BattLab_One_V1_0_9.py

#################################################################################
##   MSP430G2xx3 based BattLab-One Production Version 1.01
##
##   Doug Peters
##   Bluebird Labs LLC.
##   www.bluebird-labs.com
##   February 2019
##   Built with CCS V7.0
##
##   Copyright (c) 2020, Bluebird Labs LLC
##   All rights reserved.
##
##   Redistribution and use in source and binary forms, with or without
##   modification, are permitted provided that the following conditions
##   are met:
##
##   * Redistributions of source code must retain the above copyright
##     notice, this list of conditions and the following disclaimer.
##
##   * Redistributions in binary form must reproduce the above copyright
##     notice, this list of conditions and the following disclaimer in the
##     documentation and/or other materials provided with the distribution.
##
##   * Neither the name of Bluebird Labs LLC nor the names of
##     its contributors may be used to endorse or promote products derived
##     from this software without specific prior written permission.
##
##  THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS"
##  AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO,
##  THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR
##  PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
##  CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
##  EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
##  PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS;
##  OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY,
##  WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR
##  OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE,
##  EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
##
#################################################################################

import tkinter as tk
from tkinter import ttk
from tkinter import *
import csv
from csv import reader
import time
import datetime
import serial
import serial.tools.list_ports
from serial.tools import list_ports
import matplotlib
from matplotlib.widgets import Cursor
import matplotlib.pyplot as plt
import platform
from tkinter import colorchooser
from tkinter import font
import os
import pkg_resources.py2_warn
from tkinter import messagebox
from tkinter import filedialog
import webbrowser

matplotlib.use('TkAgg')

#from matplotlib.backends.backend_tkagg import FigureCanvasTkAgg, NavigationToolbar2TkAgg
from matplotlib.backends.backend_tkagg import FigureCanvasTkAgg, NavigationToolbar2Tk
from matplotlib.figure import Figure

#################################################################################    
###     SETUP ROOT, FRAMES, & MATPLOTLIB CANVAS
#################################################################################

def GetIconPath():
   if platform.system() == 'Linux':
      return '@icons/bbirdlogo.xbm'
   else:
      return 'icons/bbirdlogo.ico'

root = tk.Tk()
root.wm_title('BattLab One')
root.resizable(False,False)
root.grid_rowconfigure(0, weight=1)
root.grid_columnconfigure(0, weight=1)

#root.iconbitmap('bbirdlogo.ico')
root.iconbitmap(GetIconPath())

s = ttk.Style() 
s.configure('TLabelframe', background='dark gray')

profile_frame = ttk.Frame(root,style='TLabelframe', width = 800, height = 600)
profile_frame.grid(row=0, column=0, padx=5,pady=(1,1),sticky = 'n')

def openBBL():
   webbrowser.open_new('http://bluebird-labs.com')

#img = PhotoImage(file='bbirdlogo_png1.png')
img = PhotoImage(file='icons/bbirdlogo_png1.png')

logo_button = tk.Button(profile_frame,image=img,command=openBBL,state=tk.NORMAL)
logo_button.grid(row=25,column=0,rowspan=4, padx=(5,4),pady=(5,5),sticky = 'sw')

frame = ttk.Frame(profile_frame, borderwidth=5, relief='sunken', width=800, height=450)
frame.grid(row=0, column=1,  rowspan=20, padx=(3,10),pady=(1,1), sticky='n')

frame1 = ttk.Frame(profile_frame, borderwidth=5, relief='sunken', width=800, height=600)
frame1.grid(row=20, column=1, rowspan=10, padx=(10,10),pady=(5,15), sticky='e')

w = Canvas(frame, width=800, height=400)
w.config(background='black')
w.grid(row=0,column = 3,padx=5,pady=(5,5),sticky = 'n')

w1 = Canvas(frame1, width=250, height=200)
w1.config(background='black')
w1.grid(padx=5,pady=(5,5),sticky = 'nsew')

#################################################################################
###   SETUP GLOBAL VARIABLES
#################################################################################
global si,x,y, avg_active_event_I, line_color, sleep_timer,soc_file

x = []
y = []
si = []
soc = []
ocv = []
esr = []
soc_tab = []
ocv_tab = []
esr_tab = []
dc = []
dc1 = []

hi_offset=tk.DoubleVar()
hi_offset.set(1.0)

lo_offset=tk.DoubleVar()
lo_offset.set(0)

sleep_timer=tk.IntVar()
sleep_timer.set(1)
   
LSB=0.0025

line_color = StringVar()
line_color.set("blue")

line_width = DoubleVar()
line_width.set(0.5)

reading = StringVar()

CAL_12_data = StringVar()
CAL_15_data = StringVar()
CAL_24_data = StringVar()
CAL_30_data = StringVar()
CAL_36_data = StringVar()
CAL_37_data = StringVar()
CAL_42_data = StringVar()
CAL_45_data = StringVar()

Offset_12_data = StringVar()
Offset_15_data = StringVar()
Offset_24_data = StringVar()
Offset_30_data = StringVar()
Offset_36_data = StringVar()
Offset_37_data = StringVar()
Offset_42_data = StringVar()
Offset_45_data = StringVar()

sense_resistor = tk.DoubleVar()
sense_resistor.set(0.160)

sense_resistor_LO = tk.DoubleVar()
sense_resistor_LO.set(99)

data = tk.StringVar()
version = tk.StringVar()

soc_file = tk.StringVar()
soc_file.set('SOC_profiles/AA_AAA.csv')

samples= tk.IntVar()
samples.set(4)

#################################################################################
###   GET SERIAL PORT AND CONNECT
#################################################################################

baud_rate = 115200
com_port = "NONE"

def get_ports():
   ports = list(serial.tools.list_ports.comports())
   cpl = []
   for p in ports:
      cpl.append(p.device)   
   return cpl

def popupmsg(msg):
    popup = tk.Tk()
    #popup.iconbitmap('bbirdlogo.ico')
    popup.iconbitmap(GetIconPath())
    popup.wm_title("About")
    label = ttk.Label(popup, text=msg,)
    label.grid(row=0,column=0, padx=(10,10),pady= (10,10),sticky = 'nsew')
    pop_up_button = tk.Button(popup, text="Okay",command = popup.destroy,state=tk.NORMAL)
    pop_up_button.grid(row=3,column=0,padx=30,pady=(10,10),sticky = 'w')
    popup.mainloop()

def popupmsg1(msg):
    popup1 = tk.Tk()
    #popup1.iconbitmap('bbirdlogo.ico')
    popup1.iconbitmap(GetIconPath())
    popup1.wm_title("Sleep Capture Duration")
    label2 = ttk.Label(popup1, text="Current Duration in Seconds = "+ str(sleep_timer.get()))
    label2.grid(row=1,column=0, padx=(10,10),pady= (10,10),sticky = 'nsew')
    sleep_dur__combo_box = ttk.Combobox(popup1, width=5, textvariable=sleep_timer)
    sleep_dur__combo_box['values'] = (1, 3, 5, 10) 
    sleep_dur__combo_box.grid(row=3, column=0,padx=(150,4),sticky = 'w')
    sleep_dur__combo_box.insert(0,sleep_timer.get())
    def set_sleep_time():
      sleep_timer.set(float(sleep_dur__combo_box.get()))
      popup1.destroy()
    label1 = ttk.Label(popup1, text=msg,)
    label1.grid(row=0,column=0, padx=(10,10),pady= (10,10),sticky = 'nsew')
    pop_up_button2 = tk.Button(popup1, text="Set Time",command = set_sleep_time,state=tk.NORMAL)
    pop_up_button2.grid(row=3,column=0,padx=80,pady=(10,10),sticky = 'w')
    popup1.mainloop()

def popupmsg2(msg):
    popup2 = tk.Tk()
   
   #popup2.iconbitmap('bbirdlogo.ico')
    popup2.iconbitmap(GetIconPath())
      
    popup2.wm_title("Sleep Current Error")
    label2 = ttk.Label(popup2, text=msg,)
    label2.grid(row=0,column=0, padx=(10,10),pady= (10,10),sticky = 'nsew')
    pop_up_button2 = tk.Button(popup2, text="Okay",command = popup2.destroy,state=tk.NORMAL)
    pop_up_button2.grid(row=3,column=0,padx=30,pady=(10,10),sticky = 'w')
    popup2.mainloop()
      
def samplesmsg():
   smp = tk.Tk()
   def set_samples():
      samples.set(int(smp_combo_box.get()))
      if smp_combo_box.get() == '1':
         cmd = 's'
         bytes_returned = ser.write(cmd.encode())  
      if smp_combo_box.get() == '4':
         cmd = 't'
         bytes_returned = ser.write(cmd.encode())
      elif smp_combo_box.get() == '16':
         cmd = 'u'
         bytes_returned = ser.write(cmd.encode())
      elif smp_combo_box.get() == '64':
         cmd = 'v'
         bytes_returned = ser.write(cmd.encode())
      smp.destroy()
   #smp.iconbitmap('bbirdlogo.ico')
   smp.iconbitmap(GetIconPath())
   
   smp.wm_title("Set Sample Number")
   label2 = ttk.Label(smp, text="Select the number of samples for averaging \n\r Number of samples: ",)
   label2.grid(row=0,column=0, padx=(10,10),pady= (10,10),sticky = 'nsew')
   ser.reset_input_buffer()
   cmd = 'p'
   bytes_returned = ser.write(cmd.encode())
   version.set(ser.readline(2).hex())
   
   smp_combo_box = ttk.Combobox(smp, width=3, textvariable=samples)
   if int(version.get(),16) > 1001:
      smp_combo_box['values'] = (1,4,16,64)
   else:
      smp_combo_box['values'] = (4,16,64)
      
   smp_combo_box.grid(row=1, column=0,padx=(110,4),pady=(1,1),sticky = 'w')
   smp_combo_box.insert(0,samples.get())
   smp_button = tk.Button(smp, text="Set Samples",command = set_samples,state=tk.NORMAL)
   smp_button.grid(row=3,column=0,padx=80,pady=(10,10),sticky = 'w')
   
   smp.mainloop()

ser_port_combo_box = ttk.Combobox(profile_frame, values = get_ports(), width=10)
ser_port_combo_box.grid(row=2, column=0,padx=(10,4),sticky = 'w')

ser_port_cct = Label(profile_frame, text="BB1 Port = ",background='dark gray')
ser_port_cct.grid(row=1, column=0, padx=(10,4),pady=0,sticky = 'w')

reset_comm = tk.Button(profile_frame,text='Connect',command=lambda:init(str(ser_port_combo_box.get())),state=tk.NORMAL)
reset_comm.grid(row=2,column=0, padx=(160,4),pady= 0,sticky = 'w')

reset_list = tk.Button(profile_frame,text='Refresh',command=lambda:update_ports(),state=tk.NORMAL)
reset_list.grid(row=2,column=0, padx=(100,4),pady= 0,sticky = 'w')

#################################################################################    
###     GET DEVICE SPECIFIC CALIBRATION DATA
#################################################################################

DEV_SPEC_ADJ_12 = 0.0
DEV_SPEC_ADJ_15 = 0.0006
DEV_SPEC_ADJ_24 = 0.001
DEV_SPEC_ADJ_30 = 0.0
DEV_SPEC_ADJ_36 = 0.0073
DEV_SPEC_ADJ_37 = 0.001
DEV_SPEC_ADJ_42 = 0.0016
DEV_SPEC_ADJ_45 = 0.002
   
def init(ser_port):
   global ser, sense_low, \
          CAL_ADJ_12, CAL_ADJ_15, CAL_ADJ_24, CAL_ADJ_30, CAL_ADJ_36, CAL_ADJ_37, CAL_ADJ_42, CAL_ADJ_45, \
          Offset_12, Offset_15, Offset_24, Offset_30, Offset_36, Offset_37, Offset_42, Offset_45
     
   try:
      ser = serial.Serial(ser_port, baud_rate, timeout= None)
      ser_port_cct.configure(text = "Battlab Connected(" + ser.name+")", foreground='green', font=('Arial Bold',10))
      ser_port_combo_box.delete(0,END)
      ser_port_combo_box.insert(0,ser.name)

      #Get Calibration data
      cmd = 'j'
      bytes_returned = ser.write(cmd.encode())

      CAL_12_data.set(ser.readline(2).hex())
      CAL_12 = int(CAL_12_data.get(),16)/1000

      CAL_15_data.set(ser.readline(2).hex())
      CAL_15 = int(CAL_15_data.get(),16)/1000

      CAL_24_data.set(ser.readline(2).hex())
      CAL_24 = int(CAL_24_data.get(),16)/1000

      CAL_30_data.set(ser.readline(2).hex())
      CAL_30 = int(CAL_30_data.get(),16)/1000

      CAL_36_data.set(ser.readline(2).hex())
      CAL_36 = int(CAL_36_data.get(),16)/1000

      CAL_37_data.set(ser.readline(2).hex())
      CAL_37 = int(CAL_37_data.get(),16)/1000

      CAL_42_data.set(ser.readline(2).hex())
      CAL_42 = int(CAL_42_data.get(),16)/1000

      CAL_45_data.set(ser.readline(2).hex())
      CAL_45 = int(CAL_45_data.get(),16)/1000

      #Get Low Current Offset calibration
      Offset_12_data.set(ser.readline(2).hex())
      Offset_12 = int(Offset_12_data.get(),16)/100000 + DEV_SPEC_ADJ_12

      Offset_15_data.set(ser.readline(2).hex())
      Offset_15 = int(Offset_15_data.get(),16)/100000 + DEV_SPEC_ADJ_15

      Offset_24_data.set(ser.readline(2).hex())
      Offset_24 = int(Offset_24_data.get(),16)/100000 + DEV_SPEC_ADJ_24

      Offset_30_data.set(ser.readline(2).hex())
      Offset_30 = int(Offset_30_data.get(),16)/100000 + DEV_SPEC_ADJ_30

      Offset_36_data.set(ser.readline(2).hex())
      Offset_36 = int(Offset_36_data.get(),16)/100000 + DEV_SPEC_ADJ_36

      Offset_37_data.set(ser.readline(2).hex())
      Offset_37 = int(Offset_37_data.get(),16)/100000 + DEV_SPEC_ADJ_37

      Offset_42_data.set(ser.readline(2).hex())
      Offset_42 = int(Offset_42_data.get(),16)/100000 + DEV_SPEC_ADJ_42

      Offset_45_data.set(ser.readline(2).hex())
      Offset_45 = (int(Offset_45_data.get(),16)/100000) + DEV_SPEC_ADJ_45

      CAL_ADJ_12 = CAL_12
      CAL_ADJ_15 = CAL_15
      CAL_ADJ_24 = CAL_24
      CAL_ADJ_30 = CAL_30
      CAL_ADJ_36 = CAL_36
      CAL_ADJ_37 = CAL_37
      CAL_ADJ_42 = CAL_42
      CAL_ADJ_45 = CAL_45
      
   except serial.SerialException as e:
      messagebox.showinfo("Error No Battlab Device Connected",e)
      pass
      
ports = list(serial.tools.list_ports.comports())

for p in ports:
   
   if p.vid == 0x0403 and p.pid == 0x6001:
      ser_num_prefix = p.serial_number[0] + p.serial_number[1]
      if ser_num_prefix == 'BB':
         com_port = list(list_ports.grep("0403:6001"))[0][0]       
         init(com_port)

if com_port == 'NONE':
   ser_port_cct.configure(text="Not Connected!", foreground='red')

def update_ports():
   ports = list(serial.tools.list_ports.comports())
   cpl = []
   for p in ports:
      cpl.append(p.device)
   ser_port_combo_box.configure(values=cpl)

sense_resistor_LO.set(99)


#################################################################################
###    SETUP MENU FUNCTIONS
#################################################################################

    
def OpenFile():
    name = filedialog.askopenfilename(initialdir = 'C:/Users/dwpete3/Desktop',title = 'Select file', \
                                      filetypes = (('CSV Files','*.csv'),('all files','*.*')))

    with open(name, newline='') as csvfile:
       load_profile = csv.reader(csvfile, delimiter=',')
       header = next(load_profile, None)
       if header[0] != 'Battery Chemistry':
          popupmsg("File error! \n\r Does not appear to be a Battlab-One file.")
       else:
          for row in load_profile:
             batt_chem.set(row[0])
             battery_capactity_entry_1.delete(0,END)
             battery_capactity_entry_1.insert(0,row[1])
             batt_cells.set(row[2])
             dut_cutoff_voltage_entry.delete(0,END)
             dut_cutoff_voltage_entry.insert(0,row[3])
             voltage.set(row[4])
             rt_dur.delete(0,END)
             rt_dur.insert(0,row[5])
             sl_duration_entry_3.delete(0,END)
             sl_duration_entry_3.insert(0,row[6])
             ae_captured_current_label_4.configure(text=row[7])
             ae_captured_duration_label_4.configure(text=row[8])
             sl_captured_current_label_4.configure(text=row[9])
             sl_captured_duration_label_4.configure(text=row[10])
             dut_cutoff_captured_label_4.configure(text=row[11])
             batt_cap_captured_label_4.configure(text=row[12]),\
             average_current_profile_captured_label_4.configure(text=row[13])
             ae_optimized_current_entry_4.delete(0,END)
             ae_optimized_current_entry_4.insert(0,row[14])
             ae_optimized_duration_entry_4.delete(0,END)
             ae_optimized_duration_entry_4.insert(0,row[15])
             sl_optimized_current_entry_4.delete(0,END)
             sl_optimized_current_entry_4.insert(0,row[16])
             sl_optimized_duration_entry_4.delete(0,END)                                  
             sl_optimized_duration_entry_4.insert(0,row[17])
             dut_cutoff_optimized_entry_4.delete(0,END)                                   
             dut_cutoff_optimized_entry_4.insert(0,row[18])
             batt_cap_optimized_entry_4.delete(0,END)
             batt_cap_optimized_entry_4.insert(0,row[19])
             average_current_profile_optimized_label_4.configure(text=row[20])
             captured_battery_life_hours_graph.configure(text=row[21])
             captured_battery_life_days_graph.configure(text=row[22])
             optimized_battery_life_hours_graph.configure(text=row[23])
             optimized_battery_life_days_graph.configure(text=row[24])

       frame.update()

def SaveFile():
    root.filename =  filedialog.asksaveasfilename(initialdir = 'C:/Users/dwpete3/Desktop',title = 'Select file',
                                filetypes = (('CSV Files','*.csv'),('all files','*.*')))
   
    with open((root.filename+'.csv'), 'w', newline='') as analysis:
       writer = csv.writer(analysis, delimiter=',')         

       writer.writerow(["Battery Chemistry",\
                        "Battery Capacity (mAh)",\
                        "Number of Cells",\
                        "DUT Cutoff Voltage (V)",\
                        "PSU Voltage (V)",\
                        "Entered Active Event Duration (S)",\
                        "DUT Sleep Duration (S)",\
                        "Captured Active Event Current (mA)",\
                        "Captured Active Event Duration(S)",\
                        "Captured Sleep Current (uA)",\
                        "Captured DUT Sleep Duration (S)",\
                        "Captured DUT Cutoff Voltage (V)",\
                        "Captured DUT Effective Battery Capacity (mAh)",\
                        "Captured Total Current Profile (mA)",\
                        "Optimized Active Event Current (S)",\
                        "Optimized Active Event Duration (mA)",\
                        "Optimized Sleep Event Current (uA)",\
                        "Optimized Sleep Event Duration (S)",\
                        "Optimized DUT Cutoff Voltage (V)",\
                        "Optimized Effective Battery Capacity (mAh)",\
                        "Optimized Total Current Profile (mA)",\
                        "Captured Battery Life (Hours)",\
                        "Captured Battery Life (Days)",\
                        "Optimized Battery Life (Hours)",\
                        "Optimized Battery Life (Days)"])
       
       writer.writerow([batt_chem.get(), \
                        battery_capactity_entry_1.get(),\
                        batt_cells.get(),\
                        dut_cutoff_voltage_entry.get(),\
                        psu_combo_box.get(),\
                        runtime_duration.get(),\
                        sleep_duration.get(),\
                        ae_captured_current_label_4.cget("text"),\
                        ae_captured_duration_label_4.cget("text"),\
                        sl_captured_current_label_4.cget("text"),\
                        sl_captured_duration_label_4.cget("text"),\
                        dut_cutoff_captured_label_4.cget("text"),\
                        batt_cap_captured_label_4.cget("text"),\
                        average_current_profile_captured_label_4.cget("text"),\
                        ae_optimized_current_entry_4.get(),\
                        ae_optimized_duration_entry_4.get(),\
                        sl_optimized_current_entry_4.get(),\
                        sl_optimized_duration_entry_4.get(),\
                        dut_cutoff_optimized_entry_4.get(),\
                        batt_cap_optimized_entry_4.get(),\
                        average_current_profile_optimized_label_4.cget("text"),\
                        captured_battery_life_hours_graph.cget("text"),\
                        captured_battery_life_days_graph.cget("text"),\
                        optimized_battery_life_hours_graph.cget("text"),\
                        optimized_battery_life_days_graph.cget("text")])  
               
    analysis.close
    
def export_data(): #Save to Outputfile
           
   rows = zip(x,y)

   root.filename =  filedialog.asksaveasfilename(initialdir = 'C:/Users/dwpete3/Desktop',title = 'Select file',
                                filetypes = (('CSV Files','*.csv'),('all files','*.*')))
   
   with open((root.filename+'.csv'), 'w', newline='') as analysis:
      writer = csv.writer(analysis, delimiter=',')
      for row in rows:
         writer.writerow(row)
   analysis.close()
   
   
def Linecolor():
    ln_color, hex_color = colorchooser.askcolor(parent=frame,initialcolor=(255, 0, 0))   
    line_color.set(hex_color)

def SleepDurationTime():
    popupmsg1("Please choose the duration for sleep capture mode in seconds")

def set_sample_number():
   samplesmsg()

#def get_config():
 #  ser.reset_input_buffer()
 #  cmd = 'm'
 #  bytes_returned = ser.write(cmd.encode())
 #  data.set(ser.readline(2).hex())
 #  print('MFR CAL ',data.get())
 #  data.set(ser.readline(2).hex())
#   print('ADC CONFIG ',data.get())
   
def About():
    #messagebox.showinfo("Battlab-One Version 1.0 \n\r Contact www.bluebird-labs.com/support for issues")
   ser.reset_input_buffer()
   cmd = 'p'
   bytes_returned = ser.write(cmd.encode())
   version.set(ser.readline(2).hex())
   popupmsg("Battlab-One Version 1.0 \n\r Contact www.bluebird-labs.com/support for issues" + "\n\r Firmware Version " + str(int(version.get(),16)/1000))

def Disclaimer():
   popupmsg(' \n \
             Bluebird Labs LLC. \n\
             Copyright (c) 2020, Bluebird Labs LLC \n\
             All rights reserved.\n\
             \n\
             THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" \n\
             AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, \n\
             THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR \n\
             PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR \n\
             CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, \n\
             EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, \n\
             PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; \n\
             OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, \n\
             WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR \n\
             OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, \n\
             EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.')


def quitapp(window):
   if messagebox.askokcancel("Quit", "Do you want to quit?"):
      try:
         cmd = 'i'
         bytes_returned = ser.write(cmd.encode())
         ser.close()
      except:
         pass
      window.quit()


#################################################################################
###   SETUP MENU SYSTEM
#################################################################################
menu = Menu(root)

root.config(menu=menu)

filemenu = Menu(menu)
menu.add_cascade(label='File', menu=filemenu)
filemenu.add_command(label='Open', command=OpenFile)
filemenu.add_command(label='Save', command=SaveFile, state=DISABLED)
filemenu.add_command(label='Export', command=export_data, state=DISABLED)
filemenu.add_separator()
filemenu.add_command(label='Exit', command=lambda arg=root:quitapp(arg))

optionsmenu = Menu(menu)
menu.add_cascade(label='Options', menu=optionsmenu)
optionsmenu.add_command(label='Line Color', command=Linecolor)
optionsmenu.add_command(label='Sleep Current Capture Duration', command=SleepDurationTime)
optionsmenu.add_command(label='Sample Number', command=set_sample_number)

#optionsmenu.add_command(label='Get CONFIG...', command=get_config)

helpmenu = Menu(menu)
menu.add_cascade(label='Help', menu=helpmenu)
helpmenu.add_command(label='About', command=About)
helpmenu.add_command(label='Disclaimer', command=Disclaimer)

#################################################################################
####    MATPLOTLIB FOR ACTIVE CURRENT PLOTS
#################################################################################
def data_plot(x,y,voltage, minimum,maximum,ae_duration,ae_current):
    #PLOT THE DATA

    global ax, f
    
    f = plt.figure(figsize=(8, 4), dpi=100,clear=True)
    ax = f.add_subplot(111)
    plt.style.use('fast')
    
    ax.set_title('Voltage: ' + voltage + ' volts   '  +'Capture Time:  '+ ae_duration + ' seconds' + \
                       '\n' + 'Minimum: '  + minimum + 'mA    ' + 'Maximum: '+ maximum + 'mA    ' + 'Average Active Current: ' + ae_current + 'mA    ', fontsize=10)

    ax.set_xlabel('Milliseconds')
    ax.set_ylabel('Milliamps')
 
    ax.plot(x, y, color=line_color.get(), linewidth=line_width.get())

    ax.grid(b=True, which='major', axis='both',color='black', linestyle='-', linewidth=.1)
    
    cursor = Cursor(ax,color=line_color.get(), linewidth=.3)
    
    canvas = FigureCanvasTkAgg(f, master=w)
    canvas.get_tk_widget().grid(row=0,column=6)

    toolbarFrame = ttk.Frame(master=frame)
    toolbarFrame.grid(row=14, column=3, sticky='w' )
    toolbar = NavigationToolbar2Tk(canvas, toolbarFrame)
    #toolbar = NavigationToolbar2TkAgg(canvas, toolbarFrame)
    canvas.draw()

#################################################################################
###    SETUP STATE OF CHARGE GRAPH
#################################################################################   
def update_soc_chart(eventObject):
    global ax1, f1

    try:
       float(dut_cutoff.get())
    except ValueError:
       popupmsg("Please only enter 0123456789.")
    
    f1 = plt.figure(figsize=(4, 2), dpi=100,clear=False)
    ax1 = f1.add_subplot(111)

   # Clear the plot
    soc_tab[:] = []
    ocv_tab[:] = []
    esr_tab[:] = []
    dc[:] = []
    dc1[:] = []
    soc_state = 0
    curve = 0
    
    ax1.plot(soc_tab, ocv_tab)
    ax1.cla()
    
    with open(soc_file.get(), 'r')as csvfile:
       inp1 = csv.reader(csvfile, delimiter = ',')
       headers = next(inp1, None)
       headers1= next(inp1, None)
       headers2 = next(inp1, None)   

       for row in inp1:
          soc_tab.append(int(row[0]))
          ocv_tab.append(float(row[1]))
          esr_tab.append(float(row[2]))

       for i in range(len(ocv_tab)-1):
          if float(ocv_tab[i]) < float(dut_cutoff.get()):
             soc_state=soc_state+1
          curve = ocv_tab[soc_state]
          
    csvfile.close()
    
    #PLOT THE DATA
    plt.style.use('fast')
    
    ax1.set_title(soc_file.get())
    
 
    ax1.grid(b=True, which='major', axis='both',color='black', linewidth=.1)

    ax1.plot(soc_tab,ocv_tab, color='blue', linewidth=.5)
 
    ax1.plot(soc_state,float(curve), marker='o',color='red', linewidth=1)
    
    ax1.set_xlabel('SOC(%)')
    ax1.set_ylabel('OCV(V)')
    plt.ylim([min(ocv_tab)-.2,max(ocv_tab)+.2])
    ax1.minorticks_on()
    f1.tight_layout()
    ax1.invert_xaxis()

    cursor1 = Cursor(ax1,color=line_color.get(), linewidth=.3)
    
    canvas1 = FigureCanvasTkAgg(f1, master=w1)
    canvas1.get_tk_widget().grid(row=1,column=1,sticky='w')

    #toolbar = NavigationToolbar2TkAgg(canvas, toolbarFrame)
    canvas1.draw()
#################################################################################
###    SETUP VOLTAGE PARAMETERS
#################################################################################
    
def set_profile_params(eventObject):

    try:
        float(batt_cap.get())
    except ValueError:
        popupmsg("Please only enter 0123456789.")
       
    if ((batt_chem.get() == 'AA-Alkaline' or batt_chem.get() == 'AAA-Alkaline') and batt_cells.get() == '1'):
        psu_combo_box.current(1)
        soc_file.set('SOC_profiles/AA_AAA.csv') 
        battery_capactity_entry_1.delete(0,END)
        battery_capactity_entry_1.insert(0,1500)   
        voltage.set(1.5)
        dut_cutoff_voltage_entry.delete(0,END)
        dut_cutoff_voltage_entry.insert(0,1.0)
    elif((batt_chem.get() == 'AA-Alkaline' or batt_chem.get() == 'AAA-Alkaline') and batt_cells.get() == '2'):
        psu_combo_box.current(3)
        soc_file.set('SOC_profiles/AA_AAA_2.csv')
        battery_capactity_entry_1.delete(0,END)
        battery_capactity_entry_1.insert(0,1500)
        voltage.set(3.0)
        dut_cutoff_voltage_entry.delete(0,END)
        dut_cutoff_voltage_entry.insert(0,2.0)
    elif((batt_chem.get() == 'AA-Alkaline' or batt_chem.get() == 'AAA-Alkaline') and batt_cells.get() == '3'):
        psu_combo_box.current(6)
        soc_file.set('SOC_profiles/AA_AAA_3.csv')
        battery_capactity_entry_1.delete(0,END)
        battery_capactity_entry_1.insert(0,1500)
        voltage.set(4.5)
        dut_cutoff_voltage_entry.delete(0,END)
        dut_cutoff_voltage_entry.insert(0,3.0)
    elif(batt_chem.get() == 'LI-Ion' and batt_cells.get() == '1'):
        psu_combo_box.current(5)
        soc_file.set('SOC_profiles/LiIon.csv')
        battery_capactity_entry_1.delete(0,END)
        battery_capactity_entry_1.insert(0,2600)
        voltage.set(4.2)
        dut_cutoff_voltage_entry.delete(0,END)
        dut_cutoff_voltage_entry.insert(0,3.2)
    elif(batt_chem.get() == 'LiFePO4' and batt_cells.get() == '1'):
        psu_combo_box.current(5)
        soc_file.set('SOC_profiles/LiFePO4.csv')
        battery_capactity_entry_1.delete(0,END)
        battery_capactity_entry_1.insert(0,1600)
        voltage.set(3.6)
        dut_cutoff_voltage_entry.delete(0,END)
        dut_cutoff_voltage_entry.insert(0,3.0)
    elif(batt_chem.get() == 'AA-NiMH/NiCd' and batt_cells.get() == '1'):
        psu_combo_box.current(0)
        soc_file.set('SOC_profiles/NiMH_AA.csv')
        battery_capactity_entry_1.delete(0,END)
        battery_capactity_entry_1.insert(0,1500)
        voltage.set(1.2)
        dut_cutoff_voltage_entry.delete(0,END)
        dut_cutoff_voltage_entry.insert(0,1.0)
    elif(batt_chem.get() == 'AA-NiMH/NiCd' and batt_cells.get() == '2'):
        psu_combo_box.current(1)
        soc_file.set('SOC_profiles/NiMH_AA_2.csv')
        battery_capactity_entry_1.delete(0,END)
        battery_capactity_entry_1.insert(0,1500)
        voltage.set(2.4)
        dut_cutoff_voltage_entry.delete(0,END)
        dut_cutoff_voltage_entry.insert(0,2.0)
    elif(batt_chem.get() == 'AA-NiMH/NiCd' and batt_cells.get() == '3'):
        psu_combo_box.current(4)
        soc_file.set('SOC_profiles/NiMH_AA_3.csv')
        battery_capactity_entry_1.delete(0,END)
        battery_capactity_entry_1.insert(0,1500)
        voltage.set(3.6)
        dut_cutoff_voltage_entry.delete(0,END)
        dut_cutoff_voltage_entry.insert(0,3.0)
    elif(batt_chem.get() == 'AAA-NiMH/NiCd' and batt_cells.get() == '1'):
        psu_combo_box.current(0)
        soc_file.set('SOC_profiles/NiMH_AAA.csv')
        battery_capactity_entry_1.delete(0,END)
        battery_capactity_entry_1.insert(0,1500)
        voltage.set(1.2)
        dut_cutoff_voltage_entry.delete(0,END)
        dut_cutoff_voltage_entry.insert(0,1.0)
    elif(batt_chem.get() == 'AAA-NiMH/NiCd' and batt_cells.get() == '2'):
        psu_combo_box.current(1)
        soc_file.set('SOC_profiles/NiMH_AAA_2.csv')
        battery_capactity_entry_1.delete(0,END)
        battery_capactity_entry_1.insert(0,1500)
        voltage.set(2.4)
        dut_cutoff_voltage_entry.delete(0,END)
        dut_cutoff_voltage_entry.insert(0,2.0)
    elif(batt_chem.get() == 'AAA-NiMH/NiCd' and batt_cells.get() == '3'):
        psu_combo_box.current(4)
        soc_file.set('SOC_profiles/NiMH_AAA_3.csv')
        battery_capactity_entry_1.delete(0,END)
        battery_capactity_entry_1.insert(0,1500)
        voltage.set(3.6)
        dut_cutoff_voltage_entry.delete(0,END)
        dut_cutoff_voltage_entry.insert(0,3.0)
    elif(batt_chem.get() == batt_chem.get() == 'CR123' and batt_cells.get() == '1'):
        psu_combo_box.current(4)
        soc_file.set('SOC_profiles/CR123.csv')
        battery_capactity_entry_1.delete(0,END)
        battery_capactity_entry_1.insert(0,225)
        voltage.set(3.0)
        dut_cutoff_voltage_entry.delete(0,END)
        dut_cutoff_voltage_entry.insert(0,2.5)
    elif(batt_chem.get() == 'Li-Coin' and batt_cells.get() == '1'):
        psu_combo_box.current(4)
        soc_file.set('SOC_profiles/CoinCell.csv')
        battery_capactity_entry_1.delete(0,END)
        battery_capactity_entry_1.insert(0,225)
        voltage.set(3.0)
        dut_cutoff_voltage_entry.delete(0,END)
        dut_cutoff_voltage_entry.insert(0,2.5)
    else:
        popupmsg('Battery Info Error. \n\r Check number of cells \n\r  Battlab-One has a maximum 4.5V output')

    update_soc_chart(0)

#################################################################################
####     STEP1 SET BATTERY PARAMETERS AND PSU OUTPUT
#################################################################################

def set_battery_voltage():
   #Turn OFF low current sense resistor
   cmd = 'l'
   bytes_returned = ser.write(cmd.encode())
   time.sleep(0.5)
  # print("Pradio",int(p_radio.get()))
  
   if int(p_radio.get()) == 1:
      
      if voltage.get()== '1.2':
         cmd = 'a'
         bytes_returned = ser.write(cmd.encode())
         sense_resistor.set(CAL_ADJ_12)
         lo_offset.set(Offset_12)
      elif voltage.get()== '1.5':
         cmd = 'b'
         bytes_returned = ser.write(cmd.encode())
         sense_resistor.set(CAL_ADJ_15)
         lo_offset.set(Offset_15)
      elif voltage.get()== '2.4':
         cmd = 'c'
         bytes_returned = ser.write(cmd.encode())
         sense_resistor.set(CAL_ADJ_24)
         lo_offset.set(Offset_24)
      elif voltage.get()== '3.0':
         cmd = 'd'
         bytes_returned = ser.write(cmd.encode())
         sense_resistor.set(CAL_ADJ_30)
         lo_offset.set(Offset_30)
      elif voltage.get()== '3.2':
         cmd = 'o'
         bytes_returned = ser.write(cmd.encode())
         sense_resistor.set(CAL_ADJ_30)
         lo_offset.set(Offset_30)
      elif voltage.get()== '3.6':
         cmd = 'n'
         bytes_returned = ser.write(cmd.encode())
         sense_resistor.set(CAL_ADJ_36)
         lo_offset.set(Offset_36)
      elif voltage.get()== '3.7':
         cmd = 'e'
         bytes_returned = ser.write(cmd.encode())
         sense_resistor.set(CAL_ADJ_37)
         lo_offset.set(Offset_37)
      elif voltage.get()== '4.2':
         cmd = 'f'
         bytes_returned = ser.write(cmd.encode())
         sense_resistor.set(CAL_ADJ_42)
         lo_offset.set(Offset_42)
      elif voltage.get()== '4.5':
         cmd = 'g'
         bytes_returned = ser.write(cmd.encode())
         sense_resistor.set(CAL_ADJ_45)
         lo_offset.set(Offset_45)

   elif int(p_radio.get()) == 0:
      p_rad.configure(foreground='black',background='dark gray')
      p_rad1.configure(foreground='red',background='dark gray')
      cmd = 'i'
      bytes_returned = ser.write(cmd.encode())

   if trig_PSU_var.get() == 0:
      p_rad.configure(foreground='green',background='dark gray')
      p_rad1.configure(foreground='black',background='dark gray')
      p_radio.set(1)
      cmd = 'h'
      bytes_returned = ser.write(cmd.encode())
   
   update_soc_chart(0)

   capture_active_event_button.configure(state=tk.NORMAL)
   trigger_box.config(state=tk.NORMAL)
   battery_chemistry_combo_box.configure(state=tk.DISABLED)
   battery_cells_combo_box.configure(state=tk.DISABLED)
   psu_combo_box.configure(state=tk.DISABLED)
   rt_dur.configure(state=tk.NORMAL)

   step1_label.configure(foreground='black')
   step2_label.configure(foreground='blue')

#################################################################################
###    STEP2 CAPTURE ACTIVE EVENT
#################################################################################
def TrigArmed():
    capture_active_event_button.configure(text="ARM Trigger", foreground='red')
    #Start the data logger
    cmd = 'x'
    bytes_returned = ser.write(cmd.encode())
    time.sleep(0.5)
    
def capture_profile():

    try:
       float(runtime_duration.get())
      
    except ValueError:
       popupmsg("Please only enter 0123456789.")

    global ae_captured_average_current_2, \
           ae_captured_duration_2, max_current, min_current, offset

    if trig_PSU_var.get() == 1:
       cmd = 'h'
       bytes_returned = ser.write(cmd.encode())
       p_rad.config(foreground='green')
       p_rad1.config(foreground='black')
    
    ser.reset_input_buffer()
    ser.reset_output_buffer()
    
    ser.send_break(duration=0.25)
    
    ae_captured_average_current_2 = 0
    ae_captured_duration_2 = 0
    counter = 0
    cntr = DoubleVar()
    reading = StringVar()
    u = 0
    t=0

    prev_value='NONE'
    
    my_file=open('raw_byte_file.txt', mode='w+', buffering =(10*1024*1024))


    #USE TRIGGER FOR CAPTURE
    if trig_var.get()==1:
       
        progress_label.config(text = 'Capturing...' )
        progress_label.config(foreground = 'red' )

        #Start the data logger
        cmd = 'x'
        bytes_returned = ser.write(cmd.encode())
        #time.sleep(0.5)
        
        while (True):
            if ser.in_waiting > 0:         
                my_file.write(str(t))
                my_file.write(',')
                reading.set(ser.readline(2).hex())
                my_file.write(str(reading.get()))
                
                my_file.write('\n')
                t=t+1
                root.update()
                if str(reading.get()) == '0000' and prev_value == 'ffff':
                    break

                prev_value = str(reading.get())

        cmd = 'y'
        bytes_returned = ser.write(cmd.encode())

        my_file.close()

        progress_label.config(text = 'Complete' )
        progress_label.config(foreground = 'green' )
        capture_active_event_button.configure(text="Capture Active", foreground='black')

        #USE TIME (DURATION) FOR CAPTURE

    else:
        #time.sleep(0.5)
        
        pb_vd = ttk.Progressbar(profile_frame, orient='horizontal', mode='determinate',
                                maximum = float(runtime_duration.get()),length=100, variable=cntr)
        
        pb_vd.grid(row=10,column = 0,columnspan=1,padx=(215,1),sticky = 'w')
        pb_vd.start()
    
        progress_label.config(text = 'Capturing...' )
        progress_label.config(foreground = 'red' )
        
        cmd = 'z'
        bytes_returned = ser.write(cmd.encode())
        
      
        offset=time.clock()
           
        while counter < (float(runtime_duration.get())*0.81): 
            my_file.write(str(t))
            my_file.write(',')
            reading.set(ser.readline(2).hex())
            my_file.write(str(reading.get()))
            my_file.write('\n')

            #t=int(time.clock()*1000)
            t=t+1
            root.update()
        
            counter = time.clock()-offset
            cntr.set(counter)
            profile_frame.update()

        cmd = 'y'
        bytes_returned = ser.write(cmd.encode())
        
        pb_vd.stop()
        pb_vd.destroy()
      
        progress_label.config(text = 'Complete')
        progress_label.config(foreground = 'green')
       
    my_file.close()
    
    with open('raw_byte_file.txt', 'r')as csvfile:
        inp = csv.reader(csvfile, delimiter = ',')
        for row in inp:        
            if round((int(row[1],16)*LSB)/float(sense_resistor.get()),5) < 500 \
                  and round((int(row[1],16)*LSB)/float(sense_resistor.get()),5) != 0.0:
              x.append(int(row[0]))
              y.append(round((int(row[1],16)*LSB*hi_offset.get())/float(sense_resistor.get()),5))
            else:
              u=u+1  #Do Nothing

    csvfile.close()
    
    x.pop()
    y.pop()
   
    #Gather data and statistics
    ae_captured_average_current_2 = sum(y)/(len(y))
    ae_captured_duration_2 = (max(x)-min(x))/1000
    max_current = round(max(y),2)
    min_current = round(min(y),2)
    average_current_profile_data.configure(text=str(round(ae_captured_average_current_2,2)))
    max_data.configure(text=str(max_current))
    min_data.configure(text=str(min_current))
    avg_active_event_I_2.configure(text=str(round(ae_captured_average_current_2,2)))

    #Fill out partial Step 4 Actuals  
    ae_captured_current_label_4.configure(text=str(round(float(ae_captured_average_current_2),2)), foreground='black',background='dark gray') 
    ae_captured_duration_label_4.configure(text=str(round(float(ae_captured_duration_2),3)), foreground='black',background='dark gray')
    dut_cutoff_captured_label_4.configure(text=str(float(dut_cutoff_voltage_entry.get())), foreground='black',background='dark gray')

    data_plot(x,y,voltage.get(),str(min_current),str(round(max_current,2)),str(round(ae_captured_duration_2,2)), str(round(ae_captured_average_current_2,2)))

    #Copy partial Step 4 Actuals to Optimized
    ae_optimized_current_entry_4.delete(0,END)
    ae_optimized_current_entry_4.insert(0,str(round(float(ae_captured_average_current_2),2)))
    ae_optimized_duration_entry_4.delete(0,END)
    ae_optimized_duration_entry_4.insert(0,str(round(float(ae_captured_duration_2),3)))
    dut_cutoff_optimized_entry_4.delete(0,END)
    dut_cutoff_optimized_entry_4.insert(0,str(float(dut_cutoff_voltage_entry.get())))
    
    avg_active_event_I_2.configure(foreground='green',state=tk.NORMAL)
    avg_active_event_I_units.configure(foreground='green',state=tk.NORMAL)

    capture_active_event_button.config(state=tk.DISABLED)
    capture_sleep_btn_3.configure(state=tk.NORMAL)
    shunt_button.configure(state=tk.NORMAL)
    shunt_button1.configure(state=tk.NORMAL)
    export_button.configure(state=tk.NORMAL)
    filemenu.entryconfigure(3,state=tk.NORMAL)
    
    step2_label.configure(foreground='black')
    step3_label.configure(foreground='blue')
    sl_duration_entry_3.configure(state=tk.NORMAL)
    
    os.remove('raw_byte_file.txt')
      
#################################################################################
###    STEP3 CAPTURE SLEEP CURRENT
#################################################################################

def capture_sleep_profile():
   global sl_captured_average_current_3, total_event_duration,battery_life_hours, battery_life_days,progress_label_s

   try:
       float(sleep_duration.get())
      
   except ValueError:
       popupmsg("Please only enter 0123456789.")
   
   soc_state = 0
   si[:] = []

   avg_sleep_event_I_units.configure(state=tk.NORMAL)

   ser.reset_input_buffer()
   ser.reset_output_buffer()
    
   sleep_reading = StringVar()
   counter1 = 0    
   cntr1 = DoubleVar()

   pb_vd_s = ttk.Progressbar(profile_frame, orient='horizontal', mode='determinate',
                                maximum = sleep_timer.get(),length=100, variable=cntr1)
        
   pb_vd_s.grid(row=13,column = 0,columnspan=1,padx=(215,1),sticky = 'w')
   pb_vd_s.start()
    
   progress_label_s.config(text = 'Capturing...' )
   progress_label_s.config(foreground = 'red' )
   
   if shunt_var.get() == 1: #Lo current shunt is OFF
      ser.reset_input_buffer()
      ser.reset_output_buffer()
      sleep_file=open('sleep_current.txt', mode='w', buffering =(10*1024*1024))
      offset1=time.clock()
      time.sleep(0.5)
      
      cmd = 'z'
      bytes_returned = ser.write(cmd.encode())

      while counter1 < sleep_timer.get():
         sleep_reading.set(ser.readline(2).hex())
         if round((int(sleep_reading.get(),16)*LSB)/float(sense_resistor.get()),6) < 500 \
                  and round((int(sleep_reading.get(),16)*LSB)/float(sense_resistor.get()),6) != 0.0:
           si.append(round((int(sleep_reading.get(),16)*LSB)/float(sense_resistor.get()),6))
           sleep_file.write(str(round((int(sleep_reading.get(),16)*LSB)/float(sense_resistor.get()),6)))
           sleep_file.write('\n')
         root.update()
         counter1 = time.clock()-offset1
         cntr1.set(counter1)
         profile_frame.update()

      pb_vd_s.stop()
      pb_vd_s.destroy()
      
      cmd = 'y'
      bytes_returned = ser.write(cmd.encode())
      
      time.sleep(1)
      sleep_file.close()
      progress_label_s.config(text = 'Complete')
      progress_label_s.config(foreground = 'green')
      
      #sl_captured_average_current_3 = (sum(si)/(len(si)))
      sl_captured_average_current_3 = (sum(si)/(len(si)))- lo_offset.get() #Input bias current minus Offset voltage calibration

      if sl_captured_average_current_3 < .811:
         avg_sleep_event_I_units.configure(text='')
         progress_label_s.config(foreground='red',text="Overflow")
         avg_sleep_event_I.configure(foreground='red')
         popupmsg2("Sleep current out of range. \n\r Try using the 10uA - 800uA range. \n\r Captured sleep current < " + str(round(sl_captured_average_current_3,3)) + "mA")
         sl_captured_average_current_3 = 0
      else:
         avg_sleep_event_I.configure(text=str(round(sl_captured_average_current_3,2)))
         avg_sleep_event_I.configure(state=tk.NORMAL)
         avg_sleep_event_I.configure(foreground='green')
         avg_sleep_event_I_units.configure(text='mA')
         avg_sleep_event_I_units.configure(foreground='green')
      
   else:

      #Lo current shunt is ON
      ser.reset_input_buffer()
      ser.reset_output_buffer()
      sleep_file=open('sleep_current.txt', mode='w', buffering =(10*1024*1024))
   
      time.sleep(0.5)

      offset1=time.clock()
      cmd = 'z'
      bytes_returned = ser.write(cmd.encode())

      while counter1 < sleep_timer.get():
         sleep_reading.set(ser.readline(2).hex())
         if round((int(sleep_reading.get(),16)*LSB)/float(sense_resistor_LO.get()),6) < 812 \
                  and round((int(sleep_reading.get(),16)*LSB)/float(sense_resistor_LO.get()),6) != 0.0:
           si.append(round((int(sleep_reading.get(),16)*LSB)/float(sense_resistor_LO.get()),6))
           sleep_file.write(str(round((int(sleep_reading.get(),16)*LSB)/float(sense_resistor_LO.get()),6)))
           sleep_file.write('\n')
         root.update()
         counter1 = time.clock()-offset1
         cntr1.set(counter1)
         profile_frame.update()

      pb_vd_s.stop()
      pb_vd_s.destroy()
      
      cmd = 'y'
      bytes_returned = ser.write(cmd.encode())
      sleep_file.close()
      
      shunt_var.set(1)
      select_lo_shunt()
      
      progress_label_s.config(text = 'Complete')
      progress_label_s.config(foreground = 'green')
      
      #sl_captured_average_current_3 = (sum(si)/(len(si)))
      sl_captured_average_current_3 = (sum(si)/(len(si)))- lo_offset.get() #Input bias current minus Offset voltage calibration

      if sl_captured_average_current_3 *1000 > 811 or sl_captured_average_current_3 *1000 < 0:
         avg_sleep_event_I_units.configure(state=tk.DISABLED)
         progress_label_s.config(foreground='red', text="Overflow")
         avg_sleep_event_I.configure(foreground='red')
         avg_sleep_event_I_units.configure(text='')
         popupmsg2("Sleep current out of range.\n\r Try using the 800uA - 500mA range.\n\r Captured sleep current > " + str(round(sl_captured_average_current_3,3)) + "uA")
         sl_captured_average_current_3 = 0
      else:
         avg_sleep_event_I.configure(text=str(round(sl_captured_average_current_3*1000,2)))
         avg_sleep_event_I.configure(foreground='green')
         avg_sleep_event_I_units.configure(state=tk.NORMAL)
         avg_sleep_event_I_units.configure(text='uA')
         avg_sleep_event_I_units.configure(foreground='green')
   
   with open(soc_file.get(), 'r')as csvfile:
      inp = csv.reader(csvfile, delimiter = ',')
      headers = next(inp, None)
      headers1= next(inp, None)
      headers2 = next(inp, None)
      my_list = list(inp)

      for row in inp:
         soc.append(int(row[0]))
         ocv.append(float(row[1]))
         esr.append(float(row[2]))

      for i in range(len(my_list)-1):
         if (float(my_list[i][1])) < float(dut_cutoff_optimized_entry_4.get()):
            soc_state=soc_state+1
         new_bat_cap = float(1-(soc_state/100))*float(battery_capactity_entry_1.get())    
              
   #Update Results Step4 data
      
   total_event_duration = float(sleep_duration.get()) + ae_captured_duration_2

   average_current_all_events = (sl_captured_average_current_3 * float(sleep_duration.get()) \
                                 + (ae_captured_average_current_2*ae_captured_duration_2))/float(total_event_duration)

   #Complete Step 4 Captured Labels
   sl_captured_current_label_4.configure(text=str(round(float(sl_captured_average_current_3),2)), foreground='black',background='dark gray')
   sl_captured_duration_label_4.configure(text=str(round(float(sleep_duration.get()),2)), foreground='black',background='dark gray')
   average_current_profile_captured_label_4.configure(text=str(round(average_current_all_events,2)),foreground='black',background='dark gray')
   batt_cap_captured_label_4.configure(text=str(int(new_bat_cap)), foreground='black',background='dark gray')

   #Copy Step 4 Captured Labels to Optimized Entrys
   sl_optimized_current_entry_4.delete(0,END)
   sl_optimized_current_entry_4.insert(0,str(round(float(sl_captured_average_current_3),2)))
   sl_optimized_duration_entry_4.delete(0,END)
   sl_optimized_duration_entry_4.insert(0,str(round(float(sleep_duration.get()),2)))
   average_current_profile_optimized_label_4.configure(text=str(round(average_current_all_events,2)),foreground='black',background='dark gray')
   batt_cap_optimized_entry_4.delete(0,END)
   batt_cap_optimized_entry_4.insert(0,str(int(new_bat_cap)))

   si.clear()

   #Calculate Captured Battery Life Hours

   battery_life_hours =  float(new_bat_cap)/float(average_current_all_events)                                 
   battery_life_days = float(battery_life_hours/24)
                                       
   captured_battery_life_hours_graph.configure(text=str(round(float(battery_life_hours),2)),foreground='blue',background='dark gray')
   captured_battery_life_days_graph.configure(text=str(round(float(battery_life_days),2)),foreground='blue',background='dark gray')

   optimized_battery_life_hours_graph.configure(text=str(round(float(battery_life_hours),2)),foreground='blue',background='dark gray')
   optimized_battery_life_days_graph.configure(text=str(round(float(battery_life_days),2)),foreground='blue',background='dark gray')                                

   filemenu.entryconfigure(2, state=tk.NORMAL)
   reset_button.configure(state=tk.NORMAL)
   save_button.configure(state=tk.NORMAL)
   optimize_button.configure(state=tk.NORMAL)

   step3_label.configure(foreground='black')
   step4_label.configure(foreground='blue')

   os.remove('sleep_current.txt')

#################################################################################
###    STEP4 OPTIMIZED RESULTS 
#################################################################################
def optimize_profile():
   global optimized_battery_life_hours, optimized_battery_life_days, optimized_average_current_all_events


   try:
      float(batt_cap_optimized_entry_4.get())
      float(dut_cutoff_optimized_entry_4.get())
      float(sl_optimized_duration_entry_4.get())
      float(sl_optimized_current_entry_4.get())
      float(ae_optimized_duration_entry_4.get())
      float(ae_optimized_current_entry_4.get())
      
   except ValueError:
      popupmsg("Please only enter 0123456789.")

   soc_state = 0
   
   if batt_chem.get() == ('AA-Alkaline' or batt_chem.get() == 'AAA-Alkaline') and batt_cells.get() == '1':
      soc_file = 'SOC_profiles/AA_AAA.csv'
   elif batt_chem.get() == ('AA-Alkaline' or batt_chem.get() == 'AAA-Alkaline') and batt_cells.get() == '2':
      soc_file = 'SOC_profiles/AA_AAA_2.csv'
   elif batt_chem.get() == ('AA-Alkaline' or batt_chem.get() == 'AAA-Alkaline') and batt_cells.get() == '3':
      soc_file = 'SOC_profiles/AA_AAA_3.csv'
   elif batt_chem.get() == 'LI-Ion':
      soc_file = 'SOC_profiles/LiIon.csv'
   elif batt_chem.get()=='LiFePO4':
      soc_file = 'SOC_profiles/LiFePO4.csv'      
   elif batt_chem.get() == 'AA-NiMH/NiCd' and batt_cells.get() == '1':
      soc_file = 'SOC_profiles/NiMH_AA.csv'
   elif batt_chem.get() == 'AA-NiMH/NiCd' and batt_cells.get() == '2':
      soc_file = 'SOC_profiles/NiMH_AA_2.csv'
   elif batt_chem.get() == 'AA-NiMH/NiCd' and batt_cells.get() == '3':
      soc_file = 'SOC_profiles/NiMH_AA_3.csv'  
   elif batt_chem.get() == 'AAA-NiMH/NiCd' and batt_cells.get() == '1':
      soc_file = 'SOC_profiles/NiMH_AAA.csv'
   elif batt_chem.get() == 'AAA-NiMH/NiCd' and batt_cells.get() == '2':
      soc_file = 'SOC_profiles/NiMH_AAA_2.csv'
   elif batt_chem.get() == 'AAA-NiMH/NiCd' and batt_cells.get() == '3':
      soc_file = 'SOC_profiles/NiMH_AAA_3.csv'     
   elif batt_chem.get() == 'Li-Coin':
      soc_file = 'SOC_profiles/CoinCell.csv'
   elif batt_chem.get() == 'CR123':
      soc_file = 'SOC_profiles/CR123.csv'
    
      
   with open(soc_file, 'r')as csvfile:
      inp = csv.reader(csvfile, delimiter = ',')
      headers = next(inp, None)
      headers1= next(inp, None)
      headers2 = next(inp, None)
      my_list = list(inp)

      for row in inp:
         soc.append(int(row[0]))
         ocv.append(float(row[1]))
         esr.append(float(row[2]))

      for i in range(len(my_list)-1):
         if (float(my_list[i][1])) < float(dut_cutoff_optimized_entry_4.get()):
            soc_state=soc_state+1
         new_bat_cap = float(1-(soc_state/100))*float(battery_capactity_entry_1.get())    

   batt_cap_optimized_entry_4.delete(0,END)           
   batt_cap_optimized_entry_4.insert(0,str(int(new_bat_cap)))
   optimized_average_current_all_events = (float(sl_optimized_duration_entry_4.get())* float(sl_optimized_current_entry_4.get()) \
                                           + (float(ae_optimized_duration_entry_4.get())* \
                                              float(ae_optimized_current_entry_4.get())))/(float(sl_optimized_duration_entry_4.get()) \
                                                                                           + float(ae_optimized_duration_entry_4.get()))

   average_current_profile_optimized_label_4.configure(text=str(round(float(optimized_average_current_all_events),2)),\
                                                       foreground='black',background='dark gray')

   #battery_life_hours = capacity in mAH / mA
   optimized_battery_life_hours =  float(new_bat_cap)/float(optimized_average_current_all_events)
   optimized_battery_life_days = float(optimized_battery_life_hours/24)

   optimized_battery_life_hours_graph.configure(text=str(round(float(optimized_battery_life_hours),2)),foreground='blue',background='dark gray')
   optimized_battery_life_days_graph.configure(text=str(round(float(optimized_battery_life_days),2)),foreground='blue',background='dark gray')
   reset_button = tk.Button(profile_frame,text='Reset',command=reset,state=tk.NORMAL)


#################################################################################
###    RESET
#################################################################################

def reset():

    step1_label.configure(foreground='blue')
    step2_label.configure(foreground='black')
    step3_label.configure(foreground='black')
    step4_label.configure(foreground='black')

    #Turn off low current sense resistor
    select_lo_shunt()
    #Set sense resistor to low resistance
    shunt_var.set(1)
    shunt_button1.configure(state=tk.DISABLED)
         
    optimize_button.configure(state=tk.DISABLED)
    filemenu.entryconfigure(2, state=tk.DISABLED)
    filemenu.entryconfigure(3, state=tk.DISABLED)
    save_button.configure(state=tk.DISABLED)
    
    
    psu_combo_box.configure(state=tk.NORMAL)
    trigger_box.config(state=tk.NORMAL)
    battery_chemistry_combo_box.configure(state=tk.NORMAL)
    battery_cells_combo_box.configure(state=tk.NORMAL)

    cmd = 'i' #turn voltage off
    bytes_returned = ser.write(cmd.encode())
                                
    p_rad.configure(value=1,foreground='black',background='dark gray')
    p_rad.deselect()
    p_rad1.configure(value=0,foreground='red',background='dark gray')
    p_rad1.select()

    trig_PSU_var.set(0)

    capture_active_event_button.config(text = 'Capture Active' )
    capture_active_event_button.config(state=tk.DISABLED)
    capture_sleep_btn_3.configure(state=tk.DISABLED)
    shunt_button.configure(state=tk.DISABLED)
    shunt_button1.configure(state=tk.DISABLED)
    export_button.configure(state=tk.DISABLED)

    #offset = 0
    x[:] = []
    y[:] = []
    si[:] = []

    ax.plot(x, y)
    ax.cla()
    plt.close('all')
    
    data_plot(x,y,str(0),str(0),str(0),str(0),str(0))
    
    ae_captured_average_current_2 = 0
    sl_captured_average_current_3 = 0
    ae_captured_duration_2 = 0
    soc_state = 0

    progress_label.configure(text='',background='dark gray')
    progress_label_s.configure(text='',background='dark gray')
    trig_var.set(0)
    
    #Clear all of the Labels and Entry Fields
    ae_captured_current_label_4.configure(text='-',background='dark gray')
    ae_captured_duration_label_4.configure(text='-',background='dark gray')
    sl_captured_current_label_4.configure(text='-',background='dark gray')
    sl_captured_duration_label_4.configure(text='-',background='dark gray')
    dut_cutoff_captured_label_4.configure(text='-',background='dark gray')
    batt_cap_captured_label_4.configure(text='-',background='dark gray')
    average_current_profile_captured_label_4.configure(text='-',background='dark gray')
    captured_battery_life_hours_graph.configure(text='-',background='dark gray')
    captured_battery_life_days_graph.configure(text='-',background='dark gray')

    ae_optimized_current_entry_4.delete(0,END)
    ae_optimized_duration_entry_4.delete(0,END)
    dut_cutoff_optimized_entry_4.delete(0,END)
    batt_cap_optimized_entry_4.delete(0,END)
    sl_optimized_current_entry_4.delete(0,END)
    sl_optimized_duration_entry_4.delete(0,END)
    sl_optimized_current_entry_4.delete(0,END)
    sl_optimized_duration_entry_4.delete(0,END)
 
    average_current_profile_optimized_label_4.configure(text='-')
    optimized_battery_life_hours_graph.configure(text='-')
    optimized_battery_life_days_graph.configure(text='-')

    average_current_profile_data.configure(text='-')
    max_data.configure(text='-')
    min_data.configure(text='-')
    
    avg_active_event_I_2.configure(text='0.00', foreground = 'black')
    avg_active_event_I_units.configure(foreground = 'black')
    avg_sleep_event_I.configure(text='0000', foreground = 'black')
    avg_sleep_event_I_units.configure(foreground = 'black')

    reset_button = tk.Button(profile_frame,text='Reset',command=reset,state=tk.DISABLED)
   
#################################################################################
###    SETUP LABELS AND BUTTONS
#################################################################################

headerFont = font.Font(family="TkDefaultFont",size=9,underline=1)
headerFont2 = font.Font(family="TkDefaultFont",size=12,underline=1)

# STEP 1 - INPUT BATTERY INFO & PSU OUTPUT
#Battery Information
battery_chemistry_label_1 = Label(profile_frame, text='Battery Chemistry',background='dark gray')
battery_chemistry_label_1.grid(row=4, column=0, padx=10,pady=0,sticky = 'w')
batt_chem = tk.StringVar()
battery_chemistry_combo_box = ttk.Combobox(profile_frame, width=16, textvariable=batt_chem)
battery_chemistry_combo_box['values'] = ('AA-Alkaline', 'AAA-Alkaline', 'LI-Ion','LiFePO4','AA-NiMH/NiCd', 'AAA-NiMH/NiCd','Li-Coin','CR123') 
battery_chemistry_combo_box.grid(row=4, column=0,padx=(150,4),pady=(1,1),sticky = 'w')
battery_chemistry_combo_box.current(0)
battery_chemistry_combo_box.bind('<<ComboboxSelected>>', set_profile_params)

battery_cells = Label(profile_frame, text='Number of Cells',background='dark gray')
battery_cells.grid(row=5, column=0, padx=10,pady=(1,1),sticky = 'w')
batt_cells = tk.StringVar()
battery_cells_combo_box = ttk.Combobox(profile_frame, width=3, textvariable=batt_cells)
battery_cells_combo_box['values'] = (1, 2, 3) 
battery_cells_combo_box.grid(row=5, column=0,padx=(150,4),pady=(1,1),sticky = 'w')
battery_cells_combo_box.current(0)
battery_cells_combo_box.bind('<<ComboboxSelected>>', set_profile_params)
battery_cells_units = Label(profile_frame, text='cells',background='dark gray')
battery_cells_units.grid(row=5, column=0, padx=(190,4),pady=(1,1),sticky = 'w')

battery_capacity_label_1 = Label(profile_frame, text='Battery Capacity (1 cell)',background='dark gray')
battery_capacity_label_1.grid(row=6, column=0, padx=10,pady=0,sticky = 'w')
batt_cap = tk.StringVar()
battery_capactity_entry_1 = Entry(profile_frame, width=6,textvariable=batt_cap)
battery_capactity_entry_1.grid(row=6, column=0, padx=(150,4),pady=(1,1), sticky = 'w')
battery_capactity_entry_1.focus_set()
battery_capactity_entry_1.insert(0,1500)
#battery_capactity_entry_1.bind('<<ComboboxSelected>>', set_profile_params)
#battery_capactity_entry_1.bind('<Return>', set_profile_params)
#battery_capactity_entry_1.bind('<FocusOut>', set_profile_params)
battery_capactity_units = Label(profile_frame, text='mAh',background='dark gray')
battery_capactity_units.grid(row=6, column=0, padx=(190,4),pady=(1,1),sticky = 'w')
  
#Voltage
dut_cutoff_voltage = Label(profile_frame, text='DUT Cutoff Voltage',background='dark gray')
dut_cutoff_voltage.grid(row=7, column=0, padx=10,pady=(1,1),sticky = 'w')
dut_cutoff = tk.StringVar()
dut_cutoff_voltage_entry = Entry(profile_frame, width=6, textvariable = dut_cutoff)
dut_cutoff_voltage_entry.grid(row=7, column=0, padx=(150,4),pady=(1,1), sticky = 'w')
dut_cutoff_voltage_entry.insert(0,1.0)
dut_cutoff_voltage_entry.bind('<Return>', update_soc_chart)
dut_cutoff_voltage_entry.bind('<FocusOut>', update_soc_chart)
dut_cutoff_voltage_entry.focus_set()
dut_cutoff_voltage_units = Label(profile_frame, text='volts',background='dark gray')
dut_cutoff_voltage_units.grid(row=7, column=0, padx=(190,4),pady=(1,1),sticky = 'w')

volt_lab = Label(profile_frame, text='PSU Voltage Output',background='dark gray')
volt_lab.grid(row=8, column=0, padx=10,pady=(1,1),sticky = 'w')
voltage = tk.StringVar()
psu_combo_box = ttk.Combobox(profile_frame, width=3, textvariable=voltage)
psu_combo_box['values'] = (1.2, 1.5, 2.4, 3.0, 3.2, 3.6, 3.7, 4.2, 4.5) 
psu_combo_box.grid(row=8, column=0,padx=(150,4),pady=(1,1),sticky = 'w')
psu_combo_box.current(1)
psu_combo_box_units = Label(profile_frame, text='volts',background='dark gray')
psu_combo_box_units.grid(row=8, column=0, padx=(190,4),pady=(1,1),sticky = 'w')
voltage.set('1.5')
psu_lab = Label(profile_frame, text='PSU Output',background='dark gray')
psu_lab.grid(row=9, column=0, padx=10,pady=(1,1),sticky = 'w')

def psu_off():
   p_rad.configure(foreground='black',background='dark gray')
   p_rad1.configure(foreground='red',background='dark gray')
   cmd = 'i'
   bytes_returned = ser.write(cmd.encode())
   
p_radio = IntVar()
p_rad = Radiobutton(profile_frame, text = 'On', variable = p_radio, value = 1,
                    command = set_battery_voltage,background='dark gray')
p_rad.grid(row=9, column=0, padx=80, pady=(1,1),sticky = 'w')

p_rad1 = Radiobutton(profile_frame, text = 'Off', variable = p_radio, value = 0, command = psu_off,
                     foreground='red',background='dark gray')
p_rad1.grid(row=9, column=0, padx=(120,10),pady=(1,1), sticky = 'w')

trig_PSU_var = IntVar()
trigger_box = tk.Checkbutton(profile_frame, text='Trigger PSU on Capture', variable=trig_PSU_var, background='dark gray', state=tk.NORMAL)
trigger_box.grid(row=9, column=0, padx=(160,4),pady=(1,1),sticky='w')
trig_PSU_var.set(0)

#STEP2 - SET UP CAPTURE TIME AND EXECUTE CAPTURE
rt_c = Label(profile_frame, text='DUT Active Duration (s)',background='dark gray')
rt_c.grid(row=11, column=0, padx=10,pady=(1,1),sticky = 'w')
runtime_duration = tk.StringVar()
rt_dur = Entry(profile_frame, width=6,textvariable=runtime_duration)
rt_dur.grid(row=11, column=0, padx=(140,4),pady=(1,1), sticky = 'w')
rt_dur.focus_set()
rt_dur.insert(0,10)
rt_dur.configure(state=tk.DISABLED)

choice_lab = Label(profile_frame, text=' -OR- ',background='dark gray')
choice_lab.grid(row=11, column=0, padx=(180,2),pady=(1,1),sticky = 'w')

trig_var = IntVar()
trigger_box = tk.Checkbutton(profile_frame, text='Ext Trig', variable=trig_var,command = TrigArmed,background='dark gray', state=tk.DISABLED)
trigger_box.grid(row=11, column=0, padx=(215,4),pady=(1,1),sticky='w')

trig_label = ttk.Label(profile_frame, text='', background='dark gray')
trig_label.grid(row=11, column = 0, padx=(210,4),pady=(1,1),sticky='w')

progress_label = ttk.Label(profile_frame, text='',background='dark gray')
progress_label.grid(row=10, column = 0, padx=(230,4),sticky='w')
    
capture_active_event_button = tk.Button(profile_frame,text='Capture Active',command=capture_profile,state=tk.DISABLED)
capture_active_event_button.grid(row=12,column=0, padx=(10,4),pady=(1,1),sticky = 'w')
avg_active_event_I_2 = ttk.Label(profile_frame, text='0.00',font=('Arial Bold',10), foreground = 'black',background='dark gray',state=tk.DISABLED)
avg_active_event_I_2.grid(row=12, column = 0, padx= (120,4),pady=(1,1), sticky = 'w')
avg_active_event_I_units = ttk.Label(profile_frame, text='mA',font=('Arial Bold',10), foreground = 'black',background='dark gray',state=tk.DISABLED)
avg_active_event_I_units.grid(row=12, column = 0, padx=(170,4),pady=(1,1), sticky = 'w')

#STEP3 - CAPTURE SLEEP EVENT CURRENT WIDGETS
sl_range_labe1_3 = Label(profile_frame, text='Current Range',background='dark gray')
sl_range_labe1_3.grid(row=14, column=0, padx=(210,2) ,pady=(1,1),sticky = 'w')

def select_lo_shunt():
   #Turn OFF low current sense resistor
   cmd = 'l'
   bytes_returned = ser.write(cmd.encode())

def select_hi_shunt():
   #Turn ON low current sense resistor
   cmd = 'k'
   bytes_returned = ser.write(cmd.encode())

shunt_var = IntVar()
shunt_button = Radiobutton(profile_frame, text="800uA - 500mA", command=select_lo_shunt, variable=shunt_var, value=1, state=tk.DISABLED)
shunt_button.grid(row=14, column=0, padx=(205,4),pady=(1,1),sticky='w')
shunt_button1 = Radiobutton(profile_frame, text="10uA - 800uA", command=select_hi_shunt,variable=shunt_var, value=2, state=tk.DISABLED)
shunt_button1.grid(row=15, column=0, padx=(205,4),pady=(1,1),sticky='w')
shunt_var.set(1)

sl_duration_labe1_3 = Label(profile_frame, text='DUT Sleep Duration',background='dark gray')
sl_duration_labe1_3.grid(row=14, column=0, padx=10,pady=(1,1),sticky = 'w')
sleep_duration=tk.StringVar()
sl_duration_entry_3 = Entry(profile_frame, width=6,textvariable=sleep_duration)
sl_duration_entry_3.grid(row=14, column=0,padx=(120,4),pady=(1,1),sticky = 'w')
sl_duration_entry_3.insert(0,60)
sl_duration_entry_3.configure(state=tk.DISABLED)
sl_duration_units_lab_3 = Label(profile_frame, text='Sec',background='dark gray')
sl_duration_units_lab_3.grid(row=14, column=0, padx=(160,2),pady=(1,1),sticky = 'w')

progress_label_s = ttk.Label(profile_frame, text='',background='dark gray')
progress_label_s.grid(row=13, column = 0, padx=(230,4),sticky='w')
   
capture_sleep_btn_3 = tk.Button(profile_frame,text='Capture Sleep',command=capture_sleep_profile,state=tk.DISABLED)
capture_sleep_btn_3.grid(row=15,column=0, padx=(10,4),pady=(1,1),sticky = 'w')

avg_sleep_event_I = ttk.Label(profile_frame, text='0000',font=('Arial Bold',10), foreground = 'black',background='dark gray',state=tk.DISABLED)
avg_sleep_event_I.grid(row=15, column = 0, padx= (120,4),pady=(1,1), sticky = 'w')

avg_sleep_event_I_units = ttk.Label(profile_frame, text='uA',font=('Arial Bold',10), foreground = 'black',background='dark gray')
avg_sleep_event_I_units.grid(row=15, column = 0, padx=(170,4),pady=(1,1), sticky = 'w')


#STEP4 - RESULTS AND OPTIMIZE  WIDGETS
#Section 4 Fields

#Profile Headers
captured_profile_label = ttk.Label(profile_frame, text='Captured' ,font=headerFont,foreground='blue',background='dark gray')
captured_profile_label.grid(row=17, column = 0, padx=(150,4),pady=(1,1),sticky = 'w')
optimized_profile_label = Label(profile_frame, text='Optimized',foreground='blue',font=headerFont,background='dark gray')
optimized_profile_label.grid(row=17, column=0, padx=(210,1),pady=(1,1),sticky = 'w')

#Active Event Current
ae_current_label_4 = Label(profile_frame, text='Active Event Current',background='dark gray')
ae_current_label_4.grid(row=18, column=0, padx=10,pady=(1,1),sticky = 'w')
ae_captured_current_label_4 = Label(profile_frame, text='-', background='dark gray')
ae_captured_current_label_4.grid(row=18, column=0, padx=(150,4),pady=(1,1),sticky = 'w')
ae_optimized_current_entry_4 = Entry(profile_frame, width=7)
ae_optimized_current_entry_4.grid(row=18, column=0,padx=(210,4),pady=(1,1),sticky = 'w')
ae_current_units_lab_4 = Label(profile_frame, text='mA',background='dark gray')
ae_current_units_lab_4.grid(row=18, column=0, padx=(260,2),pady=(1,1),sticky = 'w')

#Active Event Duration
ae_duration_label_4 = Label(profile_frame, text='Active Event Duration',background='dark gray')
ae_duration_label_4.grid(row=19, column=0, padx=10,pady=4,sticky = 'w')
ae_captured_duration_label_4 = Label(profile_frame, text='-',background='dark gray')
ae_captured_duration_label_4.grid(row=19, column=0, padx=(150,4),pady=(1,1),sticky = 'w')
ae_optimized_duration_entry_4 = Entry(profile_frame, width=7)
ae_optimized_duration_entry_4.grid(row=19, column=0,padx=(210,4),pady=(1,1),sticky = 'w')
ae_duration_units_lab_4 = Label(profile_frame, text='S',background='dark gray')
ae_duration_units_lab_4.grid(row=19, column=0, padx=(260,2),pady=(1,1),sticky = 'w')

#Sleep Event Current
sl_current_label_4 = Label(profile_frame, text='Sleep Current',background='dark gray')
sl_current_label_4.grid(row=20, column=0, padx=10,pady=(1,1),sticky = 'w')
sl_captured_current_label_4 = Label(profile_frame, text='-',background='dark gray')
sl_captured_current_label_4.grid(row=20, column=0, padx=(150,4),pady=(1,1),sticky = 'w')
sl_optimized_current_entry_4 = Entry(profile_frame, width=7)
sl_optimized_current_entry_4.grid(row=20, column=0,padx=(210,4),pady=(1,1),sticky = 'w')
sl_current_units_lab_4 = Label(profile_frame, text='mA',background='dark gray')
sl_current_units_lab_4.grid(row=20, column=0, padx=(260,2),pady=(1,1),sticky = 'w')

#Sleep Event Duration
sl_duration_labe1_4 = Label(profile_frame, text='Sleep Duration',background='dark gray')
sl_duration_labe1_4.grid(row=21, column=0, padx=10,pady=(1,1),sticky = 'w')
sl_captured_duration_label_4 = Label(profile_frame, text='-',background='dark gray')
sl_captured_duration_label_4.grid(row=21, column=0, padx=(150,4),pady=(1,1),sticky = 'w')
sl_optimized_duration_entry_4 = Entry(profile_frame, width=7)
sl_optimized_duration_entry_4.grid(row=21, column=0,padx=(210,4),pady=(1,1),sticky = 'w')
sl_duration_units_lab_4 = Label(profile_frame, text='S',background='dark gray')
sl_duration_units_lab_4.grid(row=21, column=0, padx=(260,2),pady=(1,1),sticky = 'w')
      
#DUT Cutoff Voltage
dut_cutoff_label_4 = Label(profile_frame, text='DUT Cutoff Voltage',background='dark gray')
dut_cutoff_label_4.grid(row=22, column=0, padx=10,pady=(1,1),sticky = 'w')
dut_cutoff_captured_label_4 = Label(profile_frame, text='-',background='dark gray')
dut_cutoff_captured_label_4.grid(row=22, column=0, padx=(150,4),pady=(1,1),sticky = 'w')
dut_cutoff_optimized_entry_4 = Entry(profile_frame, width=7)
dut_cutoff_optimized_entry_4.grid(row=22, column=0, padx=(210,4),pady=(1,1), sticky = 'w')
dut_cutoff_units_lab_4 = Label(profile_frame, text='volts',background='dark gray')
dut_cutoff_units_lab_4.grid(row=22, column=0, padx=(260,2),pady=(1,1),sticky = 'w')

#Battery Capacity
batt_cap_label_4 = Label(profile_frame, text='Effective Battery Capacity',background='dark gray')
batt_cap_label_4.grid(row=23, column=0, padx=10,pady=(1,1),sticky = 'w')
batt_cap_captured_label_4 = Label(profile_frame, text='-',background='dark gray')
batt_cap_captured_label_4.grid(row=23, column=0, padx=(150,4),pady=(1,1),sticky = 'w')
batt_cap_optimized_entry_4 = Entry(profile_frame, width=7)
batt_cap_optimized_entry_4.grid(row=23, column=0, padx=(210,4),pady=(1,1), sticky = 'w')
batt_cap_units_lab_4 = Label(profile_frame, text='mAh',background='dark gray')
batt_cap_units_lab_4.grid(row=23, column=0, padx=(260,2),pady=(1,1),sticky = 'w')

#Average Current Profile
average_current_profile_label_4 = Label(profile_frame, text='Average Current Profile',background='dark gray')
average_current_profile_label_4.grid(row=24, column=0, padx=10,pady=(1,1),sticky = 'w')
average_current_profile_captured_label_4 = Label(profile_frame, text='-',background='dark gray')
average_current_profile_captured_label_4.grid(row=24, column=0, padx=(150,4),pady=(1,1),sticky = 'w')
average_current_profile_optimized_label_4 = Label(profile_frame, text='-',foreground='black', background='dark gray')
average_current_profile_optimized_label_4.grid(row=24, column=0, padx=(210,4),pady=(1,1),sticky = 'w')
average_current_profile_units_lab_4 = Label(profile_frame, text='mA',foreground='black',background='dark gray')
average_current_profile_units_lab_4.grid(row=24, column=0,padx=(260,2),pady=(1,1),sticky = 'w')

#Statistics
statistics_label = Label(profile_frame, font=headerFont,text='Statistics',background='dark gray')
statistics_label.grid(row=20, column=1, padx=5,pady=(1,1),sticky = 'w')
average_current_profile = Label(profile_frame, text='Average Active Event Current (mA) = ',background='dark gray')
average_current_profile.grid(row=21, column=1, padx=5,pady=(1,1),sticky = 'w')
average_current_profile_data = Label(profile_frame, text='-',background='dark gray')
average_current_profile_data.grid(row=21, column=1, padx=(240,2),pady=(1,1),sticky = 'w')
max_label = ttk.Label(profile_frame, text='Max active event current captured (mA) = ',background='dark gray')
max_label.grid(row=22, column = 1, rowspan=1, padx=5,pady=(2,2),sticky = 'w')
max_data = Label(profile_frame, text='-',background='dark gray')
max_data.grid(row=22, column=1,  rowspan=1,padx=(240,2),pady=(2,2),sticky = 'w')
min_label = ttk.Label(profile_frame, text='Min active event current captured (mA) = ',background='dark gray')
min_label.grid(row=23, column = 1,padx=5,pady=(2,2),sticky = 'w')
min_data = Label(profile_frame, text='-',background='dark gray')
min_data.grid(row=23,column=1,padx=(240,2),pady=(2,2),sticky = 'w')

#Profile Headers
captured_profile_label1 = ttk.Label(profile_frame, text='Captured' ,foreground='blue',background='dark gray',font=headerFont2)
captured_profile_label1.grid(row=25, column = 1, padx=(220,4),pady=(1,1),sticky = 'w')

optimized_profile_label1 = Label(profile_frame, text='Optimized',foreground='blue',background='dark gray',font=headerFont2)
optimized_profile_label1.grid(row=25, column=1, padx=(300,1),pady=(1,1),sticky = 'w')


#Battery Life Hours
batt_life_hours_captured_graph_label = ttk.Label(profile_frame, text='Estimated Battery Life (hours) ',foreground = 'blue',background='dark gray',font=("TkDefaultFont", 12))
batt_life_hours_captured_graph_label.grid(row=26, column=1, padx=5,pady=(1,1), sticky = 'w')
captured_battery_life_hours_graph = ttk.Label(profile_frame, text='-',foreground='blue',background='dark gray',font=("TkDefaultFont", 12))
captured_battery_life_hours_graph.grid(row=26, column = 1,padx=(240,4),pady=(1,1),sticky = 'w')
optimized_battery_life_hours_graph = ttk.Label(profile_frame, text='-',foreground='blue',background='dark gray',font=("TkDefaultFont", 12))
optimized_battery_life_hours_graph.grid(row=26, column = 1,padx=(320,4),pady=(1,1),sticky = 'w')
#optimized_battery_life_hours_units_lab_4 = Label(profile_frame, text='hours',foreground = 'blue',background='dark gray')
#optimized_battery_life_hours_units_lab_4.grid(row=26, column=1,padx=(300,2),pady=(1,1),sticky = 'w')

#Battery Life Days
batt_life_days_captured_graph_label = ttk.Label(profile_frame, text='Estimated Battery Life (days) ', foreground = 'blue',background='dark gray',font=("TkDefaultFont", 12))
batt_life_days_captured_graph_label.grid(row=27, column = 1,padx=5,pady=(1,1),sticky = 'w')
captured_battery_life_days_graph = ttk.Label(profile_frame, text='-' ,foreground='blue',background='dark gray',font=("TkDefaultFont", 12))
captured_battery_life_days_graph.grid(row=27, column = 1,padx=(240,4),pady=(1,1),sticky = 'w')
optimized_battery_life_days_graph = ttk.Label(profile_frame, text='-',foreground='blue',background='dark gray',font=("TkDefaultFont", 12))
optimized_battery_life_days_graph.grid(row=27, column = 1,padx=(320,4),pady=(1,1),sticky = 'w')
#optimized_battery_life_days_units_lab_4 = Label(profile_frame, text='days',foreground = 'blue',background='dark gray')
#optimized_battery_life_days_units_lab_4.grid(row=27, column=1,padx=(300,2),pady=(1,1),sticky = 'w')

#OPTIMIZE BUTTON
optimize_button = tk.Button(profile_frame,text='Optimize',command=optimize_profile,state=tk.DISABLED)
optimize_button.grid(row=25,column=0, rowspan=5,padx=(210,4),pady=(1,1),sticky = 'nw')

##RESET BUTTON
reset_button = tk.Button(profile_frame,text='Reset',command=reset,state=tk.NORMAL)
reset_button.grid(row=27,column=0,padx=(170,4),pady=(1,1),sticky = 'sw')

##SAVE BUTTON
save_button = tk.Button(profile_frame,text='Save Results',command=SaveFile,state=tk.DISABLED)
save_button.grid(row=26,column=0,padx=(90,4),pady=(1,1),sticky = 'sw')

##EXPORT DATA BUTTON
export_button = tk.Button(profile_frame,text='Export Data',command=export_data,state=tk.DISABLED)
export_button.grid(row=27,column=0,padx=(90,4),pady=(1,1),sticky = 'sw')

#STEP LABELS
step1_label = ttk.Label(profile_frame, text='Step1 - Battery Info and PSU Output',font=('Arial Bold',11), foreground = 'blue',background='dark gray')
step1_label.grid(row=3, column = 0, padx=2,pady=(1,1), sticky = 'w',columnspan=2)

step2_label = ttk.Label(profile_frame, text='Step2 - Active Event Current',font=('Arial Bold',11), background='dark gray')
step2_label.grid(row=10, column = 0, padx=2,pady=(1,1),sticky = 'w',columnspan=2)

step3_label = ttk.Label(profile_frame, text='Step3 - Sleep Event Current',font=('Arial Bold',11), background='dark gray')
step3_label.grid(row=13, column = 0, padx=2, pady=(1,1), sticky = 'w')

step4_label = ttk.Label(profile_frame, text='Step4 - Results and Optimization',font=('Arial Bold',11), background='dark gray')
step4_label.grid(row=16, column = 0, padx=2, pady=(1,1), sticky = 'w')

update_soc_chart(0)
data_plot(x,y,str(0),str(0),str(0),str(0),str(0))
#cmd = 'i' #turn voltage off
#bytes_returned = ser.write(cmd.encode())

root.protocol("WM_DELETE_WINDOW", lambda arg=root: quitapp(arg))
root.mainloop()