################################################################################
# Copyright © 2019 TRINAMIC Motion Control GmbH & Co. KG
# (now owned by Analog Devices Inc.),
#
# Copyright © 2023 Analog Devices Inc. All Rights Reserved.
# This software is proprietary to Analog Devices, Inc. and its licensors.
################################################################################

import pytrinamic
from pytrinamic.connections import ConnectionManager
from pytrinamic.modules import TMCM1378
import time

pytrinamic.show_info()

# This example is using PCAN, if you want to use another connection please change the next line.
connection_manager = ConnectionManager("--interface pcan_tmcl")
my_interface = connection_manager.connect()
module = TMCM1378(my_interface)
motor = module.motors[0]

# preparing drive settings
motor.drive_settings.max_current = 50
motor.drive_settings.standby_current = 0
motor.drive_settings.boost_current = 0
motor.drive_settings.microstep_resolution = motor.ENUM.MicrostepResolution256Microsteps
print(motor.drive_settings)

# preparing linear ramp settings
motor.linear_ramp.max_velocity = 20000
motor.linear_ramp.max_acceleration = 40000
print(motor.linear_ramp)

time.sleep(1.0)

# set move_by relative to the actual position
motor.set_axis_parameter(motor.AP.RelativePositioningOption, 1)

# clear position counter
motor.actual_position = 0

# start rotating motor for 5 sek
print("Rotating...")
motor.rotate(20000)
time.sleep(5)

# stop rotating motor
print("Stopping...")
motor.stop()

# read actual position
print("ActualPosition = {}".format(motor.actual_position))
time.sleep(2)

print("Doubling moved distance.")
motor.move_by(motor.actual_position, 10000)

# wait till position_reached
while not motor.get_position_reached():
    print("target position: " + str(motor.target_position) + " actual position: " + str(motor.actual_position))
    time.sleep(0.2)

print("Furthest point reached.")
print("ActualPosition = {}".format(motor.actual_position))

# short delay and move back to start
time.sleep(3)
print("Moving back to 0...")
motor.move_to(0, 20000)

# wait until position 0 is reached
while not motor.get_position_reached():
    print("target position: " + str(motor.target_position) + " actual position: " + str(motor.actual_position))
    time.sleep(0.2)

print("Reached position 0.")

print("\nReady.")
