def run(self):
teensy_names = self.teensy_manager.get_teensy_name_list()
if self.teensy_manager.get_num_teensy_thread() == 0:
return
for teensy_name in list(teensy_names):
Teensy_thread = self.teensy_manager.get_teensy_thread(teensy_name)
# check if the thread is still alive
counter = 0
while Teensy_thread is not None:
if counter > 5:
print("Cannot program ", teensy_name)
break
#=== programming command ===
cmd_obj = command_object(teensy_name, 'prgm', msg_setting=1)
cmd_obj.add_param_change('program_teensy', 1)
self.enter_command(cmd_obj)
self.send_commands()
sleep(2)
Teensy_thread = self.teensy_manager.get_teensy_thread(teensy_name)
counter += 1
def run(self):
NUM_FIN = 3
NUM_LIGHT = 3
teensy_names = self.teensy_manager.get_teensy_name_list()
# initially update the Teensys with all the output parameters here
self.update_output_params(teensy_names)
# poll input
loop = 0
num_loop = 10000
while loop < num_loop:
start_time = clock()
if self.teensy_manager.get_num_teensy_thread() == 0:
return
for teensy_name in teensy_names:
# first loop only
if loop == 0:
cmd_obj = command_object(teensy_name)
cmd_obj.add_param_change('operation_mode', 1)
self.enter_command(cmd_obj)
self.update_input_states(teensy_names)
all_input_states = self.get_input_states(teensy_names, ('all', ))
for teensy_name, input_states in all_input_states.items():
sample = input_states[0]
is_new_update = input_states[1]
print("[", teensy_name, "]")
for j in range(NUM_FIN):
device_header = 'fin_%d_' % j
print("Fin %d" % j, end=" ---\t")
ir_percent = tuple(np.array((sample[device_header + 'ir_0_state'],
sample[device_header + 'ir_1_state']))/ADC_RES*100)
print("IR ( %.2f%%, %.2f%% )" % ir_percent, end=" \t")
acc_g = tuple(np.array((sample[device_header + 'acc_x_state'],
sample[device_header + 'acc_y_state'],
sample[device_header + 'acc_z_state']))*ACC_MG_PER_LSB)
print("ACC ( %.2f, %.2f, %.2f ) " % acc_g)
for j in range(NUM_LIGHT):
device_header = 'light_%d_' % j
print("Light %d" % j, end=" ---\t")
als_percent = sample[device_header + 'als_state'] / ADC_RES * 100
print("ALS ( %.2f%% )" % als_percent)
print('')
print("Loop Time:", clock() - start_time)
loop += 1
sleep(0.1)
def run(self):
NUM_FIN = 3
NUM_LIGHT = 3
# save to a text file
now = time.strftime("%y-%m-%d %H-%M-%S", time.localtime())
log_file_name = 'log (%s).txt' % now
if not os.path.exists("qa_log"):
os.makedirs("qa_log")
log_file = open(os.path.join(os.getcwd(), "qa_log", log_file_name), 'w')
# get Teensy names
teensy_names = self.teensy_manager.get_teensy_name_list()
# initially update the Teensys with all the output parameters here
self.update_output_params(teensy_names)
if self.teensy_manager.get_num_teensy_thread() == 0:
return
tester_name = input("\nPlease enter your name: ")
log_file.write("Tester: %s\n" % tester_name)
## Display current date and time from now variable
start_time = time.strftime("%c")
print("Test's start time: %s" % start_time)
log_file.write("Date: %s\n" % start_time)
for teensy_name in teensy_names:
# set to QA mode
cmd_obj = command_object(teensy_name)
cmd_obj.add_param_change('operation_mode', 6)
self.enter_command(cmd_obj)
# ------ configuration ------
# set the Fin on/off periods
cmd_obj = command_object(teensy_name, 'fin_high_level')
for j in range(NUM_FIN):
device_header = 'fin_%d_' % j
cmd_obj.add_param_change(device_header + 'arm_cycle_on_period', 15)
cmd_obj.add_param_change(device_header + 'arm_cycle_off_period', 105)
self.enter_command(cmd_obj)
self.send_commands()
log_file.write("\n====== Test Results =======\n")
# testing each Fin one by one
for teensy_name in teensy_names:
print("\n........ Testing ", teensy_name, '........')
log_file.write("\n------ %s ------" % teensy_name)
for j in range(NUM_FIN):
# turn on Fin arm
cmd_obj = command_object(teensy_name)
cmd_obj.add_param_change('fin_%d_arm_motion_on' % j, 3)
self.enter_command(cmd_obj)
self.send_commands()
# prompt user
print("\nFin %d's arm is activated" % j)
result = input("Enter [y] if passed and [f] if failed\t")
log_file.write("\nFin %d's arm:\t%s" % (j, result))
# turn off Tentalce arm
cmd_obj.add_param_change('fin_%d_arm_motion_on' % j, 0)
self.enter_command(cmd_obj)
self.send_commands()
# turn on reflex actuators
cmd_obj = command_object(teensy_name)
cmd_obj.add_param_change('fin_%d_reflex_0_level' % j, 100)
cmd_obj.add_param_change('fin_%d_reflex_1_level' % j, 100)
self.enter_command(cmd_obj)
self.send_commands()
# prompt user
print("Fin %d's reflex actuators are activated" % j)
result = input("Enter [y] if passed and [f] if failed\t")
log_file.write("\nFin %d's reflex actuators:\t%s" % (j, result))
# turn off reflex actuator
cmd_obj.add_param_change('fin_%d_reflex_0_level' % j, 0)
cmd_obj.add_param_change('fin_%d_reflex_1_level' % j, 0)
self.enter_command(cmd_obj)
self.send_commands()
# +++testing the IR sensors++++
result = 's'
while result is 's':
self.update_input_states((teensy_name,))
# specify the desired measurements
input_type = ('fin_%d_ir_0_state'%j, 'fin_%d_ir_1_state'%j)
# retrieve the desired measurements
input_states = self.get_input_states((teensy_name,), input_types=input_type, timeout=1)
sample, is_new_update = input_states[teensy_name]
device_header = 'fin_%d_' % j
print("Sampled Fin %d's IR sensors" % j, end=":\t")
ir_percent = tuple(np.array((sample[device_header + 'ir_0_state'],
sample[device_header + 'ir_1_state'])) / ADC_RES * 100)
print("( %.2f%%, %.2f%% )" % ir_percent, end="\n")
result = input("Enter [y] if passed or [f] if failed; [s] to re-sample\t")
log_file.write("\nFin %d's IR Sensors (%.2f%%, %.2f%%):\t%s" % ((j,) + ir_percent + (result,)))
# +++testing the Accelerometers++++
result = 's'
while result is 's':
self.update_input_states((teensy_name,))
# specify the desired measurements
input_type = ('fin_%d_acc_x_state' % j, 'fin_%d_acc_y_state' % j,
'fin_%d_acc_z_state' % j)
# retrieve the desired measurements
input_states = self.get_input_states((teensy_name,), input_types=input_type, timeout=1)
sample, is_new_update = input_states[teensy_name]
device_header = 'fin_%d_' % j
print("Sampled Fin %d's Accelerometers" % j, end=":\t")
acc_g = tuple(np.array((sample[device_header + 'acc_x_state'],
sample[device_header + 'acc_y_state'],
sample[device_header + 'acc_z_state'])) * ACC_MG_PER_LSB)
print("( %.2f, %.2f, %.2f ) " % acc_g)
result = input("Enter [y] if passed or [f] if failed; [s] to re-sample\t")
log_file.write("\nFin %d's Accelerometers (%.2f, %.2f, %.2f):\t%s" % ((j,) +acc_g + (result,)))
cmd_obj = command_object(teensy_name)
for j in range(NUM_LIGHT):
# turn on light
cmd_obj.add_param_change('light_%d_led_level' % j, 100)
self.enter_command(cmd_obj)
self.send_commands()
print("\nLight %d's LED is activated" % j)
result = input("Enter [y] if passed or [f] if failed\t")
log_file.write("\nLight %d's LED:\t%s" % (j, result))
# turn off light
cmd_obj.add_param_change('light_%d_led_level' % j, 0)
self.enter_command(cmd_obj)
self.send_commands()
# +++testing the Ambient light sensors++++
result = 's'
while result is 's':
self.update_input_states((teensy_name,))
# specify the desired measurements
input_type = ('light_%d_als_state' % j,)
# retrieve the desired measurements
input_states = self.get_input_states((teensy_name,), input_types=input_type, timeout=1)
sample, is_new_update = input_states[teensy_name]
device_header = 'light_%d_' % j
print("Sampled Light %d's ambient light sensors" % j, end=":\t")
als_percent = sample[device_header + 'als_state'] / ADC_RES * 100
print("ALS ( %.2f%% )" % als_percent)
result = input("Enter [y] if passed or [f] if failed; [s] to re-sample\t")
log_file.write("\nLight %d's Ambient Light Sensors (%.2f%%):\t%s" % ((j,) + (als_percent,) + (result,)))
# terminate all threads
# Display current date and time from now variable
end_time = time.strftime("%c")
print("\nTest Completed at %s \n\n" % end_time)
log_file.write("\nTest Completed at %s \n\n" % end_time)
for teensy_name in list(teensy_names):
self.teensy_manager.kill_teensy_thread(teensy_name)
log_file.close()
def run(self):
NUM_FIN = 3
NUM_LIGHT = 3
teensy_names = self.teensy_manager.get_teensy_name_list()
self.update_input_states(teensy_names)
self.update_output_params(teensy_names)
loop = 0
num_loop = 10000
while loop < num_loop:
if self.teensy_manager.get_num_teensy_thread() == 0:
return
self.update_input_states(teensy_names)
all_input_states = self.get_input_states(teensy_names, ('all', ))
teensy_names_list = list(teensy_names)
for teensy_name in teensy_names_list:
# first loop only
if loop == 0:
cmd_obj = command_object(teensy_name)
cmd_obj.add_param_change('operation_mode', 4)
self.enter_command(cmd_obj)
input_states = all_input_states[teensy_name]
sample = input_states[0]
is_new_update = input_states[1]
print("[", teensy_name, "]")
next_teensy = teensy_names_list[(teensy_names_list.index(teensy_name)+1)%len(teensy_names)]
print("Controlling --- [", next_teensy, "]")
# === fin high-level commands"
cmd_obj = command_object(next_teensy)
for j in range(NUM_FIN):
device_header = 'fin_%d_' % j
if (sample[device_header + 'ir_0_state']) > 1200:
cmd_obj.add_param_change('fin_%d_arm_motion_on' %j, 3)
cmd_obj.add_param_change('fin_%d_reflex_0_level' % j, 100)
cmd_obj.add_param_change('fin_%d_reflex_1_level' % j, 100)
else:
cmd_obj.add_param_change('fin_%d_arm_motion_on' %j, 0)
cmd_obj.add_param_change('fin_%d_reflex_0_level' % j, 0)
cmd_obj.add_param_change('fin_%d_reflex_1_level' % j, 0)
print("Fin %d" % j, end=" ---\t")
print("IR (", sample[device_header + 'ir_0_state'], ", ", sample[device_header + 'ir_1_state'], ")",
end=" \n")
self.enter_command(cmd_obj)
self.send_commands()
def run(self):
NUM_FIN = 3
NUM_LIGHT = 3
teensy_names = self.teensy_manager.get_teensy_name_list()
# initially update the Teensys with all the output parameters here
self.update_output_params(teensy_names)
indicator_led_period = dict()
indicator_led_on = dict()
for teensy_name in teensy_names:
indicator_led_period[teensy_name] = 0
indicator_led_on[teensy_name] = 1
loop = 0
num_loop = 1000
while loop < num_loop:
start_time = clock()
if self.teensy_manager.get_num_teensy_thread() == 0:
return
for teensy_name in list(teensy_names):
# first loop only
if loop == 0:
cmd_obj = command_object(teensy_name, msg_setting=1)
cmd_obj.add_param_change('operation_mode', 1)
self.enter_command(cmd_obj)
Teensy_thread = self.teensy_manager.get_teensy_thread(teensy_name)
# check if the thread is still alive
if Teensy_thread is not None:
#=== basic commands"
cmd_obj = command_object(teensy_name, msg_setting=1)
#
# cmd_obj.add_param_change('indicator_led_on', indicator_led_on[teensy_name])
# cmd_obj.add_param_change('indicator_led_period', int(indicator_led_period[teensy_name])*50)
cmd_obj.add_param_change('reply_type_request', 0)
for j in range(NUM_FIN):
#=== fin low-level commands"
cmd_obj.add_param_change('fin_%d_reflex_0_level' % j, int((loop*6)%128))
cmd_obj.add_param_change('fin_%d_reflex_1_level' % j, int((loop*6)%128))
# === fin high-level commands"
cmd_obj.add_param_change('fin_%d_arm_motion_on' % j, 3)#int(loop % 4))
#=== light command====
for j in range(NUM_LIGHT):
cmd_obj.add_param_change('light_%d_led_level' % j, int((loop*30)%128))
self.enter_command(cmd_obj)
#=== change wave command====
cmd_obj = command_object(teensy_name, msg_setting=0)
wave = ""
cmd_obj.add_param_change('wave_type', 1)
pt = 0
for i in range(32):
pt += int(255/32)
wave += (str(pt) + '_')
cmd_obj.add_param_change('new_wave', wave)
self.enter_command(cmd_obj)
self.send_commands()
all_input_states = self.get_input_states(teensy_names, ('all', ))
for teensy_name, input_states in all_input_states.items():
sample = input_states[0]
is_new_update = input_states[1]
print("[", teensy_name, "]")
for j in range(NUM_FIN):
device_header = 'fin_%d_' % j
print("Fin %d" % j, end=" ---\t")
ir_percent = tuple(np.array((sample[device_header + 'ir_0_state'],
sample[device_header + 'ir_1_state'])) / ADC_RES * 100)
print("IR ( %.2f%%, %.2f%% )" % ir_percent, end=" \t")
acc_g = tuple(np.array((sample[device_header + 'acc_x_state'],
sample[device_header + 'acc_y_state'],
sample[device_header + 'acc_z_state'])) * ACC_MG_PER_LSB)
print("ACC ( %.2f, %.2f, %.2f ) " % acc_g)
for j in range(NUM_LIGHT):
device_header = 'light_%d_' % j
print("Light %d" % j, end=" ---\t")
als_percent = sample[device_header + 'als_state'] / ADC_RES * 100
print("ALS ( %.2f%% )" % als_percent)
print('')
# new blink period
indicator_led_period[teensy_name] += 0.004
indicator_led_period[teensy_name] %= 10
print("Loop Time:", clock() - start_time)
loop += 1
sleep(0.1)
def run(self):
NUM_FIN = 3
NUM_LIGHT = 3
teensy_names = self.teensy_manager.get_teensy_name_list()
self.update_input_states(teensy_names)
self.update_output_params(teensy_names)
loop = 0
num_loop = 10000
fin_action = [0] * NUM_FIN
fin_time = [0] * NUM_FIN
light_brightness = [0] * NUM_LIGHT
light_time = [0] * NUM_LIGHT
state_history = dict()
t0 = clock()
t_pre_output = 0
while loop < num_loop:
if self.teensy_manager.get_num_teensy_thread() == 0:
return
#t_update = clock()
self.update_input_states(teensy_names)
#print("t update", clock()-t_update)
all_input_states = self.get_input_states(teensy_names, ('all', ), timeout=2)
for teensy_name in list(teensy_names):
# first loop only
if loop == 0:
cmd_obj = command_object(teensy_name, msg_setting=1)
cmd_obj.add_param_change('operation_mode', 2)
self.enter_command(cmd_obj)
# ------ configuration ------
# set the Fin on/off periods
cmd_obj = command_object(teensy_name, 'fin_high_level')
for j in range(NUM_FIN):
device_header = 'fin_%d_' % j
cmd_obj.add_param_change(device_header + 'arm_cycle_on_period', 15)
cmd_obj.add_param_change(device_header + 'arm_cycle_off_period', 105)
self.enter_command(cmd_obj)
self.send_commands()
input_states = all_input_states[teensy_name]
sample = input_states[0]
is_new_update = input_states[1]
print("[", teensy_name, "]")
print('t = %f' % clock())
print('delta t = %f'%(clock()-t0))
# === fin high-level commands"
cmd_obj = command_object(teensy_name, msg_setting=1)
for j in range(NUM_FIN):
t = clock()
device_header = 'fin_%d_' % j
# cycling the fin
#if sample[device_header + 'cycling'] == :
cmd_obj.add_param_change('fin_%d_arm_motion_on' % j, fin_action[j]%4)
# reflex sensor trigger LED and vibration motor
if (sample[device_header + 'ir_0_state']) > 1400:
cmd_obj.add_param_change('fin_%d_reflex_0_level' % j, 100)
cmd_obj.add_param_change('fin_%d_reflex_1_level' % j, 100)
else:
cmd_obj.add_param_change('fin_%d_reflex_0_level' % j, 0)
cmd_obj.add_param_change('fin_%d_reflex_1_level' % j, 0)
# output the reading
print("Fin %d" % j, end=" ---\t")
print("Action (", fin_action[j] % 4, ")", end=" \n")
print("Cycling (", sample[device_header + 'cycling'], ")", end=" \t")
ir_percent = tuple(np.array((sample[device_header + 'ir_0_state'],
sample[device_header + 'ir_1_state'])) / ADC_RES * 100)
print("IR ( %.2f%%, %.2f%% )" % ir_percent, end=" \t")
acc_g = tuple(np.array((sample[device_header + 'acc_x_state'],
sample[device_header + 'acc_y_state'],
sample[device_header + 'acc_z_state'])) * ACC_MG_PER_LSB)
print("ACC ( %.2f, %.2f, %.2f ) " % acc_g)
state = [t, fin_action[j]%4, sample[device_header + 'cycling'],
sample[device_header + 'ir_0_state'], sample[device_header + 'ir_1_state'],
sample[device_header + 'acc_x_state'], sample[device_header + 'acc_y_state'], sample[device_header + 'acc_z_state']]
try:
state_history[teensy_name + '_fin_' + str(j)].append(copy(state))
except KeyError:
state_history[teensy_name + '_fin_' + str(j)] = []
state_history[teensy_name + '_fin_' + str(j)].append(copy(state))
if t - fin_time[j] > 60:
fin_action[j] += 1
fin_time[j] = t
self.enter_command(cmd_obj)
# ==== light low-level command
cmd_obj = command_object(teensy_name, msg_setting=1)
for j in range(NUM_LIGHT):
t = clock()
device_header = 'light_%d_' % j
# cycling the light
cmd_obj.add_param_change(device_header + 'led_level', light_brightness[j] % 256)
print("Light %d" % j, end=" ---\t")
print("Brightness (%d)" % (light_brightness[j]%256))
als_state = sample[device_header + 'als_state'] #/ ADC_RES * 100
print("ALS ( %d )" % als_state)
state = [t, light_brightness[j]%256 , sample[device_header + 'als_state']]
try:
state_history[teensy_name + '_light_' + str(j)].append(copy(state))
except KeyError:
state_history[teensy_name + '_light_' + str(j)] = []
state_history[teensy_name + '_light_' + str(j)].append(copy(state))
if True:#t - light_time[j] > 1.0:
light_brightness[j] = random.randint(0, 255)
#light_brightness[j] += 1
light_time[j] = t
self.enter_command(cmd_obj)
print('')
#t_cmd = clock()
self.send_commands()
#print("t cmd", clock() - t_cmd)
# output to files
if t0 - t_pre_output > 3:
t_pre_output = clock()
for device, states in state_history.items():
curr_dir = os.getcwd()
if not os.path.exists('pickle_jar'):
os.makedirs('pickle_jar')
os.chdir(os.path.join(curr_dir, 'pickle_jar'))
with open(str(device) + '_state_history.pkl', 'wb') as output:
pickle.dump(states, output, protocol=3)
os.chdir(curr_dir)
t0 = clock()