def printshadow(self):
shadowpos = coord(self.pos.x, self.pos.y)
while 1:
shadowpos.y += 1
if self.collision(shadowpos):
shadowpos.y -= 1
break
for i, line in enumerate(self.peice):
for j, ch in enumerate(line):
if ch != '.':
real = coord((shadowpos.x + j) * self.scl,
(shadowpos.y + i) * self.scl + self.offset.y)
color = self.selectcolor(ch)
color = color // pygame.Color(3, 3, 3)
self.printblock(coord(real.x, real.y), color, None, True)
def printpeice(self):
for i, line in enumerate(self.peice):
for j, ch in enumerate(line):
if ch != '.':
real = self.realpos(j, i)
color = self.selectcolor(ch)
self.printblock(coord(real.x, real.y), color)
def __init__(self, parent, x, y, mult) :
case.case.__init__(self, parent)
self.coord = coord.coord(x,y)
self.mult = mult
self.col_fond = self.app.settings['col_grille'][self.mult]
self.Bind(wx.EVT_LEFT_DOWN, self.OnClickCase)
self.Bind(wx.EVT_LEFT_DCLICK, self.OnClickCase)
def printStats(self):
statScale = 10
pygame.draw.line(self.screen, (255, 255, 255), (450, self.offset.y),
(450, 600 + self.offset.y), 3)
txt = pygame.font.SysFont("Arial", 20).render("Statistics", True,
(255, 255, 255))
self.screen.blit(txt, (470, 10))
txt = pygame.font.SysFont("Arial", 20).render(
"Lines: " + str(self.linesCleared), True, (255, 255, 255))
self.screen.blit(txt, (460, 50))
txt = pygame.font.SysFont("Arial", 20).render("Tetris Rate:", True,
(255, 255, 255))
self.screen.blit(txt, (460, 100))
if self.linesCleared != 0:
txt = pygame.font.SysFont("Arial", 20).render(
str(int(self.numOfTetris * 100 / self.numOfClears)) + "%",
True, (255, 255, 255))
else:
txt = pygame.font.SysFont("Arial",
20).render("100%", True, (255, 255, 255))
self.screen.blit(txt, (470, 130))
for n, item in enumerate(self.peices):
txt = pygame.font.SysFont("Arial",
20).render(str(self.record[n]), True,
(255, 255, 255))
self.screen.blit(txt, (480, 193 + 70 * n))
for i, line in enumerate(item):
for j, ch in enumerate(line):
if ch != '.':
lengthOffset = statScale * (3 - len(item)) / 2
point = coord(
lengthOffset + 480 + j * statScale, 120 + 70 * n +
i * statScale + self.offset.y + lengthOffset)
color = self.selectcolor(ch)
self.printblock(point, color, statScale)
def printgrid(self):
for i, line in enumerate(self.grid):
for j, ch in enumerate(line):
if ch != '.':
color = self.selectcolor(ch)
self.printblock(
coord(j * self.scl, i * self.scl + self.offset.y),
color)
def kbin(self, event):
if self.paused:
if event.unicode.lower() == 'p' or event.unicode.lower() == '\x1b':
self.pause()
elif event.unicode.lower() == 'q':
self.running = False
elif event.unicode.lower() == 'r':
self.__init__()
elif event.unicode.lower() == 'g':
self.grabBag = not self.grabBag
self.WriteSettingsToFile()
self.render()
self.drawPause()
elif event.unicode.lower() == 's':
self.shadowOn = not self.shadowOn
self.WriteSettingsToFile()
self.render()
self.drawPause()
elif event.unicode.lower() == 'l':
self.instant_lock = not self.instant_lock
self.WriteSettingsToFile()
self.render()
self.drawPause()
elif self.gameover:
if event.unicode.lower() == '\x1b' or event.unicode.lower() == 'q':
self.running = False
elif event.unicode.lower() == 'r':
self.__init__()
else:
if event.unicode.lower() == 'p' or event.unicode.lower() == '\x1b':
self.pause()
if event.unicode.lower() == 'w':
self.instadrop()
elif event.unicode.lower() == 'a':
self.move(coord(-1, 0))
elif event.unicode.lower() == 's':
self.move(coord(0, 1))
self.score += 1
elif event.unicode.lower() == 'd':
self.move(coord(1, 0))
elif event.unicode.lower() == 'q':
self.rotate('l')
elif event.unicode.lower() == 'e':
self.rotate('r')
elif event.unicode.lower() == ' ':
self.swaphold()
def reinit_saisie(self) :
"Enleve la fleche et les jetons temporaires de la grille (remis dans le tirage)"
for c in self :
if c.is_fleche() :
c.efface_fleche()
if c.get_jeton_status() == jeton.TEMP :
self.app.frame.tirage.move_to(c)
self.entry = False
self.app.frame.set_status_coo("")
self.coord_ini = coord.coord()
def reinit_saisie(self) :
"Enleve la fleche et les jetons temporaires de la grille (remis dans le tirage)"
for c in self :
if c.is_fleche() :
c.efface_fleche()
if c.get_jeton_status() == jeton.TEMP :
self.app.frame.tirage.move_to(c)
self.entry = False
self.app.frame.set_status_coo("")
self.coord_ini = coord.coord()
def pose_mot(self, coo_str, mot, status) :
""" Pose un mot sur la grille
La coordonnée est en texte
Appelé pour le mot du Top pour permettre de le repérer (status = PREPOSE)
Appelé depuis la box des propositions (status = TEMP)
"""
coo = coord.coord(coo_str=coo_str)
t = self.app.frame.tirage
for l in mot :
t.move_from(self.case_coord(coo), status, l)
coo = coo.next()
def pose_mot(self, coo_str, mot, status) :
""" Pose un mot sur la grille
La coordonnée est en texte
Appelé pour le mot du Top pour permettre de le repérer (status = PREPOSE)
Appelé depuis la box des propositions (status = TEMP)
"""
coo = coord.coord(coo_str=coo_str)
t = self.app.frame.tirage
for l in mot :
t.move_from(self.case_coord(coo), status, l)
coo = coo.next()
def read_grille(self, txt_grille) :
""" Initialise la grille à partir du texte renvoyé par le serveur
"""
self.vide_grille()
# prend les jetons dans le reliquat
# et les pose sur la grille
r = self.app.reliquat
for y, ligne in enumerate(txt_grille.split("\n")) :
for x, lettre in enumerate(ligne) :
if lettre != "." :
c = coord.coord(x, y)
r.move_from(self.case_coord(c), jeton.POSE, lettre)
def read_grille(self, txt_grille) :
""" Initialise la grille à partir du texte renvoyé par le serveur
"""
self.vide_grille()
# prend les jetons dans le reliquat
# et les pose sur la grille
r = self.app.reliquat
for y, ligne in enumerate(txt_grille.split("\n")) :
for x, lettre in enumerate(ligne) :
if lettre != "." :
c = coord.coord(x, y)
r.move_from(self.case_coord(c), jeton.POSE, lettre)
def lock(self):
self.holdready = True
for i, line in enumerate(self.peice):
for j, ch in enumerate(line):
if ch != '.':
self.grid[i + self.pos.y][j + self.pos.x] = ch
self.clearlines()
self.getnextpeice()
self.updateRecord()
self.pos = coord(4, 0)
if self.collision():
self.endgame()
def rotate(self, ch, recur=True):
if self.peiceLength == 2:
return
valid_directions = [
coord(1, 1),
coord(-1, 1),
coord(1, 0),
coord(-1, 0),
coord(0, 1),
coord(0, -1),
]
temp = self.matrix(self.peiceLength)
if ch == 'r':
for i in range(self.peiceLength):
for j in range(self.peiceLength):
temp[i][j] = self.peice[self.peiceLength - 1 - j][i]
self.peice = temp
if self.collision() and recur:
for direction in valid_directions:
if self.move(direction, False, True):
return
self.rotate('l', False)
elif ch == 'l':
for i in range(self.peiceLength):
for j in range(self.peiceLength):
temp[i][j] = self.peice[j][self.peiceLength - 1 - i]
self.peice = temp
if self.collision() and recur:
for direction in valid_directions:
if self.move(direction, False, True):
return
self.rotate('r', False)
def swaphold(self):
if self.holdready:
self.peice, self.hold = self.hold, self.peice
self.pos = coord(4, 0)
self.holdready = False
empty = True
for line in self.peice:
for ch in line:
if ch != '.':
empty = False
if empty:
self.getnextpeice()
self.peiceLength = len(self.peice)
def __init__(self, parent, app) :
wx.Panel.__init__(self, parent, -1)
self.app = app
self.coord_ini = coord.coord() # coord_ini est récupéré depuis case (OnClickCase)
self.coord_cur = coord.coord() # coordonnée courante
self.entry = False # flag saisie en cours
fill = self.app.settings["size_fill"]
sizer = wx.GridBagSizer(hgap=0, vgap=0)
sizer.Add( (2*fill,2*fill), pos=(0,0))
sizer.Add( (fill,fill), pos=(16,16))
for i in xrange(15) :
t = str(i+1)
sizer.Add(wx.StaticText(self, -1, t), pos=(0,i+1), flag=wx.ALIGN_CENTER)
t = chr(65+i)
sizer.Add(wx.StaticText(self, -1, t), pos=(i+1,0), flag=wx.ALIGN_CENTER)
self.cases = {}
for y in range(15) :
for x in range(15) :
self.cases[(x,y)] = case_grille.case_grille(self, x, y, mult[x][y])
sizer.Add(self.cases[(x,y)], pos=(y+1, x+1))
self.SetSizer(sizer)
self.Fit()
def __init__(self, parent, app) :
wx.Panel.__init__(self, parent, -1)
self.app = app
self.coord_ini = coord.coord() # coord_ini est récupéré depuis case (OnClickCase)
self.coord_cur = coord.coord() # coordonnée courante
self.entry = False # flag saisie en cours
fill = self.app.settings["size_fill"]
sizer = wx.GridBagSizer(hgap=0, vgap=0)
sizer.Add( (2*fill,2*fill), pos=(0,0))
sizer.Add( (fill,fill), pos=(16,16))
for i in range(15) :
t = str(i+1)
sizer.Add(wx.StaticText(self, -1, t), pos=(0,i+1), flag=wx.ALIGN_CENTER)
t = chr(65+i)
sizer.Add(wx.StaticText(self, -1, t), pos=(i+1,0), flag=wx.ALIGN_CENTER)
self.cases = {}
for y in range(15) :
for x in range(15) :
self.cases[(x,y)] = case_grille.case_grille(self, x, y, mult[x][y])
sizer.Add(self.cases[(x,y)], pos=(y+1, x+1))
self.SetSizer(sizer)
self.Fit()
def printhold(self):
pygame.draw.line(self.screen, (255, 255, 255),
(300, 135 + self.offset.y),
(450, 135 + self.offset.y), 3)
for i, line in enumerate(self.hold):
for j, ch in enumerate(line):
if ch != '.':
lengthOffset = self.scl * (4 - len(line)) / 2
point = coord(
lengthOffset + 315 + j * self.scl,
14 + i * self.scl + self.offset.y + lengthOffset)
color = self.selectcolor(ch)
self.printblock(point, color)
def __init__(self):
pygame.display.init()
pygame.font.init()
pygame.display.set_caption('PyTetris')
self.tiks = 1
self.sz = 550, 640
self.screen = pygame.display.set_mode(size=self.sz)
self.running = True
self.scl = 30
self.pos = coord(4, 0)
self.holdready = True
self.lockrate = 0
self.level = 0
self.speed = self.get_speed()
self.offset = coord(150, 40)
self.score = 0
self.locktries = 0
self.paused = False
self.chain = 0
self.grabBag = True
self.record = [0] * 7
self.remainingPeices = self.peices.copy()
self.peice = self.getrandpeice()
self.updateRecord()
self.peiceLength = len(self.peice)
self.gameover = False
self.hold = self.matrix(4)
self.grid = self.matrix(10, 20)
self.queue = [self.matrix(4) for i in range(0, 5)]
pygame.key.set_repeat(80)
self.fillqueue()
self.linesCleared = 0
self.numOfTetris = 0
self.numOfClears = 0
self.shadowOn = True
self.level_up_goal = 10
self.instant_lock = False
self.readSettingsFromFile()
def printqueue(self):
queuescl = 20
pygame.draw.line(self.screen, (255, 255, 255), (300, self.offset.y),
(300, 600 + self.offset.y), 3)
for n, item in enumerate(self.queue):
for i, line in enumerate(item):
for j, ch in enumerate(line):
if ch != '.':
lengthOffset = queuescl * (3 - len(item)) / 2
point = coord(
lengthOffset + 345 + j * queuescl,
queuescl + 150 + 90 * n + i * queuescl +
self.offset.y + lengthOffset)
color = self.selectcolor(ch)
self.printblock(point, color, queuescl)
def parse_coord(coo, type, div = ':'):
tmp1 = coo.split(div)
tmp = [float(t) for t in tmp1]
if len(tmp) == 1:
tmp.append(0)
tmp.append(0)
if len(tmp) == 2:
tmp.append(0)
c = coo[0]
if c == '-':
sgn = -1
else:
sgn = 1
return coord(abs(tmp[0]), tmp[1], tmp[2], sgn, type)
def play(self):
#game loop
while self.running:
if not self.paused and not self.gameover:
if self.tiks % self.speed == 0:
self.move(coord(0, 1), True)
if not self.gameover:
self.render()
pygame.display.update()
self.tik()
for event in pygame.event.get():
if event.type == pygame.QUIT:
self.running = False
elif event.type == pygame.KEYDOWN:
self.kbin(event)
pygame.display.quit()
def move(self, change, auto=False, nolock=False):
down = False
if change == coord(0, 1):
down = True
self.pos.x += change.x
self.pos.y += change.y
if self.collision():
self.pos.x -= change.x
self.pos.y -= change.y
if nolock:
return False
if down:
if not auto:
self.lock()
elif self.locktries >= self.lockrate or self.instant_lock:
self.lock()
self.locktries = 0
else:
self.locktries += 1
return False
return True
def __init__(self, options) :
self.options = options
while True :
tree = self.gen_part()
tot = int(tree.find("resume/total").text)
nbtour = int(tree.find("resume/nbtour").text)
if tot >= options.minpoint and options.mintour <= nbtour <= options.maxtour :
break
self.liste = []
tour = 0
for e in tree.findall("tour"):
n = e.find("tirage")
ttt = tirage.tirage(n.text)
n = e.find("coord")
ccc = coord.coord(coo_str=n.text)
n = e.find("mot")
mmm = str(n.text)
n = e.find("points")
pts = int(n.text)
tour += 1
self.liste.append( (ttt, ccc, mmm, pts, tour) )
# plus la prime de scrabble éventuele de 50 points
if scrab :
point += 50
return point, mot_nonex
if __name__ == '__main__' :
import coord
import dico
import tirage
d = dico.dico("../dic/ods5.dawg")
g = grille()
t = tirage.tirage("TETESAU")
c = coord.coord()
c.fromstr("H8")
m = "TATES"
controle = g.controle(c, m, t)
print controle
if controle <= 0 :
print g.point(c, m, controle, d)
g.pose(c, m)
print g
t = tirage.tirage("AEPESTU")
c.fromstr("7H")
m = "EPATES"
controle = g.controle(c, m, t)
print controle
import sys
sys.path.append('../common')
import wx
import case
import coord
import jeton
class case_grille(case.case):
""" Représente une case de la grille
"""
def __init__(self, parent, x, y, mult):
case.case.__init__(self, parent)
self.coord = coord.coord(x, y)
self.mult = mult
self.col_fond = self.app.settings['col_grille'][self.mult]
self.Bind(wx.EVT_LEFT_DOWN, self.OnClickCase)
self.Bind(wx.EVT_LEFT_DCLICK, self.OnClickCase)
def OnClickCase(self, evt):
""" Si on clique sur une case, on amorce une saisie
ou on passe d'horizontal à vertical si on reclique
"""
# si pas de tour en cours, on sort
if self.app.tour_on == False:
return
g = self.app.frame.grille
# si la case est vide , on met une fleche horizontale
if not self.is_fleche():
def instadrop(self):
while self.move(coord(0, 1)):
self.score += 1
def realpos(self, x=0, y=0):
return coord((self.pos.x + x) * self.scl,
(self.pos.y + y) * self.scl + self.offset.y)
def process_vdb(vdbname, gfields, sun, ind, ra_interest, dec_interest, print_coord = True, print_head = True):
lcol = 12
fields = [] + gfields
fields.append('RAJ2000')
fields.append('DEJ2000')
v = Vizier(columns = fields, catalog = vdbname)
v.ROW_LIMIT = -1
result = v.query_constraints(catalog = vdbname, RAJ2000 = ra_interest, DEJ2000 = dec_interest)
#result[result.keys()[0]].pprint()
numobjs = len(result[0])
twelveoc = 12*60*60
tms = twelveoc*np.array([1., 3., 4.])
prline = '==========' + '=' + '============'
prhead = 'Date ' + ' ' + ' Time '
l = len(fields)
if not print_coord:
l -= 2
for i in xrange(l):
prline = prline + '=' + '='*lcol
tmp = fields[i]
if len(tmp) < lcol:
tmp = tmp + ' '*(lcol - len(tmp))
prhead = prhead + ' ' + tmp
prhead = prhead + ' ' + 'Dec distance'
prline = prline + '=' + '============'
if print_head:
print prline
print prhead
print prline
for i in xrange(numobjs):
ri = result[0][i].as_void()
ri= list(ri)
ri=ri[:-2]
[ra, dec] = [ri[-2], ri[-1]]
ra = parse_coord( ra, 'ra', ' ')
dec = parse_coord( dec, 'deg', ' ')
t, num = comp_time(sun[ind-1][1], sun[ind][1], sun[ind+1][1], ra)
t = t.f2s()
if num > 0:
t += 2*twelveoc
tmp = tms - t
sz = tmp[tmp > 0].size
if sz == 1:
idx = ind+1
elif sz == 2:
idx = ind
elif sz == 3:
idx = ind-1
t = coord(0, 0, t + twelveoc, 1, 'ra')
if idx == ind:
curdate = sun[idx][0]
tmp = str(curdate[0])
if len(tmp) < 2:
tmp = ' ' + tmp
date = '' + tmp + '/'
tmp = str(curdate[1])
if len(tmp) < 2:
tmp = ' ' + tmp
date = date + tmp + '/' + str(curdate[2])
dist = comp_dist(curdate[0], curdate[1], t, dec)
printer = '' + date + ' ' + str(t)
stri = [str(x) for x in ri[:-2]]
if print_coord:
stri = stri + [str(ra), str(dec)]
for x in stri:
if len(x) < lcol:
x = ' '*(lcol - len(x)) + x
printer = printer + ' ' + x
printer = printer + ' ' + str(dist)
print printer
def handle_date(date, records, catalogue, vphi = 15):
mdays = [31, 28, 31, 30, 31, 30, 31, 31, 30, 31, 30, 31]
sun = []
for i in xrange(len(records[0])):
sun.append([parse_date(records[0][i]), parse_coord(records[1][i], 'ra'), parse_coord(records[2][i], 'deg')])
ay = sun[ 0][0][-1]
by = sun[-1][0][-1]
if len(date) == 3:
im = 1 # index of month
iy = 2 # index of year (in date list)
elif len(date) == 2:
im = 0
iy = 1
assert (date[im] > 0) and (date[im] <= 12), "Inccorect month value"
assert (date[iy] >= ay) and (date[iy] <= by), "Selected year is not presented in current sun ephemeris"
if catalogue == 'V/50':
fields = ['Name', 'HD', 'Vmag']
entry_phrase = "Catalogue V50: stars with m <= 6.5"
elif catalogue == 'VII/239A/icpos':
entry_phrase = "\nCatalogue VII/239A/icpos: mean position of NGC/IC objects"
fields = ['NGC/IC', 'Cat']
else:
print "Unknown catalogue"
return None
if date[iy] % 4 == 0:
mdays[1] += 1
if len(date) == 3:
days = [date[0]]
elif len(date) == 2:
days = range(1, mdays[date[im]-1] + 1)
for ind0, row in enumerate(sun):
if [days[0], date[im], date[iy]] in row:
break
print entry_phrase
for ind in xrange(ind0, ind0 + len(days)):
ra_interest = str(sun[ind-1][1]) + '..' + str(sun[ind+1][1])
a = sun[ind-1][2]
b = sun[ind+1][2]
if a.f2s() < b.f2s():
c = a
d = b
else:
c = b
d = a
phi = coord(vphi,0,0,1,'deg')
dec_interest = str(c - phi) + '..' + str(d + phi)
print ra_interest, dec_interest
ra_interest = ra_interest.replace(' ', '')
dec_interest = dec_interest.replace(' ', '')
if ind != ind0:
prhead = False
else:
prhead= True
process_vdb(catalogue, fields, sun, ind, ra_interest, dec_interest, print_head = prhead)
print
channel.envoi(msg.msg("info", txt))
elif ret == 0 :
m = msg.msg("connect",(0,"Erreur : nom existant", proto_serv))
self.info("Tentative de %s" % mm.nick)
elif ret == 2 :
m = msg.msg("connect",(2,"Reconnexion", proto_serv))
self.info("Reconnexion de %s" % mm.nick)
return channel, m
def traite_propo(self, (channel, mm)) :
# une proposition active le 'tick'
self.jo.set_tick(mm.nick, channel)
coo_str = mm.param[0]
mot = mm.param[1]
tir = self.tirage
coo = coord.coord(coo_str=coo_str)
controle = self.gr.controle(coo, mot, tir)
return channel, mm, controle, coo
def traite_propo_controle(self, (channel, mm, controle, coo)) :
mot = mm.param[1]
if controle <= 0 :
point, mot_nonex = self.gr.point(coo, mot, controle == -1, self.dic)
self.jo.set_msg_fin_tour(mm.nick, mot_nonex)
score = point
m = msg.msg("valid",(str(coo), mot, point))
if len(mot_nonex) > 0 :
# met le score a 0 si non existant
score = 0
self.jo.set_points_tour(mm.nick, score)
if self.options.log :
def __init__(self, x, y, mult) :
self.coord = coord.coord(x,y)
self.mult = mult
self.jeton = None
