diff --git a/hifong3.py b/hifong3.py
new file mode 100644
index 0000000..57a70c9
--- /dev/null
+++ b/hifong3.py
@@ -0,0 +1,218 @@
+import random
+#from graphics import *
+#win = GraphWin()
+# library
+#import seaborn as sns
+#import pandas as pd
+#import numpy as np
+import math
+
+from tkinter import *
+
+# (c) R P Clark 2019
+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("tricky click")
+    #print event.x, event.y
+    r = event.x/1000.0*3.0 -2.0 + rseed
+    i = (1000-event.y)/1000.0*2.0 -1.0 + iseed
+    #print "as coords in mandel plane r=",r," i=",i
+    ro = event.x
+    io = 1000-event.y
+    #print "as coords to plot x=",ro," y=",1000-io
+    mm = mandelbrot(r,i,100)
+    col = get_col(mm)
+    io = 1000 - io
+    canvas.create_rectangle(ro, io, ro+10, io+10, fill=col)
+    if mm > 98:
+      print("you are in the STABLE zone ")
+    if mm < 21 and mm > 2:
+      print("you are in the CHAOS zone ")
+    print("Stability factor=",mm," x=",ro,"y=",io)
+    if mm > 21 and mm < 80:
+      print("you found the RAGGED EDGE OF CHAOS YOU WON with effort level TRICKY")
+      draw_complete()
+def rightclick(event):
+    print("Easy click")
+    print(event.x, event.y)
+    r = event.x/1000.0*3.0 -2.0 + rseed
+    i = (1000-event.y)/1000.0*2.0 -1.0 + iseed
+    #print "as coords in mandel plane r=",r," i=",i
+    ro = event.x
+    io = 1000-event.y
+    #print "as coords to plot x=",ro," y=",1000-io
+    mm = mandelbrot(r,i,100)
+    col = get_col(mm)
+    io = 1000 - io
+    canvas.create_rectangle(ro, io, ro+10, io+10, fill=col)
+    if mm > 98:
+      print("you are in the STABLE zone ")
+    if mm < 21 and mm > 2:
+      print("you are in the CHAOS zone ")
+    print("Stability factor=",mm," x=",ro,"y=",io)
+    if mm > 20 and mm < 80:
+      print("you found the RAGGED EDGE OF CHAOS YOU WON with effort level EASY")
+      draw_complete()
+def middleclick(event):
+    print("middle")
+
+# 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)
+
+rot = random.randint(-1570, 1570) / 1000.0
+mag = random.randint(500, 2570) / 1000.0
+#mag = 0.5
+zz = mag * complex(math.cos(rot), math.sin(rot))
+print(" rotation ", rot, "degrees ", 90*rot/1.57, "zz ",  zz)
+def mandelbrot (re, Im, max_iter):
+  c = complex (Re,Im) 
+  #print " complex c ",c
+  c = c * zz
+  #print " complex c after rotaion with zz",zz, " c is now ", c
+  z = 0.0j
+  for i in range (max_iter):
+     c = complex(re,Im) 
+     c = c * zz
+     z = z * z + c
+     if ( z.real * z.real + z.imag * z.imag) > 4:
+         return i
+  return max_iter
+
+def get_col(mm):
+    if ( mm > 99 ):
+        return "black"
+    if ( mm > 85 ):
+        return "blue"
+    if ( mm > 75 ):
+        return "cornflowerblue"
+    if ( mm > 59 ):
+        return "green"
+    if ( mm > 40 ):
+        return "cyan"
+    if ( mm > 30 ):
+        return "pink"
+    if ( mm > 16 ):
+        return "magenta"
+    if ( mm > 12 ):
+        return "red"
+    if ( mm > 9 ):
+        return "yellow" 
+    if ( mm > 7 ):
+        return "gold" 
+    if ( mm > 5 ):
+        return "orange" 
+    if ( mm >= 3 ):
+        return "grey"
+    if ( mm >= 2 ):
+        return "lightgrey"
+    if ( mm <= 1 ):
+        return "white"
+
+columns = 10
+rows = 10
+
+print("HijFong")
+for Re in range ( -2000, 1000, 333 ):
+    for Im in range ( -1000, 1000, 200 ):
+        print(mandelbrot(Re/1000.0,Im/1000.0,100), end=' ')
+    print()
+
+mm = 40
+
+# make sure 0,0 as first answer cannot win
+# i.e. in the stable or very chaotic area
+while mm < 90 and mm > 10:
+  r = random.randint(-2000, 1000) / 1000.0
+  i = random.randint(-1000, 1000) / 1000.0
+  r = r/3.0
+  i = i/2.0
+  mm = mandelbrot(r,i,100)
+
+rseed = r
+iseed = i
+
+def draw_complete():
+  print("draw complete called")
+  for rr in range (0, 1000, 10):
+   for ii in range (0, 1000, 10):
+     r = rr/1000.0*3.0 -2.0 + rseed
+     i = ii/1000.0*2.0 -1.0 + iseed
+     #print "as coords in mandel plane r=",r," i=",i
+     ro = rr
+     io = 1000-ii
+     #print "as coords to plot x=",ro," y=",1000-io
+     mm = mandelbrot(r,i,100)
+     col = get_col(mm)
+     #io = 1000 - io
+     canvas.create_rectangle(ro, io, ro+10, io+10, fill=col)
+ 
+
+
+#rseed = 0
+#iseed = 0
+#draw_complete()
+
+
+ro = 0.0
+io = 0.0
+
+while 1:
+  
+  real = input("player 1: Real: ")
+  imag = input("player 1: Imag: ")
+  
+  r = r + float(real)/100.0;
+  i = i - float(imag)/100.0;
+  ro = ro + float(real)
+  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,"y=",io)
+  if mm == 99: #if mm > 70 and mm < 75:
+    print("you found the RAGGED EDGE OF CHAOS YOU WON")
+    draw_complete()
+
+  real = input("player 2: Real: ")
+  imag = input("player 2: Imag: ")
+  
+  r = r + float(real)/100.0;
+  i = i - float(imag)/100.0;
+  ro = ro + float(real)
+  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,"y=",io)
+  if mm == 99: #if mm > 70 and mm < 75:
+    print("you found the RAGGED EDGE OF CHAOS YOU WON")
+    draw_complete()
+  
+