screen_height = self.parent.winfo_screenheight()
splash_canvas = tk.Canvas(self.parent,
width=screen_width,
height=screen_height)
splash_canvas.pack()
self.tkimage = ImageTk.PhotoImage(self.image1)
splash_canvas.create_image(0, 0, image=self.tkimage, anchor="nw")
splash_canvas.create_text(200,
34,
text="[LOADING]...PLEASE WAIT",
font=("small fonts", 20),
fill="white")
progressbar = ttk.Progressbar(orient=tk.HORIZONTAL,
length=900,
mode='determinate',
style="Horizontal.TProgressbar")
progressbar.place(x=450, y=25)
progressbar.start()
if self.nxt_func != None:
self.parent.after(5050, self.proceed)
if __name__ == '__main__':
root = ThemedTk("black")
root["bg"] = "gray21"
style = ttk.Style()
style.configure("Horizontal.TProgressbar", foreground='gray21')
app = SplashScreen(root, None)
app.display()
root.after(5050, root.destroy)
root.mainloop()
class Toplevel1(object):
def __init__(self):
'''This class configures and populates the toplevel window.
top is the toplevel containing window.'''
self.root = ThemedTk(theme="arc")
self.style = ttk.Style()
# self.root = tk.Tk()
self.root.geometry("1200x661+284+114")
# self.root.minsize(120, 1)
# self.root.maxsize(1924, 1061)
self.root.resizable(1, 1)
self.root.title("New Toplevel")
self.img = Image.open(r"G:\MoveOn\Gispot\GUIs\Icons\folder1.png")
self.image_1 = ImageTk.PhotoImage(self.img)
# top.configure(background="#d9d9d9")
#
# self.menubar = tk.Menu(top,font="TkMenuFont",bg=_bgcolor,fg=_fgcolor)
# top.configure(menu = self.menubar)
# self.style.configure('TNotebook.Tab', background=_bgcolor)
# self.style.configure('TNotebook.Tab', foreground=_fgcolor)
# self.style.map('TNotebook.Tab', background=
# [('selected', _compcolor), ('active',_ana2color)])
self.TNotebook1 = ttk.Notebook(self.root)
self.TNotebook1.place(relx=0.0, rely=0.0, relheight=1.0,
relwidth=1.0)
self.TNotebook1.configure(takefocus="")
self.TNotebook1_t1 = tk.Frame(self.TNotebook1)
self.TNotebook1.add(self.TNotebook1_t1, padding=3)
self.TNotebook1.tab(0, text="Page 1", compound="left",
image = self.image_1)
self.TNotebook1_t2 = tk.Frame(self.TNotebook1)
self.TNotebook1.add(self.TNotebook1_t2, padding=3)
self.TNotebook1.tab(1, text="Page 2", compound="left",
underline="-1", )
self.f = tk.Frame(self.TNotebook1_t1, width=20, height=100
)
self.f.place(x=0, y=0)
self.set_button()
# self.f2 = tk.Frame(self.TNotebook1_t1, width=20, height=100, bg="blue")
# self.f2.place(x=0, y=600,anchor="nw")
# self.set_label()
def set_button(self):
button = ttk.Button(self.TNotebook1_t1,text = "bt",command = self.set_button_command)
# lambda 形式也可以
# button = ttk.Button(self.TNotebook1_t1,text = "bt",command = lambda:(self.root.after(2000, self.add_label)))
button.pack()
def add_label(self):
lb = ttk.Button(self.f, text=1)
lb.pack()
# 加入该行可以循环添加
self.set_button_command()
def set_button_command(self):
self.root.after(100, self.add_label)
)
autostart_box.grid(column=0, row=1)
chars = get_characters()
if selected_char.get() == "":
selected_char.set(chars[0])
set_conf()
character_dropdown = OptionMenu(frame,
selected_char,
selected_char.get(),
*chars,
command=set_conf)
character_dropdown.grid(column=1, row=0)
status_message = Message(frame, width=300)
status_message.grid(column=0, columnspan=2, row=2)
credit_button = Button(
frame,
text="Github Page",
command=lambda: webbrowser.open(
"https://github.com/ToasterUwU/EVE-Discord-Presence"),
)
credit_button.grid(column=0, columnspan=2, row=3)
frame.place(relx=0.5, rely=0.5, anchor="c")
tk.after(0, loop)
tk.mainloop()
class SSN_Server_UI():
def __init__(self,
window_theme="aquativo",
window_title="Hello World!",
window_geometry="400x400+100+100"):
self.root_window = ThemedTk()
self.root_window.set_theme(theme_name=window_theme)
self.root_window.title(window_title)
self.root_window.geometry(window_geometry)
self.window_width = self.root_window.winfo_screenwidth()
self.window_height = self.root_window.winfo_screenheight()
# essential communicators
self.udp_comm = None
self.mqtt_comm = None
self.serial_comm = None
self.use_udp = False
self.use_mqtt = False
self.csv_data_recording = None
############# if we have more than one node
self.NodeCountInGUI = 0
self.message_type_text = list()
self.node_select_radio_button = SSN_Radio_Button_Common_Option_Widget(
self.root_window)
self.nodeid_text = list()
self.temperature_text = list()
self.humidity_text = list()
self.nodeuptime_text = list()
self.abnormalactivity_text = list()
######## Machine Incoming data to be displayed
self.machine_loadcurrents, self.machine_percentageloads, self.machine_status = [
[] for _ in range(4)
], [[] for _ in range(4)], [[] for _ in range(4)]
self.machine_timeinstate, self.machine_sincewheninstate = [
[] for _ in range(4)
], [[] for _ in range(4)]
self.no_connection = 0
pass
def start(self):
self.root_window.mainloop()
# threading.Thread.__init__(self)
# self.start()
def setup_input_interface(self, current_sensor_ratings,
mac_addresses_filename, default_configs):
# enter the SSN new MAC
full_mac_list = get_MAC_addresses_from_file(mac_addresses_filename)
self.ssn_mac_dropdown = SSN_DropDown_Widget(
window=self.root_window,
label_text="SSN MAC",
label_pos=(0, vertical_spacing * 0 + 2),
dropdown_list=full_mac_list,
dropdown_pos=(horizontal_spacing - 10, vertical_spacing * 0 + 2),
dropdown_block_width=17)
######## Machine Config Inputs
self.machine_ratings, self.machine_maxloads, self.machine_thresholds = list(
), list(), list()
for i in range(4):
# generate machine label
rating_label_text = "M{} Sensor Rating (A)".format(i + 1)
maxload_label_text = "M{} Max Load (A)".format(i + 1)
thres_label_text = "M{} Threshold (A)".format(i + 1)
# enter machine sensor rating
rating_dropdown = SSN_DropDown_Widget(
window=self.root_window,
label_text=rating_label_text,
label_pos=(horizontal_spacing * 2 * i,
vertical_spacing * 1 + 5),
dropdown_list=current_sensor_ratings,
dropdown_pos=(horizontal_spacing * (2 * i + 1),
vertical_spacing * 1 + 5),
dropdown_block_width=12,
default_selected_item=default_configs[0 + 3 * i])
# enter machine max load
maxload_text_entry = SSN_Text_Entry_Widget(
window=self.root_window,
label_text=maxload_label_text,
label_pos=(horizontal_spacing * 2 * i,
vertical_spacing * 2 + 5),
text_entry_width=15,
text_pos=(horizontal_spacing * (2 * i + 1),
vertical_spacing * 2 + 5),
default_value=default_configs[1 + 3 * i])
# enter machine threshold current
thresh_text_entry = SSN_Text_Entry_Widget(
window=self.root_window,
label_text=thres_label_text,
label_pos=(horizontal_spacing * 2 * i,
vertical_spacing * 3 + 5),
text_entry_width=15,
text_pos=(horizontal_spacing * (2 * i + 1),
vertical_spacing * 3 + 5),
default_value=default_configs[2 + 3 * i])
self.machine_ratings.append(rating_dropdown)
self.machine_maxloads.append(maxload_text_entry)
self.machine_thresholds.append(thresh_text_entry)
pass
# reporting interval text input
self.reportinterval_text_entry = SSN_Text_Entry_Widget(
window=self.root_window,
label_text="Report Interval (sec)",
label_pos=(horizontal_spacing * 2, vertical_spacing * 4 + 5),
text_entry_width=15,
text_pos=(horizontal_spacing * (2 + 1), vertical_spacing * 4 + 5),
default_value=default_configs[12])
pass
def clear_status_panel(self):
# clear node status
for this_node in range(self.NodeCountInGUI):
self.message_type_text[this_node].clear()
self.nodeid_text[this_node].clear()
# clear existing texts for node specific information
self.temperature_text[this_node].clear()
self.humidity_text[this_node].clear()
self.nodeuptime_text[this_node].clear()
self.abnormalactivity_text[this_node].clear()
# clear existing texts for machine specific information
for i in range(4):
self.machine_loadcurrents[this_node][i].clear()
self.machine_percentageloads[this_node][i].clear()
self.machine_status[this_node][i].clear()
self.machine_timeinstate[this_node][i].clear()
self.machine_sincewheninstate[this_node][i].clear()
pass
pass
pass
def send_mac_btn_clicked(self):
# clear node status panel
self.clear_status_panel()
if self.use_udp:
# construct and send set_mac message
try:
self.udp_comm.send_set_mac_message(
node_index=self.node_select_radio_button.getSelectedNode()
- 1,
mac_address=self.ssn_mac_dropdown.get())
print('\033[34m' + "Sent MAC to SSN-{}".format(
self.node_select_radio_button.getSelectedNode()))
except IndexError:
print(
'\033[31m' +
"SSN Network Node Count: {}. Can't Send to SSN Indexed: {}"
.format(
self.udp_comm.getNodeCountinNetwork(),
self.node_select_radio_button.getSelectedNode() - 1))
pass
elif self.use_mqtt:
# construct and send set_mac message
try:
self.mqtt_comm.send_set_mac_message(
mac_address=self.ssn_mac_dropdown.get())
print('\033[34m' + "Sent MAC to SSN-{}".format(
self.node_select_radio_button.getSelectedNode()))
except error:
print('\033[31m' + f"{error}")
pass
pass
pass
def send_config_btn_clicked(self):
# clear node status panel
self.clear_status_panel()
# get the configs from the GUI
self.configs = list()
for i in range(4):
this_sensor_rating = self.machine_ratings[i].get()
this_sensor_rating = int(
this_sensor_rating) if this_sensor_rating != 'NONE' else 0
self.configs.append(this_sensor_rating)
self.configs.append(
int(10 * float(self.machine_thresholds[i].get())))
self.configs.append(int(self.machine_maxloads[i].get()))
pass
self.configs.append(int(self.reportinterval_text_entry.get()))
if self.use_udp:
try:
self.udp_comm.send_set_config_message(
node_index=self.node_select_radio_button.getSelectedNode()
- 1,
config=self.configs)
print('\033[34m' + "Sent CONFIG to SSN-{}".format(
self.node_select_radio_button.getSelectedNode()))
except IndexError:
print(
'\033[31m' +
"SSN Network Node Count: {}. Can't Send to SSN Indexed: {}"
.format(
self.udp_comm.getNodeCountinNetwork(),
self.node_select_radio_button.getSelectedNode() - 1))
# change button color
# self.config_button.config(bg='white')
elif self.use_mqtt:
# construct and send set_mac message
try:
self.mqtt_comm.send_set_config_message(config=self.configs)
print('\033[34m' + "Sent CONFIG to SSN-{}".format(
self.node_select_radio_button.getSelectedNode()))
except error:
print('\033[31m' + f"{error}")
pass
pass
pass
def send_timeofday_btn_clicked(self):
if self.use_udp:
try:
# self.udp_comm.send_set_timeofday_message(node_index=self.node_select_radio_button.getSelectedNode() - 1, current_time=self.server_time_now)
self.udp_comm.send_set_timeofday_Tick_message(
node_index=self.node_select_radio_button.getSelectedNode()
- 1,
current_tick=utils.get_bytes_from_int(
self.servertimeofday_Tick))
print('\033[34m' + "Sent Time of Day to SSN-{}".format(
self.node_select_radio_button.getSelectedNode()))
except IndexError:
print(
'\033[31m' +
"SSN Network Node Count: {}. Can't Send to SSN Indexed: {}"
.format(
self.udp_comm.getNodeCountinNetwork(),
self.node_select_radio_button.getSelectedNode() - 1))
elif self.use_mqtt:
# construct and send set_mac message
try:
self.mqtt_comm.send_set_timeofday_Tick_message(
current_tick=utils.get_bytes_from_int(
self.servertimeofday_Tick))
print('\033[34m' + "Sent Time of Day to SSN-{}".format(
self.node_select_radio_button.getSelectedNode()))
except error:
print('\033[31m' + f"{error}")
pass
pass
pass
def debug_reset_eeprom_btn_clicked(self):
# clear node status panel
self.clear_status_panel()
if self.use_udp:
# send message and clear the status texts
try:
self.udp_comm.send_debug_reset_eeprom_message(
node_index=self.node_select_radio_button.getSelectedNode()
- 1)
print('\033[34m' + "Sent CLEAR EEPROM to SSN-{}".format(
self.node_select_radio_button.getSelectedNode()))
except IndexError:
print(
'\033[31m' +
"SSN Network Node Count: {}. Can't Send to SSN Indexed: {}"
.format(
self.udp_comm.getNodeCountinNetwork(),
self.node_select_radio_button.getSelectedNode() - 1))
elif self.use_mqtt:
# construct and send set_mac message
try:
self.mqtt_comm.send_debug_reset_eeprom_message()
print('\033[34m' + "Sent CLEAR EEPROM to SSN-{}".format(
self.node_select_radio_button.getSelectedNode()))
except error:
print('\033[31m' + f"{error}")
pass
pass
pass
def debug_reset_ssn_btn_clicked(self):
# clear node status panel
self.clear_status_panel()
if self.use_udp:
# send message and clear statuss
try:
self.udp_comm.send_debug_reset_ssn_message(
node_index=self.node_select_radio_button.getSelectedNode()
- 1)
print('\033[34m' + "Sent RESET to SSN-{}".format(
self.node_select_radio_button.getSelectedNode()))
except IndexError:
print(
'\033[31m' +
"SSN Network Node Count: {}. Can't Send to SSN Indexed: {}"
.format(
self.udp_comm.getNodeCountinNetwork(),
self.node_select_radio_button.getSelectedNode() - 1))
elif self.use_mqtt:
# construct and send set_mac message
try:
self.mqtt_comm.send_debug_reset_ssn_message()
print('\033[34m' + "Sent RESET to SSN-{}".format(
self.node_select_radio_button.getSelectedNode()))
except error:
print('\033[31m' + f"{error}")
pass
pass
pass
def setup_buttons(self):
# update mac button
self.mac_button = SSN_Button_Widget(
window=self.root_window,
button_text="Send MAC Address",
button_command=self.send_mac_btn_clicked,
button_pos=(2 * horizontal_spacing, vertical_spacing * 0 + 0))
# send sensor configuration button
self.config_button = SSN_Button_Widget(
window=self.root_window,
button_text="Send Configuration",
button_command=self.send_config_btn_clicked,
button_pos=(horizontal_spacing * 4, vertical_spacing * 4 + 5))
# send time of day button; we will also give a display of current time of day with this
self.servertimeofday_text = SSN_Text_Display_Widget(
window=self.root_window,
label_text="Server Time of Day",
label_pos=(3 * horizontal_spacing + 52, vertical_spacing * 7),
text_size=(150, vertical_spacing),
text_pos=(3 * horizontal_spacing + 30, vertical_spacing * 8))
self.servertimeofday_button = SSN_Button_Widget(
window=self.root_window,
button_text="Send Time of Day",
button_command=self.send_timeofday_btn_clicked,
button_pos=(3 * horizontal_spacing + 54, vertical_spacing * 9 + 5))
self.debug_reset_eeprom_button = SSN_Button_Widget(
window=self.root_window,
button_text="(DEBUG) CLEAR EEPROM",
button_command=self.debug_reset_eeprom_btn_clicked,
button_pos=(5 * horizontal_spacing + 50,
vertical_spacing * 8 - 10))
self.debug_reset_ssn_button = SSN_Button_Widget(
window=self.root_window,
button_text="(DEBUG) RESET SSN",
button_command=self.debug_reset_ssn_btn_clicked,
button_pos=(5 * horizontal_spacing + 64, vertical_spacing * 9 + 5))
self.clear_status_panel_button = SSN_Button_Widget(
window=self.root_window,
button_text="Clear Status Panel",
button_command=self.clear_status_panel,
button_pos=(5 * horizontal_spacing + 69,
vertical_spacing * 10 + 22))
pass
def GUI_Block(self):
return (self.NodeCountInGUI - 1) * vertical_spacing * 14 + 40
def setup_incoming_data_interface(self, NumOfNodes):
for k in range(NumOfNodes):
self.NodeCountInGUI += 1
# received message/status to be displayed
self.message_type_text.append(
SSN_Text_Display_Widget(
window=self.root_window,
label_text="Incoming Message Type",
label_pos=(0, self.GUI_Block() + vertical_spacing * 6),
text_size=(110, vertical_spacing),
text_pos=(horizontal_spacing + 20,
self.GUI_Block() + vertical_spacing * 6)))
# add a radio-button to chose this one when we have to send the message
self.node_select_radio_button.add_radio(
radio_text="SSN-{}".format(self.NodeCountInGUI),
radio_value=self.NodeCountInGUI,
radio_pos=(2 * horizontal_spacing + 20,
self.GUI_Block() + vertical_spacing * 6))
# SSN Node ID to be displayed
self.nodeid_text.append(
SSN_Text_Display_Widget(
window=self.root_window,
label_text="Node ID",
label_pos=(0, self.GUI_Block() + vertical_spacing * 7),
text_size=(110, vertical_spacing),
text_pos=(horizontal_spacing + 20,
self.GUI_Block() + vertical_spacing * 7)))
# temperature to be displayed
self.temperature_text.append(
SSN_Text_Display_Widget(
window=self.root_window,
label_text="Temperature ({}C)".format(chr(176)),
label_pos=(0, self.GUI_Block() + vertical_spacing * 8),
text_size=(110, vertical_spacing),
text_pos=(horizontal_spacing + 20,
self.GUI_Block() + vertical_spacing * 8)))
# humidity to be displayed
self.humidity_text.append(
SSN_Text_Display_Widget(
window=self.root_window,
label_text="Relative Humidity (%)",
label_pos=(0, self.GUI_Block() + vertical_spacing * 9),
text_size=(110, vertical_spacing),
text_pos=(horizontal_spacing + 20,
self.GUI_Block() + vertical_spacing * 9)))
# node uptime to be displayed
self.nodeuptime_text.append(
SSN_Text_Display_Widget(
window=self.root_window,
label_text="Node Up Time in (sec)",
label_pos=(0, self.GUI_Block() + vertical_spacing * 10),
text_size=(110, vertical_spacing),
text_pos=(horizontal_spacing + 20,
self.GUI_Block() + vertical_spacing * 10)))
# abnormal activity to be displayed
self.abnormalactivity_text.append(
SSN_Text_Display_Widget(
window=self.root_window,
label_text="Abnormal Activity",
label_pos=(0, self.GUI_Block() + vertical_spacing * 11),
text_size=(110, vertical_spacing),
text_pos=(horizontal_spacing + 20,
self.GUI_Block() + vertical_spacing * 11),
color='green'))
for i in range(4):
# generate machine labels
loadcurrent_label_text = "M{} Load Current (A)".format(i + 1)
percentload_label_text = "M{} Percentage Load (%)".format(i +
1)
state_label_text = "M{} State (OFF/IDLE/ON)".format(i + 1)
duration_label_text = "M{} Time In State (sec)".format(i + 1)
timestamp_label_text = "M{} State Time Stamp".format(i + 1)
# machine load current
loadcurrent_text = SSN_Text_Display_Widget(
window=self.root_window,
label_text=loadcurrent_label_text,
label_pos=(horizontal_spacing * 2 * i,
self.GUI_Block() + vertical_spacing * 12 + 20),
text_size=(80, vertical_spacing),
text_pos=((2 * i + 1) * horizontal_spacing + 20,
self.GUI_Block() + vertical_spacing * 12 + 20))
percentload_text_entry = SSN_Text_Display_Widget(
window=self.root_window,
label_text=percentload_label_text,
label_pos=(horizontal_spacing * 2 * i,
self.GUI_Block() + vertical_spacing * 13 + 20),
text_size=(80, vertical_spacing),
text_pos=(horizontal_spacing * (2 * i + 1) + 20,
self.GUI_Block() + vertical_spacing * 13 + 20))
# machine state
state_text_entry = SSN_Text_Display_Widget(
window=self.root_window,
label_text=state_label_text,
label_pos=(horizontal_spacing * 2 * i,
self.GUI_Block() + vertical_spacing * 14 + 20),
text_size=(80, vertical_spacing),
text_pos=(horizontal_spacing * (2 * i + 1) + 20,
self.GUI_Block() + vertical_spacing * 14 + 20))
# machine state duration
duration_text_entry = SSN_Text_Display_Widget(
window=self.root_window,
label_text=duration_label_text,
label_pos=(horizontal_spacing * 2 * i,
self.GUI_Block() + vertical_spacing * 15 + 20),
text_size=(80, vertical_spacing),
text_pos=(horizontal_spacing * (2 * i + 1) + 20,
self.GUI_Block() + vertical_spacing * 15 + 20))
# machine state timestamp
timestamp_dual_text_entry = SSN_Dual_Text_Display_Widget(
window=self.root_window,
label_text=timestamp_label_text,
label_pos=(horizontal_spacing * 2 * i,
self.GUI_Block() + vertical_spacing * 16 + 20),
text_size=(80, vertical_spacing),
text_pos1=(horizontal_spacing * (2 * i + 1) + 20,
self.GUI_Block() + vertical_spacing * 16 + 20),
text_pos2=(horizontal_spacing * (2 * i + 1) + 20,
self.GUI_Block() + vertical_spacing * 17 + 20))
self.machine_loadcurrents[self.NodeCountInGUI -
1].append(loadcurrent_text)
self.machine_percentageloads[self.NodeCountInGUI -
1].append(percentload_text_entry)
self.machine_status[self.NodeCountInGUI -
1].append(state_text_entry)
self.machine_timeinstate[self.NodeCountInGUI -
1].append(duration_text_entry)
self.machine_sincewheninstate[self.NodeCountInGUI - 1].append(
timestamp_dual_text_entry)
pass
pass
# set default node for sending messages
self.node_select_radio_button.radio_buttons[0].invoke()
pass
def setup_serial_communication(self,
serial_port='COM5',
baudrate=19200,
log_file='../serial_log-110920-130920.txt'):
self.serial_comm = SERIAL_COMM(serial_port, baudrate, log_file)
pass
def setup_udp_communication(self, server_end):
# essential UDP communicator
self.udp_comm = UDP_COMM()
connection_status = self.udp_comm.udp_setup_connection(
server_address=server_end[0], server_port=server_end[1])
if connection_status is None:
print("Cannot Connect to Network!!!")
return
self.use_udp = True
# invoke it just once
self.read_messages_and_update_UI()
pass
def setup_mqtt_communication(self, client_id, host="192.168.0.120"):
self.mqtt_comm = MQTT(client_id=client_id, host=host)
self.mqtt_comm.client.loop_start()
self.use_mqtt = True
# invoke it just once
self.read_messages_and_update_UI()
pass
def setup_csv_data_recording(self, csv_file):
this_date = datetime.datetime.fromtimestamp(int(round(time.time())))
file_name, extension = os.path.splitext(csv_file)
self.csv_data_file = file_name
self.csv_data_recording = True
pass
def read_messages_and_update_UI(self):
# check serial comm for messages
if self.serial_comm:
self.serial_comm.log()
self.servertimeofday_Tick = int(round(time.time()))
self.servertimeofday_text.update(
new_text_string=self.servertimeofday_Tick)
# receive the incoming message
if self.use_udp:
node_index, message_id, params = self.udp_comm.read_udp_message()
# check if a valid message was received or not
if node_index == -1 and message_id == -1:
self.no_connection += 1
if self.no_connection > 10:
self.no_connection = 0
print('\033[30m' + "XXX Nothing Received XXX")
# recall this method after another second
self.root_window.after(200, self.read_messages_and_update_UI)
return
elif self.use_mqtt:
if not self.mqtt_comm.message_queue.qsize():
self.no_connection += 1
if self.no_connection > 10:
self.no_connection = 0
print('\033[30m' + "XXX Nothing Received XXX")
# recall this method after another second
self.root_window.after(200, self.read_messages_and_update_UI)
return
node_index, message_id, params = self.mqtt_comm.message_queue.get()
# proceed only if a genuine message is found
self.no_connection = 0
# message type and node id will always be displayed
self.message_type_text[node_index].update(
new_text_string=SSN_MessageID_to_Type[message_id],
justification='left')
self.nodeid_text[node_index].update(new_text_string=params[0])
# basic get messages received?
if message_id == SSN_MessageType_to_ID['GET_MAC']:
print('\033[34m' +
"Received GET_MAC from SSN-{}".format(node_index + 1))
elif message_id == SSN_MessageType_to_ID['GET_TIMEOFDAY']:
print('\033[34m' +
"Received GET_TIMEOFDAY from SSN-{}".format(node_index + 1))
# automate set time of day
print('\033[34m' +
"Sending SET_TIMEOFDAY to SSN-{}".format(node_index + 1))
if self.use_udp:
self.udp_comm.send_set_timeofday_Tick_message(
node_index=self.node_select_radio_button.getSelectedNode()
- 1,
current_tick=utils.get_bytes_from_int(
self.servertimeofday_Tick))
print('\033[34m' + "Sent Time of Day to SSN-{}".format(
self.node_select_radio_button.getSelectedNode()))
elif self.use_mqtt:
self.mqtt_comm.send_set_timeofday_Tick_message(
current_tick=utils.get_bytes_from_int(
self.servertimeofday_Tick))
elif message_id == SSN_MessageType_to_ID['GET_CONFIG']:
print('\033[34m' +
"Received GET_CONFIG from SSN-{}".format(node_index + 1))
# configs have been acknowledged?
elif message_id == SSN_MessageType_to_ID['ACK_CONFIG']:
configs_acknowledged = params[1] # it is a list
if configs_acknowledged == self.configs:
print('\033[34m' +
"Received CONFIG ACK from SSN-{}".format(node_index + 1))
# self.config_button.config(bg='light green')
pass
pass
# status update message brings the ssn heartbeat status
elif message_id == SSN_MessageType_to_ID['STATUS_UPDATE']:
print('\033[34m' +
"Received Status Update from SSN-{}".format(node_index + 1))
self.temperature_text[node_index].update(new_text_string=params[1])
self.humidity_text[node_index].update(new_text_string=params[2])
self.nodeuptime_text[node_index].update(
new_text_string=self.servertimeofday_Tick - params[3]
) # get the difference of static tick and current tick
activity_level = SSN_ActivityLevelID_to_Type[params[4]]
# get activity level of the SSN and display properly
self.abnormalactivity_text[node_index].update(
new_text_string=activity_level)
if activity_level == 'NORMAL':
self.abnormalactivity_text[node_index].change_text_color(
new_color='green')
else:
self.abnormalactivity_text[node_index].change_text_color(
new_color='red')
fault_count = params[-1]
if fault_count is not None:
print('\033[34m' + "Fault Count from SSN-{}: {}".format(
node_index + 1, fault_count))
machine_state_timestamps = []
for i in range(4):
self.machine_loadcurrents[node_index][i].update(
new_text_string=params[5 + i])
self.machine_percentageloads[node_index][i].update(
new_text_string=params[9 + i])
self.machine_status[node_index][i].update(
new_text_string=Machine_State_ID_to_State[params[13 + i]])
state_timestamp_tick = params[17 + i]
if state_timestamp_tick != 0:
# elapsed_time_in_state = self.servertimeofday_Tick - state_timestamp_tick
good_time = datetime.datetime.fromtimestamp(
state_timestamp_tick)
exact_time_strings = [
"{}:{}:{}".format(good_time.hour, good_time.minute,
good_time.second),
"{}/{}/{}".format(good_time.day, good_time.month,
good_time.year)
]
else:
# elapsed_time_in_state = state_timestamp_tick
exact_time_strings = ["0:0:0", "0/0/0"]
machine_state_timestamps.append(exact_time_strings)
self.machine_timeinstate[node_index][i].update(
new_text_string=params[21 + i])
self.machine_sincewheninstate[node_index][i].update(
new_text_strings=machine_state_timestamps[i])
pass
# append this data to our CSV file
if self.csv_data_recording:
# insertiontimestamp, node_id, node_uptime, activitylevel,
# temperature, humidity,
# M1_load, M1_load%, M1_state, M1_statetimestamp, M1_stateduration,
# M2_*...
server_time_of_the_day = datetime.datetime.fromtimestamp(
self.servertimeofday_Tick)
data_packet = [
server_time_of_the_day, params[0],
datetime.datetime.fromtimestamp(params[3]), activity_level,
params[1], params[2], params[5], params[9], params[13],
datetime.datetime.fromtimestamp(params[17]), params[21],
params[6], params[10], params[14],
datetime.datetime.fromtimestamp(params[18]), params[22],
fault_count
]
with open(self.csv_data_file +
"-{}-{}-{}".format(server_time_of_the_day.day,
server_time_of_the_day.month,
server_time_of_the_day.year) +
".csv",
'a',
newline="") as f:
writer = csv.writer(f)
writer.writerow(data_packet)
pass
pass
pass
# recall this method after another second
self.root_window.after(200, self.read_messages_and_update_UI)
pass
pass
class StereoVisionCalculator(object):
def __init__(self):
"""
Class constructor of StereoVisionCalculator.
This method initalizes the tkinter GUI and the object variables to
store the user input and calculation results.
"""
# Focal length calculator parameters
self.sensor_size = None
self.img_width = None
self.img_height = None
self.focal_fov = None
# Design limits
self.perf_depth = None
self.perf_depth_error = None
self.perf_disp_max = None
self.perf_disp = None
self.perf_disp_calibration_error = None
# Baseline calculator results
self._min_depth = None
self._baseline = None
self._focal_length = None
# Initialize the complete GUI
self._initializeGUI()
Row = namedtuple('Row', ['var_name', 'name', 'io', 'activate', 'units'])
class RowElement(object):
def __init__(self):
self.name = None
self.io = None
self.activate = None
self.units = None
def setrow(self, row):
if self.name:
self.name.grid(row=row)
if self.io:
self.io.grid(row=row)
if self.activate:
self.activate.grid(row=row)
if self.units:
self.units.grid(row=row)
def _rowPropertiesToGUI(self, master, row_prop):
"""
Method to convert row_prop of type Row() into a GUI element
:param: master (The master of tk element)
:param: row_prop (An instance of Row())
:return: An instance of RowElement
"""
row = StereoVisionCalculator.RowElement()
# Create the name label
row.name = ttk.Label(master, text=row_prop.name)
row.name.grid(column=0, sticky="W", pady=5)
# Create io Entry var
if row_prop.io:
row.io = ttk.Entry(master)
else:
row.io = ttk.Label(master, text="0.0")
row.io.grid(column=1, sticky="W")
if row_prop.activate:
row.activate = ttk.Checkbutton(master)
row.activate.grid(column=1, sticky="E")
# Create units Label/OptionMenu var
if row_prop.units:
if isinstance(row_prop.units, list):
row.units = ttk.OptionMenu(
master, tk.StringVar(master, row_prop.units[1]),
*row_prop.units)
else:
row.units = tk.Label(master, text=row_prop.units)
row.units.grid(column=2, sticky="W")
return row
def _initializeGUI(self):
"""
Method to setup the StereoVision Calculator GUI using tkinter
"""
self.root = ThemedTk(theme="arc")
self.root.tk_setPalette(background='#f5f6f7')
self.root.title("StereoVision Calculator")
self.root.resizable(0, 0) # Don't allow resize
sensor_size_units = ['', 'mm', 'in']
fov_type = ['', 'Horizontal', 'Vertical', 'Diagonal']
depth_units = ['', 'mm', 'cm', 'm', 'in', 'ft']
row_properties = [
StereoVisionCalculator.Row('ui_sensor_size', 'Sensor size', True,
False, sensor_size_units),
StereoVisionCalculator.Row('ui_img_width', 'Image width', True,
False, 'px'),
StereoVisionCalculator.Row('ui_img_height', 'Image height', True,
False, 'px'),
StereoVisionCalculator.Row('ui_focal_fov', 'Focal FoV', True,
False, fov_type),
StereoVisionCalculator.Row('ui_perf_depth', 'Performance depth',
True, False, depth_units),
StereoVisionCalculator.Row('ui_perf_depth_error',
'Performance depth error', True, False,
depth_units),
StereoVisionCalculator.Row('ui_perf_disp', 'Performance disparity',
True, True, 'px'),
StereoVisionCalculator.Row('ui_disp_max', 'Max disparity', True,
False, 'px'),
StereoVisionCalculator.Row('ui_disp_cal_error',
'Calibration disparity error', True,
False, 'px'),
StereoVisionCalculator.Row('ui_focal_length', 'Focal length',
False, False, 'mm'),
StereoVisionCalculator.Row('ui_baseline', 'Baseline', False, False,
'mm'),
StereoVisionCalculator.Row('ui_depth_min', 'Min depth', False,
False, 'mm'),
# StereoVisionCalculator.Row('ui_depth_max', 'Max depth', False, False, 'm'),
StereoVisionCalculator.Row('ui_depth_res', 'Depth resolution',
False, False, 'px'),
StereoVisionCalculator.Row('ui_depth_fov', 'Depth FoV', False,
False, 'deg')
]
for row_num, rp in enumerate(row_properties, start=1):
row_element = self._rowPropertiesToGUI(self.root, rp)
row_element.setrow(row_num)
self.__setattr__(rp.var_name, row_element)
self.ui_perf_disp.io["state"] = tk.DISABLED
self.ui_perf_disp.io["width"] = 14
self.ui_perf_disp.activate["command"] = self._disp
self.ui_depth_res.io["text"] = "0 x 0"
self.ui_depth_fov.io["text"] = "0° x 0°"
# Buttons
self.ui_auto_calculate = ttk.Checkbutton(self.root,
text="Auto calculate",
command=self._callback)
self.ui_auto_calculate.grid(row=0, sticky="W", pady=5)
self.ui_capture = ttk.Button(self.root,
text="Capture",
width=12,
command=self._capture)
self.ui_capture.grid(row=0, column=2, sticky="W")
self.ui_calculate = ttk.Button(self.root,
text="Calculate",
width=12,
command=self._callback)
self.ui_calculate.grid(row=16, sticky="W")
self.ui_plot = ttk.Button(self.root,
text="Plot",
width=12,
command=self._plot)
self.ui_plot.grid(row=16, column=2, sticky="W")
col_count, row_count = self.root.grid_size()
for col in range(col_count):
self.root.grid_columnconfigure(col, pad=2)
def mainloop(self):
self.root.mainloop()
def calculateToMeter(self, variable, conversion_from):
result = 0
if conversion_from is "mm":
result = variable / 1000
elif conversion_from is "cm":
result = variable / 100
elif conversion_from is "m":
result = variable
elif conversion_from is "in":
result = variable * 0.0254
elif conversion_from is "ft":
result = variable * 0.3048
return result
def _focalLengthCalculator(self, size, fov_type):
"""
Function to calculate the focal length of the imaging sensor given:
:param: sensor_size: The diagonal sensor size
:param: size: The measurement system of the sensor (metric/imperial)
:param: img_width: The amount of pixels in width
:param: img_height: The amount of pixels in height
:param: focal_fov: The field of view of the lens
:param: fov_type: Horizontal, vertical or diagonal FoV
"""
if size == 'inch':
self.sensor_size = self.sensor_size * 25.4
else:
self.sensor_size = self.sensor_size
ratio = self.img_height / self.img_width
sensor_width_mm = math.sqrt(self.sensor_size**2 / (1.0 + ratio**2))
sensor_height_mm = math.sqrt(self.sensor_size**2 / (1.0 + 1.0 /
(ratio**2)))
roi_width_mm = sensor_width_mm # * roi_width / img_width
roi_height_mm = sensor_height_mm # * roi_height / img_height
roi_diagonal_mm = math.sqrt(roi_height_mm * roi_height_mm +
roi_width_mm * roi_width_mm)
fov = self.focal_fov / 180 * math.pi
atanInner = math.tan(fov * 0.5)
try:
if fov_type == 'Horizontal':
f_mm = roi_width_mm / (2 * atanInner)
elif fov_type == 'Vertical':
f_mm = roi_height_mm / (2 * atanInner)
elif fov_type == 'Diagonal':
f_mm = roi_diagonal_mm / (2 * atanInner)
pixel_size_mm = roi_width_mm / self.img_width
self._focal_length = f_mm / pixel_size_mm
except ZeroDivisionError:
f_mm = 0
self._focal_length = 0
return f_mm, roi_width_mm, roi_height_mm
def _baselineCalculator(self):
"""
Function to calculate the baseline and min depth of the stereo camera given:
1. Focal length of the lens
2. Performace depth
3. Performance depth error
4. Disparity at performance depth
5. Calibration disparity error
"""
disparity = self.perf_disp + self.perf_disp_calibration_error
depth = self.perf_depth - self.perf_depth_error
self._baseline = baselineCalculator(self._focal_length, disparity,
depth)
self._min_depth = disparityToDepth(self._baseline, self._focal_length,
self.perf_disp_max)
def _depthErrorCalculator(self, depth):
"""
Method to calculate the max_depth_error for a given depth for
pre-determined baseline and focal length
:param: depth
:return: max_depth_error
"""
disparity_real = depthToDisparity(self._baseline, self._focal_length,
depth)
disparity_measured = disparity_real + self.perf_disp_calibration_error
depth_measured = disparityToDepth(self._baseline, self._focal_length,
disparity_measured)
return abs(depth_measured - depth)
def _depthCalculator(self, roi_width, roi_height, roi_width_mm,
roi_height_mm, img_width, d_max, f_mm):
roi_full_pixel = str(roi_width - d_max) + ' x ' + str(roi_height)
h_full_angle = 2 * math.atan(
(1 * roi_width_mm * (img_width - d_max) / img_width) / (2 * f_mm))
v_angle = 2 * math.atan(roi_height_mm / (2 * f_mm))
FoV_h = round(h_full_angle / math.pi * 180, 1)
FoV_v = round(v_angle / math.pi * 180, 1)
FoV = str(FoV_h) + '° x ' + str(FoV_v) + '°'
return FoV, roi_full_pixel
def _callback(self):
if (self.ui_sensor_size.io.get() and self.ui_img_width.io.get()
and self.ui_img_height.io.get()
and self.ui_focal_fov.io.get()):
self.sensor_size = float(self.ui_sensor_size.io.get())
size = self.ui_sensor_size.units["text"]
self.img_width = int(self.ui_img_width.io.get())
self.img_height = int(self.ui_img_height.io.get())
self.focal_fov = float(self.ui_focal_fov.io.get())
fov_type = self.ui_focal_fov.units["text"]
f_mm, roi_width_mm, roi_height_mm = self._focalLengthCalculator(
size, fov_type)
self.ui_focal_length.io["text"] = round(f_mm, 2)
if (self.ui_perf_depth.io.get()
and self.ui_perf_depth_error.io.get()
and self.ui_disp_max.io.get()
and self.ui_disp_cal_error.io.get()):
self.perf_depth = self.calculateToMeter(
float(self.ui_perf_depth.io.get()),
self.ui_perf_depth.units["text"])
self.perf_depth_error = self.calculateToMeter(
float(self.ui_perf_depth_error.io.get()),
self.ui_perf_depth_error.units["text"])
self.perf_disp = 1 if not self.ui_perf_disp.io.get() else int(
self.ui_perf_disp.io.get())
self.perf_disp_max = int(self.ui_disp_max.io.get())
self.perf_disp_calibration_error = float(
self.ui_disp_cal_error.io.get())
self._baselineCalculator()
d_max = self.perf_disp_max - 1
depth_fov, depth_res = self._depthCalculator(
self.img_width, self.img_height, roi_width_mm,
roi_height_mm, self.img_width, d_max, f_mm)
self.ui_baseline.io["text"] = round(self._baseline * 1000, 2)
self.ui_depth_min.io["text"] = round(self._min_depth * 1000, 2)
self.ui_depth_res.io["text"] = depth_res
self.ui_depth_fov.io["text"] = depth_fov
if self.ui_auto_calculate.instate(["selected"]):
self.root.after(100, self._callback)
def _disp(self):
if self.ui_perf_disp.activate.instate(["selected"]):
self.ui_perf_disp.io["state"] = tk.NORMAL
else:
self.ui_perf_disp.io["state"] = tk.DISABLED
def _capture(self):
x1 = self.root.winfo_rootx()
x2 = x1 + self.root.winfo_reqwidth()
y1 = self.root.winfo_rooty()
y2 = y1 + self.root.winfo_reqheight()
im = grab(bbox=(x1, y1, x2, y2))
im.show()
def _plot(self):
# Parameters
if not (self._focal_length and self._baseline and self._min_depth):
self.error = ThemedTk(theme="arc")
self.error.tk_setPalette(background='#f5f6f7')
self.error.title("Error!")
label = ttk.Label(self.error,
text="Missing input variables!").grid(padx=15,
pady=25)
self.error.mainloop()
else:
style.use('seaborn-whitegrid')
fig1, ax = plt.subplots()
fig1.canvas.set_window_title('Plot')
plt.title("Depth Error Chart")
plt.xlabel("Depth (m)")
plt.ylabel("Depth error (m)")
x1 = []
y1 = []
# Light theme
fig1.patch.set_facecolor('#f5f6f7') # 212121 Dark
ax.patch.set_facecolor('#f5f6f7')
ax.spines['bottom'].set_color('#5c616c') # FAFAFA Dark
ax.spines['top'].set_color('#5c616c')
ax.spines['right'].set_color('#5c616c')
ax.spines['left'].set_color('#5c616c')
ax.tick_params(axis='x', colors='#5c616c', which='both')
ax.tick_params(axis='y', colors='#5c616c', which='both')
ax.yaxis.label.set_color('#5c616c')
ax.xaxis.label.set_color('#5c616c')
ax.title.set_color('#5c616c')
# Plot
# Min range to max range
max_depth = self._baseline * self._focal_length * 10
for x in range(int(self._min_depth * 10), int(max_depth)):
y = self._depthErrorCalculator(float(x / 10))
x1.append(float(x / 10))
y1.append(y)
plt.plot(x1, y1, color="#039BE5")
# Show
plt.show()
temperatureLabel.grid(row=1, column=0)
pressureLabel = Label(
main, textvariable=pressureVar) # On crée un label qui affiche la pression
pressureLabel.grid(row=1, column=1)
humidityLabel = Label(
main, textvariable=humidityVar) # On crée un label qui affiche l'humidité
humidityLabel.grid(row=1, column=2)
reloadButton = Button(main, text="Recharger les données", command=reloadData)
# On crée un boutton qui permet de recharger les données
reloadButton.grid(row=2, column=0, columnspan=3)
directionLabel = Label(
main, textvariable=directionVar
) # On crée un label qui affiche la direction de la carte
directionLabel.grid(row=3, column=0, columnspan=3)
compass = Canvas(main,
width=450,
height=450,
bd=0,
highlightthickness=0,
background="#464646")
canvasImg = compass.create_image(0, 0, anchor="nw", image=images[0])
compass.grid(row=4, column=0, columnspan=3)
main.after(1000, sense)
main.mainloop()
