Passage de Main1.py par pylint

main1.py

 #! /usr/bin/env python3
+"""
+This is the main script for the Magna Simulation.
+It generates a GUI were the user can modify the parameter of the simulation.
+Then when user click on the button "Launch" it runs one month.
+    During one month each generated client will make 1, 2 or 3 transfer,
+    according to his
+"""
 import math
+import time
+import tkinter as tk
 import numpy as np
 import pandas as pd
 import MagnaSim1 as MaSi
-from tkinter import *
 
-window = Tk()
+WINDOW = tk.Tk()
 
-window.title("MaSi")
+WINDOW.title("MaSi")
 
-#window.geometry('600x500')
+# WINDOW.geometry('600x500')
 
-lbl_client_txt = ["BTC","ETH","MGN","BTC/ETH","ETH/MGN","MGN/BTC","B/E/M"]
+# This is a list we will need to work on the dictionnaries
+#that will contains the values the user give
+#Consider this like our tokens combinaisons index
+LBL_CLIENT_TXT = ["BTC", "ETH", "MGN", "BTC/ETH", "ETH/MGN", "MGN/BTC", "B/E/M"]
 
-lbl_client = Label(window, text="Nbr clients:")
-lbl_client.grid(column=0, row=0)
-lbl_client_coord = {"BTC":(0,1),"ETH":(0,3),"MGN":(0,5),"BTC/ETH":(1,1),"ETH/MGN":(1,3),"MGN/BTC":(1,5),"B/E/M":(2,1)}
-txt_client_coord = {"BTC":(0,2),"ETH":(0,4),"MGN":(0,6),"BTC/ETH":(1,2),"ETH/MGN":(1,4),"MGN/BTC":(1,6),"B/E/M":(2,2)}
-lbl_client_token = {}
-txt_client_token = {}
-for token in lbl_client_txt:
-    lbl_client_token[token] = Label(window, text=token)
-    txt_client_token[token] = Entry(window, width=10)
-    txt_client_token[token].insert(0,"0")
-    lbl_client_token[token].grid(row=lbl_client_coord[token][0], column=lbl_client_coord[token][1])
-    txt_client_token[token].grid(row=txt_client_coord[token][0], column=txt_client_coord[token][1])
+# We create the 2 first lines for the number of client
+#using each possible combination of tokens
+LBL_CLIENT_N = tk.Label(WINDOW, text="Nbr clients:")
+LBL_CLIENT_N.grid(column=0, row=0)
+LBL_CLIENT_COORD = {"BTC":(0, 1), "ETH":(0, 3), "MGN":(0, 5),
+                    "BTC/ETH":(1, 1), "ETH/MGN":(1, 3),
+                    "MGN/BTC":(1, 5), "B/E/M":(2, 1)}
+TXT_CLIENT_COORD = {"BTC":(0, 2), "ETH":(0, 4), "MGN":(0, 6),
+                    "BTC/ETH":(1, 2), "ETH/MGN":(1, 4),
+                    "MGN/BTC":(1, 6), "B/E/M":(2, 2)}
+LBL_CLIENT_TOKEN = {}
+TXT_CLIENT_TOKEN = {}
+for token in LBL_CLIENT_TXT:
+    LBL_CLIENT_TOKEN[token] = tk.Label(WINDOW, text=token)
+    TXT_CLIENT_TOKEN[token] = tk.Entry(WINDOW, width=10)
+    TXT_CLIENT_TOKEN[token].insert(0, "0")
+    LBL_CLIENT_TOKEN[token].grid(row=LBL_CLIENT_COORD[token][0], column=LBL_CLIENT_COORD[token][1])
+    TXT_CLIENT_TOKEN[token].grid(row=TXT_CLIENT_COORD[token][0], column=TXT_CLIENT_COORD[token][1])
 
-lbl_rates = Label(window, text="% Frais:")
-lbl_rates.grid(column=0, row=3)
-lbl_rates_coord = {"BTC":(3,1),"ETH":(3,3),"MGN":(3,5)}
-txt_rates_coord = {"BTC":(3,2),"ETH":(3,4),"MGN":(3,6)}
-lbl_rates = {}
-txt_rates = {}
-for token in lbl_client_txt[0:3]:
-    lbl_rates[token] = Label(window, text=token)
-    txt_rates[token] = Entry(window, width=10)
-    txt_rates[token].insert(0,"0")
-    lbl_rates[token].grid(row=lbl_rates_coord[token][0], column=lbl_rates_coord[token][1])
-    txt_rates[token].grid(row=txt_rates_coord[token][0], column=txt_rates_coord[token][1])
+# We create the third line were the user will input the rate
+#of fees for each type of token
+LBL_RATES_N = tk.Label(WINDOW, text="% Frais:")
+LBL_RATES_N.grid(column=0, row=3)
+LBL_RATES_COORD = {"BTC":(3, 1), "ETH":(3, 3), "MGN":(3, 5)}
+TXT_RATES_COORD = {"BTC":(3, 2), "ETH":(3, 4), "MGN":(3, 6)}
+LBL_RATES = {}
+TXT_RATES = {}
+for token in LBL_CLIENT_TXT[0:3]:
+    LBL_RATES[token] = tk.Label(WINDOW, text=token)
+    TXT_RATES[token] = tk.Entry(WINDOW, width=10)
+    TXT_RATES[token].insert(0, "0")
+    LBL_RATES[token].grid(row=LBL_RATES_COORD[token][0], column=LBL_RATES_COORD[token][1])
+    TXT_RATES[token].grid(row=TXT_RATES_COORD[token][0], column=TXT_RATES_COORD[token][1])
 
 
 def clicked():
+    """
+    This function define the actions occuring when the user launch the simulation.
+    """
     # First we get the number of clients
     # in each category
     nbr_client = {}
-    for token in lbl_client_txt:
-        nbr_client[token] = int(txt_client_token[token].get())
+    for token in LBL_CLIENT_TXT:
+        nbr_client[token] = int(TXT_CLIENT_TOKEN[token].get())
     if nbr_client[token] == None:#To avoid erors
         nbr_client[token] = 0
     # Then we get the rates for each token
+
     rates_fee = {}
-    for token in lbl_client_txt[0:3]:
-        rates_fee[token] = float(txt_rates[token].get())
+    # The rates are for BTC, ETH or MGN so we use the first
+    #3 values of our tokens combinations index
+    for token in LBL_CLIENT_TXT[0:3]:
+        rates_fee[token] = float(TXT_RATES[token].get())
     # We print the total of clients
-    lbl_SUM.configure(text=sum(nbr_client.values()))
+    LBL_SUM.configure(text=sum(nbr_client.values()))
     print(sum(nbr_client.values()))
     # We create a population
     pop = MaSi.Populations(nbr_client)
     # We create the list of transaction
     trans = MaSi.Transaction()
-    trans_value = {"BTC":0,"ETH":0,"MGN":0}
-    trans_fees = {"BTC":0,"ETH":0,"MGN":0}
+    trans_value = {"BTC":0, "ETH":0, "MGN":0}
+    trans_fees = {"BTC":0, "ETH":0, "MGN":0}
     for i in pop.population:
-        x = abs(np.random.normal(i.magna_wallet_btc[0],i.magna_wallet_btc[1]))
+        x = abs(np.random.normal(i.magna_wallet_btc[0], i.magna_wallet_btc[1]))
         if x != 0:
             trans.btc += 1
             trans_value["BTC"] += x
             trans_fees["BTC"] += x*rates_fee[token]
-        y = abs(np.random.normal(i.magna_wallet_eth[0],i.magna_wallet_eth[1]))
+        y = abs(np.random.normal(i.magna_wallet_eth[0], i.magna_wallet_eth[1]))
         if y != 0:
             trans.eth += 1
             trans_value["ETH"] += y
             trans_fees["ETH"] += y*rates_fee["ETH"]
-        z = abs(np.random.normal(i.magna_wallet_mgn[0],i.magna_wallet_mgn[1]))
+        z = abs(np.random.normal(i.magna_wallet_mgn[0], i.magna_wallet_mgn[1]))
         if z != 0:
             trans.mgn += 1
             trans_value["MGN"] += z
             trans_fees["MGN"] += z*rates_fee["MGN"]
 
 #    print("Nombre de BTC : {:f}".format(MaSi.fees_btc(trans.btc)*0.0000001))
-    print("Pour le BTC:\nLes transfères du aux frais coûtent :{:f} satoshi\n".format(MaSi.fees_btc(trans.btc)))
-    print("Pour le ETH:\nLes transfères du aux frais coûtent :{:f} Gwei\n".format(MaSi.fees_eth(trans.eth)))
-    print("Pour le MGN:\nLes transfères du aux frais coûtent :{:f} stroops\n".format(MaSi.fees_mgn(trans.mgn)))
+    print("""Pour le BTC:\n
+        Les transfères du aux frais coûtent :{:f} satoshi\n""".format(
+            MaSi.fees_btc(trans.btc)))
+    print("""Pour le ETH:\n
+        Les transfères du aux frais coûtent :{:f} Gwei\n""".format(
+            MaSi.fees_eth(trans.eth)))
+    print("""Pour le MGN:\n
+        Les transfères du aux frais coûtent :{:f} stroops\n""".format(
+            MaSi.fees_mgn(trans.mgn)))
     print("frais :", trans_fees)
     print("total mouvement:", trans_value)
 
 
-btn = Button(window, text="Launch", command=clicked)
-lbl_SUM0 = Label(window, text="clients :")
-lbl_SUM0.grid(column=7, row=21)
-lbl_SUM = Label(window, text="0")
-lbl_SUM.grid(column=8, row=21)
+btn = tk.Button(WINDOW, text="Launch", command=clicked)
+LBL_SUM0 = tk.Label(WINDOW, text="clients :")
+LBL_SUM0.grid(column=7, row=21)
+LBL_SUM = tk.Label(WINDOW, text="0")
+LBL_SUM.grid(column=8, row=21)
 
 btn.grid(column=8, row=20)
 
-txt_client_token["BTC"].focus()
+#This put the cursor directly in the Entry BTC clients
+TXT_CLIENT_TOKEN["BTC"].focus()
 
-window.mainloop()
+WINDOW.mainloop()