def ttt_segments(text):
wr = ttt.SEG_Writer()
wr.arc = False # approximate arcs with lines
wr.conic = False # approximate conic with arc/line
wr.cubic = False # approximate cubic with arc/line
wr.conic_biarc_subdivision = 10 # this has no effect?
wr.conic_line_subdivision = 50 # =10 increasesn nr of points to 366, = 5 gives 729 pts
wr.cubic_biarc_subdivision = 10 # no effect?
wr.cubic_line_subdivision = 10 # no effect?
wr.scale = 1
wr.setFont(3)
# 0 freeserif
# 1 freeserif bold
# 2 freeserif italic
# 3 freeserif bold italic
# 4 "/usr/share/fonts/truetype/freefont/FreeMonoBold.ttf" );
# 5 "/usr/share/fonts/truetype/freefont/FreeMonoBoldOblique.ttf" );
# 6 "/usr/share/fonts/truetype/freefont/FreeMonoOblique.ttf" )
# 7 "/usr/share/fonts/truetype/freefont/FreeSans.ttf" );
# 8 "/usr/share/fonts/truetype/freefont/FreeSansBold.ttf" );
# 9 "/usr/share/fonts/truetype/freefont/FreeSansBoldOblique.ttf" );
# 10 "/usr/share/fonts/truetype/freefont/FreeSansOblique.ttf" );
ttt.ttt(text,wr)
segs = wr.get_segments()
ext = wr.extents
return [ext, segs]
def ttt_segments(text):
wr = ttt.SEG_Writer()
wr.arc = False # approximate arcs with lines
wr.conic = False # approximate conic with arc/line
wr.cubic = False # approximate cubic with arc/line
wr.conic_biarc_subdivision = 10 # this has no effect?
wr.conic_line_subdivision = 50 # =10 increasesn nr of points to 366, = 5 gives 729 pts
wr.cubic_biarc_subdivision = 10 # no effect?
wr.cubic_line_subdivision = 10 # no effect?
wr.scale = 1
wr.setFont(3)
# 0 freeserif
# 1 freeserif bold
# 2 freeserif italic
# 3 freeserif bold italic
# 4 "/usr/share/fonts/truetype/freefont/FreeMonoBold.ttf" );
# 5 "/usr/share/fonts/truetype/freefont/FreeMonoBoldOblique.ttf" );
# 6 "/usr/share/fonts/truetype/freefont/FreeMonoOblique.ttf" )
# 7 "/usr/share/fonts/truetype/freefont/FreeSans.ttf" );
# 8 "/usr/share/fonts/truetype/freefont/FreeSansBold.ttf" );
# 9 "/usr/share/fonts/truetype/freefont/FreeSansBoldOblique.ttf" );
# 10 "/usr/share/fonts/truetype/freefont/FreeSansOblique.ttf" );
ttt.ttt(text, wr)
segs = wr.get_segments()
ext = wr.extents
return [ext, segs]
def ttt_segments(text, scale):
wr = ttt.SEG_Writer()
wr.arc = False
wr.conic = False
wr.cubic = False
wr.scale = float(1) / float(scale)
ttt.ttt(text, wr)
segs = wr.get_segments()
return segs
def ttt_segments(text,scale):
wr = ttt.SEG_Writer()
wr.arc = False
wr.conic = False
wr.cubic = False
wr.scale = float(1)/float(scale)
ttt.ttt(text,wr)
segs = wr.get_segments()
return segs
def ttt_segments(text,scale):
wr = ttt.SEG_Writer()
wr.arc = False # approximate arcs with lines
wr.conic = False # approximate conic with arc/line
wr.cubic = False # approximate cubic with arc/line
wr.conic_biarc_subdivision = 10 # this has no effect?
wr.conic_line_subdivision = 50 # =10 increasesn nr of points to 366, = 5 gives 729 pts
wr.cubic_biarc_subdivision = 10 # no effect?
wr.cubic_line_subdivision = 10 # no effect?
wr.scale = float(1)/float(scale)
ttt.ttt(text,wr)
segs = wr.get_segments()
return segs
def draw_ttt(myscreen, text, x, y, scale):
wr = ttt.SEG_Writer()
wr.arc = False
wr.conic = False
wr.cubic = False
wr.scale = float(1) / float(scale)
# "L" has 36 points by default
wr.conic_biarc_subdivision = 10 # this has no effect?
wr.conic_line_subdivision = 10 # this increasesn nr of points to 366
wr.cubic_biarc_subdivision = 10 # no effect?
wr.cubic_line_subdivision = 10 # no effect?
s3 = ttt.ttt(text, wr)
ext = wr.extents
print ext
dx = ext[1] - ext[0]
segs = wr.get_segments()
segs = translate(segs, x, y)
print "number of polygons: ", len(segs)
np = 0
for s in segs:
print " polygon ", np, " has ", len(s), " points"
np = np + 1
segs = modify_segments(segs)
drawLoops(myscreen, segs, ovdvtk.yellow)
def ttt_segments(text,scale):
wr = ttt.SEG_Writer()
wr.arc = False # approximate arcs with lines
wr.conic = False # approximate conic with arc/line
wr.cubic = False # approximate cubic with arc/line
# these parameters influence how we subdivide curves
wr.conic_biarc_subdivision = 50
wr.conic_line_subdivision = 50
wr.cubic_biarc_subdivision = 50
wr.cubic_line_subdivision = 50
wr.scale = float(1)/float(scale)
ttt.ttt(text,wr)
segs = wr.get_segments()
return segs
def ttt_segments(text, scale):
wr = ttt.SEG_Writer()
wr.arc = False # approximate arcs with lines
wr.conic = False # approximate conic with arc/line
wr.cubic = False # approximate cubic with arc/line
# these parameters influence how we subdivide curves
wr.conic_biarc_subdivision = 50
wr.conic_line_subdivision = 50
wr.cubic_biarc_subdivision = 50
wr.cubic_line_subdivision = 50
wr.scale = float(1) / float(scale)
ttt.ttt(text, wr)
segs = wr.get_segments()
return segs
def ttt2ngc(text,scale):
wr = ttt.NGC_Writer()
wr.arc = False # if False, approximate arcs with lines.
wr.conic = False # if False, approximate conic with arc/line
wr.cubic = False # if False, approximate cubic with arc/line
wr.scale = float(1)/float(scale)
return ttt.ttt(text,wr)
def ttt_segments():
wr = ttt.SEG_Writer()
wr.scale=1
wr.arc = False
wr.conic = False
wr.cubic = False
s3 = ttt.ttt("ABC",wr)
segs = wr.get_segments()
return segs
def ttt_segments(text, scale, conic_subdiv):
wr = ttt.SEG_Writer()
# wr.scale = 3
wr.arc = False
wr.conic = False
wr.cubic = False
wr.conic_biarc_subdivision = 10 # this has no effect?
wr.conic_line_subdivision = conic_subdiv # this increases nr of points
wr.cubic_biarc_subdivision = 10 # no effect?
wr.cubic_line_subdivision = 10 # no effect?
wr.scale = float(1) / float(scale)
s3 = ttt.ttt(text, wr)
segs = wr.get_segments()
return segs
def ttt_segments(text,scale,conic_subdiv):
wr = ttt.SEG_Writer()
# wr.scale = 3
wr.arc = False
wr.conic = False
wr.cubic = False
wr.conic_biarc_subdivision = 10 # this has no effect?
wr.conic_line_subdivision = conic_subdiv # this increases nr of points
wr.cubic_biarc_subdivision = 10 # no effect?
wr.cubic_line_subdivision = 10 # no effect?
wr.scale = float(1)/float(scale)
s3 = ttt.ttt(text,wr)
segs = wr.get_segments()
return segs
def ttt_segments(text,scale):
wr = ttt.SEG_Writer()
# wr.scale = 3
wr.arc = False
wr.conic = False
wr.cubic = False
wr.scale = float(1)/float(scale)
# "L" has 36 points by default
wr.conic_biarc_subdivision = 10 # this has no effect?
wr.conic_line_subdivision = 50 # =10 increasesn nr of points to 366, = 5 gives 729 pts
wr.cubic_biarc_subdivision = 10 # no effect?
wr.cubic_line_subdivision = 10 # no effect?
s3 = ttt.ttt(text,wr)
segs = wr.get_segments()
return segs
def ttt_segments(text, scale):
wr = ttt.SEG_Writer()
# wr.scale = 3
wr.arc = False
wr.conic = False
wr.cubic = False
wr.scale = float(1) / float(scale)
# "L" has 36 points by default
wr.conic_biarc_subdivision = 10 # this has no effect?
wr.conic_line_subdivision = 20 # =10 increasesn nr of points to 366, = 5 gives 729 pts
wr.cubic_biarc_subdivision = 10 # no effect?
wr.cubic_line_subdivision = 10 # no effect?
s3 = ttt.ttt(text, wr)
segs = wr.get_segments()
return segs
def run_play_game(m):
tt = ttt.ttt(w=w, h=h, to_win=tw)
print("yo")
while True:
moves = list(tt.legal_moves())
if False and tt.player() == 'O':
_, move = minimax(tt)
else:
move, p = m.next_move_policy(tt, True)
tt.play(move)
print("\033[0;36m\033[1m", end='')
print(tt)
print("\033[0m", end='')
print()
if tt.game_over():
print("game over, {}".format(
"x wins" if tt.state == ttt.X_WINS else "o wins" if tt.state ==
ttt.O_WINS else "draw"))
exit(0)
def ttt2ngc(text, scale):
wr = ttt.NGC_Writer()
wr.arc = False # if False, approximate arcs with lines.
wr.conic = False # if False, approximate conic with arc/line
wr.cubic = False # if False, approximate cubic with arc/line
wr.scale = float(1) / float(scale)
# set the font
wr.setFont(0) # FreeSerif
#wr.setFont(1) # FreeSerifBold
#wr.setFont(2) # FreeSerifItalic
#wr.setFont(3) # FreeSerifBoldItalic
#wr.setFont(4) # FreeMono
#wr.setFont(5) # FreeMonoBold
#wr.setFont(6) # FreeMonoBoldOblique
#wr.setFont(7) # FreeMonoOblique
#wr.setFont(8) # FreeSans
#wr.setFont(9) # FreeSansBold
#wr.setFont(10) # FreeSansBoldOblique
#wr.setFont(11) # FreeSansOblique
return ttt.ttt(text, wr)
def ttt2ngc(text,scale):
wr = ttt.NGC_Writer()
wr.arc = False # if False, approximate arcs with lines.
wr.conic = False # if False, approximate conic with arc/line
wr.cubic = False # if False, approximate cubic with arc/line
wr.scale = float(1)/float(scale)
# set the font
wr.setFont(0) # FreeSerif
#wr.setFont(1) # FreeSerifBold
#wr.setFont(2) # FreeSerifItalic
#wr.setFont(3) # FreeSerifBoldItalic
#wr.setFont(4) # FreeMono
#wr.setFont(5) # FreeMonoBold
#wr.setFont(6) # FreeMonoBoldOblique
#wr.setFont(7) # FreeMonoOblique
#wr.setFont(8) # FreeSans
#wr.setFont(9) # FreeSansBold
#wr.setFont(10) # FreeSansBoldOblique
#wr.setFont(11) # FreeSansOblique
return ttt.ttt(text,wr)
def tt():
from ttt import ttt
ttt()
import ttt
t1 = ttt.ngc()
t = ttt.ngc("abc")
print t
s = ttt.dxf()
print s
s2 = ttt.dxf("dxf")
wr = ttt.NGC_Writer()
# wr.scale = 3
s3 = ttt.ttt("",wr)
print s3
import sys
import os
import go
import ttt
import numpy as np
import random
import re
if len(sys.argv) == 3:
tt = ttt.ttt(w=19, h=19, to_win=5)
print("go")
while True:
if False and tt.player() == 'O':
move = None
else:
i = str(input())
if i == "exit" or i == "quit" or i == "q":
break
regex = re.compile('([\d]+), ?([\d]+)')
rf = regex.findall(i)
if not rf:
print("indecipherable")
continue
x, y = rf[0]
x = int(x)
y = int(y)
if x < 0 or y < 0 or x >= tt.w or y >= tt.h:
print("space ({}, {}) is out of bounds".format(x, y))
def __init__(self):
self.board = []
self.winStatus = EMPTY
for i in range(9):
self.board.append(ttt.ttt())
import ttt
#wr = ttt.NGC_Writer()
wr = ttt.SEG_Writer()
# wr.scale = 3
wr.arc = False
wr.conic = False
wr.cubic = False
s3 = ttt.ttt("LT",wr)
print s3
s = wr.get_segments()
print s