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| ############################################################################################################################################
# VARIABLES
############################################################################################################################################
#gen. variables
x_cur=3
y_cur=-4
laps=0.5
#tetris variables
tetris_num=0
tetris_rot=0
width_one=36.0
tetris=[[((0,2),(0,3),(1,2),(1,3)),((0,2),(0,3),(1,2),(1,3)),((0,2),(0,3),(1,2),(1,3)),((0,2),(0,3),(1,2),(1,3))],[((0,2),(0,3),(1,3),(2,3)),((0,1),(0,2),(0,3),(1,1)),((0,2),(1,2),(2,2),(2,3)),((0,3),(1,1),(1,2),(1,3))],[((0,3),(1,2),(1,3),(2,2)),((0,1),(0,2),(1,2),(1,3)),((0,3),(1,2),(1,3),(2,2)),((0,1),(0,2),(1,2),(1,3))],[((0,3),(1,3),(2,3),(3,3)),((0,1),(0,2),(0,3),(0,4)),((0,3),(1,3),(2,3),(3,3)),((0,1),(0,2),(0,3),(0,4))],[((0,2),(1,2),(1,3),(2,3)),((0,2),(0,3),(1,1),(1,2)),((0,2),(1,2),(1,3),(2,3)),((0,2),(0,3),(1,1),(1,2))],[((0,2),(1,2),(1,3),(2,2)),((0,2),(1,1),(1,2),(1,3)),((0,3),(1,2),(1,3),(2,3)),((0,1),(0,2),(0,3),(1,2))],[((0,3),(1,3),(2,2),(2,3)),((1,1),(1,2),(1,3),(2,3)),((0,2),(0,3),(1,2),(2,2)),((1,1),(2,1),(2,2),(2,3))]]
#arena variables
num_line=20
num_col=10
pix_width=width_one*num_col+2
pix_height=width_one*num_line+2
arena=[-1]*(num_line+4)
arena_end=[-1]*(num_col+2)
#colors variables
tetris_col=5
aff_color=tetris_col
bg_color="black"
color=[("orange red","red","dark red"),("light blue","blue","dark blue"),("pale green","light green","dark green"),("light grey","grey","dark grey"),("light yellow","yellow","yellow green"),("PeachPuff1","PeachPuff2","PeachPuff3"),("chocolate1","chocolate2","chocolate3"),(bg_color,bg_color,bg_color)]
#file d'attente
Q=[]
############################################################################################################################################
# DEF
############################################################################################################################################
#affiche/efface un tetris
def draw_tetris(action):
if action=='trace':
couleur=aff_color
if action=='efface':
couleur=7
for offset_x, offset_y in tetris[tetris_num][tetris_rot]:
f=0
x1=(x_cur+offset_x)*width_one+1
y1=(y_cur+offset_y)*width_one+(width_one/2)+1
y2=(y_cur+offset_y)*width_one+width_one
col1,col2,col3 = color[couleur]
tab.create_line(x1,y1,x1+width_one,y1,width=width_one,fill=col1)
while f < width_one :
tab.create_line(x1+f,y2-f,x1+width_one,y2-f,width=1,fill=col3)
f=f+1
tab.create_line(x1+width_one/4,y1,x1+width_one-width_one/4,y1,width=width_one/2,fill=col2)
return
#teste la possibilite d'afficher le tetris
def test(x_test,y_test,tetris_num_test,tetris_rot_test):
aaa=""
for offset_x, offset_y in tetris[tetris_num_test][tetris_rot_test]:
x1=(x_test+offset_x)
y1=(y_test+offset_y)
if arena[y1+4][x1+1] < 7:
return "impossible"
return "possible"
#pose le tetris dans arena
def put_tetris():
s=0
for offset_x, offset_y in tetris[tetris_num][tetris_rot]:
s=s+1
x1=(x_cur+offset_x)
y1=(y_cur+offset_y)
arena[y1+4][x1+1]=tetris_col
return
#deplace le tetris
def move(new_x,new_y,new_tetris,new_rot):
global x_cur, y_cur, num_tetris, num_rot
draw_tetris('efface')
x_cur,y_cur,num_tetris,num_rot=new_x,new_y,new_tetris,new_rot
draw_tetris('trace')
return
#vers le bas
def down_move():
global Q
if test(x_cur,y_cur+1,tetris_num,tetris_rot)=="possible":
move(x_cur,y_cur+1,tetris_num,tetris_rot)
del(Q[0])
elif test(x_cur,y_cur+1,tetris_num,tetris_rot)=="impossible":
put_tetris()
Q=["next"]
return
#vers la gauche
def left_move():
if test(x_cur-1,y_cur,tetris_num,tetris_rot)=="possible":
move(x_cur-1,y_cur,tetris_num,tetris_rot)
del(Q[0])
return
#vers la droite
def right_move():
if test(x_cur+1,y_cur,tetris_num,tetris_rot)=="possible":
move(x_cur+1,y_cur,tetris_num,tetris_rot)
del(Q[0])
return
#rotation
def rotate_up():
global tetris_rot
if test(x_cur,y_cur,tetris_num,(tetris_rot+1)%4)=="possible":
draw_tetris("efface")
tetris_rot=(tetris_rot+1)%4
draw_tetris("trace")
del(Q[0])
return
#rotation
def rotate_down():
global tetris_rot
if test(x_cur,y_cur,tetris_num,(tetris_rot-1)%4)=="possible":
draw_tetris("efface")
tetris_rot=(tetris_rot-1)%4
draw_tetris("trace")
del(Q[0])
return
#gestion des touches clavier
def Q_left(key):
if len(Q) > 1:
Q.insert(1,"left")
else:
Q.append("left")
return
def Q_right(key):
if len(Q) > 1:
Q.insert(1,"right")
else:
Q.append("right")
return
def Q_up(key):
if len(Q) > 1:
Q.insert(1,"r_up")
else:
Q.append("r_up")
return
def Q_down(key):
if len(Q) > 1:
Q.insert(1,"r_down")
else:
Q.append("r_down")
return
def Q_space(key):
if len(Q) > 1:
Q.insert(1,"down")
else:
Q.append("down")
return
#temporisation a l'arrache
def timing():
global w
while w==1:
a=len(Q)
if a==0:
Q.append("down")
elif Q[a-1]=="down":
pass
else:
Q.append("down")
sleep(laps)
return
#redessine le tableau (pas fini)
def update_arena():
x=0
while x < num_line+4:
line="complete"
for m in arena[x]:
if m > 6 :
line="incomplete"
if line=="complete":
del(arena[x])
arena.insert(0,[-1]+[7]*num_col+[-1])
x=x+1
retrace_arena()
return
def retrace_arena():
xx=0
while xx < num_line+4:
yy=1
while yy < num_col+1:
ra_color=arena[xx][yy]
if ra_color > 7:
ra_color = ra_color-8
trace_one(yy-1,xx-4,ra_color)
yy=yy+1
xx=xx+1
return
#dessine un carre
def trace_one(x,y,couleur):
f=0
x1=x*width_one+1
y1=y*width_one+(width_one/2)+1
y2=y*width_one+width_one
col1,col2,col3 = color[couleur]
tab.create_line(x1,y1,x1+width_one,y1,width=width_one,fill=col1)
while f < width_one :
tab.create_line(x1+f,y2-f,x1+width_one,y2-f,width=1,fill=col3)
f=f+1
tab.create_line(x1+width_one/4,y1,x1+width_one-width_one/4,y1,width=width_one/2,fill=col2)
return
############################################################################################################################################
# CORPS
############################################################################################################################################
#initialize arena
count=num_line+3
while count >= 0:
arena[count]=[-1]+[7]*num_col+[-1]
count=count-1
arena.append(arena_end)
#initialize tab
from Tkinter import *
from threading import *
from time import *
from random import *
tab=Canvas(bg=bg_color,height=pix_height,width=pix_width)
tab.pack()
w=1
tab.bind_all('<Left>',Q_left)
tab.bind_all('<Right>',Q_right)
tab.bind_all('<Up>',Q_up)
tab.bind_all('<Down>',Q_down)
tab.bind_all('<space>',Q_space)
tab.update()
k=Thread(None,timing,None)
k.start()
h=0
#test
while test(3,-4,tetris_num,tetris_rot)=="possible":
h=h+1
Q=[]
tetris_num=randrange(7)
aff_color=randrange(7)
fantome=randrange(10)
if fantome==0:#enlever le commentaire denant +8 pour activer les tetris fantomes
tetris_col=aff_color#+8
else:
tetris_col=aff_color
tetris_rot=randrange(4)
x_cur,y_cur=3,-4
while len(Q)==0:
pass
while Q[0] != "next":
if Q[0]=="null":
del(Q[0])
elif Q[0]=="down":
down_move()
elif Q[0]=="left":
left_move()
elif Q[0]=="right":
right_move()
elif Q[0]=="r_up":
rotate_up()
elif Q[0]=="r_down":
rotate_down()
print Q,h
tab.update()
if len(Q)==0 :
Q.append("null")
update_arena()
w=0 |
tetris : ralentissement
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