func (w *OcrRpcWorker) handle(deliveries <-chan amqp.Delivery, done chan error) {
for d := range deliveries {
logg.LogTo(
"OCR_WORKER",
"got %d byte delivery: [%v]. Routing key: %v Reply to: %v",
len(d.Body),
d.DeliveryTag,
d.RoutingKey,
d.ReplyTo,
)
ocrResult, err := w.resultForDelivery(d)
if err != nil {
msg := "Error generating ocr result. Error: %v"
logg.LogError(fmt.Errorf(msg, err))
}
logg.LogTo("OCR_WORKER", "Sending rpc response: %v", ocrResult)
err = w.sendRpcResponse(ocrResult, d.ReplyTo, d.CorrelationId)
if err != nil {
msg := "Error returning ocr result: %v. Error: %v"
logg.LogError(fmt.Errorf(msg, ocrResult, err))
// if we can't send our response, let's just abort
done <- err
break
}
}
logg.LogTo("OCR_WORKER", "handle: deliveries channel closed")
done <- fmt.Errorf("handle: deliveries channel closed")
}
func (w *OcrRpcWorker) resultForDelivery(d amqp.Delivery) (OcrResult, error) {
ocrRequest := OcrRequest{}
ocrResult := OcrResult{Text: "Error"}
err := json.Unmarshal(d.Body, &ocrRequest)
if err != nil {
msg := "Error unmarshaling json: %v. Error: %v"
errMsg := fmt.Sprintf(msg, string(d.Body), err)
logg.LogError(fmt.Errorf(errMsg))
ocrResult.Text = errMsg
return ocrResult, err
}
ocrEngine := NewOcrEngine(ocrRequest.EngineType)
ocrResult, err = ocrEngine.ProcessRequest(ocrRequest)
if err != nil {
msg := "Error processing image url: %v. Error: %v"
errMsg := fmt.Sprintf(msg, ocrRequest.ImgUrl, err)
logg.LogError(fmt.Errorf(errMsg))
ocrResult.Text = errMsg
return ocrResult, err
}
return ocrResult, nil
}
func (s *OcrHttpMultipartHandler) ServeHTTP(w http.ResponseWriter, req *http.Request) {
defer req.Body.Close()
ocrRequest, err := s.extractParts(req)
if err != nil {
logg.LogError(err)
errStr := fmt.Sprintf("Error extracting multipart/related parts: %v", err)
http.Error(w, errStr, 500)
return
}
logg.LogTo("OCR_HTTP", "ocrRequest: %v", ocrRequest)
ocrResult, err := HandleOcrRequest(ocrRequest, s.RabbitConfig)
if err != nil {
msg := "Unable to perform OCR decode. Error: %v"
errMsg := fmt.Sprintf(msg, err)
logg.LogError(fmt.Errorf(errMsg))
http.Error(w, errMsg, 500)
return
}
logg.LogTo("OCR_HTTP", "ocrResult: %v", ocrResult)
fmt.Fprintf(w, ocrResult.Text)
}
// Gin middleware to connnect to the Sync Gw database given in the
// dbUrl parameter, and set the connection object into the context.
// This creates a new connection for each request, which is ultra-conservative
// in case the connection object isn't safe to use among multiple goroutines
// (and I believe it is). If it becomes a bottleneck, it's easy to create
// another middleware that re-uses an existing connection.
func DbConnector(dbUrl string) gin.HandlerFunc {
return func(c *gin.Context) {
// make sure the db url does not have a trailing slash
if strings.HasSuffix(dbUrl, "/") {
err := errors.New(fmt.Sprintf("dbUrl needs trailing slash: %v", dbUrl))
logg.LogError(err)
c.Fail(500, err)
return
}
db, err := couch.Connect(dbUrl)
if err != nil {
err = errors.New(fmt.Sprintf("Error %v | dbUrl: %v", err, dbUrl))
logg.LogError(err)
c.Fail(500, err)
return
}
c.Set(MIDDLEWARE_KEY_DB, db)
c.Next()
}
}
func (s *OcrHttpHandler) ServeHTTP(w http.ResponseWriter, req *http.Request) {
logg.LogTo("OCR_HTTP", "serveHttp called")
defer req.Body.Close()
ocrRequest := OcrRequest{}
decoder := json.NewDecoder(req.Body)
err := decoder.Decode(&ocrRequest)
if err != nil {
logg.LogError(err)
http.Error(w, "Unable to unmarshal json", 500)
return
}
ocrResult, err := HandleOcrRequest(ocrRequest, s.RabbitConfig)
if err != nil {
msg := "Unable to perform OCR decode. Error: %v"
errMsg := fmt.Sprintf(msg, err)
logg.LogError(fmt.Errorf(errMsg))
http.Error(w, errMsg, 500)
return
}
logg.LogTo("OCR_HTTP", "ocrResult: %v", ocrResult)
fmt.Fprintf(w, ocrResult.Text)
}
// Codereview: de-dupe
func (j TrainingJob) recordProcessingError(err error) {
logg.LogError(err)
db := j.Configuration.DbConnection()
if err := j.Failed(db, err); err != nil {
errMsg := fmt.Errorf("Error setting training job as failed: %v", err)
logg.LogError(errMsg)
}
}
// Codereview: de-dupe
func (d DatasetSplitter) recordProcessingError(err error) {
logg.LogError(err)
db := d.Configuration.DbConnection()
if err := d.Dataset.Failed(db, err); err != nil {
errMsg := fmt.Errorf("Error setting dataset as failed: %v", err)
logg.LogError(errMsg)
}
}
func (w *PreprocessorRpcWorker) handleDelivery(d amqp.Delivery) error {
ocrRequest := OcrRequest{}
err := json.Unmarshal(d.Body, &ocrRequest)
if err != nil {
msg := "Error unmarshaling json: %v. Error: %v"
errMsg := fmt.Sprintf(msg, string(d.Body), err)
logg.LogError(fmt.Errorf(errMsg))
return err
}
logg.LogTo("PREPROCESSOR_WORKER", "ocrRequest before: %v", ocrRequest)
routingKey := ocrRequest.nextPreprocessor(w.rabbitConfig.RoutingKey)
logg.LogTo("PREPROCESSOR_WORKER", "publishing with routing key %q", routingKey)
logg.LogTo("PREPROCESSOR_WORKER", "ocrRequest after: %v", ocrRequest)
err = w.preprocessImage(&ocrRequest)
if err != nil {
msg := "Error preprocessing image: %v. Error: %v"
errMsg := fmt.Sprintf(msg, ocrRequest, err)
logg.LogError(fmt.Errorf(errMsg))
return err
}
ocrRequestJson, err := json.Marshal(ocrRequest)
if err != nil {
return err
}
logg.LogTo("PREPROCESSOR_WORKER", "sendRpcResponse to: %v", routingKey)
if err := w.channel.Publish(
w.rabbitConfig.Exchange, // publish to an exchange
routingKey, // routing to 0 or more queues
false, // mandatory
false, // immediate
amqp.Publishing{
Headers: amqp.Table{},
ContentType: "text/plain",
ContentEncoding: "",
Body: []byte(ocrRequestJson),
DeliveryMode: amqp.Transient, // 1=non-persistent, 2=persistent
Priority: 0, // 0-9
ReplyTo: d.ReplyTo,
CorrelationId: d.CorrelationId,
// a bunch of application/implementation-specific fields
},
); err != nil {
return err
}
logg.LogTo("PREPROCESSOR_WORKER", "handleDelivery succeeded")
return nil
}
// Copy the contents of Datafile.Url to CBFS and return the cbfs dest path
func (d Datafile) CopyToBlobStore(db couch.Database, blobStore BlobStore) (string, error) {
if !d.HasValidId() {
errMsg := fmt.Errorf("Datafile: %+v must have an id", d)
logg.LogError(errMsg)
return "", errMsg
}
if len(d.Url) == 0 {
errMsg := fmt.Errorf("Datafile: %+v must have a non empty url", d)
logg.LogError(errMsg)
return "", errMsg
}
logg.LogTo("MODEL", "datafile url: |%v|", d.Url)
// figure out dest path to save to on blobStore
u, err := url.Parse(d.Url)
if err != nil {
errMsg := fmt.Errorf("Error parsing: %v. Err %v", d.Url, err)
logg.LogError(errMsg)
return "", errMsg
}
urlPath := u.Path
_, filename := path.Split(urlPath)
destPath := fmt.Sprintf("%v/%v", d.Id, filename)
// open input stream to url
resp, err := http.Get(d.Url)
if err != nil {
errMsg := fmt.Errorf("Error opening: %v. Err %v", d.Url, err)
logg.LogError(errMsg)
return "", errMsg
}
defer resp.Body.Close()
// write to blobStore
options := BlobPutOptions{}
options.ContentType = resp.Header.Get("Content-Type")
if err := blobStore.Put("", destPath, resp.Body, options); err != nil {
errMsg := fmt.Errorf("Error writing %v to blobStore: %v", destPath, err)
logg.LogError(errMsg)
return "", errMsg
}
logg.LogTo("MODEL", "copied datafile url %v to blobStore: %v", d.Url, destPath)
return destPath, nil
}
func stressTest(doneChannel chan<- bool) {
imageUrls := imageUrls()
logg.LogTo("CLI", "imageUrls: %v", imageUrls)
logg.LogTo("CLI", "numIterations: %v", *numIterations)
openOcrUrl := *ocrUrl
client := ocrclient.NewHttpClient(openOcrUrl)
for i := 0; i < *numIterations; i++ {
index := randomIntInRange(0, numTestImages)
imageUrl := imageUrls[index]
logg.LogTo("CLI", "OCR decoding: %v. index: %d", imageUrl, index)
ocrRequest := ocrclient.OcrRequest{
ImgUrl: imageUrl,
EngineType: ocrclient.ENGINE_TESSERACT,
}
ocrDecoded, err := client.DecodeImageUrl(ocrRequest)
if err != nil {
logg.LogError(fmt.Errorf("Error decoding image: %v", err))
} else {
logg.LogTo("CLI", "OCR decoded: %v", ocrDecoded)
}
}
doneChannel <- true
}
func main() {
var preprocessor string
flagFunc := func() {
flag.StringVar(
&preprocessor,
"preprocessor",
"identity",
"The preprocessor to use, eg, stroke-width-transform",
)
}
rabbitConfig := ocrworker.DefaultConfigFlagsOverride(flagFunc)
// inifinite loop, since sometimes worker <-> rabbitmq connection
// gets broken. see https://github.com/tleyden/open-ocr/issues/4
for {
logg.LogTo("PREPROCESSOR_WORKER", "Creating new Preprocessor Worker")
preprocessorWorker, err := ocrworker.NewPreprocessorRpcWorker(
rabbitConfig,
preprocessor,
)
if err != nil {
logg.LogPanic("Could not create rpc worker: %v", err)
}
preprocessorWorker.Run()
// this happens when connection is closed
err = <-preprocessorWorker.Done
logg.LogError(fmt.Errorf("Preprocessor Worker failed with error: %v", err))
}
}
func NewGameStateFromString(jsonString string) GameState {
gameState := &GameState{}
jsonBytes := []byte(jsonString)
err := json.Unmarshal(jsonBytes, gameState)
if err != nil {
logg.LogError(err)
}
return *gameState
}
// Read from source tar stream and write training and test to given tar writers
func (d DatasetSplitter) transform(source *tar.Reader, train, test *tar.Writer) error {
splitter := d.splitter(train, test)
for {
hdr, err := source.Next()
if err == io.EOF {
// end of tar archive
break
}
if err != nil {
return err
}
tw := splitter(hdr.Name)
if err := tw.WriteHeader(hdr); err != nil {
return err
}
_, err = io.Copy(tw, source)
if err != nil {
return err
}
}
// close writers
if err := train.Close(); err != nil {
errMsg := fmt.Errorf("Error closing tar writer: %v", err)
logg.LogError(errMsg)
return err
}
if err := test.Close(); err != nil {
errMsg := fmt.Errorf("Error closing tar reader: %v", err)
logg.LogError(errMsg)
return err
}
return nil
}
func (j TrainingJob) getSolver() (*Solver, error) {
db := j.Configuration.DbConnection()
solver := &Solver{}
err := db.Retrieve(j.SolverId, solver)
if err != nil {
errMsg := fmt.Errorf("Didn't retrieve: %v - %v", j.SolverId, err)
logg.LogError(errMsg)
return nil, errMsg
}
solver.Configuration = j.Configuration
return solver, nil
}
func (game *Game) updateUserGameNumber(gameState GameState) {
gameNumberChanged := (game.gameState.Number != gameState.Number)
if gameNumberChanged {
game.user.GameNumber = gameState.Number
newRevision, err := game.db.Edit(game.user)
if err != nil {
logg.LogError(err)
return
}
logg.LogTo("MAIN", "user update, rev: %v", newRevision)
}
}
func TestOcrEngineTypeJson(t *testing.T) {
testJson := `{"img_url":"foo", "engine":"tesseract"}`
ocrRequest := OcrRequest{}
err := json.Unmarshal([]byte(testJson), &ocrRequest)
if err != nil {
logg.LogError(err)
}
assert.True(t, err == nil)
assert.Equals(t, ocrRequest.EngineType, ENGINE_TESSERACT)
logg.LogTo("TEST", "ocrRequest: %v", ocrRequest)
}
func FakePiece() Piece {
jsonString := `{"location":7,"validMoves":[{"locations":[1],"captures":[{"team":1,"piece":11}],"king":true}]}`
piecePtr := &Piece{}
jsonBytes := []byte(jsonString)
err := json.Unmarshal(jsonBytes, piecePtr)
if err != nil {
logg.LogError(err)
}
piece := *piecePtr
return piece
}
func HandleOcrRequest(ocrRequest OcrRequest, rabbitConfig RabbitConfig) (OcrResult, error) {
switch ocrRequest.InplaceDecode {
case true:
// inplace decode: short circuit rabbitmq, and just call
// ocr engine directly
ocrEngine := NewOcrEngine(ocrRequest.EngineType)
ocrResult, err := ocrEngine.ProcessRequest(ocrRequest)
if err != nil {
msg := "Error processing ocr request. Error: %v"
errMsg := fmt.Sprintf(msg, err)
logg.LogError(fmt.Errorf(errMsg))
return OcrResult{}, err
}
return ocrResult, nil
default:
// add a new job to rabbitmq and wait for worker to respond w/ result
ocrClient, err := NewOcrRpcClient(rabbitConfig)
if err != nil {
logg.LogError(err)
return OcrResult{}, err
}
ocrResult, err := ocrClient.DecodeImage(ocrRequest)
if err != nil {
logg.LogError(err)
return OcrResult{}, err
}
return ocrResult, nil
}
}
func (n NsqWorker) HandleEvents() {
// not really sure if I need to use channels at all here,
// since at the moment there is only one worker
channelName := "channel"
// pull event off of nsql topic
config := nsq.NewConfig()
q, _ := nsq.NewConsumer(n.Configuration.NsqdTopic, channelName, config)
q.AddHandler(nsq.HandlerFunc(func(message *nsq.Message) error {
logg.LogTo("NSQ_WORKER", "Got a message!: %v", string(message.Body))
// create jobDescriptor from json
jobDescriptor := JobDescriptor{}
err := json.Unmarshal(message.Body, &jobDescriptor)
if err != nil {
bodyStr := string(message.Body)
logg.LogTo("NSQ_WORKER", "Error unmarshalling msg: %v", bodyStr)
return err
}
logg.LogTo("NSQ_WORKER", "Job descriptor: %+v", jobDescriptor)
// create job from job descriptor
job, err := CreateJob(n.Configuration, jobDescriptor)
if err != nil {
logg.LogTo("NSQ_WORKER", "Error creating job from: %+v", jobDescriptor)
return err
}
logg.LogTo("NSQ_WORKER", "Job: %+v", job)
// run job
go job.Run(nil)
return nil
}))
err := q.ConnectToNSQLookupd(n.Configuration.NsqLookupdUrl)
if err != nil {
errMsg := fmt.Errorf("Error connecting to nsq: %v", err)
logg.LogError(errMsg)
}
logg.LogTo("NSQ_WORKER", "connected to nsq as a consumer")
}
func (w *PreprocessorRpcWorker) preprocessImage(ocrRequest *OcrRequest) error {
descriptor := w.bindingKey // eg, "stroke-width-transform"
preprocessor := w.preprocessorMap[descriptor]
logg.LogTo("PREPROCESSOR_WORKER", "Preproces %v via %v", ocrRequest, descriptor)
err := preprocessor.preprocess(ocrRequest)
if err != nil {
msg := "Error doing %s on: %v. Error: %v"
errMsg := fmt.Sprintf(msg, descriptor, ocrRequest, err)
logg.LogError(fmt.Errorf(errMsg))
return err
}
return nil
}
func TestGetModifiedSolverSpec(t *testing.T) {
protoText := `
# The train/test net protocol buffer definition
net: "this_should_get_replaced"
# test_iter specifies how many forward passes the test should carry out.
# In the case of MNIST, we have test batch size 100 and 100 test iterations,
# covering the full 10,000 testing images.
test_iter: 100
# Carry out testing every 500 training iterations.
test_interval: 500
# The base learning rate, momentum and the weight decay of the network.
base_lr: 0.01
momentum: 0.9
weight_decay: 0.0005
# The learning rate policy
lr_policy: "inv"
gamma: 0.0001
power: 0.75
# Display every 100 iterations
display: 100
# The maximum number of iterations
max_iter: 10000
# snapshot intermediate results
snapshot: 5000
snapshot_prefix: "snapshot"
# solver mode: CPU or GPU
solver_mode: CPU`
modifiedBytes, err := modifySolverSpec([]byte(protoText))
if err != nil {
logg.LogError(err)
}
assert.True(t, err == nil)
assert.True(t, len(modifiedBytes) != 0)
logg.LogTo("TEST", "modified prototxt: %v", string(modifiedBytes))
// instantiate proto object based on modified bytes
solverParam := &caffe.SolverParameter{}
err = proto.UnmarshalText(string(modifiedBytes), solverParam)
assert.True(t, err == nil)
assert.True(t, solverParam.Net != nil)
assert.Equals(t, *(solverParam.Net), "solver-net.prototxt")
assert.Equals(t, *(solverParam.SnapshotPrefix), "snapshot")
}
// - make sure one of the changes is a game, if not, ignore it
// - get the latest game document
// - if it's not our turn, do nothing
// - if it is our turn
// - call thinker to calculate next move
// - make next move by inserting a new revision of votes doc
func (game *Game) handleChanges(changes Changes) {
gameDocChanged := game.hasGameDocChanged(changes)
if gameDocChanged {
gameState, err := game.fetchLatestGameState()
if err != nil {
logg.LogError(err)
return
}
game.updateUserGameNumber(gameState)
game.gameState = gameState
if isOurTurn := game.isOurTurn(gameState); !isOurTurn {
logg.LogTo("DEBUG", "It's not our turn, ignoring changes")
return
}
bestMove := game.thinker.Think(gameState)
game.PostChosenMove(bestMove)
}
}
func (game *Game) PostChosenMove(validMove ValidMove) {
logg.LogTo("MAIN", "post chosen move: %v", validMove)
preMoveSleepSeconds := game.calculatePreMoveSleepSeconds()
logg.LogTo("MAIN", "sleep %v (s) before posting move", preMoveSleepSeconds)
time.Sleep(time.Second * time.Duration(preMoveSleepSeconds))
if len(validMove.Locations) == 0 {
logg.LogTo("MAIN", "invalid move, ignoring: %v", validMove)
}
u4, err := uuid.NewV4()
if err != nil {
logg.LogPanic("Error generating uuid", err)
}
votes := &OutgoingVotes{}
votes.Id = fmt.Sprintf("vote:%s", u4)
votes.Turn = game.gameState.Turn
votes.PieceId = validMove.PieceId
votes.TeamId = game.ourTeamId
votes.GameId = game.gameState.Number
// TODO: this is actually a bug, because if there is a
// double jump it will only send the first jump move
endLocation := validMove.Locations[0]
locations := []int{validMove.StartLocation, endLocation}
votes.Locations = locations
newId, newRevision, err := game.db.Insert(votes)
logg.LogTo("MAIN", "newId: %v, newRevision: %v err: %v", newId, newRevision, err)
if err != nil {
logg.LogError(err)
return
}
}
func (w *PreprocessorRpcWorker) handle(deliveries <-chan amqp.Delivery, done chan error) {
for d := range deliveries {
logg.LogTo(
"PREPROCESSOR_WORKER",
"got %d byte delivery: [%v]. Routing key: %s Reply to: %v",
len(d.Body),
d.DeliveryTag,
d.RoutingKey,
d.ReplyTo,
)
err := w.handleDelivery(d)
if err != nil {
msg := "Error handling delivery in preprocessor. Error: %v"
logg.LogError(fmt.Errorf(msg, err))
}
}
logg.LogTo("PREPROCESSOR_WORKER", "handle: deliveries channel closed")
done <- fmt.Errorf("handle: deliveries channel closed")
}
func main() {
noOpFlagFunc := ocrworker.NoOpFlagFunction()
rabbitConfig := ocrworker.DefaultConfigFlagsOverride(noOpFlagFunc)
// inifinite loop, since sometimes worker <-> rabbitmq connection
// gets broken. see https://github.com/tleyden/open-ocr/issues/4
for {
logg.LogTo("OCR_WORKER", "Creating new OCR Worker")
ocrWorker, err := ocrworker.NewOcrRpcWorker(rabbitConfig)
if err != nil {
logg.LogPanic("Could not create rpc worker")
}
ocrWorker.Run()
// this happens when connection is closed
err = <-ocrWorker.Done
logg.LogError(fmt.Errorf("OCR Worker failed with error: %v", err))
}
}
func (c ChangesListener) handleTrainingJobChange(change couch.Change, doc ElasticThoughtDoc) {
logg.LogTo("CHANGES", "got a training job doc: %+v", doc)
// create a Training Job doc from the ElasticThoughtDoc
trainingJob := &TrainingJob{}
if err := c.Database.Retrieve(change.Id, &trainingJob); err != nil {
errMsg := fmt.Errorf("Didn't retrieve: %v - %v", change.Id, err)
logg.LogError(errMsg)
return
}
// check the state, only schedule if state == pending
if trainingJob.ProcessingState != Pending {
logg.LogTo("CHANGES", "State != pending: %+v", trainingJob)
return
}
job := NewJobDescriptor(doc.Id)
c.JobScheduler.ScheduleJob(*job)
}
func (c ChangesListener) handleClassifyJobChange(change couch.Change, doc ElasticThoughtDoc) {
logg.LogTo("CHANGES", "got a classify job doc: %+v", doc)
// create a Training Job doc from the ElasticThoughtDoc
classifyJob := NewClassifyJob(c.Configuration)
if err := classifyJob.Find(change.Id); err != nil {
errMsg := fmt.Errorf("Could not find: %v - %v", change.Id, err)
logg.LogError(errMsg)
return
}
// check the state, only schedule if state == pending
if classifyJob.ProcessingState != Pending {
logg.LogTo("CHANGES", "State != pending: %+v", classifyJob)
return
}
job := NewJobDescriptor(doc.Id)
c.JobScheduler.ScheduleJob(*job)
}
func (c ChangesListener) processChanges(changes couch.Changes) {
for _, change := range changes.Results {
if change.Deleted {
logg.LogTo("CHANGES", "change was deleted, skipping")
continue
}
// ignore certain docs, like "_user/*"
if strings.HasPrefix(change.Id, "_user") {
logg.LogTo("CHANGES", "Ignoring change: %v", change.Id)
continue
}
doc := ElasticThoughtDoc{}
err := c.Database.Retrieve(change.Id, &doc)
if err != nil {
errMsg := fmt.Errorf("Didn't retrieve: %v - %v", change.Id, err)
logg.LogError(errMsg)
continue
}
switch doc.Type {
case DOC_TYPE_DATAFILE:
c.handleDatafileChange(change, doc)
case DOC_TYPE_DATASET:
c.handleDatasetChange(change, doc)
case DOC_TYPE_TRAINING_JOB:
c.handleTrainingJobChange(change, doc)
case DOC_TYPE_CLASSIFY_JOB:
c.handleClassifyJobChange(change, doc)
}
}
}
func (c ChangesListener) handleDatafileChange(change couch.Change, doc ElasticThoughtDoc) {
logg.LogTo("CHANGES", "got a datafile doc: %+v", doc)
// create a Datafile doc from the ElasticThoughtDoc
datafile := NewDatafile(c.Configuration)
if err := c.Database.Retrieve(change.Id, &datafile); err != nil {
errMsg := fmt.Errorf("Didn't retrieve: %v - %v", change.Id, err)
logg.LogError(errMsg)
return
}
logg.LogTo("CHANGES", "convert to datafile: %+v", datafile)
// check the state, only schedule if state == pending
if datafile.ProcessingState != Pending {
logg.LogTo("CHANGES", "Datafile state != pending: %+v", datafile)
return
}
job := NewJobDescriptor(doc.Id)
c.JobScheduler.ScheduleJob(*job)
}
func main() {
var http_port int
flagFunc := func() {
flag.IntVar(
&http_port,
"http_port",
8080,
"The http port to listen on, eg, 8081",
)
}
rabbitConfig := ocrworker.DefaultConfigFlagsOverride(flagFunc)
// any requests to root, just redirect to main page
http.HandleFunc("/", func(w http.ResponseWriter, r *http.Request) {
text := `<h1>OpenOCR is running!<h1> Need <a href="http://www.openocr.net">docs</a>?`
fmt.Fprintf(w, text)
})
http.Handle("/ocr", ocrworker.NewOcrHttpHandler(rabbitConfig))
http.Handle("/ocr-file-upload", ocrworker.NewOcrHttpMultipartHandler(rabbitConfig))
// add a handler to serve up an image from the filesystem.
// ignore this, was just something for testing ..
http.HandleFunc("/img", func(w http.ResponseWriter, r *http.Request) {
http.ServeFile(w, r, "../refactoring.png")
})
listenAddr := fmt.Sprintf(":%d", http_port)
logg.LogTo("OCR_HTTP", "Starting listener on %v", listenAddr)
logg.LogError(http.ListenAndServe(listenAddr, nil))
}