예제 #1
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    def __init__(self, image_task_q, event_q, config, settings, imageprocessor):
        super(FSImageWorkerProcess, self).__init__(group=None)
        self.image_task_q = image_task_q
        self.settings = settings
        self.config = config
        self.exit = False
        self.event_q = event_q
        self.image = FSImage()

        self.log = logging.getLogger('IMAGE_PROCESSOR THREAD')
        self.log.setLevel(logging.DEBUG)
        self.image_processor = imageprocessor
        self._logger = logging.getLogger(__name__)
        self._logger.setLevel(logging.DEBUG)
예제 #2
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    def __init__(self, config, settings, imageprocessor):


        self.config = config
        self.settings = settings
        # debug
        self.image = FSImage()

        self._logger = logging.getLogger(__name__)
        self._settings_mode_is_off = True
        self.camera = None
        self._image_processor = imageprocessor
        self.camera = FSCamera()
        self.serial_connection = FSSerialCom()

        self.turntable = Turntable(serial_object=self.serial_connection)
        self.laser = Laser(self.serial_connection)
        self.led = Led(self.serial_connection)
        self._logger.debug("Reset FabScanPi HAT...")
        self.reset_devices()

        self.laser.off(laser=0)
        #self.laser.off(laser=1)
        self.led.off()
        self.turntable.stop_turning()
        self._logger.debug("Hardware controller initialized...")

        self.hardware_test_functions = {
            "TURNTABLE": {
                "FUNCTIONS": {
                    "START": self.turntable.start_turning,
                    "STOP": self.turntable.stop_turning
                },
                "LABEL": "Turntable"
            },
            "LEFT_LASER": {
                "FUNCTIONS": {
                    "ON": lambda: self.laser.on(0),
                    "OFF": lambda: self.laser.off(0)
                },
                "LABEL": "First Laser"
            },
            "RIGHT_LASER": {
                "FUNCTIONS": {
                    "ON": lambda: self.laser.on(1),
                    "OFF": lambda: self.laser.off(1)
                },
                "LABEL": "Second Laser"
            },
            "LED_RING": {
                "FUNCTIONS": {
                    "ON": lambda: self.led.on(255, 255, 255),
                    "OFF": lambda: self.led.off()
                },
                "LABEL": "Led Ring"
            }
        }
예제 #3
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    def _capture_scanner_calibration(self, position):

        image = self._capture_pattern()

        #if (position > self.laser_calib_start and position < self.laser_calib_end):
        flags = cv2.CALIB_CB_FAST_CHECK | cv2.CALIB_CB_ADAPTIVE_THRESH #| cv2.CALIB_CB_NORMALIZE_IMAGE
        #else:
        #    flags = cv2.CALIB_CB_FAST_CHECK

        try:
            pose = self._imageprocessor.detect_pose(image, flags)
            plane = self._imageprocessor.detect_pattern_plane(pose)
        except StandardError as e:
            plane = None
            self._logger.error(e)

        if plane is not None:

            distance, normal, corners = plane
            self._logger.debug("Pose detected...  ")
            # Laser triangulation ( Between 60 and 115 degree )
            # angel/(360/3200)
            try:
                exc_info = sys.exc_info()
                #Laser Calibration
                #if (position > self.laser_calib_start and position < self.laser_calib_end):
                alpha = np.rad2deg(math.acos(normal[2] / np.linalg.norm((normal[0], normal[2])))) * math.copysign(1,normal[0])
                self._logger.debug("Current Angle is:" + str(alpha))
                if abs(alpha) < 35:
                    #self.settings.camera.contrast = 40
                    #self.settings.camera.brightness = 70
                    self._hardwarecontroller.led.off()
                    for i in xrange(self.config.laser.numbers):
                        image = self._capture_laser(i)
                        image = self._imageprocessor.pattern_mask(image, corners)
                        self.image = image
                        fs_image = FSImage()
                        fs_image.save_image(image, self.current_position, "laser", dir_name="calibration")

                        points_2d, _ = self._imageprocessor.compute_2d_points(image, roi_mask=False, refinement_method='SGF')
                        point_3d = self._imageprocessor.compute_camera_point_cloud(points_2d, distance, normal)

                        if self._point_cloud[i] is None:
                            self._point_cloud[i] = point_3d.T
                        else:
                            self._point_cloud[i] = np.concatenate(
                                (self._point_cloud[i], point_3d.T))

                    #self.settings.camera.contrast = 40
                    #self.settings.camera.brightness = 50

                # Platform extrinsics
                origin = corners[self.config.calibration.pattern.columns * (self.config.calibration.pattern.rows - 1)][0]
                origin = np.array([[origin[0]], [origin[1]]])
                t = self._imageprocessor.compute_camera_point_cloud(
                    origin, distance, normal)

            except StandardError, e:
                self._logger.exception(e)
                self._logger.error("Laser Capture Error: "+str(e))
                message = {
                    "message": "LASER_CALIBRATION_ERROR",
                    "level": "error"
                }
            #    #self._eventmanager.broadcast_client_message(FSEvents.ON_INFO_MESSAGE, message)
                t = None


            if t is not None:
                self.x += [t[0][0]]
                self.y += [t[1][0]]
                self.z += [t[2][0]]

            else:
                self.image = image
예제 #4
0
class FSImageWorkerProcess(multiprocessing.Process):
    def __init__(self, image_task_q, event_q, config, settings, imageprocessor):
        super(FSImageWorkerProcess, self).__init__(group=None)
        self.image_task_q = image_task_q
        self.settings = settings
        self.config = config
        self.exit = False
        self.event_q = event_q
        self.image = FSImage()

        self.log = logging.getLogger('IMAGE_PROCESSOR THREAD')
        self.log.setLevel(logging.DEBUG)
        self.image_processor = imageprocessor
        self._logger = logging.getLogger(__name__)
        self._logger.setLevel(logging.DEBUG)


    def run(self):
        '''
            Image Process runner
        '''

        self._logger.debug("process "+str(self.pid)+" started")

        #import pydevd
        #pydevd.settrace('192.168.98.104', port=12011, stdoutToServer=True, stderrToServer=True)

        while not self.exit:
            if not self.image_task_q.empty():

                data = dict()
                try:
                    image_task = self.image_task_q.get_nowait()

                    if image_task:

                        # we got a kill pill
                        if image_task.task_type == "KILL":
                            self._logger.debug("Killed Worker Process with PID "+str(self.pid))
                            self.exit = True
                            break

                        #print "process "+str(self.pid)+" task "+str(image_task.progress)
                        if (image_task.task_type == "PROCESS_COLOR_IMAGE"):
                            self.image.save_image(image_task.image, image_task.progress, image_task.prefix, dir_name=image_task.prefix+'/color_'+image_task.raw_dir)

                            data['points'] = []
                            data['image_type'] = 'color'

                            event = dict()
                            event['event'] = "ON_IMAGE_PROCESSED"
                            event['data'] = data

                            self.event_q.put(event)

                        if (image_task.task_type == "PROCESS_DEPTH_IMAGE"):
                            #self._logger.debug("process " + str(self.pid) + " handle image")

                            try:
                                angle = float(image_task.progress * 360) / float(image_task.resolution)
                                #self._logger.debug("Progress "+str(image_task.progress)+" Resolution "+str(image_task.resolution)+" angle "+str(angle))
                                self.image.save_image(image_task.image, image_task.progress, image_task.prefix, dir_name=image_task.prefix+'/laser_'+image_task.raw_dir)
                                color_image = self.image.load_image(image_task.progress, image_task.prefix, dir_name=image_task.prefix+'/color_'+image_task.raw_dir)

                                point_cloud, texture = self.image_processor.process_image(angle, image_task.image, color_image)
                                # FIXME: Only send event if points is non-empty
                            except StandardError as e:
                                self._logger.debug(e)
                            data['point_cloud'] = point_cloud
                            data['texture'] = texture
                            data['image_type'] = 'depth'
                            #data['progress'] = image_task.progress
                            #data['resolution'] = image_task.resolution

                            event = dict()
                            event['event'] = "ON_IMAGE_PROCESSED"
                            event['data'] = data

                            self.event_q.put(event)

                except Empty:
                    time.sleep(0.05)
                    pass
            else:
                # thread idle
                time.sleep(0.05)
예제 #5
0
    def _capture_scanner_calibration(self, position):

        pattern_image = self._capture_pattern()

        if (position >= self.laser_calib_start and position <= self.laser_calib_end):
            flags = cv2.CALIB_CB_FAST_CHECK | cv2.CALIB_CB_ADAPTIVE_THRESH | cv2.CALIB_CB_NORMALIZE_IMAGE
        else:
            flags = cv2.CALIB_CB_FAST_CHECK

        try:
            pose = self._imageprocessor.detect_pose(pattern_image, flags)
            plane = self._imageprocessor.detect_pattern_plane(pose)
        except Exception as e:
            plane = None
            self._logger.error(e)

        if plane is not None:

            distance, normal, corners = plane
            self._logger.debug("Pose detected...  ")
            # Laser triangulation ( Between 60 and 115 degree )
            # angel/(360/3200)
            try:
                exc_info = sys.exc_info()
                #Laser Calibration
                alpha = np.rad2deg(math.acos(normal[2] / np.linalg.norm((normal[0], normal[2])))) * math.copysign(1, normal[0])

                self._logger.debug("Current Angle is:" + str(alpha))
                if ((abs(alpha) <= self.LASER_PLANE_CALIBRATION_START_POS_DEGREE) and (position > 0)):

                    self._hardwarecontroller.led.off()
                    for i in range(self.config.file.laser.numbers):

                        image = self._capture_laser(i)

                        if self.config.file.laser.interleaved == "True":
                            image = cv2.subtract(image, pattern_image)

                        image = self._imageprocessor.pattern_mask(image, corners)

                        # TODO: make  image saving contitional in confg --> calibration -> debug  ->  true/false
                        fs_image = FSImage()
                        fs_image.save_image(image, alpha, "laser_"+str(i), dir_name="calibration")

                        points_2d, _ = self._imageprocessor.compute_2d_points(image, roi_mask=False, refinement_method='RANSAC')
                        point_3d = self._imageprocessor.compute_camera_point_cloud(points_2d, distance, normal)

                        if self._point_cloud[i] is None:
                            self._point_cloud[i] = point_3d.T
                        else:
                            self._point_cloud[i] = np.concatenate(
                                (self._point_cloud[i], point_3d.T))

                # Platform extrinsics
                origin = corners[self.config.file.calibration.pattern.columns * (self.config.file.calibration.pattern.rows - 1)][0]
                origin = np.array([[origin[0]], [origin[1]]])
                t = self._imageprocessor.compute_camera_point_cloud(
                    origin, distance, normal)

            except Exception as e:
                self._logger.exception(e)
                self._logger.error("Laser Capture Error: "+str(e))
                message = {
                    "message": "LASER_CALIBRATION_ERROR",
                    "level": "error"
                }
            #    #self._eventmanager.broadcast_client_message(FSEvents.ON_INFO_MESSAGE, message)
                t = None


            if t is not None:
                self.x += [t[0][0]]
                self.y += [t[1][0]]
                self.z += [t[2][0]]

        if self.config.file.laser.interleaved == "False":
            self._hardwarecontroller.led.on(self.calibration_brightness[0], self.calibration_brightness[1], self.calibration_brightness[2])
예제 #6
0
class FSImageWorkerProcess(multiprocessing.Process):
    def __init__(self, image_task_q, output_q,   config, settings, scanprocessor, imageprocessor):
        super(FSImageWorkerProcess, self).__init__(group=None)
        self.image_task_q = image_task_q
        self.output_q = output_q
        self.settings = settings
        self.config = config
        self.exit = False
        self.scanprocessor = scanprocessor
        self.image = FSImage()

        self.log = logging.getLogger('IMAGE_PROCESSOR THREAD')
        self.log.setLevel(logging.DEBUG)
        self.image_processor = imageprocessor
        self._logger = logging.getLogger(__name__)
        self._logger.setLevel(logging.DEBUG)


    def run(self):
        '''
            Image Process runner
        '''

        self._logger.debug("process "+str(self.pid)+" started")

        while not self.exit:
            if not self.image_task_q.empty():

                data = dict()
                try:
                    image_task = self.image_task_q.get_nowait()

                    if image_task:

                        if image_task.task_type == "KILL":
                            self._logger.debug("Killed Worker Process with PID "+str(self.pid))
                            self.exit = True


                        if (image_task.task_type == "PROCESS_COLOR_IMAGE"):

                            #image = self.image_processor.decode_image(image_task.image)
                            self.image.save_image(image_task.image, image_task.progress, image_task.prefix, dir_name=image_task.prefix+'/color_'+image_task.raw_dir)

                            data['points'] = []
                            data['image_type'] = 'color'
                            data['laser_index'] = None

                            self.output_q.put(data)


                        if (image_task.task_type == "PROCESS_DEPTH_IMAGE"):
                            self._logger.debug('Image Processing starts.')
                            try:

                                #self.image.save_image(image_task.image, image_task.progress, image_task.prefix,
                                #                      dir_name=image_task.prefix + '/raw_' + image_task.raw_dir)

                                image_task.image = self.image_processor.decode_image(image_task.image)
                                angle = float(image_task.progress * 360) / float(image_task.resolution)
                                color_image = self.image.load_image(image_task.progress, image_task.prefix, dir_name=image_task.prefix+'/color_'+image_task.raw_dir)
                                point_cloud, texture = self.image_processor.process_image(angle, image_task.image, color_image, index=image_task.index)

                                data['point_cloud'] = point_cloud
                                data['texture'] = texture
                                data['image_type'] = 'depth'
                                data['laser_index'] = image_task.index

                            except Exception as e:
                                self._logger.debug(e)


                            self.output_q.put(data)
                            color_image = None
                            point_cloud = None
                            texture = None

                            self._logger.debug('Image Processing finished.')

                        image_task = None

                except Empty:
                    time.sleep(0.1)
                    pass
            else:
                # thread idle
                time.sleep(0.1)