def set_parameters():
try:
int(n_var.get())
int(p_var.get())
int(m_var.get())
except:
set_label_text(warning_label, "Please enter valid integers only.")
return
nn = int(n_var.get())
np = int(p_var.get())
mm = int(m_var.get())
t = int((nn * nn * np) / 100)
if mm > t:
set_label_text(
warning_label,
"Target should be less/eq to num of sq in percentage cover.")
return
global ai
del ai
n, p, m = nn, np, mm
ai = Ai(n, p, m, status_bar)
global pen
h, v = ai.initial_state_generator()
pen = bfs_turtle
draw_grid(h, v, None, None, init=True)
pen = dfs_turtle
draw_grid(h, v, None, None, init=True)
set_label_text(warning_label, "")
set_label_text(status_bar, "Grid parameters changed.")
toggle_button(dfs_path_button, False)
toggle_button(bfs_path_button, False)
def set_parameters():
try:
int(input1_var.get())
int(input2_var.get())
except:
set_label_text(warning_label, "Please enter valid integers only.")
return
global ai
del ai
n, m = int(input1_var.get()), int(input2_var.get())
ai = Ai(n, m)
set_label_text(warning_label, "")
toggle_button(astar_path_button, False)
toggle_button(hc_path_button, False)
def runtime_graph(run=False):
global ai
# These are the results from previous runs
time = [(0.8058971352609088, 0.7959112525268416), (5.767188457820188, 1.7839178601334078),\
(7.0034266835409795, 2.983069520901978), (8.636212998031588, 4.616296621770378),\
(10.97483654365763, 6.617920596080964), (19.500726808795065, 8.78038179454515)]
time = [(0.8034134646042023, 0.8229737673923273), (1.5956936986166195, 1.5917969050000629),\
(2.846747373550863, 2.8401113741969146), (4.300874637468331, 4.2552083309090865),\
(6.25773836093562, 6.005873583211578), (14.017652400610118, 8.400256838356142)]
if run:
time = []
for size in range(2, 8):
del ai
ai = Ai(size, 80, int(size * size * 0.7), status_bar)
ai.initial_state_generator()
meta_bfs = ai.bfs(bfs_turtle, init_state=True)
meta_dfs = ai.dfs(dfs_turtle, init_state=True)
print("on size: ", size, (meta_bfs['time'], meta_dfs['time']))
time.append((meta_bfs['time'], meta_dfs['time']))
t = cmp_turtle
t.clear()
o = (-110, -110)
t.pencolor('black')
t.penup()
t.setposition(o[0], o[1])
t.pendown()
t.setposition(o[0] + 280, o[1])
t.penup()
t.setposition(o[0] + 230, o[1] + 2)
t.pendown()
t.write('Grid size')
t.penup()
t.setposition(o[0], o[1])
t.pendown()
t.setposition(o[0], o[1] + 220)
t.write('Time')
t.pencolor('red')
time = [(0, 0)] + time
stepx, stepy = 40, 8
for i in range(1, len(time)):
j = time[i][0]
t.penup()
t.setposition(o[0] + (i - 1) * stepx, o[1] + time[i - 1][0] * stepy)
t.pendown()
t.setposition(o[0] + i * stepx, o[1] + j * stepy)
t.write('bfs')
t.pencolor('blue')
for i in range(1, len(time)):
j = time[i][1]
t.penup()
t.setposition(o[0] + (i - 1) * stepx, o[1] + time[i - 1][1] * stepy)
t.pendown()
t.setposition(o[0] + i * stepx, o[1] + j * stepy)
t.write('dfs')
def set_parameters():
global ai
ai = Ai()
ab_cmp_win1_label = tk.Label(compare_frame, text='', anchor='w')
ab_cmp_win1_label.grid(row=3, column=2, sticky='w')
ab_cmp_win2_label = tk.Label(compare_frame, text='', anchor='w')
ab_cmp_win2_label.grid(row=4, column=2, sticky='w')
# Graph frames
tk.Label(right, text='Game Canvas').grid(row=0, pady=2, sticky=tk.W)
canvas = tk.Canvas(right, **border_params)
canvas.grid(row=1, sticky='nsew', padx=4, pady=4)
canvas_turtle = turtle.RawTurtle(canvas)
sel = canvas_turtle.clone()
# Print Some Guidelines
desc = 'CHECKERS AI\n\nSome specifications:'\
+'\n1. This program is gui based, there is no command line interaction with the user.'\
+'\n2. The gui is fully capable of handling all user inputs.'\
+'\n3. For all the options specified in the project description a button is implemented, please use them.'\
+'\n4. To make a move, first select a green coin and then select the position where you want to move it.'\
+'\n5. Please be patient while the Ai is calculating its next move.'\
+'\n Clicking on the canvas or pressing any button during this process may produce unexpected results.'\
+'\n\n\n'
print(desc)
ai = Ai()
# log('I m in Main')
# print "voila"
root.mainloop()
'3. Now use "show path" button to show corresponding path computed.')
add_inst(
'4. Option numbers are written on respective buttons, please use them.'
)
add_inst(
'5. Whenever bfs/dfs is called initial state is shown in their respective canvas.'
)
add_inst(
'6. Program might not respond while its computing bfs/dfs path, so please be patient.'
)
add_inst('7. Clicking on buttons while something is under process may produce unexpected results, '\
+ 'please refrain from doing that.')
# Print Some Guidelines
desc = 'MATCHSTICK AI\n\nSome specifications:'\
+'\n1. This program is gui based, there is no command line interaction with the user.'\
+'\n2. The gui is fully capable of handling all user inputs.'\
+'\n3. For all the options specified in the project description a button is implemented, please use them.'\
+'\n\n\n'
print(desc)
# Set default values in entry fields
n, p, m = (3, 100, 6)
n_var.set(n)
p_var.set(p)
m_var.set(m)
ai = Ai(n, p, m, status_bar)
root.mainloop()
add_inst('1. Input grid parameters (size & percentage coverage) and target number of squares.')
add_inst('2. Then compute bfs/dfs path using "start bfs/dfs" button.')
add_inst('3. Now use "show path" button to show corresponding path computed.')
add_inst('4. Option numbers are written on respective buttons, please use them.')
add_inst('5. Whenever bfs/dfs is called initial state is shown in their respective canvas.')
add_inst('6. Program might not respond while its computing bfs/dfs path, so please be patient.')
add_inst('7. Clicking on buttons while something is under process may produce unexpected results, '\
+ 'please refrain from doing that.')
# Print Some Guidelines
desc = 'STACKING CONTAINERS PROBLEM\n\nSome specifications:'\
+'\n1. This program is gui based, there is no command line interaction with the user.'\
+'\n2. The gui is fully capable of handling all user inputs.'\
+'\n3. For all the options specified in the project description a button is implemented, please use them.'\
+'\n\n\n'
print(desc)
# Set default values in entry fields
n, m = (6, 3)
input1_var.set(n)
input2_var.set(m)
ai = Ai(n, m)
log('I m in Main')
root.mainloop()