diff --git a/hijfong.py b/hijfong.py
index d26714a..75b547e 100644
--- a/hijfong.py
+++ b/hijfong.py
@@ -5,14 +5,37 @@ import random
 #import seaborn as sns
 #import pandas as pd
 #import numpy as np
- 
-# Create a dataset (fake)
-#df = pd.DataFrame(np.random.random((5,5)), columns=["a","b","c","d","e"])
- 
-# Default heatmap: just a visualization of this square matrix
-#p1 = sns.heatmap(df)
 
 
+from Tkinter import *
+
+def redrawAll(canvas):
+    canvas.delete(ALL)
+    # draw a red rectangle on the left half
+    canvas.create_rectangle(0, 0, 1000, 1000, fill="grey")
+    # draw semi-transparent rectangles in the middle
+
+def leftclick(event):
+    print("left")
+    print event.x, event.y
+def middleclick(event):
+    print("middle")
+def rightclick(event):
+    print("right")
+
+# create the root and the canvas
+root = Tk()
+canvas = Canvas(root, width=1000, height=1000)
+canvas.pack()
+canvas.bind("<Button-1>", leftclick)
+canvas.bind("<Button-2>", middleclick)
+canvas.bind("<Button-3>", rightclick)
+
+# Store canvas in root and in canvas itself for callbacks
+root.canvas = canvas.canvas = canvas
+# Set up canvas data and call init
+canvas.data = { }
+redrawAll(canvas)
 
 # (c) R P Clark 2019
 
@@ -26,6 +49,24 @@ def mandelbrot (re, Im, max_iter):
          return i
   return max_iter
 
+def get_col(mm):
+    if ( mm > 99 ):
+        return "black"
+    if ( mm > 90 ):
+        return "blue"
+    if ( mm > 80 ):
+        return "green"
+    if ( mm > 12 ):
+        return "red"
+    if ( mm > 8 ):
+        return "yellow" 
+    if ( mm > 4 ):
+        return "orange" 
+    if ( mm >= 3 ):
+        return "grey"
+    if ( mm >= 0 ):
+        return "white"
+
 columns = 10
 rows = 10
 
@@ -44,6 +85,33 @@ while mm < 90 and mm > 10:
   i = random.randint(-1000, 1000) / 1000.0
   mm = mandelbrot(r,i,100)
 
+rseed = r
+iseed = i
+
+def draw_complete():
+    print "draw complete called"
+    for rr in range (0, 100):
+        print " rr ", rr
+        for ii in range (0, 100):
+            # for the mandelbrot
+            # the middle of this part is defined by the seeds
+            # rr goes from 0 to 1000 but it means -2.0 to 1.0
+            # ii goes from 0 to 1000 but it means -1.0 to 1.0
+            # the mid point 500,500 is the seed
+            Re = (((rr-500) * 2.0))/100.0 - 1.0 #+ rseed
+            Im = (((ii-500) * 3.0))/100.0 - 2.0 #+ iseed
+            mm = mandelbrot(Re,Im,100)
+            col = get_col(mm)
+            canvas.create_rectangle(rr*10, 1000-ii*10, rr*10+10, 1000-ii*10+10, fill=col)
+
+
+
+
+#rseed = 0
+#iseed = 0
+#draw_complete()
+
+
 ro = 0.0
 io = 0.0
 
@@ -53,33 +121,39 @@ while 1:
   imag = raw_input("player 1: Imag: ")
   
   r = r + float(real)/100.0;
-  i = i + float(imag)/100.0;
+  i = i - float(imag)/100.0;
   ro = ro + float(real)
-  io = io + float(imag)
+  io = io - float(imag)
 
   mm = mandelbrot(r,i,100)
+  col = get_col(mm)
+  canvas.create_rectangle(ro+500, io+500, ro+500+10, io+500+10, fill=col)
   if mm > 98:
       print "you are in the STABLE zone "
   if mm < 21:
       print "you are in the CHAOS zone "
-  print "Stability factor=",mm," x=",ro*100,"y=",io*100
+  print "Stability factor=",mm," x=",ro,"y=",io
   if mm > 20 and mm < 80:
-    print "you won"
-  
+    print "you found the RAGGED EDGE OF CHAOS YOU WON"
+    draw_complete()
+
   real = raw_input("player 2: Real: ")
   imag = raw_input("player 2: Imag: ")
   
   r = r + float(real)/100.0;
-  i = i + float(imag)/100.0;
+  i = i - float(imag)/100.0;
   ro = ro + float(real)
-  io = io + float(imag)
+  io = io - float(imag)
   
   mm =  mandelbrot(r,i,100)
+  col = get_col(mm)
+  canvas.create_rectangle(ro+500, io+500, ro+500+10, io+500+10, fill=col)
   if mm > 98:
       print "you are in the STABLE zone "
   if mm < 21:
       print "you are in the CHAOS zone "
-  print "Stability factor=",mm," x=",ro*100,"y=",io*100
+  print "Stability factor=",mm," x=",ro,"y=",io
   if mm > 20 and mm < 80:
     print "you found the RAGGED EDGE OF CHAOS YOU WON"
+    draw_complete()