFile.Close()
c.Assume(err, gs.IsNil)
contents, err := ioutil.ReadAll(tmpFile)
c.Assume(err, gs.IsNil)
c.Expect(string(contents), gs.Equals, outStr)
})
c.Specify("with different Perm settings", func() {
config.Perm = "600"
err := fileOutput.Init(config)
defer os.Remove(tmpFilePath)
c.Assume(err, gs.IsNil)
// Start committer loop
wg.Add(1)
go fileOutput.committer(oth.MockOutputRunner, &wg)
// Feed and close the batchChan
go func() {
fileOutput.batchChan <- outBytes
_ = <-fileOutput.backChan // clear backChan to prevent blocking
close(fileOutput.batchChan)
}()
wg.Wait()
// Wait for the file close operation to happen.
//for ; err == nil; _, err = fileOutput.file.Stat() {
//}
tmpFile, err := os.Open(tmpFilePath)
defer tmpFile.Close()
c.Assume(err, gs.IsNil)
fileInfo, err := tmpFile.Stat()
c.Assume(err, gs.IsNil)
fileMode := fileInfo.Mode()
if runtime.GOOS == "windows" {
c.Expect(fileMode.String(), pipeline_ts.StringContains, "-rw-rw-rw-")
} else {
// 7 consecutive dashes implies no perms for group or other
c.Expect(fileMode.String(), pipeline_ts.StringContains, "-------")
}
})
})
c.Specify("honors folder_perm setting", func() {
config.FolderPerm = "750"
config.Path = filepath.Join(tmpFilePath, "subfile")
err := fileOutput.Init(config)
defer os.Remove(config.Path)
c.Assume(err, gs.IsNil)
fi, err := os.Stat(tmpFilePath)
c.Expect(fi.IsDir(), gs.IsTrue)
c.Expect(fi.Mode().Perm(), gs.Equals, os.FileMode(0750))
})
c.Specify("that starts receiving w/ a flush interval", func() {
config.FlushInterval = 100000000 // We'll trigger the timer manually.
inChan := make(chan *PipelinePack)
oth.MockOutputRunner.EXPECT().InChan().Return(inChan)
timerChan := make(chan time.Time)
msg2 := pipeline_ts.GetTestMessage()
pack2 := NewPipelinePack(pConfig.InputRecycleChan())
pack2.Message = msg2
recvWithConfig := func(config *FileOutputConfig) {
err := fileOutput.Init(config)
c.Assume(err, gs.IsNil)
wg.Add(1)
go fileOutput.receiver(oth.MockOutputRunner, &wg)
runtime.Gosched() // Yield so we can overwrite the timerChan.
fileOutput.timerChan = timerChan
}
cleanUp := func() {
close(inChan)
wg.Done()
}
c.Specify("honors flush interval", func() {
recvWithConfig(config)
defer cleanUp()
inChan <- pack
select {
case _ = <-fileOutput.batchChan:
c.Expect("", gs.Equals, "fileOutput.batchChan should NOT have fired yet")
default:
}
timerChan <- time.Now()
select {
case _ = <-fileOutput.batchChan:
default:
c.Expect("", gs.Equals, "fileOutput.batchChan SHOULD have fired by now")
}
})
c.Specify("honors flush interval AND flush count", func() {
config.FlushCount = 2
recvWithConfig(config)
defer cleanUp()
inChan <- pack
select {
case <-fileOutput.batchChan:
c.Expect("", gs.Equals, "fileOutput.batchChan should NOT have fired yet")
default:
}
timerChan <- time.Now()
select {
case <-fileOutput.batchChan:
c.Expect("", gs.Equals, "fileOutput.batchChan should NOT have fired yet")
default:
}
inChan <- pack2
runtime.Gosched()
select {
case <-fileOutput.batchChan:
default:
c.Expect("", gs.Equals, "fileOutput.batchChan SHOULD have fired by now")
}
})
c.Specify("honors flush interval OR flush count", func() {
config.FlushCount = 2
config.FlushOperator = "OR"
recvWithConfig(config)
defer cleanUp()
inChan <- pack
select {
case <-fileOutput.batchChan:
c.Expect("", gs.Equals, "fileOutput.batchChan should NOT have fired yet")
default:
}
c.Specify("when interval triggers first", func() {
timerChan <- time.Now()
select {
case <-fileOutput.batchChan:
default:
c.Expect("", gs.Equals, "fileOutput.batchChan SHOULD have fired by now")
}
})
c.Specify("when count triggers first", func() {
inChan <- pack2
runtime.Gosched()
select {
case <-fileOutput.batchChan:
default:
c.Expect("", gs.Equals, "fileOutput.batchChan SHOULD have fired by now")
}
})
})
})
})
}
func (self *Request) Size() int {
return proto.Size(self)
}
func (self *Response) Size() int {
return proto.Size(self)
}
func main() {
uj := &Pmd.UserJsMessageForwardUserPmd_CS{}
uj.Msgbytes = []byte(`{"whj":111}`)
fmt.Println("XXXXX", uj.String(), proto.MarshalTextString(uj))
rc := &Pmd.ReconnectErrorLoginUserPmd_S{}
rc.Desc = proto.String(`{"whj":111}`)
fmt.Println("xxxxx", rc.String(), proto.MarshalTextString(rc), *rc.Desc)
m := make(map[int]string)
m[1] = "wabghaijun"
a := 1
fmt.Println(protobuf.Encode(&a))
mset := make(map[int32]proto.Extension)
//mset[1] = proto.Extension{enc: []byte("sss")}
//umset, err := proto.MarshalMessageSet(mset)
var b []byte
fmt.Println(len(b))
nmd := &Pmd.ForwardNullUserPmd_CS{}
nmd1 := &Pmd.ForwardNullUserPmd_CS{}
nmd2 := &Pmd.ForwardNullUserPmd_CS{}
cmd3 := &Pmd.RequestCloseNullUserPmd_CS{}
cmd4 := &Pmd.RequestCloseNullUserPmd_CS{}
cmd3.Reason = proto.String("2222")
fmt.Println(proto.GetProperties(reflect.TypeOf(cmd3).Elem()))
cmd3byte, err1 := proto.Marshal(cmd3)
if err1 != nil {
fmt.Println("xxxxxxxxxxx", err1)
}
fmt.Println(proto.Unmarshal(cmd3byte, cmd3))
fmt.Println(mset)
cmd3test := proto.MarshalTextString(cmd3)
fmt.Println(cmd3test)
fmt.Println(proto.UnmarshalText(cmd3test, nmd))
//nmd.Prototype = proto.Uint64(2)
nmd.ByCmd = proto.Uint32(0)
//nmd.ByParam = proto.Uint32(0)
//nmd.ByCmd = append(nmd.ByCmd, 0)
//nmd.ByParam = append(nmd.ByParam, 0)
sendbuf := proto.NewBuffer(nil)
err := sendbuf.Marshal(nmd)
if err != nil {
fmt.Println("1", err)
}
nmd.Data = sendbuf.Bytes()
fmt.Println(nmd, proto.Size(nmd), len(sendbuf.Bytes()))
fmt.Println(len(sendbuf.Bytes()), sendbuf.Bytes())
//data := sendbuf.Bytes()
err = sendbuf.Marshal(cmd3)
if err != nil {
fmt.Println("2", err)
}
fmt.Println(len(sendbuf.Bytes()), sendbuf.Bytes())
data := sendbuf.Bytes()
fmt.Println(len(data), data)
//data = append(data, byte(1))
databuf := proto.NewBuffer(data)
err = databuf.Unmarshal(nmd1)
if err != nil {
fmt.Println("3", err)
}
//err = databuf.Unmarshal(nmd2)
err = proto.Unmarshal(data[:2], nmd2)
if err != nil {
fmt.Println("4", err)
}
err = proto.Unmarshal(data[2:], cmd4)
//err = databuf.Unmarshal(cmd4)
if err != nil {
fmt.Println("5", err)
}
fmt.Println(nmd, proto.Size(nmd))
fmt.Println(nmd1)
fmt.Println(nmd2)
fmt.Println(cmd4)
}