示例#1
0
    def __init__(self):
        
        print('start')
        self.kinematics = Kinematics()
        self.motor = Motor("Thormang3_Wolf")

        self.rate = rospy.Rate(10)

        self.speech = rospy.Publisher("/robotis/sensor/text_to_speech",String,queue_size=10)
        # self.speech = rospy.Publisher("/robotis/sensor/update_tts",String,queue_size=10)
        self.music = rospy.Publisher("/robotis/sensor/music",mp3,queue_size=10)
        self.music_stop = rospy.Publisher('/robotis/sensor/stop_music',     Bool,queue_size = 10)
        self.sensor_list = None
        self.pub_gripper = rospy.Publisher('/robotis/gripper/joint_pose_msg',JointState,queue_size=10)
        #base_ini
        self.base_ini = rospy.Publisher("/robotis/base/ini_pose",String,queue_size=10)
        
        for _ in range(4):
            self.base_ini.publish('ini_pose')
            self.rate.sleep()
        self.end_action()
        sleep(1)
        #print("start") 

        #ini_arm
        self.kinematics.publisher_(self.kinematics.module_control_pub, "manipulation_module", latch=True)
        self.kinematics.publisher_(self.kinematics.module_control_pub, "gripper_module", latch=True)
        self.kinematics.publisher_(self.kinematics.send_ini_pose_msg_pub, "ini_pose", latch=True)
        self.end_action()
        self.left_arm_ini_pos = self.kinematics.get_kinematics_pose('left_arm')
        
        self.kinematics.publisher_(self.kinematics.module_control_pub, "head_control_module", latch=True)
        #sleep(0.5)

        #move head
        self.head_postition = rospy.Publisher('/robotis/head_control/set_joint_states',JointState,queue_size=10)
        sleep(0.5)
        
        #print('moved')

        self.sensor_list = None
        self.deg = float(60)
        self.deg_30 = float(30 *math.pi /180)
        self.head_pan = np.radians(12)
        # self.head_pan = float(23 * math.pi / 180)
        self.head_tilt = float(36 * math.pi / 180)

        self.student_pan = np.radians(36)
        self.student_tilt = np.radians(-12)

        self.J_pan = np.radians(36)
        self.J_tilt = np.radians(-28)
示例#2
0
    def __init__(self):
        rospy.init_node('pioneer_cross_arm', anonymous=False)
        rospy.loginfo("[CA] Pioneer Main Cross Arm- Running")

        self.kinematics = Kinematics()
        self.motion = Motion()
        self.motor = Motor()
        self.prev_arm = None
    def __init__(self):
        np.set_printoptions(suppress=True)
        rospy.init_node('pioneer_placement_keyboard', anonymous=False)
        rospy.loginfo("[Main] Pioneer Placement Keyboard - Running")

        rospack = rospkg.RosPack()
        self.ws_path = rospack.get_path(
            "pioneer_main") + "/config/thormang3_align_keyboard_ws.yaml"

        # Subscriber
        rospy.Subscriber("/pioneer/placement/left_arm_point", Point32,
                         self.left_arm_pos_callback)
        rospy.Subscriber("/pioneer/placement/right_arm_point", Point32,
                         self.right_arm_pos_callback)
        rospy.Subscriber("/pioneer/placement/approach_keyboard", Bool,
                         self.approach_keyboard_callback)
        rospy.Subscriber("/pioneer/placement/placement_trigger", Bool,
                         self.placement_trigger_callback)
        rospy.Subscriber("/pioneer/placement/grasp_keyboard", Bool,
                         self.grip_key_callback)
        rospy.Subscriber("/pioneer/placement/init_pose", Bool,
                         self.ini_pose_callback)
        rospy.Subscriber("/pioneer/placement/left_arm_arr_points", Pose2DArray,
                         self.left_arm_arr_points_callback)
        rospy.Subscriber("/pioneer/placement/right_arm_arr_points",
                         Pose2DArray, self.right_arm_arr_points_callback)
        rospy.Subscriber("/pioneer/placement/shutdown_signal", Bool,
                         self.shutdown_callback)

        # Publisher
        self.finish_placement_pub = rospy.Publisher(
            "/pioneer/placement/finish_placement", Bool, queue_size=1)

        # Variables
        self.kinematics = Kinematics()
        self.main_rate = rospy.Rate(20)
        self.state = None
        self.shutdown = False

        self.zl, self.rl, self.pl, self.yl = 0.62, 150, -1, -29  # 0.63
        self.zr, self.rr, self.pr, self.yr = 0.62, -150, -1, 29  # 0.63

        self.left_points, self.right_points = None, None
        self.ik_l_trajectory, self.ik_r_trajectory = None, None
        self.ik_debug = False
示例#4
0
    def __init__(self):
        rospy.init_node('pioneer_cross_arm')  #, disable_signals=True)
        rospy.loginfo("[CA] Pioneer Main Cross Arm- Running")

        rospack = rospkg.RosPack()
        self.video_file = "vlc " + rospack.get_path(
            "pioneer_main") + "/data/cross_arm/robot_dream.mp4"

        self.kinematics = Kinematics()
        self.motion = Motion()
        self.action = Action("Thormang3_Bear")
        self.main_rate = rospy.Rate(10)

        self.arm = None
        self.state = None
        self.shutdown = False
        self.object = False
        self.failed = False
        self.left_clicked = False

        self.scan_offset = 50
        self.init_head_p = 15
        self.volume_value = 60  # 60
        self.fail_counter = 0

        ## Publisher
        self.play_sound_pub = rospy.Publisher('/play_sound_file',
                                              String,
                                              queue_size=10)
        self.set_volume_pub = rospy.Publisher('/set_volume',
                                              Int16,
                                              queue_size=10)
        self.face_pub = rospy.Publisher('/pioneer/face', Bool, queue_size=10)

        # self.shutdown_pub   = rospy.Publisher("/pioneer/shutdown_signal", Bool,    queue_size=10)

        ## Subscriber
        rospy.Subscriber("/pioneer/shutdown_signal", Bool,
                         self.shutdown_callback)
        rospy.Subscriber("/pioneer/cross_arm/final_decision", String,
                         self.final_decision_callback)
        rospy.Subscriber("/pioneer/cross_arm/object", Bool,
                         self.object_callback)
示例#5
0
def main():
    rospy.init_node('pioneer_trajectory', anonymous=False)
    rospy.loginfo("[Tra] Pioneer Demo Trajectory - Running")

    ## Trajectory
    kinematics = Kinematics()
    kinematics.publisher_(kinematics.module_control_pub, "manipulation_module", latch=True)  # <-- Enable Manipulation mode
    kinematics.publisher_(kinematics.send_ini_pose_msg_pub, "ini_pose", latch=True)
    sleep(2)

    # mode = 'full'
    mode = 'left_arm'

    if mode == "full":
        # trajectory simulation circle
        kinematics.set_kinematics_pose("left_arm" , 2.0,  **{ 'x': 0.20, 'y':  0.30, 'z': 0.80, 'roll': 0.00, 'pitch': 0.00, 'yaw': 0.00 })
        kinematics.set_kinematics_pose("right_arm" , 2.0, **{ 'x': 0.20, 'y':  -0.30, 'z': 0.80, 'roll': 0.00, 'pitch': 0.00, 'yaw': 0.00 })

    sleep(0.1)
    while kinematics.left_tra == True and kinematics.right_tra == True:
        pass
    sleep(1)
 
    iter = 0
    
    while not rospy.is_shutdown():
        if mode == "full":
            kinematics.trajectory_sin(group="left_arm",  x=0.30, y=0.20,  z=0.90, roll=0.0, pitch=0.0, yaw=0.0, xc=-0.1, yc=-0.1, zc=-0.1, time=2, res=0.01)
            kinematics.trajectory_sin(group="right_arm", x=0.30, y=-0.20, z=0.90, roll=0.0, pitch=0.0, yaw=0.0, xc=-0.1, yc=0.1,  zc=-0.1, time=2, res=0.01)

            sleep(1) # because pubslishing array msg using for loop
            while kinematics.left_arr == True and kinematics.right_arr == True:
                pass # no action

            kinematics.trajectory_sin(group="left_arm",  x=0.20, y=0.30, z=0.85, roll=0.0, pitch=0.0, yaw=0.0, xc=0.1, yc=0.1, zc=0.1, time=2, res=0.01)
            kinematics.trajectory_sin(group="right_arm", x=0.20, y=-0.30, z=0.85, roll=0.0, pitch=0.0, yaw=0.0, xc=0.1, yc=-0.1, zc=0.1, time=2, res=0.01)
            sleep(1) # because pubslishing array msg using for loop

            while kinematics.left_arr == True and kinematics.right_arr == True:
                pass # no action

            iter += 1
            rospy.loginfo("[Tra] Iteration : {}".format(iter))
            if iter >= 2:
                mode = "none"

        elif mode == "left_arm":
            left_arm = kinematics.get_kinematics_pose("left_arm")
            print(left_arm)

            kinematics.set_kinematics_pose("left_arm" , 2.0,  **{ 'x': 0.40, 'y':  0.50, 'z': 0.80, 'roll': 0.00, 'pitch': 0.00, 'yaw': 0.00 })

            while kinematics.left_arr == True
                pass
            
            mode = "none"
            # pass

        elif mode == "none":
            break


    kinematics.publisher_(kinematics.send_ini_pose_msg_pub, "ini_pose", latch=True)
    kinematics.kill_threads()
示例#6
0
def main():
    rospy.init_node('pioneer_main_typing')  #, disable_signals=True)
    rospy.loginfo("[TY] Pioneer Main Typing - Running")

    rospy.Subscriber("/pioneer/aruco/keyboard_position", Pose2D,
                     keyboard_pos_callback)
    rospy.Subscriber("/pioneer/shutdown_signal", Bool, shutdown_callback)

    # Kinematics
    kinematics = Kinematics()
    kinematics.publisher_(kinematics.module_control_pub,
                          "manipulation_module",
                          latch=True)  # <-- Enable Manipulation mode
    kinematics.publisher_(kinematics.send_ini_pose_msg_pub,
                          "typing_pose",
                          latch=True)
    kinematics.publisher_(kinematics.en_typing_pub, True,
                          latch=False)  # <-- Enable Typing mode
    wait_robot(kinematics, "End Init Trajectory")

    # Typing Init Pose
    kinematics.set_joint_pos(['head_p', 'head_y', 'torso_y'], [30, 0, 0])
    kinematics.set_gripper("left_arm", 0, 0)
    kinematics.set_gripper("right_arm", 0, 0)
    sleep(2)

    # Set Finger
    kinematics.set_joint_pos(['l_arm_index_p', 'l_arm_thumb_p'], [-86, -70])
    kinematics.set_joint_pos(['r_arm_index_p', 'r_arm_thumb_p'], [-86, -70])
    rospy.loginfo('[TY] Finish Init Head & Hand')

    main_rate = rospy.Rate(20)

    global keyboard_pos, zl_typing, zr_typing
    keyboard_pos = None
    zl_typing = 0.033
    zr_typing = 0.035

    global total_word
    total_word = 0

    # waiting aruco position from recorder
    while not rospy.is_shutdown():
        while keyboard_pos == None:
            pass
        sleep(1)
        break

    # load & calculate keyboard frame position
    calc_keyboard_frame_position()

    # load IK config file
    left_ws = load_ws_config('left_arm')
    right_ws = load_ws_config('right_arm')
    ik_reference(left_ws, right_ws)

    # convert keyboard frame to ik position
    calc_keyboard_ik_position()

    while not rospy.is_shutdown():
        key = input("Input key : ")
        key = key.lower()

        if key == 'exit':
            rospy.loginfo('[TY] Pioneer Typing Exit')
            break
        elif key == 'init':
            kinematics.publisher_(kinematics.send_ini_pose_msg_pub,
                                  "typing_pose",
                                  latch=False)
        elif key == 'reload':
            calc_keyboard_frame_position()
            calc_keyboard_ik_position()
        elif key == '':
            rospy.loginfo('[TY] Exitting..')
        else:
            if len(key) == 1:
                process(kinematics, key)
            elif key == 'typing':
                typing(kinematics, last_arm)
            elif 'zl_typing' in key:
                mylist = key.split(" ")
                if len(mylist) == 3:
                    temp = float(mylist[2])
                    if temp >= 0.05:
                        rospy.logwarn('[TY] zl_typing input over limit')
                    else:
                        zl_typing = float(mylist[2])
                    rospy.loginfo('[TY] zl_typing : {}'.format(zl_typing))
                else:
                    rospy.logwarn('[TY] Len zl_typing is wrong')

            elif 'zr_typing' in key:
                mylist = key.split(" ")
                if len(mylist) == 3:
                    temp = float(mylist[2])
                    if temp >= 0.05:
                        rospy.logwarn('[TY] zr_typing input over limit')
                    else:
                        zr_typing = float(mylist[2])
                    rospy.loginfo('[TY] zr_typing : {}'.format(zr_typing))
                else:
                    rospy.logwarn('[TY] Len zr_typing is wrong')

            else:
                # rospy.logwarn('[TY] Wrong input')
                # going to standby position
                homing = False
                if check_arm(kinematics, 'left_arm', x=0.25, y=0.15) == False:
                    move_arm(kinematics,
                             'left_arm',
                             2.0,
                             x=0.25,
                             y=0.15,
                             z=0.75)
                    homing = True
                if check_arm(kinematics, 'right_arm', x=0.25,
                             y=-0.15) == False:
                    move_arm(kinematics,
                             'right_arm',
                             2.0,
                             x=0.25,
                             y=-0.15,
                             z=0.77)
                    homing = True

                if homing:
                    rospy.loginfo('[TY] Homing Init...')
                    sleep(3)

                if "\\n" in key:
                    total_word += len(key)
                    rospy.loginfo('[TY] Length of word: {}'.format(total_word))

                    words = key.split('\\n')
                    print(words)
                    for word in words:
                        for alphabet in word:
                            rospy.loginfo('[TY] Typing: {}'.format(alphabet))
                            process(kinematics, alphabet)
                            typing(kinematics, last_arm)
                        rospy.loginfo('[TY] Typing: {}'.format('enter'))
                        process(kinematics, "\n")
                        typing(kinematics, last_arm)
                elif "\\b" in key:
                    rospy.loginfo('[TY] Deleting: {}'.format(key))
                    process(kinematics, "\b")
                    typing(kinematics, last_arm, delete=True)
                    total_word = 0
                else:
                    # typing for one word w/o enter
                    total_word += len(key)
                    rospy.loginfo('[TY] Length of word: {}'.format(total_word))

                    for alphabet in key:
                        rospy.loginfo('[TY] Typing: {}'.format(alphabet))
                        process(kinematics, alphabet)
                        typing(kinematics, last_arm)

                move_arm(kinematics, 'left_arm', 2.0, x=0.25, y=0.15, z=0.75)
                move_arm(kinematics, 'right_arm', 2.0, x=0.25, y=-0.15, z=0.77)
                rospy.loginfo('[TY] Return Homing ...')

        main_rate.sleep()

    kinematics.kill_threads()
class Placement_Keyboard:
    def __init__(self):
        np.set_printoptions(suppress=True)
        rospy.init_node('pioneer_placement_keyboard', anonymous=False)
        rospy.loginfo("[Main] Pioneer Placement Keyboard - Running")

        rospack = rospkg.RosPack()
        self.ws_path = rospack.get_path(
            "pioneer_main") + "/config/thormang3_align_keyboard_ws.yaml"

        # Subscriber
        rospy.Subscriber("/pioneer/placement/left_arm_point", Point32,
                         self.left_arm_pos_callback)
        rospy.Subscriber("/pioneer/placement/right_arm_point", Point32,
                         self.right_arm_pos_callback)
        rospy.Subscriber("/pioneer/placement/approach_keyboard", Bool,
                         self.approach_keyboard_callback)
        rospy.Subscriber("/pioneer/placement/placement_trigger", Bool,
                         self.placement_trigger_callback)
        rospy.Subscriber("/pioneer/placement/grasp_keyboard", Bool,
                         self.grip_key_callback)
        rospy.Subscriber("/pioneer/placement/init_pose", Bool,
                         self.ini_pose_callback)
        rospy.Subscriber("/pioneer/placement/left_arm_arr_points", Pose2DArray,
                         self.left_arm_arr_points_callback)
        rospy.Subscriber("/pioneer/placement/right_arm_arr_points",
                         Pose2DArray, self.right_arm_arr_points_callback)
        rospy.Subscriber("/pioneer/placement/shutdown_signal", Bool,
                         self.shutdown_callback)

        # Publisher
        self.finish_placement_pub = rospy.Publisher(
            "/pioneer/placement/finish_placement", Bool, queue_size=1)

        # Variables
        self.kinematics = Kinematics()
        self.main_rate = rospy.Rate(20)
        self.state = None
        self.shutdown = False

        self.zl, self.rl, self.pl, self.yl = 0.62, 150, -1, -29  # 0.63
        self.zr, self.rr, self.pr, self.yr = 0.62, -150, -1, 29  # 0.63

        self.left_points, self.right_points = None, None
        self.ik_l_trajectory, self.ik_r_trajectory = None, None
        self.ik_debug = False

    def left_arm_pos_callback(self, msg):
        self.left_keyboard = (msg.x, msg.y)
        rospy.loginfo('[Main] Left keyboard frame (X: {} Y: {})'.format(
            msg.x, msg.y))
        self.lx_ik, self.ly_ik = self.left_arm_ik(msg.x, msg.y)

    def right_arm_pos_callback(self, msg):
        self.right_keyboard = (msg.x, msg.y)
        rospy.loginfo('[Main] Right keyboard frame (X: {} Y: {})'.format(
            msg.x, msg.y))
        self.rx_ik, self.ry_ik = self.right_arm_ik(msg.x, msg.y)

    def approach_keyboard_callback(self, msg):
        if msg.data == True:
            self.state = 'approach_keyboard'

    def placement_trigger_callback(self, msg):
        if msg.data == True:
            self.state = 'placement_trigger'

    def ini_pose_callback(self, msg):
        if msg.data == True:
            self.state = 'init_pose'

    def grip_key_callback(self, msg):
        if msg.data == True:
            self.state = 'grip_keyboard'

    def shutdown_callback(self, msg):
        self.shutdown = msg.data
        rospy.signal_shutdown('Exit')

    def wait_robot(self, obj, msg):
        sleep(0.2)
        if msg == "End Left Arm Trajectory":
            while obj.left_tra != False:
                if self.shutdown:
                    break
                else:
                    pass  # do nothing
        elif msg == "End Right Arm Trajectory":
            while obj.right_tra != False:
                if self.shutdown:
                    break
                else:
                    pass  # do nothing
        else:
            while obj.status_msg != msg:
                if self.shutdown:
                    break
                else:
                    pass  # do nothing

    def left_arm_arr_points_callback(self, msg):
        group = msg.name
        self.l_num_points = len(msg.poses)
        l_frame_tra = [(pose.x, pose.y) for pose in msg.poses]
        l_frame_tra = np.array(l_frame_tra)
        l_frame_tra[:, 1] = rospy.get_param(
            "/uvc_camera_center_node/height") - l_frame_tra[:, 1]
        diff_keyboard = np.array(self.left_keyboard) - np.array(
            [l_frame_tra[0][0], l_frame_tra[0][1]])
        self.l_frame_tra = [
            self.translate_2D_point((pose[0], pose[1]), diff_keyboard)
            for pose in l_frame_tra
        ]
        self.ik_l_trajectory = [
            self.left_arm_ik(pose[0], pose[1]) for pose in self.l_frame_tra
        ]
        # rospy.loginfo('[PA] Group: {}, Total_Points: {}, IK_Point: {}'.format(group, self.l_num_points, self.ik_l_trajectory))
        rospy.loginfo('[PA] {} Arr Received: {}'.format(
            group, self.l_num_points))

    def right_arm_arr_points_callback(self, msg):
        group = msg.name
        self.r_num_points = len(msg.poses)
        r_frame_tra = [(pose.x, pose.y) for pose in msg.poses]
        r_frame_tra = np.array(r_frame_tra)
        r_frame_tra[:, 1] = rospy.get_param(
            "/uvc_camera_center_node/height") - r_frame_tra[:, 1]
        diff_keyboard = np.array(self.right_keyboard) - np.array(
            [r_frame_tra[0][0], r_frame_tra[0][1]])
        self.r_frame_tra = [
            self.translate_2D_point((pose[0], pose[1]), diff_keyboard)
            for pose in r_frame_tra
        ]
        self.ik_r_trajectory = [
            self.right_arm_ik(pose[0], pose[1]) for pose in self.r_frame_tra
        ]
        # rospy.loginfo('[PA] Group: {}, Total_Points: {}, IK_Points: {}'.format(group, self.r_num_points, self.ik_r_trajectory))
        rospy.loginfo('[PA] {} Arr Received: {}'.format(
            group, self.r_num_points))

    def translate_2D_point(self, point, diff_point):
        return tuple(np.array(point) + diff_point)

    def load_ws_config(self, arm):
        try:
            with open(self.ws_path, 'r') as f:
                aruco_ws = yaml.safe_load(f)
                rospy.loginfo('[Main] Loaded {} workspace'.format(arm))
            return aruco_ws[arm]

        except yaml.YAMLError as exc:
            print(exc)
            return None

    def parse_Yframe(self, data):
        y_frame_min = np.mean([data['P2']['cy'], data['P3']['cy']], dtype=int)
        y_frame_max = np.mean([data['P1']['cy'], data['P4']['cy']], dtype=int)

        ik_xmin = data['P1']['ik_x']
        ik_xmax = data['P2']['ik_x']
        return (y_frame_min, y_frame_max, ik_xmin, ik_xmax)

    def parse_Xframe(self, data):
        x_frame_min = (data['P1']['cx'], data['P2']['cx'])
        x_frame_max = (data['P3']['cx'], data['P4']['cx'])

        ik_ymin_lower = data['P4']['ik_y']  #0.1
        ik_ymax_lower = data['P1']['ik_y']  #0.24
        ik_ymin_upper = data['P3']['ik_y']  #0.05
        ik_ymax_upper = data['P2']['ik_y']  #0.34
        return (x_frame_min, x_frame_max, ik_ymax_lower, ik_ymax_upper,
                ik_ymin_lower, ik_ymin_upper)

    def move_arm(self, arm, time, x, y):
        if arm == "left_arm":
            self.kinematics.set_kinematics_pose(
                arm, time, **{
                    'x': x,
                    'y': y,
                    'z': self.zl,
                    'roll': self.rl,
                    'pitch': self.pl,
                    'yaw': self.yl
                })
            # self.prev_lik = (x, y)
            rospy.loginfo('[Main] Lx_ik : {:.2f} Ly_ik : {:.2f}'.format(x, y))

        elif arm == "right_arm":
            self.kinematics.set_kinematics_pose(
                arm, time, **{
                    'x': x,
                    'y': y,
                    'z': self.zr,
                    'roll': self.rr,
                    'pitch': self.pr,
                    'yaw': self.yr
                })
            # self.prev_rik = (x, y)
            rospy.loginfo('[Main] Rx_ik : {:.2f} Ry_ik : {:.2f}'.format(x, y))

    def ik_reference(self, left_ws, right_ws):
        if left_ws != None:
            yleft_data = self.parse_Yframe(left_ws)
            self.ly_frame_min = yleft_data[0]
            self.ly_frame_max = yleft_data[1]
            self.ly_ws = range(self.ly_frame_min, self.ly_frame_max + 1)
            self.lik_xmin = yleft_data[2]
            self.lik_xmax = yleft_data[3]

            xleft_data = self.parse_Xframe(left_ws)
            self.lx_min_b = xleft_data[0][0]
            self.lx_min_a = xleft_data[0][1]
            self.lx_max_a = xleft_data[1][0]
            self.lx_max_b = xleft_data[1][1]

            self.lik_ymax_lower = xleft_data[2]  #0.24
            self.lik_ymax_upper = xleft_data[3]  #0.34
            self.lik_ymin_lower = xleft_data[4]  #0.1
            self.lik_ymin_upper = xleft_data[5]  #0.05

        if right_ws != None:
            yright_data = self.parse_Yframe(right_ws)
            self.ry_frame_min = yright_data[0]
            self.ry_frame_max = yright_data[1]
            self.ry_ws = range(self.ry_frame_min, self.ry_frame_max + 1)
            self.rik_xmin = yright_data[2]
            self.rik_xmax = yright_data[3]

            xright_data = self.parse_Xframe(right_ws)
            self.rx_max_b = xright_data[0][0]
            self.rx_max_a = xright_data[0][1]
            self.rx_min_a = xright_data[1][0]
            self.rx_min_b = xright_data[1][1]

            self.rik_ymax_lower = xright_data[2]  #0.24
            self.rik_ymax_upper = xright_data[3]  #0.34
            self.rik_ymin_lower = xright_data[4]  #0.1
            self.rik_ymin_upper = xright_data[5]  #0.05

    def left_arm_ik(self, cx, cy):
        if cy in self.ly_ws:
            # Left IK X Target
            lx_ik = np.interp(cy, [self.ly_frame_min, self.ly_frame_max],
                              [self.lik_xmax, self.lik_xmin])

            # Mapping CX Frame
            lx_frame_min = np.interp(cy,
                                     [self.ly_frame_min, self.ly_frame_max],
                                     [self.lx_min_a, self.lx_min_b])
            lx_frame_min = int(np.round(lx_frame_min, 0))
            lx_frame_max = np.interp(cy,
                                     [self.ly_frame_min, self.ly_frame_max],
                                     [self.lx_max_a, self.lx_max_b])
            lx_frame_max = int(np.round(lx_frame_max, 0))

            # Mapping IK_Y
            lik_ymax = np.interp(cy, [self.ly_frame_min, self.ly_frame_max],
                                 [self.lik_ymax_upper, self.lik_ymax_lower])
            lik_ymax = np.round(lik_ymax, 4)
            lik_ymin = np.interp(cy, [self.ly_frame_min, self.ly_frame_max],
                                 [self.lik_ymin_upper, self.lik_ymin_lower])
            lik_ymin = np.round(lik_ymin, 4)

            lx_ws = range(lx_frame_min, lx_frame_max + 1)
            if cx in lx_ws:
                # Left IK Y Target
                ly_ik = np.interp(cx, [lx_frame_min, lx_frame_max],
                                  [lik_ymax, lik_ymin])

                return lx_ik, ly_ik
                # print()
                # rospy.loginfo('[Left Arm] Input Coor X: {0}, Y: {1}'.format(cx, cy))
                # rospy.loginfo('[Left Arm] X_IK: {0:.2f}, Y_IK: {1:.2f}'.format(self.lx_ik, self.ly_ik))
            else:
                return None, None
                # rospy.logerr('[Left Arm] X Frame target is out of range')
        else:
            return None, None
            # rospy.logerr('[Left Arm] Y Frame target is out of range')

    def right_arm_ik(self, cx, cy):
        if cy in self.ry_ws:
            # Right IK X Target
            rx_ik = np.interp(cy, [self.ry_frame_min, self.ry_frame_max],
                              [self.rik_xmax, self.rik_xmin])

            # Mapping CX Frame
            rx_frame_min = np.interp(cy,
                                     [self.ry_frame_min, self.ry_frame_max],
                                     [self.rx_min_a, self.rx_min_b])
            rx_frame_min = int(np.round(rx_frame_min, 0))
            rx_frame_max = np.interp(cy,
                                     [self.ry_frame_min, self.ry_frame_max],
                                     [self.rx_max_a, self.rx_max_b])
            rx_frame_max = int(np.round(rx_frame_max, 0))

            # Mapping IK_Y
            rik_ymax = np.interp(cy, [self.ry_frame_min, self.ry_frame_max],
                                 [self.rik_ymax_upper, self.rik_ymax_lower])
            rik_ymax = np.round(rik_ymax, 4)
            rik_ymin = np.interp(cy, [self.ry_frame_min, self.ry_frame_max],
                                 [self.rik_ymin_upper, self.rik_ymin_lower])
            rik_ymin = np.round(rik_ymin, 4)

            rx_ws = range(rx_frame_min, rx_frame_max + 1)
            if cx in rx_ws:
                # Left IK Y Target
                ry_ik = np.interp(cx, [rx_frame_min, rx_frame_max],
                                  [rik_ymin, rik_ymax])

                return rx_ik, ry_ik
                # print()
                # rospy.loginfo('[Right Arm] Input Coor X: {0}, Y: {1}'.format(cx, cy))
                # rospy.loginfo('[Right Arm] X_IK: {0:.2f}, Y_IK: {1:.2f}'.format(self.rx_ik, self.ry_ik))
            else:
                return None, None
                # rospy.logerr('[Right Arm] X Frame target is out of range')
        else:
            return None, None
            # rospy.logerr('[Right Arm] Y Frame target is out of range')

    def run(self):
        kinematics = self.kinematics

        kinematics.publisher_(kinematics.module_control_pub,
                              "manipulation_module",
                              latch=True)  # <-- Enable Manipulation mode
        kinematics.publisher_(kinematics.send_ini_pose_msg_pub,
                              "align_keyboard_pose",
                              latch=True)
        kinematics.publisher_(kinematics.en_align_key_pub, True,
                              latch=False)  # <-- Enable Align Keboard mode
        self.wait_robot(kinematics, "End Init Trajectory")

        # set init head, torso, gripper
        kinematics.set_joint_pos(['head_p', 'head_y', 'torso_y'], [30, 0, 0])
        kinematics.set_gripper("left_arm", 0, 0)
        kinematics.set_gripper("right_arm", 0, 0)
        sleep(1)
        kinematics.set_joint_pos(['l_arm_finger45_p', 'r_arm_finger45_p'],
                                 [180, 180])
        sleep(1)
        rospy.loginfo('[Main] Finish Init Head & Hand')

        # set hand joint torques
        torque_lvl = 20
        kinematics.set_joint_torque(['hand'], torque_lvl)
        rospy.loginfo('[Main] Set Torque : {}%'.format(torque_lvl))

        # load config file
        left_ws = self.load_ws_config('left_arm')
        right_ws = self.load_ws_config('right_arm')
        self.ik_reference(left_ws, right_ws)

        rospy.loginfo("[Main] Save Data: {}".format(
            rospy.get_param("/pioneer/placement/save_data")))

        while not rospy.is_shutdown():
            if self.shutdown:
                break

            if self.state == 'init_pose':
                rospy.loginfo('[Main] Robot State : {}'.format(self.state))

                cur_left_arm = kinematics.get_kinematics_pose("left_arm")
                cur_right_arm = kinematics.get_kinematics_pose("right_arm")

                if cur_left_arm['z'] < 0.7 or cur_right_arm['z'] < 0.7:
                    self.lx_ik = cur_left_arm['x']
                    self.ly_ik = cur_left_arm['y'] + 0.07
                    self.move_arm("left_arm", 2.0, self.lx_ik, self.ly_ik)

                    self.rx_ik = cur_right_arm['x']
                    self.ry_ik = cur_right_arm['y'] - 0.07
                    self.move_arm("right_arm", 2.0, self.rx_ik, self.ry_ik)
                    sleep(2.5)

                kinematics.publisher_(kinematics.send_ini_pose_msg_pub,
                                      "align_keyboard_pose",
                                      latch=False)
                kinematics.publisher_(
                    kinematics.en_align_key_pub, True,
                    latch=False)  # <-- Enable Align Keboard mode

                self.lx_ik = self.ly_ik = self.rx_ik = self.ry_ik = None
                self.state = None

            elif self.state == 'approach_keyboard':
                rospy.loginfo('[Main] Robot State : {}'.format(self.state))
                # sleep(1)

                if self.lx_ik != None and self.ly_ik != None \
                    and self.rx_ik != None and self.ry_ik != None:
                    # print('move arm now')

                    self.ly_ik += 0.055
                    self.lx_ik -= 0.0
                    self.move_arm("left_arm", 2.0, self.lx_ik, self.ly_ik)

                    self.ry_ik -= 0.055
                    self.rx_ik -= 0.0
                    self.move_arm("right_arm", 2.0, self.rx_ik, self.ry_ik)
                else:
                    rospy.logwarn(
                        '[Main] Robot arm singularities \n Please move keyboard to workspace'
                    )
                self.state = None

            elif self.state == 'grip_keyboard':
                rospy.loginfo('[Main] Robot State : {}'.format(self.state))

                # grip by offseting ik <-- not good when change object
                cur_left_arm = kinematics.get_kinematics_pose("left_arm")
                cur_right_arm = kinematics.get_kinematics_pose("right_arm")

                self.lx_ik = cur_left_arm['x']
                self.ly_ik = cur_left_arm['y'] - 0.06
                self.rx_ik = cur_right_arm['x']
                self.ry_ik = cur_right_arm['y'] + 0.06

                self.move_arm("left_arm", 2.0, self.lx_ik, self.ly_ik)
                self.move_arm("right_arm", 2.0, self.rx_ik, self.ry_ik)

                ##-----------------------------
                ## grip by offseting pixel
                # offset_pixel_x = 35
                # self.left_keyboard = (self.left_keyboard[0]+offset_pixel_x, self.left_keyboard[1]) # x. y
                # self.lx_ik, self.ly_ik = self.left_arm_ik(self.left_keyboard[0], self.left_keyboard[1])
                # self.right_keyboard = (self.right_keyboard[0]-offset_pixel_x, self.right_keyboard[1]) # x. y
                # self.rx_ik, self.ry_ik = self.right_arm_ik(self.right_keyboard[0], self.right_keyboard[1])

                # self.move_arm("left_arm" , 2.0, self.lx_ik, self.ly_ik)
                # self.move_arm("right_arm" , 2.0, self.rx_ik, self.ry_ik)

                self.state = None

            elif self.state == 'placement_trigger':
                rospy.loginfo('[Main] Robot State : {}'.format(self.state))

                if self.ik_l_trajectory != None and self.ik_r_trajectory != None:
                    if self.ik_debug:
                        for i in range(self.l_num_points):
                            rospy.loginfo('frame_l: {}, {}'.format(
                                self.l_frame_tra[i][0],
                                self.l_frame_tra[i][1]))
                        for i in range(self.r_num_points):
                            rospy.loginfo('frame_r: {}, {}'.format(
                                self.r_frame_tra[i][0],
                                self.r_frame_tra[i][1]))

                        for i in range(self.l_num_points):
                            rospy.loginfo('ik_l: {}'.format(
                                self.ik_l_trajectory[i]))
                        for i in range(self.r_num_points):
                            rospy.loginfo('ik_r: {}'.format(
                                self.ik_r_trajectory[i]))

                    ikl_res = []
                    for val in self.ik_l_trajectory:
                        if val != (None, None):
                            ikl_res.append(val)
                        else:
                            break

                    ikr_res = []
                    for val in self.ik_r_trajectory:
                        if val != (None, None):
                            ikr_res.append(val)
                        else:
                            break

                    lim_trajectory = min(len(ikl_res), len(ikr_res))

                    if self.ik_debug:
                        for i in range(lim_trajectory):
                            # rospy.loginfo( 'ik_l: {}'.format(self.ik_l_trajectory[i]) )
                            # rospy.loginfo( 'ik_r: {}'.format(self.ik_r_trajectory[i]) )
                            # input("Press enter to continue..")
                            print()
                            self.move_arm("left_arm", 1.0,
                                          self.ik_l_trajectory[i][0],
                                          self.ik_l_trajectory[i][1])
                            self.move_arm("right_arm", 1.0,
                                          self.ik_r_trajectory[i][0],
                                          self.ik_r_trajectory[i][1])
                            sleep(1.5)
                    else:
                        ik_l_trajectory = np.array(self.ik_l_trajectory)
                        xl = ik_l_trajectory[:lim_trajectory, 0]
                        yl = ik_l_trajectory[:lim_trajectory, 1]
                        zl = np.full(lim_trajectory, self.zl)
                        r_l = np.full(lim_trajectory, self.rl)
                        p_l = np.full(lim_trajectory, self.pl)
                        y_l = np.full(lim_trajectory, self.yl)

                        ik_r_trajectory = np.array(self.ik_r_trajectory)
                        xr = ik_r_trajectory[:lim_trajectory, 0]
                        yr = ik_r_trajectory[:lim_trajectory, 1]
                        zr = np.full(lim_trajectory, self.zr)
                        r_r = np.full(lim_trajectory, self.rr)
                        p_r = np.full(lim_trajectory, self.pr)
                        y_r = np.full(lim_trajectory, self.yr)

                        # rospy.loginfo('[Main] ik_l_trajectory : {}'.format(ik_l_trajectory))
                        # rospy.loginfo('[Main] ik_r_trajectory : {}'.format(ik_r_trajectory))
                        # sleep(0.2)

                        kinematics.set_kinematics_arr_pose(
                            "left_arm", 0.01, **{
                                'total': lim_trajectory,
                                'x': xl,
                                'y': yl,
                                'z': zl,
                                'roll': r_l,
                                'pitch': p_l,
                                'yaw': y_l
                            })
                        kinematics.set_kinematics_arr_pose(
                            "right_arm", 0.01, **{
                                'total': lim_trajectory,
                                'x': xr,
                                'y': yr,
                                'z': zr,
                                'roll': r_r,
                                'pitch': p_r,
                                'yaw': y_r
                            })

                        sleep(1)
                        while kinematics.left_arr == True and kinematics.right_arr == True:
                            pass
                        sleep(2)

                        rospy.loginfo('[Main] Finish placement ...')
                        self.finish_placement_pub.publish(True)

                self.state = None

            self.main_rate.sleep()
        kinematics.kill_threads()
示例#8
0
def main(mode):
    # global variables
    global state, config_path
    global lmarker_x, lmarker_y, rmarker_x, rmarker_y
    global left_tar_x, left_tar_y, right_tar_x, right_tar_y
    left_tar_x, left_tar_y = None, None
    right_tar_x, right_tar_y = None, None

    state = None
    scan_workspace = False
    save_config = False

    lx_ik, ly_ik = None, None
    rx_ik, ry_ik = None, None
    lik_xmin, lik_xmax = None, None

    prev_lik, prev_rik = (), ()
    left_ws, right_ws = {}, {}
    prev_l_tar = (None, None)
    prev_r_tar = (None, None)

    if mode == "align_keyboard":
        config_path = rospack.get_path(
            "pioneer_main") + "/config/thormang3_align_keyboard_ws.yaml"
    elif mode == "typing":
        config_path = rospack.get_path(
            "pioneer_main") + "/config/thormang3_typing_ws.yaml"

    # Subscriber
    rospy.Subscriber("/pioneer/aruco/left_position", Point32,
                     left_aruco_pos_callback)
    rospy.Subscriber("/pioneer/aruco/right_position", Point32,
                     right_aruco_pos_callback)
    rospy.Subscriber("/pioneer/target/left_arm_point", Point32,
                     left_arm_pos_callback)
    rospy.Subscriber("/pioneer/target/right_arm_point", Point32,
                     right_arm_pos_callback)
    rospy.Subscriber("/pioneer/target/start", Bool, arm_start_callback)
    rospy.Subscriber("/pioneer/target/sync_arm", Bool, arm_sync_callback)
    rospy.Subscriber("/pioneer/init_pose", Bool, ini_pose_callback)
    rospy.Subscriber("/pioneer/typing", Bool, typing_pose_callback)

    # Publisher
    l_sync_point_pub = rospy.Publisher("/pioneer/aruco/lsync_position",
                                       Point32,
                                       queue_size=1)

    main_rate = rospy.Rate(20)

    # Kinematics
    kinematics = Kinematics()
    kinematics.publisher_(kinematics.module_control_pub,
                          "manipulation_module",
                          latch=True)  # <-- Enable Manipulation mode
    if mode == "align_keyboard":
        kinematics.publisher_(kinematics.send_ini_pose_msg_pub,
                              "align_keyboard_pose",
                              latch=True)
        kinematics.publisher_(kinematics.en_align_key_pub, True,
                              latch=False)  # <-- Enable Align Keboard mode

    elif mode == "typing":
        kinematics.publisher_(kinematics.send_ini_pose_msg_pub,
                              "typing_pose",
                              latch=True)
        kinematics.publisher_(kinematics.en_typing_pub, True,
                              latch=False)  # <-- Enable Typing mode

    wait_robot(kinematics, "End Init Trajectory")

    # set init head, torso, gripper
    kinematics.set_joint_pos(['head_p', 'head_y', 'torso_y'], [30, 0, 0])
    kinematics.set_gripper("left_arm", 0, 0)
    kinematics.set_gripper("right_arm", 0, 0)
    sleep(1)
    rospy.loginfo('[MC] Finish Init Head & Hand')

    # set finger
    if mode == "align_keyboard":
        kinematics.set_joint_pos(['l_arm_finger45_p', 'r_arm_finger45_p'],
                                 [180, 180])
        lik_ymin_lower = 0.00  #0.1
        lik_ymax_lower = 0.28  #0.26
        lik_ymin_upper = 0.00  #0.05
        lik_ymax_upper = 0.28  #0.34
        lik_xmin = 0.25  #0.2
        lik_xmax = 0.55  #0.45
        zl, rl, pl, yl = 0.65, 150, -1, -29
        zr, rr, pr, yr = 0.65, -150, -1, 29

    elif mode == "typing":
        kinematics.set_joint_pos(['l_arm_index_p', 'l_arm_thumb_p'],
                                 [-86, -70])
        kinematics.set_joint_pos(['r_arm_index_p', 'r_arm_thumb_p'],
                                 [-86, -70])

        lik_ymin_lower = -0.02
        lik_ymax_lower = 0.28
        lik_ymin_upper = -0.05
        lik_ymax_upper = 0.34
        lik_xmin = 0.25
        lik_xmax = 0.55
        zl, rl, pl, yl = 0.72, 10, 0, 0
        zr, rr, pr, yr = 0.74, -10, 0, 0

    lp1 = (lik_xmin, lik_ymax_lower)
    lp2 = (lik_xmax, lik_ymax_upper)
    lp3 = (lik_xmax, lik_ymin_upper)
    lp4 = (lik_xmin, lik_ymin_lower)
    left_arm_pts = [lp1, lp2, lp3, lp4]

    rik_xmin = lik_xmin
    rik_xmax = lik_xmax
    rik_ymin_lower = lik_ymin_lower * -1
    rik_ymax_lower = lik_ymax_lower * -1
    rik_ymin_upper = lik_ymin_upper * -1
    rik_ymax_upper = lik_ymax_upper * -1
    rp1 = (rik_xmin, rik_ymax_lower)
    rp2 = (rik_xmax, rik_ymax_upper)
    rp3 = (rik_xmax, rik_ymin_upper)
    rp4 = (rik_xmin, rik_ymin_lower)
    right_arm_pts = [rp1, rp2, rp3, rp4]

    if scan_workspace:
        # Left Arm
        for idx, pts in enumerate(left_arm_pts):
            x, y = pts
            kinematics.set_kinematics_pose(
                "left_arm", 4.0, **{
                    'x': x,
                    'y': y,
                    'z': zl,
                    'roll': rl,
                    'pitch': pl,
                    'yaw': yl
                })
            logging(kinematics, 'Left Arm', x, y, idx + 1, left_ws)
        # move to P1
        kinematics.set_kinematics_pose(
            "left_arm", 4.0, **{
                'x': left_arm_pts[0][0],
                'y': left_arm_pts[0][1],
                'z': zl,
                'roll': rl,
                'pitch': pl,
                'yaw': yl
            })

        # Right Arm
        for idx, pts in enumerate(right_arm_pts):
            x, y = pts
            kinematics.set_kinematics_pose(
                "right_arm", 4.0, **{
                    'x': x,
                    'y': y,
                    'z': zr,
                    'roll': rr,
                    'pitch': pr,
                    'yaw': yr
                })
            logging(kinematics, 'Right Arm', x, y, idx + 1, right_ws)
        # move to P1
        kinematics.set_kinematics_pose(
            "right_arm", 4.0, **{
                'x': right_arm_pts[0][0],
                'y': right_arm_pts[0][1],
                'z': zr,
                'roll': rr,
                'pitch': pr,
                'yaw': yr
            })

        if save_config:
            aruco_ws = {}
            aruco_ws['left_arm'] = left_ws
            aruco_ws['right_arm'] = right_ws
            with open(config_path, 'w') as f:
                yaml.dump(aruco_ws, f, default_flow_style=False)
    else:
        left_ws = load_config('left_arm')
        right_ws = load_config('right_arm')

    if left_ws != None:
        yleft_data = parse_Yframe(left_ws)
        ly_frame_min = yleft_data[0]
        ly_frame_max = yleft_data[1]
        ly_ws = range(ly_frame_min, ly_frame_max + 1)
        lik_xmin = yleft_data[2]
        lik_xmax = yleft_data[3]

        xleft_data = parse_Xframe(left_ws)
        lx_min_b = xleft_data[0][0]
        lx_min_a = xleft_data[0][1]
        lx_max_a = xleft_data[1][0]
        lx_max_b = xleft_data[1][1]

        lik_ymax_lower = xleft_data[2]  #0.24
        lik_ymax_upper = xleft_data[3]  #0.34
        lik_ymin_lower = xleft_data[4]  #0.1
        lik_ymin_upper = xleft_data[5]  #0.05

    if right_ws != None:
        yright_data = parse_Yframe(right_ws)
        ry_frame_min = yright_data[0]
        ry_frame_max = yright_data[1]
        ry_ws = range(ry_frame_min, ry_frame_max + 1)
        rik_xmin = yright_data[2]
        rik_xmax = yright_data[3]

        xright_data = parse_Xframe(right_ws)
        rx_max_b = xright_data[0][0]
        rx_max_a = xright_data[0][1]
        rx_min_a = xright_data[1][0]
        rx_min_b = xright_data[1][1]

        rik_ymax_lower = xright_data[2]  #0.24
        rik_ymax_upper = xright_data[3]  #0.34
        rik_ymin_lower = xright_data[4]  #0.1
        rik_ymin_upper = xright_data[5]  #0.05

    while not rospy.is_shutdown():
        # lx_tar, ly_tar = left_tar_x, left_tar_y
        # rx_tar, ry_tar= right_tar_x, right_tar_y
        l_tar = (left_tar_x, left_tar_y)
        r_tar = (right_tar_x, right_tar_y)

        if state == 'init_pose':
            rospy.loginfo('[MC] Robot State : {}'.format(state))
            if mode == "align_keyboard":
                kinematics.publisher_(kinematics.send_ini_pose_msg_pub,
                                      "align_keyboard_pose",
                                      latch=False)
                kinematics.publisher_(
                    kinematics.en_align_key_pub, True,
                    latch=False)  # <-- Enable Align Keboard mode
            elif mode == "typing":
                kinematics.publisher_(kinematics.send_ini_pose_msg_pub,
                                      "typing_pose",
                                      latch=False)
                kinematics.publisher_(kinematics.en_typing_pub,
                                      True,
                                      latch=False)  # <-- Enable Typing mode

            lx_ik = ly_ik = rx_ik = ry_ik = None
            prev_lik = prev_rik = ()
            state = None

        elif state == 'move_arm':
            rospy.loginfo('[MC] Robot State : {}'.format(state))

            if lx_ik != None and ly_ik != None:
                kinematics.set_kinematics_pose(
                    "left_arm", 2.0, **{
                        'x': lx_ik,
                        'y': ly_ik,
                        'z': zl,
                        'roll': rl,
                        'pitch': pl,
                        'yaw': yl
                    })
                prev_lik = (lx_ik, ly_ik)
                last_arm = "left_arm"
            if rx_ik != None and ry_ik != None:
                kinematics.set_kinematics_pose(
                    "right_arm", 2.0, **{
                        'x': rx_ik,
                        'y': ry_ik,
                        'z': zr,
                        'roll': rr,
                        'pitch': pr,
                        'yaw': yr
                    })
                prev_rik = (rx_ik, ry_ik)
                last_arm = "right_arm"
            state = None

        elif state == "typing":
            if last_arm == 'left_arm':
                zl_typing = 0.03
                kinematics.set_kinematics_pose(
                    "left_arm", 0.4, **{
                        'x': lx_ik,
                        'y': ly_ik,
                        'z': zl - zl_typing,
                        'roll': rl,
                        'pitch': pl,
                        'yaw': yl
                    })
                wait_robot(kinematics, "End Left Arm Trajectory")
                kinematics.set_kinematics_pose(
                    "left_arm", 0.4, **{
                        'x': lx_ik,
                        'y': ly_ik,
                        'z': zl + zl_typing,
                        'roll': rl,
                        'pitch': pl,
                        'yaw': yl
                    })

            elif last_arm == 'right_arm':
                zr_typing = 0.03
                kinematics.set_kinematics_pose(
                    "right_arm", 0.4, **{
                        'x': rx_ik,
                        'y': ry_ik,
                        'z': zr - zr_typing,
                        'roll': rr,
                        'pitch': pr,
                        'yaw': yr
                    })
                wait_robot(kinematics, "End Right Arm Trajectory")
                kinematics.set_kinematics_pose(
                    "right_arm", 0.4, **{
                        'x': rx_ik,
                        'y': ry_ik,
                        'z': zr + zr_typing,
                        'roll': rr,
                        'pitch': pr,
                        'yaw': yr
                    })

            state = None

        elif state == 'sync_move_arms':
            rospy.loginfo('[MC] Robot State : {}'.format(state))

            if prev_rik and prev_lik:
                rospy.loginfo("[MC] Finish Sync Calculating")
                diff_ikr = np.array([rx_ik, ry_ik]) - np.array(prev_rik)
                ikl_synch = prev_lik + diff_ikr
                lx_ik = ikl_synch[0]
                ly_ik = ikl_synch[1]

                ly_p = np.interp(lx_ik, [lik_xmin, lik_xmax],
                                 [ly_frame_max, ly_frame_min])
                # Mapping CX Frame
                lx_frame_min = np.interp(ly_p, [ly_frame_min, ly_frame_max],
                                         [lx_min_a, lx_min_b])
                lx_frame_min = int(np.round(lx_frame_min, 0))
                lx_frame_max = np.interp(ly_p, [ly_frame_min, ly_frame_max],
                                         [lx_max_a, lx_max_b])
                lx_frame_max = int(np.round(lx_frame_max, 0))
                # Mapping IK_Y
                lik_ymax = np.interp(ly_p, [ly_frame_min, ly_frame_max],
                                     [lik_ymax_upper, lik_ymax_lower])
                lik_ymax = np.round(lik_ymax, 4)
                lik_ymin = np.interp(ly_p, [ly_frame_min, ly_frame_max],
                                     [lik_ymin_upper, lik_ymin_lower])
                lik_ymin = np.round(lik_ymin, 4)
                lx_p = np.interp(ly_ik, [lik_ymin, lik_ymax],
                                 [lx_frame_max, lx_frame_min])

                lp = Point32()
                lp.x = lx_p
                lp.y = ly_p
                l_sync_point_pub.publish(lp)
            state = None

        else:
            if prev_l_tar != l_tar:
                if l_tar[1] in ly_ws:
                    # Mapping CY Frame
                    # ly_frame_min = np.interp( l_tar[1], [ly_frame_min, ly_frame_max], [ly_min_a, ly_min_b] )
                    # ly_frame_min = int( np.round(ly_frame_min, 0) )

                    # Left IK X Target
                    lx_ik = np.interp(l_tar[1], [ly_frame_min, ly_frame_max],
                                      [lik_xmax, lik_xmin])

                    # Mapping CX Frame
                    lx_frame_min = np.interp(l_tar[1],
                                             [ly_frame_min, ly_frame_max],
                                             [lx_min_a, lx_min_b])
                    lx_frame_min = int(np.round(lx_frame_min, 0))
                    lx_frame_max = np.interp(l_tar[1],
                                             [ly_frame_min, ly_frame_max],
                                             [lx_max_a, lx_max_b])
                    lx_frame_max = int(np.round(lx_frame_max, 0))

                    # Mapping IK_Y
                    lik_ymax = np.interp(l_tar[1],
                                         [ly_frame_min, ly_frame_max],
                                         [lik_ymax_upper, lik_ymax_lower])
                    lik_ymax = np.round(lik_ymax, 4)
                    lik_ymin = np.interp(l_tar[1],
                                         [ly_frame_min, ly_frame_max],
                                         [lik_ymin_upper, lik_ymin_lower])
                    lik_ymin = np.round(lik_ymin, 4)

                    lx_ws = range(lx_frame_min, lx_frame_max + 1)
                    if l_tar[0] in lx_ws:
                        # Left IK Y Target
                        ly_ik = np.interp(l_tar[0],
                                          [lx_frame_min, lx_frame_max],
                                          [lik_ymax, lik_ymin])

                        print()
                        rospy.loginfo(
                            '[Left Arm] Input Coor X: {0}, Y: {1}'.format(
                                l_tar[0], l_tar[1]))
                        rospy.loginfo(
                            '[Left Arm] X_IK: {0:.2f}, Y_IK: {1:.2f}'.format(
                                lx_ik, ly_ik))
                    else:
                        rospy.logerr(
                            '[Left Arm] X Frame target is out of range')
                else:
                    rospy.logerr('[Left Arm] Y Frame target is out of range')
                prev_l_tar = l_tar

            if prev_r_tar != r_tar:
                if r_tar[1] in ry_ws:
                    # Left IK X Target
                    rx_ik = np.interp(r_tar[1], [ry_frame_min, ry_frame_max],
                                      [rik_xmax, rik_xmin])

                    # Mapping CX Frame
                    rx_frame_min = np.interp(r_tar[1],
                                             [ry_frame_min, ry_frame_max],
                                             [rx_min_a, rx_min_b])
                    rx_frame_min = int(np.round(rx_frame_min, 0))
                    rx_frame_max = np.interp(r_tar[1],
                                             [ry_frame_min, ry_frame_max],
                                             [rx_max_a, rx_max_b])
                    rx_frame_max = int(np.round(rx_frame_max, 0))

                    # Mapping IK_Y
                    rik_ymax = np.interp(r_tar[1],
                                         [ry_frame_min, ry_frame_max],
                                         [rik_ymax_upper, rik_ymax_lower])
                    rik_ymax = np.round(rik_ymax, 4)
                    rik_ymin = np.interp(r_tar[1],
                                         [ry_frame_min, ry_frame_max],
                                         [rik_ymin_upper, rik_ymin_lower])
                    rik_ymin = np.round(rik_ymin, 4)

                    rx_ws = range(rx_frame_min, rx_frame_max + 1)
                    if r_tar[0] in rx_ws:
                        # Left IK Y Target
                        ry_ik = np.interp(r_tar[0],
                                          [rx_frame_min, rx_frame_max],
                                          [rik_ymin, rik_ymax])

                        print()
                        rospy.loginfo(
                            '[Right Arm] Input Coor X: {0}, Y: {1}'.format(
                                r_tar[0], r_tar[1]))
                        rospy.loginfo(
                            '[Right Arm] X_IK: {0:.2f}, Y_IK: {1:.2f}'.format(
                                rx_ik, ry_ik))
                    else:
                        rospy.logerr(
                            '[Right Arm] X Frame target is out of range')
                else:
                    rospy.logerr('[Right Arm] Y Frame target is out of range')
                prev_r_tar = r_tar

        main_rate.sleep()

    kinematics.kill_threads()
示例#9
0
def main():
    rospy.init_node('pioneer_main', anonymous=False)
    rospy.loginfo("Pioneer Main Demo Pick Up Keyboard- Running")

    kinematics = Kinematics()
    kinematics.publisher_(kinematics.module_control_pub,
                          "manipulation_module",
                          latch=True)  # <-- Enable Manipulation mode
    kinematics.publisher_(kinematics.send_ini_pose_msg_pub,
                          "ini_pose",
                          latch=True)
    sleep(2)

    kinematics.set_gripper("left_arm", 0, 5)
    kinematics.set_gripper("right_arm", 0, 5)

    while not rospy.is_shutdown():
        kinematics.set_kinematics_pose(
            "right_arm", 1.0, **{
                'x': 0.20,
                'y': -0.30,
                'z': 0.60,
                'roll': 90.00,
                'pitch': 40.00,
                'yaw': 0.00
            })
        kinematics.set_kinematics_pose(
            "left_arm", 1.0, **{
                'x': 0.20,
                'y': 0.30,
                'z': 0.60,
                'roll': -90.00,
                'pitch': 40.00,
                'yaw': 0.00
            })
        wait(3)
        kinematics.set_kinematics_pose(
            "right_arm", 2.0, **{
                'x': 0.40,
                'y': -0.4,
                'z': 0.62,
                'roll': 90.00,
                'pitch': 40.00,
                'yaw': 0.00
            })
        kinematics.set_kinematics_pose(
            "left_arm", 2.0, **{
                'x': 0.40,
                'y': 0.15,
                'z': 0.62,
                'roll': -90.00,
                'pitch': 40.00,
                'yaw': 0.00
            })
        wait(3)
        kinematics.set_kinematics_pose(
            "right_arm", 2.0, **{
                'x': 0.40,
                'y': -0.33,
                'z': 0.62,
                'roll': 90.00,
                'pitch': 40.00,
                'yaw': 0.00
            })
        kinematics.set_kinematics_pose(
            "left_arm", 2.0, **{
                'x': 0.40,
                'y': 0.08,
                'z': 0.62,
                'roll': -90.00,
                'pitch': 40.00,
                'yaw': 0.00
            })
        wait(3)
        kinematics.set_gripper("left_arm", 3, 5)
        kinematics.set_gripper("right_arm", 3, 5)
        wait(0.3)
        kinematics.set_kinematics_pose(
            "right_arm", 2.0, **{
                'x': 0.30,
                'y': -0.2,
                'z': 0.8,
                'roll': 90.00,
                'pitch': 30.00,
                'yaw': 0.00
            })
        kinematics.set_kinematics_pose(
            "left_arm", 2.0, **{
                'x': 0.30,
                'y': 0.2,
                'z': 0.8,
                'roll': -90.00,
                'pitch': 30.00,
                'yaw': 0.00
            })
        wait(6)
        kinematics.set_kinematics_pose(
            "right_arm", 2.0, **{
                'x': 0.40,
                'y': -0.33,
                'z': 0.62,
                'roll': 90.00,
                'pitch': 40.00,
                'yaw': 0.00
            })
        kinematics.set_kinematics_pose(
            "left_arm", 2.0, **{
                'x': 0.40,
                'y': 0.08,
                'z': 0.62,
                'roll': -90.00,
                'pitch': 40.00,
                'yaw': 0.00
            })
        wait(3)
        kinematics.set_gripper("left_arm", 0, 5)
        kinematics.set_gripper("right_arm", 0, 5)
        kinematics.set_kinematics_pose(
            "right_arm", 2.0, **{
                'x': 0.40,
                'y': -0.4,
                'z': 0.62,
                'roll': 90.00,
                'pitch': 40.00,
                'yaw': 0.00
            })
        kinematics.set_kinematics_pose(
            "left_arm", 2.0, **{
                'x': 0.40,
                'y': 0.15,
                'z': 0.62,
                'roll': -90.00,
                'pitch': 40.00,
                'yaw': 0.00
            })
        wait(3)
        kinematics.publisher_(kinematics.send_ini_pose_msg_pub, "ini_pose")
        break

    kinematics.kill_threads()
示例#10
0
def main():
    rospy.init_node('pioneer_main_align_keyboard', anonymous=False)
    rospy.loginfo("[AK] Pioneer Align Keyboard - Running")

    rospy.Subscriber("/pioneer/target/left_arm_point", Point32,
                     left_arm_pos_callback)
    rospy.Subscriber("/pioneer/target/right_arm_point", Point32,
                     right_arm_pos_callback)
    rospy.Subscriber("/pioneer/target/start", Bool, arm_start_callback)
    rospy.Subscriber("/pioneer/target/sync_arm", Bool, arm_sync_callback)
    rospy.Subscriber("/pioneer/target/grasp_keyboard", Bool, grip_key_callback)
    rospy.Subscriber("/pioneer/init_pose", Bool, ini_pose_callback)

    l_sync_point_pub = rospy.Publisher("/pioneer/aruco/lsync_position",
                                       Point32,
                                       queue_size=1)

    main_rate = rospy.Rate(20)

    # global variables
    global start_ik, start_sync, grasp_keyboard, init_pose
    start_sync = False
    start_ik = False
    grasp_keyboard = False
    init_pose = False

    global state
    global left_tar_x, left_tar_y, right_tar_x, right_tar_y
    global prev_lik, prev_rik
    left_tar_x, left_tar_y = None, None
    right_tar_x, right_tar_y = None, None

    state = None
    lx_ik, ly_ik = None, None
    rx_ik, ry_ik = None, None
    lik_xmin, lik_xmax = None, None

    prev_lik, prev_rik = (), ()
    left_ws, right_ws = {}, {}
    prev_l_tar = (None, None)
    prev_r_tar = (None, None)

    ##################
    ## Kinematics
    ##################
    kinematics = Kinematics()
    kinematics.publisher_(kinematics.module_control_pub,
                          "manipulation_module",
                          latch=True)  # <-- Enable Manipulation mode
    kinematics.publisher_(kinematics.send_ini_pose_msg_pub,
                          "align_keyboard_pose",
                          latch=True)
    kinematics.publisher_(kinematics.en_align_key_pub, True,
                          latch=False)  # <-- Enable Align Keboard mode
    wait_robot(kinematics, "End Init Trajectory")

    # set init head, torso, gripper
    kinematics.set_joint_pos(['head_p', 'head_y', 'torso_y'], [30, 0, 0])
    kinematics.set_gripper("left_arm", 0, 0)
    kinematics.set_gripper("right_arm", 0, 0)
    sleep(1)
    kinematics.set_joint_pos(['l_arm_finger45_p', 'r_arm_finger45_p'],
                             [180, 180])
    sleep(1)
    rospy.loginfo('[AK] Finish Init Head & Hand')

    # load config file
    left_ws = load_ws_config('left_arm')
    right_ws = load_ws_config('right_arm')

    if left_ws != None:
        yleft_data = parse_Yframe(left_ws)
        ly_frame_min = yleft_data[0]
        ly_frame_max = yleft_data[1]
        ly_ws = range(ly_frame_min, ly_frame_max + 1)
        lik_xmin = yleft_data[2]
        lik_xmax = yleft_data[3]

        xleft_data = parse_Xframe(left_ws)
        lx_min_b = xleft_data[0][0]
        lx_min_a = xleft_data[0][1]
        lx_max_a = xleft_data[1][0]
        lx_max_b = xleft_data[1][1]

        lik_ymax_lower = xleft_data[2]  #0.24
        lik_ymax_upper = xleft_data[3]  #0.34
        lik_ymin_lower = xleft_data[4]  #0.1
        lik_ymin_upper = xleft_data[5]  #0.05

    if right_ws != None:
        yright_data = parse_Yframe(right_ws)
        ry_frame_min = yright_data[0]
        ry_frame_max = yright_data[1]
        ry_ws = range(ry_frame_min, ry_frame_max + 1)
        rik_xmin = yright_data[2]
        rik_xmax = yright_data[3]

        xright_data = parse_Xframe(right_ws)
        rx_max_b = xright_data[0][0]
        rx_max_a = xright_data[0][1]
        rx_min_a = xright_data[1][0]
        rx_min_b = xright_data[1][1]

        rik_ymax_lower = xright_data[2]  #0.24
        rik_ymax_upper = xright_data[3]  #0.34
        rik_ymin_lower = xright_data[4]  #0.1
        rik_ymin_upper = xright_data[5]  #0.05

    while not rospy.is_shutdown():
        if left_tar_x == -1 and left_tar_y == -1:
            lx_ik = ly_ik = None
        else:
            l_tar = (left_tar_x, left_tar_y)

        if right_tar_x == -1 and right_tar_y == -1:
            rx_ik = ry_ik = None
        else:
            r_tar = (right_tar_x, right_tar_y)

        if state == 'init_pose':
            rospy.loginfo('[AK] Robot State : {}'.format(state))

            if prev_lik and prev_rik:
                lx_ik = prev_lik[0]
                ly_ik = prev_lik[1] + 0.062
                move_arm(kinematics, "left_arm", lx_ik, ly_ik)
                rx_ik = prev_rik[0]
                ry_ik = prev_rik[1] - 0.062
                move_arm(kinematics, "right_arm", rx_ik, ry_ik)
                sleep(2.5)

                kinematics.publisher_(kinematics.send_ini_pose_msg_pub,
                                      "align_keyboard_pose",
                                      latch=False)
                kinematics.publisher_(
                    kinematics.en_align_key_pub, True,
                    latch=False)  # <-- Enable Align Keboard mode
            else:
                kinematics.publisher_(kinematics.send_ini_pose_msg_pub,
                                      "align_keyboard_pose",
                                      latch=False)
                kinematics.publisher_(
                    kinematics.en_align_key_pub, True,
                    latch=False)  # <-- Enable Align Keboard mode

            lx_ik = ly_ik = rx_ik = ry_ik = None
            prev_lik = prev_rik = ()
            state = None

        elif state == 'move_arm':
            rospy.loginfo('[AK] Robot State : {}'.format(state))

            if lx_ik != None and ly_ik != None \
                and rx_ik != None and ry_ik != None:
                print('move arm now')

                ly_ik += 0.05
                lx_ik -= 0.0  #0.025
                move_arm(kinematics, "left_arm", lx_ik, ly_ik)
                ry_ik -= 0.05
                rx_ik -= 0.0
                move_arm(kinematics, "right_arm", rx_ik, ry_ik)
            else:
                print('LX_IK: {}, LY_IK: {}'.format(lx_ik, ly_ik))
                print('RX_IK: {}, RY_IK: {}'.format(rx_ik, ry_ik))
                rospy.logwarn(
                    '[AK] Robot arm singularities \n Please move keyboard to workspace'
                )
            state = None

        elif state == 'grip_keyboard':
            rospy.loginfo('[AK] Robot State : {}'.format(state))
            if prev_lik and prev_rik:
                lx_ik = prev_lik[0]
                ly_ik = prev_lik[1] - 0.06
                move_arm(kinematics, "left_arm", lx_ik, ly_ik)

                rx_ik = prev_rik[0]
                ry_ik = prev_rik[1] + 0.06
                move_arm(kinematics, "right_arm", rx_ik, ry_ik)
            state = None

        elif state == 'sync_move_arms':
            rospy.loginfo('[AK] Robot State : {}'.format(state))

            diff_ikr = np.array([rx_ik, ry_ik]) - np.array(prev_rik)
            ikl_synch = prev_lik + diff_ikr
            lx_ik = ikl_synch[0]
            ly_ik = ikl_synch[1]

            ly_p = np.interp(lx_ik, [lik_xmin, lik_xmax],
                             [ly_frame_max, ly_frame_min])
            # Mapping CX Frame
            lx_frame_min = np.interp(ly_p, [ly_frame_min, ly_frame_max],
                                     [lx_min_a, lx_min_b])
            lx_frame_min = int(np.round(lx_frame_min, 0))
            lx_frame_max = np.interp(ly_p, [ly_frame_min, ly_frame_max],
                                     [lx_max_a, lx_max_b])
            lx_frame_max = int(np.round(lx_frame_max, 0))
            # Mapping IK_Y
            lik_ymax = np.interp(ly_p, [ly_frame_min, ly_frame_max],
                                 [lik_ymax_upper, lik_ymax_lower])
            lik_ymax = np.round(lik_ymax, 4)
            lik_ymin = np.interp(ly_p, [ly_frame_min, ly_frame_max],
                                 [lik_ymin_upper, lik_ymin_lower])
            lik_ymin = np.round(lik_ymin, 4)
            lx_p = np.interp(ly_ik, [lik_ymin, lik_ymax],
                             [lx_frame_max, lx_frame_min])

            lp = Point32()
            lp.x = lx_p
            lp.y = ly_p
            l_sync_point_pub.publish(lp)

            sleep(0.2)
            move_arm(kinematics, "right_arm", rx_ik, ry_ik)
            move_arm(kinematics, "left_arm", lx_ik, ly_ik)
            state = None

        else:
            if prev_l_tar != l_tar:
                if l_tar[1] in ly_ws:
                    # Mapping CY Frame
                    # ly_frame_min = np.interp( l_tar[1], [ly_frame_min, ly_frame_max], [ly_min_a, ly_min_b] )
                    # ly_frame_min = int( np.round(ly_frame_min, 0) )

                    # Left IK X Target
                    lx_ik = np.interp(l_tar[1], [ly_frame_min, ly_frame_max],
                                      [lik_xmax, lik_xmin])

                    # Mapping CX Frame
                    lx_frame_min = np.interp(l_tar[1],
                                             [ly_frame_min, ly_frame_max],
                                             [lx_min_a, lx_min_b])
                    lx_frame_min = int(np.round(lx_frame_min, 0))
                    lx_frame_max = np.interp(l_tar[1],
                                             [ly_frame_min, ly_frame_max],
                                             [lx_max_a, lx_max_b])
                    lx_frame_max = int(np.round(lx_frame_max, 0))

                    # Mapping IK_Y
                    lik_ymax = np.interp(l_tar[1],
                                         [ly_frame_min, ly_frame_max],
                                         [lik_ymax_upper, lik_ymax_lower])
                    lik_ymax = np.round(lik_ymax, 4)
                    lik_ymin = np.interp(l_tar[1],
                                         [ly_frame_min, ly_frame_max],
                                         [lik_ymin_upper, lik_ymin_lower])
                    lik_ymin = np.round(lik_ymin, 4)

                    lx_ws = range(lx_frame_min, lx_frame_max + 1)
                    if l_tar[0] in lx_ws:
                        # Left IK Y Target
                        ly_ik = np.interp(l_tar[0],
                                          [lx_frame_min, lx_frame_max],
                                          [lik_ymax, lik_ymin])

                        print()
                        rospy.loginfo(
                            '[Left Arm] Input Coor X: {0}, Y: {1}'.format(
                                l_tar[0], l_tar[1]))
                        rospy.loginfo(
                            '[Left Arm] X_IK: {0:.2f}, Y_IK: {1:.2f}'.format(
                                lx_ik, ly_ik))
                    else:
                        rospy.logerr(
                            '[Left Arm] X Frame target is out of range')
                else:
                    rospy.logerr('[Left Arm] Y Frame target is out of range')
                prev_l_tar = l_tar

            if prev_r_tar != r_tar:
                if r_tar[1] in ry_ws:
                    # Left IK X Target
                    rx_ik = np.interp(r_tar[1], [ry_frame_min, ry_frame_max],
                                      [rik_xmax, rik_xmin])

                    # Mapping CX Frame
                    rx_frame_min = np.interp(r_tar[1],
                                             [ry_frame_min, ry_frame_max],
                                             [rx_min_a, rx_min_b])
                    rx_frame_min = int(np.round(rx_frame_min, 0))
                    rx_frame_max = np.interp(r_tar[1],
                                             [ry_frame_min, ry_frame_max],
                                             [rx_max_a, rx_max_b])
                    rx_frame_max = int(np.round(rx_frame_max, 0))

                    # Mapping IK_Y
                    rik_ymax = np.interp(r_tar[1],
                                         [ry_frame_min, ry_frame_max],
                                         [rik_ymax_upper, rik_ymax_lower])
                    rik_ymax = np.round(rik_ymax, 4)
                    rik_ymin = np.interp(r_tar[1],
                                         [ry_frame_min, ry_frame_max],
                                         [rik_ymin_upper, rik_ymin_lower])
                    rik_ymin = np.round(rik_ymin, 4)

                    rx_ws = range(rx_frame_min, rx_frame_max + 1)
                    if r_tar[0] in rx_ws:
                        # Left IK Y Target
                        ry_ik = np.interp(r_tar[0],
                                          [rx_frame_min, rx_frame_max],
                                          [rik_ymin, rik_ymax])

                        print()
                        rospy.loginfo(
                            '[Right Arm] Input Coor X: {0}, Y: {1}'.format(
                                r_tar[0], r_tar[1]))
                        rospy.loginfo(
                            '[Right Arm] X_IK: {0:.2f}, Y_IK: {1:.2f}'.format(
                                rx_ik, ry_ik))
                    else:
                        rospy.logerr(
                            '[Right Arm] X Frame target is out of range')
                else:
                    rospy.logerr('[Right Arm] Y Frame target is out of range')
                prev_r_tar = r_tar
        main_rate.sleep()

    kinematics.kill_threads()
示例#11
0
def main():
    rospy.init_node('pioneer_main', anonymous=False)
    rospy.loginfo("Pioneer Main - Running")

    # camera = Camera()
    # print(sys.version)

    ##################
    ## Kinematics
    ##################
    kinematics = Kinematics()
    kinematics.publisher_(kinematics.module_control_pub, "manipulation_module", latch=True)  # <-- Enable Manipulation mode
    kinematics.publisher_(kinematics.send_ini_pose_msg_pub, "ini_pose", latch=True)
    sleep(2)

    # trajectory simulation circle
    # kinematics.set_kinematics_pose("left_arm" , 1.0, **{ 'x': 0.20, 'y':  0.30, 'z': 0.80, 'roll': 0.00, 'pitch': 0.00, 'yaw': 0.00 })
    # kinematics.set_kinematics_pose("right_arm" , 1.0, **{ 'x': 0.20, 'y':  -0.30, 'z': 0.80, 'roll': 0.00, 'pitch': 0.00, 'yaw': 0.00 })
    # sleep(1)
    # a = 0

    # while not rospy.is_shutdown():
    #     kinematics.trajectory_sin(group="left_arm",  x=0.30, y=0.20, z=0.90, roll=0.0, pitch=0.0, yaw=0.0, xc=-0.1, yc=-0.1, zc=-0.1, time=2, res=0.01)
    #     kinematics.trajectory_sin(group="right_arm", x=0.30, y=-0.20, z=0.90, roll=0.0, pitch=0.0, yaw=0.0, xc=-0.1, yc=0.1, zc=-0.1, time=2, res=0.01)
    #     sleep(1) # because pubslishing array msg using for loop
    #     while kinematics.left_arr == True and kinematics.right_arr == True:
    #         pass # no action
    #     # input("Press enter")

    #     kinematics.trajectory_sin(group="left_arm",  x=0.20, y=0.30, z=0.80, roll=0.0, pitch=0.0, yaw=0.0, xc=0.1, yc=0.1, zc=0.1, time=2, res=0.01)
    #     kinematics.trajectory_sin(group="right_arm",  x=0.20, y=-0.30, z=0.80, roll=0.0, pitch=0.0, yaw=0.0, xc=0.1, yc=-0.1, zc=0.1, time=2, res=0.01)
    #     sleep(1) # because pubslishing array msg using for loop
    #     while kinematics.left_arr == True and kinematics.right_arr == True:
    #         pass # no action
    #     # input("Press enter1")
    #     a = a+1
    #     if a >= 3:
    #         break


    # while not rospy.is_shutdown():
    #     kinematics.set_gripper("left_arm", 2, 5)
    #     kinematics.set_gripper("right_arm", 2, 5)
    #     # sleep(2)
    #     break

    # left_arm = kinematics.get_kinematics_pose("left_arm")
    # right_arm = kinematics.get_kinematics_pose("right_arm")
    # sleep(1)

    # while not rospy.is_shutdown():
    #     kinematics.set_kinematics_pose("left_arm" , 2.0, **{ 'x': left_arm.get('x'), 'y':  left_arm.get('y'), \
    #                                 'z': left_arm.get('z') + 0.1, 'roll': left_arm.get('roll'), 'pitch': left_arm.get('pitch'), 'yaw': left_arm.get('yaw') })
    #     kinematics.set_kinematics_pose("right_arm" , 2.0, **{ 'x': right_arm.get('x'), 'y':  right_arm.get('y'), \
    #     'z': right_arm.get('z') + 0.1, 'roll': right_arm.get('roll'), 'pitch': right_arm.get('pitch'), 'yaw': right_arm.get('yaw') })
    #     break

    ##################
    ## Motor
    ##################     
    # motor = Motor()
    # motor.publisher_(motor.module_control_pub, "none", latch=True)
    # rate = rospy.Rate(60)
    # while not rospy.is_shutdown():
    #     rospy.loginfo("motor")
    #     # motor.set_joint_states(["l_arm_wr_p", "l_arm_wr_y", "r_arm_wr_y", "r_arm_wr_p"], \
    #     #     [0, 0, 0, 0], [0, 0, 0, 0], [0, 0, 0, 0])
    #     # sleep(2)
    #     # motor.set_joint_states(["l_arm_wr_p", "l_arm_wr_y", "r_arm_wr_y", "r_arm_wr_p"], \
    #     #     [45, 45, 45, 45], [0, 0, 0, 0], [0, 0, 0, 0])
    #     # sleep(2)
    #     # motor.set_joint_states(["l_arm_wr_p", "l_arm_wr_y", "l_arm_wr_r", "r_arm_wr_y", "r_arm_wr_p", "r_arm_wr_r"], False)
    #     # motor.set_joint_states(["l_arm_thumb_y", "l_arm_thumb_p", "l_arm_index_p", "l_arm_middle_p", "l_arm_finger45_p",
    #     #                         "r_arm_thumb_y", "r_arm_thumb_p", "r_arm_index_p", "r_arm_middle_p", "r_arm_finger45_p"], False)
    #     motor.set_joint_states(["all"], False)
    #     rate.sleep()


    ##################
    ## Walk
    ##################
    # walk = Walking()
    # walk.latching_publish(walk.walking_pub, "ini_pose")
    # sleep(4)
    # print("walking")
    # walk.latching_publish(walk.walking_pub, "set_mode")  # <-- Enable walking mode
    # sleep(4)
    # print("walking balance on")
    # walk.latching_publish(walk.walking_pub, "balance_on")
    # sleep(4)

    # walk.walk_command("forward", 1, 1.0, 0.01, 0.05, 5)
    # while (walk.status_msg == "Walking_Started"):
    #     rospy.loginfo("walking forward 1")
    # walk.walk_command("forward", 1, 1.0, 0.1, 0.05, 5)
    # while (walk.status_msg == "Walking_Started"):
    #     rospy.loginfo("walking forward 2")
    # walk.walk_command("forward", 1, 1.0, 0.01, 0.05, 5)
    # while (walk.status_msg == "Walking_Started"):
    #     rospy.loginfo("walking forward 3")
    # sleep(5)
    # walk.kill_threads()

    ##################
    ## Sensor
    ##################
    # sensor = Sensor()
    # sleep(5)
    # sensor.kill_threads()

    ##################
    ## Motion
    ##################
    # motion = Motion()
    # motion.init_motion()
    # print(motion.init_joint)
    # print(motion.init_pose)
    # sleep(3)
    # rospy.loginfo(motion.init_pose)
    # # motor.set_joint_states(motion.init_joint, motion.init_pose)
    # # sleep(5)
    # motor.kill_threads()
    # motor.set_joint_states(["l_arm_el_y"], [0.0], [0.0], [0.0])
    # motor.set_joint_states(["l_arm_el_y"], [0.5])

    
    # while not rospy.is_shutdown():
    #     # rospy.loginfo("infinite")
    #     # print(camera.source_image)
    #     cv2.imshow('img',camera.source_image)
    #     cv2.waitKey(1)
    #     # rate.sleep()

    kinematics.kill_threads()
示例#12
0
class magic():
    def __init__(self):
        
        print('start')
        self.kinematics = Kinematics()
        self.motor = Motor("Thormang3_Wolf")

        self.rate = rospy.Rate(10)

        self.speech = rospy.Publisher("/robotis/sensor/text_to_speech",String,queue_size=10)
        # self.speech = rospy.Publisher("/robotis/sensor/update_tts",String,queue_size=10)
        self.music = rospy.Publisher("/robotis/sensor/music",mp3,queue_size=10)
        self.music_stop = rospy.Publisher('/robotis/sensor/stop_music',     Bool,queue_size = 10)
        self.sensor_list = None
        self.pub_gripper = rospy.Publisher('/robotis/gripper/joint_pose_msg',JointState,queue_size=10)
        #base_ini
        self.base_ini = rospy.Publisher("/robotis/base/ini_pose",String,queue_size=10)
        
        for _ in range(4):
            self.base_ini.publish('ini_pose')
            self.rate.sleep()
        self.end_action()
        sleep(1)
        #print("start") 

        #ini_arm
        self.kinematics.publisher_(self.kinematics.module_control_pub, "manipulation_module", latch=True)
        self.kinematics.publisher_(self.kinematics.module_control_pub, "gripper_module", latch=True)
        self.kinematics.publisher_(self.kinematics.send_ini_pose_msg_pub, "ini_pose", latch=True)
        self.end_action()
        self.left_arm_ini_pos = self.kinematics.get_kinematics_pose('left_arm')
        
        self.kinematics.publisher_(self.kinematics.module_control_pub, "head_control_module", latch=True)
        #sleep(0.5)

        #move head
        self.head_postition = rospy.Publisher('/robotis/head_control/set_joint_states',JointState,queue_size=10)
        sleep(0.5)
        
        #print('moved')

        self.sensor_list = None
        self.deg = float(60)
        self.deg_30 = float(30 *math.pi /180)
        self.head_pan = np.radians(12)
        # self.head_pan = float(23 * math.pi / 180)
        self.head_tilt = float(36 * math.pi / 180)

        self.student_pan = np.radians(36)
        self.student_tilt = np.radians(-12)

        self.J_pan = np.radians(36)
        self.J_tilt = np.radians(-28)
        #sleep(1)
        #print('finished')
        # nan = None
        # self.calibration(ranges)
    
    def run(self):
        self.state = 'first_scene'
        # self.state = 'first_step'
        # self.state = ''
        rospy.Subscriber('/robotis/sensor/scan_filtered', LaserScan, self.sensor_callback)
        while (True):
            if self.sensor_list is not None :
                break
        
        temp_mp3 = mp3()
        temp_mp3.file_name = '100) open'
        temp_mp3.volume = 10
        self.music.publish(temp_mp3)

        input('press to start')

        # self.move_head()
        # sleep(2)



        while not rospy.is_shutdown():
            if self.state == 'first_scene':
                self.text_to_speech("1) Welcome everyone, I am Thormang.")
                sleep(0.5)
                self.text_to_speech("2) Today I am going to show you a magic trick that I have laerned recently")
                sleep(0.5)
                self.text_to_speech("3) As you can see, there are three paper bags in front of me.")
                sleep(0.5)
                self.text_to_speech("4) Later, I will put this wooden base with a sharp nail into one of the paper bags ")
                sleep(0.5)
                self.text_to_speech("74) and then swap around the position of the bags")
                sleep(0.5)
                self.text_to_speech("5) To make sure we wont find out the bag is empty by feeling the weight, so I prepared two wooden bases without nails.")
                sleep(0.5)
                input('press to look student')
                self.move_head(self.student_pan,self.student_tilt)
                sleep(0.5)
                self.text_to_speech("6) Student, please help me put these two wooden bases into two paper bags and close it.")
                sleep(0.5)
                input("after student move")
                self.move_head(self.head_pan,self.head_tilt)
                self.state = 'second_scene'
            elif self.state == 'second_scene':
                input("press to look student again")
                self.move_head(self.student_pan,self.student_tilt)
                sleep(0.5)
                self.text_to_speech("7) student, please ask an audience member to examine the nail and make sure it is real")
                sleep(1)
                self.move_head(0,0)
                input('wait for check the nail')
                self.text_to_speech("8) So, audience volunteer can you confirm to the rest of the audience that the nail is indeed real?")
                input('after responced ,press to continue')
                
                self.text_to_speech("9) Okay, thank you")
                sleep(0.5) 
                self.move_head(self.student_pan,self.student_tilt)
                sleep(0.5)
                self.text_to_speech("77) student please place the nail inside the last bag and close it.")
                sleep(1.5)
                self.move_head(0,0)
                self.text_to_speech("10) And everyone, please pay attention and remember which bag contains the nail.")
                sleep(0.5)
                
                sleep(1)
                input('wait for student action , press to continue')
                #self.move_head(0,0)
                self.state = "third_scene"

            elif self.state == "third_scene":
                #input('finished swap ,press to continue')
                sleep(1)
                self.text_to_speech("11) Now, I need another volunteer.")
                input('press to continue')
                self.text_to_speech("12) Thank you for volunteering ")
                sleep(0.5)
                self.text_to_speech("79) now , do you remember which bag contains the nail ?")
                input('after volunteer answered , press to continue')
                
                self.move_head(self.head_pan,self.head_tilt)
                sleep(2)
                # ranges = self.sensor_list [:]
                # self.calibration(ranges)
                while (True):
                    ranges = self.sensor_list [:]
                    self.calibration(ranges)
                    det = input('detect well ? (y/n)')
                    if det == "y":
                        break

                self.right_p1_up()
                self.move_head(0,0)
                self.text_to_speech("13) You mean this one , right?")
                
                input('press to continue')
                self.text_to_speech("14) To make sure that I wont be able to know which bag contains the nail")
                sleep(0.5)
                
                self.text_to_speech("15) the student will start swapping the bags around .")
                sleep(0.5)
                
                #input('press to continue')
                self.text_to_speech("60) When I say START the student will begin, and volunteer, you can shout out STOP anytime you want.")
                sleep(0.5)
                self.kinematics.publisher_(self.kinematics.send_ini_pose_msg_pub, "ini_pose", latch=True)
                self.end_action()

                self.move_head(self.head_pan,self.head_tilt)
                sleep(0.2)
                self.text_to_speech("16) Lets START!")
                self.music_stop.publish(True)
                sleep(0.5)
                temp_mp3 = mp3()
                temp_mp3.file_name = '200) start game'
                temp_mp3.volume = 15
                self.music.publish(temp_mp3)
                input('after swap ,press to detect the bag position')
                self.text_to_speech("17) Okay, now I need some time to feel where the nail is.")
                sleep(0.5)

                self.state = 'fourth_scene'

            elif self.state == 'fourth_scene':
                
                sleep(2)
                
                while (True):
                    ranges = self.sensor_list [:]
                    self.calibration(ranges)
                    det = input('detect well ? (y/n)')
                    if det == "y":
                        break
                
                self.p2_up()
                sleep(2)
                self.p1_up()
                sleep(2)
                self.p3_up()
                sleep(2)
                self.p2_up()
                
                point_back = self.kinematics.get_kinematics_pose('left_arm').copy()
                point_back["x"] = 0.4
                self.kinematics.set_kinematics_pose(group_name="left_arm",time=3,**point_back)
                self.end_action()
                
                self.kinematics.publisher_(self.kinematics.send_ini_pose_msg_pub, "ini_pose", latch=True)
                self.end_action()

                
                self.move_head(0,0)
                self.text_to_speech("18) Ohh, I am 100 percent sure where the nail is. So I would like to play something much more interesting.")
                sleep(2)
                self.move_head(self.J_pan,0)
                self.text_to_speech("19) Jacky")
                
                sleep(0.5)
                input('jacky come to the stage')
                self.move_head(self.J_pan,self.J_tilt)
                self.text_to_speech("20) as the supervisor of your lab, do you believe in my talent and your students ability?")
                input('after Jacky worlds ,press to continue')
                self.text_to_speech("61) oh , im happy to hear that !")

                self.text_to_speech("21) Since you trust us so much ")
                sleep(0.2)
                self.text_to_speech("66) we can raise the stakes.")
                sleep(0.7)
                self.text_to_speech("65) How about we use your hand to press down on the paper bags? ")
                input("jacky's time")
                
                self.p2_up()
                self.text_to_speech("80) Please give me your hand, Jacky")
                sleep(0.5)
                input('press to continue')
                self.move_head(0,0)
                self.text_to_speech("22) volunteer, choose a bag you think there's no nail inside? Left, Right, or Middle?")
                sleep(0.5)
                self.text_to_speech("62) Choose wisely, we wouldn’t want our dear professor to get hurt, right ?")
                self.state = "first_step"
            elif self.state == 'first_step':
                situation = input('put the situation (p3_l , p3_r , p1_l , p1_r) >> (1,2,3,4) :')
                self.move_head(self.head_pan,self.head_tilt)
                # while (True):
                    
                #     sleep(0.5)
                #     ranges = self.sensor_list [:]
                #     self.calibration(ranges)
                #     det = input('detect well ? (y/n)')
                #     if det == "y":
                #         break

                if situation == '1' : #"p3_l":
                    self.text_to_speech("23) Okay, left.")
                    
                    self.p3_up()
                    self.speech.publish("24) Safe!")
                    sleep(0.2)
                    self.DownAndUp()
                    
                    self.last = 'p1'
                elif situation == "2" : #"p3_r":
                    self.text_to_speech("25) Okay, right.")
                    
                    self.p3_up()
                    self.speech.publish("24) Safe!")
                    sleep(0.2)
                    self.DownAndUp()
                    
                    self.last = 'p1'
                elif situation == "3" : #"p1_l":
                    self.text_to_speech("23) Okay,left.")
                    
                    self.p1_up()
                    self.speech.publish("24) Safe!")
                    sleep(0.2)
                    self.DownAndUp()
                    
                    self.last = 'p3'
                elif situation == "4" : #"p1_r":
                    self.text_to_speech("25) Okay, right.")
                    
                    self.p1_up()
                    self.speech.publish("24) Safe!")
                    sleep(0.2)
                    self.DownAndUp()
                    
                    self.last = 'p3'
                else:
                    print("input should be 1 , 2 , 3 ,4 >> (p3_l , p3_r , p1_l , p1_r) ")
                    continue
                self.move_head(self.J_pan,self.J_tilt)
                self.text_to_speech("28) Jacky, dont be that nervous, dont you trust me?")
                sleep(0.5)
                input('press to continue')
                self.text_to_speech("29) I am the only hope of graduation for your students")
                sleep(0.7)
                self.text_to_speech("68) they won't disappoint you , trust me !")
                sleep(0.5)
                self.state = 'second_step'
                # if self.sensor_list is not None:
                #     #print(self.sensor_list)
                #     ranges = self.sensor_list [:]
                #     self.state = 'second_step'
                #     #print('first finished')
                #     # break

            elif self.state == 'second_step':
                #input("press to continue")
                #self.p2_up()
                input('press to continue')
                self.move_head(0,0)
                sleep(0.3)
                self.text_to_speech("30) Hey, volunteer, what's your next choice? Left or Right?")

                l_r = input('left or right  ( l , r ) : ')
                if l_r == "l":
                    
                    self.speech.publish("31) okay, left")
                else :
                    self.speech.publish("32) okay, right")
                
                if self.last == 'p1':
                    self.p1_up()
                elif self.last == 'p3':
                    self.p3_up()
                
                self.music_stop.publish(True)
                sleep(0.2)
                ################################################################################################################################
                ###########thormang3_crash#############
                temp_mp3 = mp3()
                temp_mp3.file_name = '101) restart'
                temp_mp3.volume = 25
                self.music.publish(temp_mp3)
                sleep(0.2)
                self.motor.publisher_(self.motor.module_control_pub, "none", latch=True)
                self.motor.set_joint_states(['all'], False)
                rospy.loginfo('[Magic] Turn off torque')
                ###################################
                sleep(1)
                self.speech.publish("41) re re re staaar rrr t teng ")
                sleep(2)
                input ("trigger")
                ##################################
                self.motor.set_joint_states(['all'], True)
                rospy.loginfo('[Magic] Turn on torque')

                ###############
                self.kinematics.publisher_(self.kinematics.module_control_pub, "manipulation_module", latch=True)
                self.kinematics.publisher_(self.kinematics.module_control_pub, "gripper_module", latch=True)
                self.kinematics.publisher_(self.kinematics.module_control_pub, "head_control_module", latch=True)
                temp_mp3 = mp3()
                temp_mp3.file_name = '201) start game'
                temp_mp3.volume = 10
                self.music.publish(temp_mp3)
                sleep(4)
                self.speech.publish("38) Finished rebooting ")
                # self.kinematics.publisher_(self.kinematics.send_ini_pose_msg_pub, "ini_pose", latch=True)
                # self.end_action() 
                ################################################################################################################################
                if self.last == 'p1':
                    self.p1_up()
                elif self.last == 'p3':
                    self.p3_up()
                self.speech.publish("39) Okay , this one ?")
                sleep(0.5)
                self.speech.publish("40) but i dont think this one is safe ")
                sleep(2)
                
                self.p2_up()
                sleep(0.2)
                self.move_head(self.J_pan,self.J_tilt)
                self.speech.publish("33) Jacky , do you trust me? ")
                sleep(2.5)
                input('press to continue')
                self.music_stop.publish(True)
                temp_mp3 = mp3()
                temp_mp3.file_name = '306) feel sad'
                temp_mp3.volume = 15
                self.music.publish(temp_mp3)
                sleep(7)
                self.text_to_speech("70) why? i only made one mistake ")
                sleep(0.2)
                self.text_to_speech("71) why dont you give me another chance")
                self.speech.publish("50) well ")
                sleep(0.5)
                self.text_to_speech("72) but i dont care !")
                sleep(0.2)
                self.DownAndUp()
                # self.music_stop.publish(True)
                # temp_mp3 = mp3()
                # temp_mp3.file_name = '300) start game'
                # temp_mp3.volume = 15
                # self.music.publish(temp_mp3)
                sleep(0.5)
                self.move_head(0,0)
                self.state = 'third_step'
                # # calculating position
                # self.calibration(ranges)
                # #print("second_finished")
                # self.state = 'third_step'
                # #break
            elif self.state == 'third_step' :
                sleep(0.5)
                self.text_to_speech("34) Yeah, got you! HA HA HA , Don't be that scared")
                sleep(0.5)
                self.text_to_speech("69) I know what I am doing")
                sleep(0.5)
                input('grab the bag')
                self.text_to_speech("35) So, you might be really curious where the actual nail is, right?")
                sleep(0.5)
                
                #input('press to continue')

                if self.last == 'p1':
                    self.p1_up()
                elif self.last == 'p3':
                    self.p3_up()

                self.grab_bag()
                sleep(0.5)
                
                
                input('press to make thormann grip off')
                self.grip_off('l_arm_grip')

                # input('press to continue')
                # self.text_to_speech("")

                input('press to continue')
                self.move_head(0,0)
                self.kinematics.publisher_(self.kinematics.send_ini_pose_msg_pub, "ini_pose", latch=True)
                self.end_action()
                self.grip_on('l_arm_grip')
                self.text_to_speech("37) Thanks for your attention, I am Thormang wolf from ERC lab, see you next time")
                
                        
                print("End Magic")
                self.kinematics.kill_threads()
                break
                

            
            rospy.Rate(60).sleep()
    
    def sensor_callback(self,msg):
        self.sensor_list = np.array(msg.ranges)

    def read_sensor(self):
        
        rospy.Subscriber('/robotis/sensor/scan_filtered', LaserScan, self.sensor_callback)

        while not rospy.is_shutdown():
            if self.sensor_list is not None:
                break
        #     # else:
        #     #     print(self.sensor_list)
            self.rate.sleep()

    def calibration(self,ranges,deg = 60,threshold = 0.78):
        nan = None
        #print(len(ranges))
        calibration = []
        #print(self.deg_30)
        per_deg = (self.deg/len(ranges) )* (math.pi/180)
        #print(per_deg)
        for i in range(len(ranges)):
            if ranges[i] == None :
                pass
            else:
                y = ranges[i] * math.cos(i*per_deg - (self.deg_30 - self.head_pan) ) * math.cos(self.head_tilt) 
                
                if y < threshold :
                    x = -ranges[i] * math.sin( (self.deg_30 - self.head_pan) - i*per_deg) * math.cos(self.head_tilt)
                    calibration.append([round(x,5),round(y,5),i])
        calibration = np.array(calibration)
        #print(len(calibration))
        #print(calibration)
        mean = sum(calibration)/len(calibration)

        valid = []
        for i in range(len(calibration)):
            if calibration[i][1] < mean[1]:
                valid.append(calibration[i])
        valid = np.array(valid)
        #print(valid)
        
        ##K-means n_clusters=3
        estimator = KMeans(n_clusters=3)
        res = estimator.fit_predict(valid[:,0:2])
        #print(res)
        lable_pred = estimator.labels_
        #print (lable_pred)
        entroids = estimator.cluster_centers_
        data = entroids[:]
        data = np.sort(data,axis = 0)
        print (data)

        

        self.point1 = {'x':0.52,'y':data[0,0]+0.02,'z':1.05,'roll':0,'pitch':0,'yaw':-25}
        self.point2 = {'x':0.52,'y':data[1,0]+0.03,'z':1.05,'roll':0,'pitch':0,'yaw':0}
        self.point3 = {'x':0.52,'y':data[2,0]+0.07,'z':1.05,'roll':0,'pitch':0,'yaw':30}
        self.right_point ={'x':0.52,'y': (data[0,0]-0.06),'z':1.00,'roll':0,'pitch':20,'yaw':30}
        if self.right_point["y"] > 0.05:
            self.right_point["y"] = 0 
        print("point1 : y = ",self.point1["y"] )
        print("point2 : y = ",self.point2["y"] )
        print("point3 : y = ",self.point3["y"] )
        print("right_y : ",self.right_point["y"])

        # plt.figure(figsize=(12,6))
        # plt.plot(calibration[:,0],calibration[:,1],'bo')
        # plt.plot(valid[:,0],valid[:,1],'go')
        # plt.plot(data[:,0],data[:,1],'ro')
        # plt.show()
    
    def text_to_speech(self,worlds):
        self.speech.publish(worlds)
        sleep(3.5)

    def move_head(self,pan,tilt):
    
        msg = JointState()
        msg.name = ['head_y','head_p']
        msg.position = [pan ,tilt]
        msg.velocity = [0]
        msg.effort = [0]
        
        msg.header.frame_id = ''
        msg.header.stamp.secs = 0
        msg.header.stamp.nsecs= 0
        for i in range(4):
            msg.header.seq = i
            self.head_postition.publish(msg)
            self.rate.sleep()
        

    def end_action(self):
        sleep(0.5)
        while not self.kinematics.status_msg == 'End Trajectory' :
            sleep(1)
            if self.kinematics.status_msg == 'Finish Init Pose':
                break
        sleep(0.5)
    def right_p1_up(self):
        self.kinematics.set_kinematics_pose(group_name="right_arm",time=3,**self.right_point) #x=0.52,y=0,z=1.1,roll=0,pitch=0,yaw=-40)
        self.end_action()

    def p1_up(self):
        self.kinematics.set_kinematics_pose(group_name="left_arm",time=3,**self.point1) #x=0.52,y=0,z=1.1,roll=0,pitch=0,yaw=-40)
        self.end_action()

    def p2_up(self):
        self.kinematics.set_kinematics_pose(group_name="left_arm",time=3,**self.point2) #x=0.52,y=0.2,z=1.1,roll=0,pitch=0,yaw=0)
        self.end_action()

    def p3_up(self):
        self.kinematics.set_kinematics_pose(group_name="left_arm",time=3,**self.point3) #x=0.52,y=0.4,z=1.1,roll=0,pitch=0,yaw=40)
        self.end_action()

    def grab_bag(self):
        #sleep(2)
        self.grip_off('l_arm_grip')
        self.end_action()
        point = self.kinematics.get_kinematics_pose('left_arm').copy()
        point_down = point.copy()
        point_down["z"] = 0.85
        point["x"] = 0.40
        point["z"] = 1.05
        point_ini = self.left_arm_ini_pos.copy()
        point_ini["z"] = 0.92
        left_side = {'x':0.28,'y': 0.55,'z':0.950,'roll':0,'pitch':0,'yaw':30.0}
        # right_center = {'x':0.36,'y': -0.03,'z':0.820,'roll':0,'pitch':0,'yaw':60.0}
        # right_split = {'x':0.32,'y': -0.16,'z':0.820,'roll':0,'pitch':0,'yaw':60.0}
        # right_up = {'x':0.4,'y': -0.02,'z':0.82,'roll':0,'pitch':0,'yaw':20}
        #print('point_down',point_down)
        #print('point',point)
        self.kinematics.set_kinematics_pose(group_name="left_arm",time=2,**point)
        self.end_action()

        point["z"] = 0.85
        self.kinematics.set_kinematics_pose(group_name="left_arm",time=2,**point)
        self.end_action()

        self.kinematics.set_kinematics_pose(group_name="left_arm",time=2,**point_down)
        self.end_action()
        self.grip_on('l_arm_grip')
        # sleep(0.2)
        self.kinematics.set_kinematics_pose(group_name="left_arm",time=2,**point)
        self.end_action()

        # self.kinematics.set_kinematics_pose(group_name="left_arm",time=3,**point_ini)
        # self.end_action()
        self.move_head(self.J_pan,self.J_tilt)
        self.text_to_speech("36) Jacky , please help me to check what is in the bag.")
        ##grab bag to the center
        self.kinematics.set_kinematics_pose(group_name="left_arm",time=4,**left_side)
        self.end_action()

        ##split

        # self.grip_off("r_arm_grip")
        # self.kinematics.set_kinematics_pose(group_name="right_arm",time=3,**right_center)
        # self.end_action()
        # self.grip_on("r_arm_grip")
        # self.kinematics.set_kinematics_pose(group_name="right_arm",time=3,**right_split)
        # self.end_action()
        # self.grip_half()

        # self.kinematics.set_kinematics_pose(group_name="right_arm",time=3,**right_up)
        # self.end_action()

    def DownAndUp(self):
        #sleep(2)
        point = self.kinematics.get_kinematics_pose('left_arm')
        point_down = point.copy()
        point_down["z"] = 0.82
        #print('point_down',point_down)
        #print('point',point)
        self.kinematics.set_kinematics_pose(group_name="left_arm",time=2,**point_down)
        self.end_action()
        self.kinematics.set_kinematics_pose(group_name="left_arm",time=3,**point)
        self.end_action()

    def finish(self):
        pass
    
    def grip_off(self,group):
        msg = JointState()
        msg.name = [group]
        msg.position = [0]
        msg.velocity = [0]
        msg.effort = [250]
        
        msg.header.frame_id = ''
        msg.header.stamp.secs = 0
        msg.header.stamp.nsecs= 0
        for i in range(4):
            msg.header.seq = i
            self.pub_gripper.publish(msg)
            self.rate.sleep()
            #print(i) 
        self.end_action()

    def grip_half(self,group):
        msg = JointState()
        msg.name = [group]
        msg.position = [0.6]
        msg.velocity = [0]
        msg.effort = [250]
        
        msg.header.frame_id = ''
        msg.header.stamp.secs = 0
        msg.header.stamp.nsecs= 0
        for i in range(4):
            msg.header.seq = i
            self.pub_gripper.publish(msg)
            self.rate.sleep()
            #print(i) 
        self.end_action()


    def grip_on(self,group):
        msg = JointState()
        msg.name = [group]
        msg.position = [1.15]
        msg.velocity = [0]
        msg.effort = [250]
        
        msg.header.frame_id = ''
        msg.header.stamp.secs = 0
        msg.header.stamp.nsecs= 0
        for i in range(4):
            msg.header.seq = i
            self.pub_gripper.publish(msg)
            self.rate.sleep()
            #print(i) 
        self.end_action()