class OKing(OPawn):
_sh_cross_bar = _so.ShBox(_vec3(0.06, 0.02, 0.02))
_shape = _so.ShCompound((
(OPawn._shape, _so.trans()),
(_sh_cross_bar, _so.trans(_vec3(z=0.06 + _MagnetPawn.HEIGHT / 2))),
(_sh_cross_bar,
_so.trans(_so.matrix3(pitch=_math.pi / 2),
_vec3(z=0.06 + _MagnetPawn.HEIGHT / 2))),
))
_mass = 0.5 # 300g to 700g
def prepare(self, fconf=None):
if fconf is None:
self.conf = self.Conf.random()
else:
self.conf = self.Conf(*fconf)
ph = self.physics
# Ground and raised zone
ground = OGround()
ground.addToWorld(ph)
self.ground = ground
o = ORaisedZone()
o.pos = _vec3(0, TABLE_SIZE.y-0.500, 0)/2
o.addToWorld(ph)
# Walls (N, E, W, S)
color = _eb.RAL[9017]
sh = _so.ShBox(_vec3(TABLE_SIZE.x+WALL_WIDTH, WALL_WIDTH, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, TABLE_SIZE.y+WALL_WIDTH, WALL_HEIGHT)/2
o.color = color
sh = _so.ShBox(_vec3(WALL_WIDTH, TABLE_SIZE.y+2*WALL_WIDTH, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(TABLE_SIZE.x+WALL_WIDTH, 0, WALL_HEIGHT)/2
o.color = color
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(-TABLE_SIZE.x-WALL_WIDTH, 0, WALL_HEIGHT)/2
o.color = color
sh = _so.ShBox(_vec3(TABLE_SIZE.x-2*Bac.SIZE.x, WALL_WIDTH, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, -TABLE_SIZE.y-WALL_WIDTH, WALL_HEIGHT)/2
o.color = color
# Bacs
self.bacs = ( Bac(0), Bac(1) )
for o in self.bacs:
o.addToWorld(ph)
# Tomatoes
for v in TOMATOES_FPOS:
self.addTomato(v)
# Corns
fakes = FAKES_FPOS_CENTER[self.conf.center] | FAKES_FPOS_SIDE[self.conf.side]
for v in CORNS_FPOS:
self.addCorn(v, v in fakes)
# Oranges and trees
self.addTree(-1,-1)
self.addTree(-1, 1)
self.addTree( 1,-1)
self.addTree( 1, 1)
def createOrange(self): o = OOrange() o.mass = 0 #XXX oranges not simulated o.addToWorld(self.physics) z = ORaisedZone.HEIGHT+self.h+0.050*_math.cos(_math.asin(0.025/0.050)) o.pos = _vec3(self.pos.x, self.pos.y, z) return o
class OPawn(_MagnetPawn):
_shape = _so.ShCylinderZ(
_vec3(_MagnetPawn.RADIUS, _MagnetPawn.RADIUS, _MagnetPawn.HEIGHT / 2))
_mass = 0.3 # 200g to 500g
def __init__(self):
_MagnetPawn.__init__(self, self._shape, self._mass)
self.color = _eb.RAL[1023]
def __init__(self, team):
if team == 0:
xy0 = self.XY0
elif team == 1:
xy0 = self.XY0 * _vec2(-1,1)
else:
raise ValueError("invalid team")
self.team = int(team)
ob = _so.OSimple(self.sh_band)
ob.pos = _vec3(0,0, WALL_HEIGHT/2) + xy0
ob.color = TEAM_COLORS[self.team]
op = _so.OSimple(self.sh_plexi)
op.pos = _vec3(0,0, -self.HEIGHT/2) + xy0
op.color = _so.Color.plexi
self.band = ob
self.plexi = op
class OPlate(_so.OSimple):
_mass = 0.220
_sh_bar_x = _so.ShBox(_vec3(.170, .022, .022)/2)
_sh_bar_y = _so.ShBox(_vec3(.022, .170, .022)/2)
_shape = _so.ShCompound((
(_sh_bar_x, _so.trans(_vec3(0, -(.170-.022), .005)/2)),
(_sh_bar_x, _so.trans(_vec3(0, (.170-.022), .005)/2)),
(_sh_bar_y, _so.trans(_vec3(-(.170-.022), 0, .005)/2)),
(_sh_bar_y, _so.trans(_vec3( (.170-.022), 0, .005)/2)),
(_so.ShBox(_vec3(.170, .170, .005)/2), _so.trans(_vec3(0, 0, -.022/2))),
))
def __init__(self):
_so.OSimple.__init__(self, self._shape, self._mass)
self.color = _eb.RAL[3015]
def branchPos(cls, x, y, h):
"""Compute position of a given branch for a given tree.
x and y are -1 or 1 and give tree position.
"""
assert x in (1,-1) and y in (-1,1), "invalid tree position"
assert h in (0.25, 0.20, 0.15), "invalid tree height"
dx = {0.25: 0, 0.20: 0.055, 0.15: 0.080}[h]
dy = {0.25: 0, 0.20: 0.075, 0.15: -0.050}[h]
y0 = {1: 0.250-0.070-0.075, -1: -0.250+0.080+0.050}[y]
return _vec3(
x * (0.500/2-0.080-0.055 + dx),
y0 + dy + TABLE_SIZE.y/2-0.250,
ORaisedZone.HEIGHT-cls._HEIGHT/2+h
)
class OBranch(_so.OSimple):
_HEIGHT = 0.25
_shape = _so.ShCylinderZ(_vec3(0.025, 0.025, _HEIGHT/2))
def __init__(self, h):
_so.OSimple.__init__(self)
self.shape = (self._shape)
#actual color differs from rules
#self.color = _so.Color.white
self.color = _so.Color(1.)
self.h = h
def createOrange(self):
o = OOrange()
o.mass = 0 #XXX oranges not simulated
o.addToWorld(self.physics)
z = ORaisedZone.HEIGHT+self.h+0.050*_math.cos(_math.asin(0.025/0.050))
o.pos = _vec3(self.pos.x, self.pos.y, z)
return o
@classmethod
def branchPos(cls, x, y, h):
"""Compute position of a given branch for a given tree.
x and y are -1 or 1 and give tree position.
"""
assert x in (1,-1) and y in (-1,1), "invalid tree position"
assert h in (0.25, 0.20, 0.15), "invalid tree height"
dx = {0.25: 0, 0.20: 0.055, 0.15: 0.080}[h]
dy = {0.25: 0, 0.20: 0.075, 0.15: -0.050}[h]
y0 = {1: 0.250-0.070-0.075, -1: -0.250+0.080+0.050}[y]
return _vec3(
x * (0.500/2-0.080-0.055 + dx),
y0 + dy + TABLE_SIZE.y/2-0.250,
ORaisedZone.HEIGHT-cls._HEIGHT/2+h
)
def prepare(self, fconf=None):
if fconf is None:
self.conf = self.Conf.random()
else:
self.conf = self.Conf(*fconf)
ph = self.physics
# Ground
ground = OGround()
ground.addToWorld(ph)
self.ground = ground
# Walls (N, S, E, W)
color = _eb.RAL[9017]
sh = _so.ShBox(_vec3(TABLE_SIZE.x+WALL_WIDTH, WALL_WIDTH, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, TABLE_SIZE.y+WALL_WIDTH, WALL_HEIGHT)/2
o.color = color
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, -TABLE_SIZE.y-WALL_WIDTH, WALL_HEIGHT)/2
o.color = color
sh = _so.ShBox(_vec3(WALL_WIDTH, TABLE_SIZE.y+2*WALL_WIDTH, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(TABLE_SIZE.x+WALL_WIDTH, 0, WALL_HEIGHT)/2
o.color = color
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(-TABLE_SIZE.x-WALL_WIDTH, 0, WALL_HEIGHT)/2
o.color = color
# Starting areas, inside borders
sh = _so.ShBox(_vec3(ground.start_size, WALL_WIDTH, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(-TABLE_SIZE.x+ground.start_size, TABLE_SIZE.y-WALL_WIDTH-2*ground.start_size, WALL_HEIGHT)/2
o.color = TEAM_COLORS[0]
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(TABLE_SIZE.x-ground.start_size, TABLE_SIZE.y-WALL_WIDTH-2*ground.start_size, WALL_HEIGHT)/2
o.color = TEAM_COLORS[1]
# Secured zones, borders (centered on surrounded squares)
sh_wall = _so.ShBox(_vec3(WALL_WIDTH, 0.150, WALL_HEIGHT)/2)
sh_block = _so.ShBox(_vec3(0.700, 0.120, WALL_HEIGHT)/2)
sh = _so.ShCompound((
(sh_wall, _so.trans(_vec2(-SQUARE_SIZE+WALL_WIDTH/2))),
(sh_wall, _so.trans(_vec2( SQUARE_SIZE-WALL_WIDTH/2))),
(sh_block, _so.trans(_vec2(0, (-SQUARE_SIZE+0.120)/2))),
))
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(-2*SQUARE_SIZE, -2.5*SQUARE_SIZE, WALL_HEIGHT/2)
o.color = color
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(2*SQUARE_SIZE, -2.5*SQUARE_SIZE, WALL_HEIGHT/2)
o.color = color
# Pawns on the field
self.pawns = [ self.addPiece(0,0) ]
for j in RANDOM_POS[self.conf.line1]:
y = (j-2)*SQUARE_SIZE
self.pawns.append( self.addPiece(-2*SQUARE_SIZE,y) )
self.pawns.append( self.addPiece( 2*SQUARE_SIZE,y) )
for j in RANDOM_POS[self.conf.line2]:
y = (j-2)*SQUARE_SIZE
self.pawns.append( self.addPiece(-1*SQUARE_SIZE,y) )
self.pawns.append( self.addPiece( 1*SQUARE_SIZE,y) )
# Pieces in dispensing zones
pos_king, pos_queen = RANDOM_POS[self.conf.kingqueen]
x = (TABLE_SIZE.x - ground.start_size)/2
for j in range(5):
y = -TABLE_SIZE.y/2 + (5-j)*DISPENSING_DY
if j == pos_king:
self.kings = ( self.addPiece(-x, y, OKing), self.addPiece(x, y, OKing) )
elif j == pos_queen:
self.queens = ( self.addPiece(-x, y, OQueen), self.addPiece(x, y, OQueen) )
else:
self.pawns.append( self.addPiece(-x,y) )
self.pawns.append( self.addPiece( x,y) )
def prepare(self, fconf=None):
ph = self.physics
# Ground and cake
ground = OGround()
ground.addToWorld(ph)
self.ground = ground
cake = OCake()
cake.addToWorld(ph)
# sideboards (NE, SE, NW, SE)
sh = _so.ShBox(_vec3(OGround.SQUARE_SIZE, 0.100, WALL_WIDTH)/2)
for x in (TABLE_SIZE.x-OGround.SQUARE_SIZE, -TABLE_SIZE.x+OGround.SQUARE_SIZE):
for y in (TABLE_SIZE.y-0.100, -TABLE_SIZE.y+0.100):
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(x, y, 0)/2
o.color = _eb.RAL[9016]
# Walls (NE, NW, S, E, W)
sh = _so.ShBox(_vec3(TABLE_SIZE.x/2+WALL_WIDTH, WALL_WIDTH, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(TABLE_SIZE.x/2+WALL_WIDTH, TABLE_SIZE.y+WALL_WIDTH, WALL_HEIGHT)/2
o.color = TEAM_COLORS[1]
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(-TABLE_SIZE.x/2-WALL_WIDTH, TABLE_SIZE.y+WALL_WIDTH, WALL_HEIGHT)/2
o.color = TEAM_COLORS[0]
sh = _so.ShBox(_vec3(TABLE_SIZE.x+2*WALL_WIDTH, WALL_WIDTH, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, -TABLE_SIZE.y-WALL_WIDTH, WALL_HEIGHT)/2
o.color = _eb.RAL[1023]
sh = _so.ShBox(_vec3(WALL_WIDTH, TABLE_SIZE.y+2*WALL_WIDTH, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(TABLE_SIZE.x+WALL_WIDTH, 0, WALL_HEIGHT)/2
o.color = TEAM_COLORS[1]
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(-TABLE_SIZE.x-WALL_WIDTH, 0, WALL_HEIGHT)/2
o.color = TEAM_COLORS[0]
# gifts
for x in (-0.9, -0.3, 0.3, 0.9):
o = OGiftSupport()
o.addToWorld(ph)
o.pos = _vec3(x, -TABLE_SIZE.y/2-WALL_WIDTH, WALL_HEIGHT-0.060)
# candles
def add_candle(r, z, a, color):
o = OCandle()
o.addToWorld(ph)
o.color = color
x, y = r*_math.cos(-_math.pi/2 + a), r*_math.sin(-_math.pi/2 + a)
o.pos = _vec3(x, y+TABLE_SIZE.y/2, z+OCandle.HEIGHT/2)
for i in range(6):
a = _math.radians(-7.5*(2*i+1))
if i < 2:
colors = (_eb.RAL[9016], _eb.RAL[9016])
elif i == 5:
colors = TEAM_COLORS
else:
colors = random.choice((TEAM_COLORS, TEAM_COLORS[::-1]))
add_candle(0.450, 0.100, a, colors[0])
add_candle(0.450, 0.100, -a, colors[1])
for i in range(4):
a = _math.radians(-11.25*(2*i+1))
if i == 3:
colors = TEAM_COLORS
else:
colors = random.choice((TEAM_COLORS, TEAM_COLORS[::-1]))
add_candle(0.350, 0.200, a, colors[0])
add_candle(0.350, 0.200, -a, colors[1])
# plates and cherries
cherries_pos = [ # position, in cherry radii
(-2, -2), (0, -2), (2, -2),
(-1, 0), (1, 0),
(-2, 2), (0, 2), (2, 2),
]
for kx in (-1, 1):
for y in (-.750, -.400, 0, .400, .750):
o = OPlate()
o.addToWorld(ph)
o.pos = _vec2(kx*(TABLE_SIZE.x-OGround.SQUARE_SIZE)/2, y)
# rotten cherry (colored)
i_rotten = random.randrange(len(cherries_pos))
for i,(cx,cy) in enumerate(cherries_pos):
if i == i_rotten:
co = OCherry(1 if kx == 1 else 0)
else:
co = OCherry()
co.addToWorld(ph)
co.pos = o.pos + _vec3(cx*co.r, cy*co.r, co.r+0.010)
# glasses
glasses_pos = [ # positions for x>0
(.300, .050), (.600, .050),
(.150, -.200), (.450, -.200),
(.300, -.450), (.600, -.450),
]
for kx in (-1, 1):
for x,y in glasses_pos:
o = OGlass()
o.addToWorld(ph)
o.pos = _vec2(kx*x, y)
"""
from _simulotter._eurobot2009 import *
import _simulotter as _so
import eurobot as _eb
from _simulotter import vec2 as _vec2, vec3 as _vec3
from eurobot import WALL_WIDTH, WALL_HEIGHT
TABLE_SIZE = _vec2(3.0, 2.1)
TEAM_COLORS = (_eb.RAL[6018], _eb.RAL[3020])
# field contants
COL_SPACE_XY = _vec2(0.250, 0.200)
COL_OFFSET_XY = _vec2(0.400, 0.125)
DISP_OFFSET = _vec3(0.289, 0.250, 0.045)
COL_POS = (
(0,1,2), (0,2,5), (0,2,4), (0,2,3), (0,1,4),
(0,1,5), (0,4,5), (0,1,3), (0,3,5), (0,3,4),
)
class OGround(_so.OGroundSquareStart):
def __init__(self):
_so.OGroundSquareStart.__init__(self, TABLE_SIZE, _eb.RAL[5015], *TEAM_COLORS)
class Match(_eb.Match):
"""
Gather match data.
def prepare(self, fconf=None):
if fconf is None:
self.conf = self.Conf.random()
else:
self.conf = self.Conf(*fconf)
ph = self.physics
# Ground
ground = OGround()
ground.addToWorld(ph)
self.ground = ground
# Walls (N, S, E, W)
color = _eb.RAL[5012]
sh = _so.ShBox(_vec3(TABLE_SIZE.x+WALL_WIDTH, WALL_WIDTH, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, TABLE_SIZE.y+WALL_WIDTH, WALL_HEIGHT)/2
o.color = color
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, -TABLE_SIZE.y-WALL_WIDTH, WALL_HEIGHT)/2
o.color = color
sh = _so.ShBox(_vec3(WALL_WIDTH, TABLE_SIZE.y+2*WALL_WIDTH, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(TABLE_SIZE.x+WALL_WIDTH, 0, WALL_HEIGHT)/2
o.color = color
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(-TABLE_SIZE.x-WALL_WIDTH, 0, WALL_HEIGHT)/2
o.color = color
# Ship borders
W = 0.018 # border width
deck_angle = _math.atan2(0.4-0.325, TABLE_SIZE.y-ground.start_size-W)
sh = _so.ShBox(_vec3(0.4, W, W)/2)
for kx in (1, -1):
o = _so.OSimple(sh)
o.addToWorld(ph)
o.color = _eb.RAL[8002]
o.pos = _vec3(kx*(TABLE_SIZE.x-0.4)/2, TABLE_SIZE.y/2-ground.start_size-W/2, W/2)
r = 0.75
sh = _so.ShBox(_vec3(W, r, W)/2)
for kx in (1, -1):
a = kx*deck_angle
o = _so.OSimple(sh)
o.addToWorld(ph)
o.color = _eb.RAL[8002]
o.trans = _so.trans(
_so.quat(_vec3(0,0,1), a),
# hacky offset, for better-looking result
_vec3(kx*( TABLE_SIZE.x/2-(3*0.325+0.4)/4-W*_math.cos(a)/2 +0.002),
(-TABLE_SIZE.y+r*_math.cos(a))/2, W/2
))
# Ship's hold covers
# static for now (cannot be opened)
ox = (TABLE_SIZE.x-0.340)/2 + 0.018
oy = -(TABLE_SIZE.y-0.610)/2 - 0.018
sh_barh = _so.ShBox(_vec3(0.340, 0.018, 0.018)/2)
sh_barv = _so.ShBox(_vec3(0.018, 0.610, 0.018)/2)
sh = _so.ShCompound((
(sh_barh, _so.trans(_vec3(0, 0.610-0.018, 0)/2)),
(sh_barh, _so.trans(_vec3(0, -(0.610-0.018), 0)/2)),
(sh_barv, _so.trans(_vec3(0.340-0.018, 0, 0)/2)),
(sh_barv, _so.trans(_vec3(-(0.340-0.018), 0, 0)/2)),
))
for kx in (1, -1):
o = _so.OSimple(sh)
o.addToWorld(ph)
o.color = _eb.RAL[8002]
o.pos = _vec3(kx*ox, oy, WALL_HEIGHT+0.018/2)
sh = _so.ShBox(_vec3(0.340, 0.610, 0.001)/2)
for kx in (1, -1):
o = _so.OSimple(sh)
o.addToWorld(ph)
o.color = _so.Color.plexi
o.pos = _vec3(kx*ox, oy, WALL_HEIGHT+0.018+0.001/2)
# Palm-tree
sh = _so.ShCylinderZ(_vec3(0.04, 0.04, 0.250)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.color = _eb.RAL[8002]
o.pos = _vec3(0, 0, 0.250/2)
sh = _so.ShCylinderZ(_vec3(0.150, 0.150, 0.002)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.color = _eb.RAL[6018]
o.pos = _vec3(0, 0, 0.250+0.002/2)
# Totems
sh_trunk = _so.ShBox(_vec3(0.070, 0.070, 0.163)/2)
sh_flat = _so.ShBox(_vec3(0.250, 0.250, 0.018)/2)
sh = _so.ShCompound((
(sh_trunk, _so.trans()),
(sh_flat, _so.trans(_vec3(0, 0, -0.0545-0.018))),
(sh_flat, _so.trans(_vec3(0, 0, 0))),
(sh_flat, _so.trans(_vec3(0, 0, +0.0545+0.018))),
))
for kx in (1, -1):
o = _so.OSimple(sh)
o.addToWorld(ph)
o.color = _eb.RAL[8002]
o.pos = _vec3(kx*0.8, 0, 0.163)/2
# Treasure map
#TODO map width is not known yet, centered on X
map_width = 0.400
sh_back = _so.ShBox(_vec3(map_width, 0.258, 0.010)/2)
sh_side = _so.ShBox(_vec3(0.018, 0.258, 0.018)/2)
# origin is the nearest point to the table
sh = _so.ShCompound((
(sh_back, _so.trans(_vec3(0, 0.258/2, 0.010/2))),
(sh_side, _so.trans(_vec3(-(map_width-0.018)/2, 0.258/2, 0.010+0.018/2))),
(sh_side, _so.trans(_vec3( (map_width-0.018)/2, 0.258/2, 0.010+0.018/2))),
))
o = _so.OSimple(sh)
o.addToWorld(ph)
o.color = _eb.RAL[5012]
a = _math.radians(35)
o.trans = _so.trans(
_so.quat(_vec3(1,0,0), a),
_vec3(0, TABLE_SIZE.y/2, 0.315-(0.258+(0.018+0.10))*_math.sin(a))
)
# Bottle supports
w = WALL_WIDTH
sh_small = _so.ShBox(_vec3(0.089, w, w)/2)
sh_large = _so.ShBox(_vec3(0.200, w, w)/2)
sh = _so.ShCompound((
(sh_small, _so.trans(_vec3(-(0.089+w)/2, -w/2, w/2))),
(sh_small, _so.trans(_vec3( (0.089+w)/2, -w/2, w/2))),
(sh_large, _so.trans(_vec3(0, -w/2, w+w/2))),
(sh_large, _so.trans(_vec3(0, -w-w/2, -w/2))),
))
for x in (TABLE_SIZE.x/2-0.640, -(TABLE_SIZE.x/2-0.640-0.477)):
for kx in (1, -1):
o = _so.OSimple(sh)
o.addToWorld(ph)
o.color = _eb.RAL[5012]
o.pos = _vec3(kx*x, -TABLE_SIZE.y/2, WALL_HEIGHT)
# Bottle buttons
# origin is the attache point on the border (y=WALL_HEIGHT)
# reuse sh_large and w from bottle supports
#TODO sh_buttonv Y size is not known
sh_buttonh = _so.ShBox(_vec3(w, 2*w, w)/2)
sh_buttonv = _so.ShBox(_vec3(w, w, 0.103)/2)
sh = _so.ShCompound((
(sh_large, _so.trans(_vec3(0, -w-w/2, w/2))),
(sh_buttonh, _so.trans(_vec3(0, 0, w/2))),
(sh_buttonv, _so.trans(_vec3(0, w+w/2, -WALL_HEIGHT+0.003+0.103/2))),
))
for x in (TABLE_SIZE.x/2-0.640, -(TABLE_SIZE.x/2-0.640-0.477)):
for kx in (1, -1):
o = _so.OSimple(sh, 0.100)
o.addToWorld(ph)
o.color = TEAM_COLORS[ 1 if kx == 1 else 0 ]
o.pos = _vec3(kx*x, -TABLE_SIZE.y/2, WALL_HEIGHT)
# Bullions
bsize = OBullion.SIZE
l = [] # x, y, z_bottom, angle_z
l.append((0, -TABLE_SIZE.y/2+0.647, 0, 0))
for kx in (1, -1):
# bullion along the deck
v = _vec2(TABLE_SIZE.x/2-0.400-bsize.y/2, TABLE_SIZE.y/2-ground.start_size)
v += _vec2(0, -0.285-bsize.x/2).rotate(deck_angle)
l.append((kx*v.x, v.y, 0, _math.pi/2+kx*deck_angle))
# bullions on totems
l.append((kx*0.8/2, (0.070+0.090)/2, 0.018+0.0545+0.018, 0))
l.append((kx*0.8/2, -(0.070+0.090)/2, 0.018+0.0545+0.018, 0))
for x,y,z0,a in l:
o = OBullion()
o.addToWorld(ph)
o.trans = _so.trans(
_so.quat(_vec3(0,0,1), a),
_vec3(x, y, z0 + bsize.z/2 + ph.margin_epsilon)
)
# Coins
#XXX exact position of several coins is not known
l = [
# (x>0, y, z_bottom, angle_z)
(TABLE_SIZE.x/2-0.450, -TABLE_SIZE.y/2+0.300, 0, 0),
(0.090, -TABLE_SIZE.y/2+0.300, 0, 0)
]
for i in range(-3,4):
a = i*_math.pi/4
ca = _math.cos(a)
sa = _math.sin(a)
l.append( (0.8/2+0.25*ca, 0.25*sa, 0, a) )
if i % 2 == 1:
l.append( (0.8/2+0.100*ca, 0.110*sa, 0.018, a) )
l.append( (0.8/2+0.100*ca, 0.110*sa, 0.163, a) )
# group coins them by pairs for random picking of black coins
lpairs = [(
(0, -TABLE_SIZE.y/2+0.300+0.090, 0, _math.pi/2),
(0, -TABLE_SIZE.y/2+0.300-0.090, 0, -_math.pi/2)
)]
for x,y,z0,a in l:
lpairs.append(((x,y,z0,a), (-x,y,z0,-a+_math.pi)))
# pick up random pairs which will be black
import random
black_pairs = random.sample(lpairs, 2)
# last pair, never black
lpairs.append((
( TABLE_SIZE.x/2-0.5-0.5, TABLE_SIZE.y/2-0.5, 0, 0),
(-(TABLE_SIZE.x/2-0.5-0.5), TABLE_SIZE.y/2-0.5, 0, _math.pi)
))
# finally, created the coins
for p in lpairs:
white = p not in black_pairs
for x,y,z0,a in p:
o = OCoin(white)
o.addToWorld(ph)
o.trans = _so.trans(
_so.quat(_vec3(0,0,1), a),
_vec3(x, y, z0 + OCoin.CUBE_SIZE + ph.margin_epsilon)
)
class Bac:
"""Collect bac."""
XY0 = _vec2(TABLE_SIZE.x-0.500, -TABLE_SIZE.y)/2
SIZE = _vec2(0.500, 0.300)
WIDTH = 0.010
HEIGHT = 0.300
_band_side = _so.ShBox(_vec3(WIDTH, SIZE.y, WALL_HEIGHT)/2)
_plexi_side = _so.ShBox(_vec3(WIDTH, SIZE.y, HEIGHT)/2)
_band_back = _so.ShBox(_vec3(SIZE.x+2*WIDTH, WIDTH, WALL_HEIGHT)/2)
_plexi_back = _so.ShBox(_vec3(SIZE.x+2*WIDTH, WIDTH, HEIGHT)/2)
_plexi_front = _so.ShBox(_vec3(SIZE.x+2*WIDTH, WIDTH, HEIGHT-0.040)/2)
_plexi_bottom = _so.ShBox(_vec3(SIZE.x+2*WIDTH, WIDTH+SIZE.y, WIDTH)/2)
sh_band = _so.ShCompound((
(_band_side, _so.trans(_vec2(-SIZE.x-WIDTH, -SIZE.y)/2)),
(_band_side, _so.trans(_vec2( SIZE.x+WIDTH, -SIZE.y)/2)),
(_band_back, _so.trans(_vec2(0, -2*SIZE.y-WIDTH)/2)),
))
sh_plexi = _so.ShCompound((
(_plexi_side, _so.trans(_vec3(-SIZE.x-WIDTH, -SIZE.y, 0)/2)),
(_plexi_side, _so.trans(_vec3( SIZE.x+WIDTH, -SIZE.y, 0)/2)),
(_plexi_back, _so.trans(_vec3(0, -2*SIZE.y-WIDTH, 0)/2)),
(_plexi_front, _so.trans(_vec3(0, -WIDTH, -0.040)/2)),
(_plexi_bottom, _so.trans(_vec3(0, -SIZE.y-WIDTH, -HEIGHT)/2)),
))
def __init__(self, team):
if team == 0:
xy0 = self.XY0
elif team == 1:
xy0 = self.XY0 * _vec2(-1,1)
else:
raise ValueError("invalid team")
self.team = int(team)
ob = _so.OSimple(self.sh_band)
ob.pos = _vec3(0,0, WALL_HEIGHT/2) + xy0
ob.color = TEAM_COLORS[self.team]
op = _so.OSimple(self.sh_plexi)
op.pos = _vec3(0,0, -self.HEIGHT/2) + xy0
op.color = _so.Color.plexi
self.band = ob
self.plexi = op
def contains(self, o):
"""Return True if the object is in the bac.
Test is based on object's center of mass position.
"""
d = abs(o.pos - self.plexi.pos)
return d.x < self.SIZE.x and d.y < self.SIZE.y and d.z < self.HEIGHT
def addToWorld(self, ph):
self.band.addToWorld(ph)
self.plexi.addToWorld(ph)
def removeFromWorld(self):
self.band.removeFromWorld()
self.plexi.removeFromWorld()
def prepare(self, fconf=None):
if fconf is None:
self.conf = self.Conf.random()
else:
self.conf = self.Conf(*fconf)
ph = self.physics
# Ground
ground = OGround()
ground.addToWorld(ph)
self.ground = ground
# Walls (N, S, E, W)
color = _eb.RAL[9017]
sh = _so.ShBox(
_vec3(TABLE_SIZE.x + WALL_WIDTH, WALL_WIDTH, WALL_HEIGHT) / 2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, TABLE_SIZE.y + WALL_WIDTH, WALL_HEIGHT) / 2
o.color = color
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, -TABLE_SIZE.y - WALL_WIDTH, WALL_HEIGHT) / 2
o.color = color
sh = _so.ShBox(
_vec3(WALL_WIDTH, TABLE_SIZE.y + 2 * WALL_WIDTH, WALL_HEIGHT) / 2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(TABLE_SIZE.x + WALL_WIDTH, 0, WALL_HEIGHT) / 2
o.color = color
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(-TABLE_SIZE.x - WALL_WIDTH, 0, WALL_HEIGHT) / 2
o.color = color
# Starting areas, inside borders
sh = _so.ShBox(_vec3(ground.start_size, WALL_WIDTH, WALL_HEIGHT) / 2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(-TABLE_SIZE.x + ground.start_size, TABLE_SIZE.y -
WALL_WIDTH - 2 * ground.start_size, WALL_HEIGHT) / 2
o.color = TEAM_COLORS[0]
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(TABLE_SIZE.x - ground.start_size, TABLE_SIZE.y -
WALL_WIDTH - 2 * ground.start_size, WALL_HEIGHT) / 2
o.color = TEAM_COLORS[1]
# Secured zones, borders (centered on surrounded squares)
sh_wall = _so.ShBox(_vec3(WALL_WIDTH, 0.150, WALL_HEIGHT) / 2)
sh_block = _so.ShBox(_vec3(0.700, 0.120, WALL_HEIGHT) / 2)
sh = _so.ShCompound((
(sh_wall, _so.trans(_vec2(-SQUARE_SIZE + WALL_WIDTH / 2))),
(sh_wall, _so.trans(_vec2(SQUARE_SIZE - WALL_WIDTH / 2))),
(sh_block, _so.trans(_vec2(0, (-SQUARE_SIZE + 0.120) / 2))),
))
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(-2 * SQUARE_SIZE, -2.5 * SQUARE_SIZE, WALL_HEIGHT / 2)
o.color = color
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(2 * SQUARE_SIZE, -2.5 * SQUARE_SIZE, WALL_HEIGHT / 2)
o.color = color
# Pawns on the field
self.pawns = [self.addPiece(0, 0)]
for j in RANDOM_POS[self.conf.line1]:
y = (j - 2) * SQUARE_SIZE
self.pawns.append(self.addPiece(-2 * SQUARE_SIZE, y))
self.pawns.append(self.addPiece(2 * SQUARE_SIZE, y))
for j in RANDOM_POS[self.conf.line2]:
y = (j - 2) * SQUARE_SIZE
self.pawns.append(self.addPiece(-1 * SQUARE_SIZE, y))
self.pawns.append(self.addPiece(1 * SQUARE_SIZE, y))
# Pieces in dispensing zones
pos_king, pos_queen = RANDOM_POS[self.conf.kingqueen]
x = (TABLE_SIZE.x - ground.start_size) / 2
for j in range(5):
y = -TABLE_SIZE.y / 2 + (5 - j) * DISPENSING_DY
if j == pos_king:
self.kings = (self.addPiece(-x, y,
OKing), self.addPiece(x, y, OKing))
elif j == pos_queen:
self.queens = (self.addPiece(-x, y, OQueen),
self.addPiece(x, y, OQueen))
else:
self.pawns.append(self.addPiece(-x, y))
self.pawns.append(self.addPiece(x, y))
class OQueen(OPawn):
_sh_figure = _so.ShSphere(0.16 / 2)
_shape = _so.ShCompound(
((OPawn._shape, _so.trans()), (_sh_figure,
_so.trans(_vec3(z=0.16 / 2 - 0.02)))))
_mass = 0.5 # 300g to 700g
def add_candle(r, z, a, color): o = OCandle() o.addToWorld(ph) o.color = color x, y = r*_math.cos(-_math.pi/2 + a), r*_math.sin(-_math.pi/2 + a) o.pos = _vec3(x, y+TABLE_SIZE.y/2, z+OCandle.HEIGHT/2)
def prepare(self, fconf=None):
if fconf is None:
self.conf = self.Conf.random()
else:
self.conf = self.Conf(*fconf)
ph = self.physics
# Ground
ground = OGround()
ground.addToWorld(ph)
self.ground = ground
# Walls (N, E, W, S, small SE, small SW, plexi S)
sh = _so.ShBox(_vec3(TABLE_SIZE.x+2*WALL_WIDTH, WALL_WIDTH, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, TABLE_SIZE.y+WALL_WIDTH, WALL_HEIGHT)/2
o.color = _so.Color.white
sh = _so.ShBox(_vec3(WALL_WIDTH, TABLE_SIZE.y+2*WALL_WIDTH, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(TABLE_SIZE.x+WALL_WIDTH, 0, WALL_HEIGHT)/2
o.color = _so.Color.white
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(-TABLE_SIZE.x-WALL_WIDTH, 0, WALL_HEIGHT)/2
o.color = _so.Color.white
sh = _so.ShBox(_vec3(WALL_WIDTH, 0.100, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(1.800+WALL_WIDTH, -TABLE_SIZE.y+0.100, WALL_HEIGHT)/2
o.color = _so.Color.white
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(-1.800-WALL_WIDTH, -TABLE_SIZE.y+0.100, WALL_HEIGHT)/2
o.color = _so.Color.white
sh = _so.ShBox(_vec3(1.800+WALL_WIDTH, ph.margin_epsilon, 0.250)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, -TABLE_SIZE.y/2, 0.125)
o.color = _so.Color.plexi
sh = _so.ShBox(_vec3(0.578+WALL_WIDTH, ph.margin_epsilon, WALL_HEIGHT)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(2.400, -TABLE_SIZE.y, WALL_HEIGHT)/2
o.color = _so.Color.plexi
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(-2.400, -TABLE_SIZE.y, WALL_HEIGHT)/2
o.color = _so.Color.plexi
# Building areas
sh = _so.ShBox(_vec3(1.800, 0.100, ph.margin_epsilon)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, 0.050-TABLE_SIZE.y/2, ph.margin_epsilon)
o.color = _eb.RAL[8017]
sh = _so.ShBox(_vec3(0.600, 0.100, 0.030)/2)
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, 0.050-TABLE_SIZE.y/2, 0.015)
o.color = _eb.RAL[8017]
sh = _so.ShCylinderZ(_vec3(0.150, 0.150, 0.060/2))
o = _so.OSimple(sh)
o.addToWorld(ph)
o.pos = _vec3(0, 0, 0.030)
o.color = _eb.RAL[8017]
# Random column elements
for j in COL_POS[self.conf.col]:
# first team
o = OColElem()
o.addToWorld(ph)
o.color = TEAM_COLORS[0]
o.pos = COL_SPACE_XY * _vec2(j%3-2, 3-j//3) - COL_OFFSET_XY
o = OColElem()
o.addToWorld(ph)
o.color = TEAM_COLORS[0]
o.pos = COL_SPACE_XY * _vec2(j%3-2, j//3) - COL_OFFSET_XY
# second team
o = OColElem()
o.addToWorld(ph)
o.color = TEAM_COLORS[1]
o.pos = (COL_SPACE_XY * _vec2(j%3-2, 3-j//3) - COL_OFFSET_XY)*_vec2(-1,1)
o = OColElem()
o.addToWorld(ph)
o.color = TEAM_COLORS[1]
o.pos = (COL_SPACE_XY * _vec2(j%3-2, j//3) - COL_OFFSET_XY)*_vec2(-1,1)
# Dispensers
# Fixed
od = ODispenser()
od.addToWorld(ph)
od.setPos( DISP_OFFSET*_vec3(-1,0,1) - TABLE_SIZE/2*_vec2(-1,1), 2 )
for i in range(4):
o = OColElem()
o.addToWorld(ph)
o.color = TEAM_COLORS[0]
od.fill(o, (i+1)*0.035)
od = ODispenser()
od.addToWorld(ph)
od.setPos( DISP_OFFSET*_vec3(1,0,1) - TABLE_SIZE/2, 2 )
for i in range(4):
o = OColElem()
o.addToWorld(ph)
o.color = TEAM_COLORS[1]
od.fill(o, (i+1)*0.035)
# Random
ky = 1 if self.conf.disp == 0 else -1
od = ODispenser()
od.addToWorld(ph)
od.setPos( _vec3(TABLE_SIZE.x-WALL_WIDTH, DISP_OFFSET.y, DISP_OFFSET.z)*_vec3(.5,ky,1), 1 )
for i in range(4):
o = OColElem()
o.addToWorld(ph)
o.color = TEAM_COLORS[0]
od.fill(o, (i+1)*0.035)
od = ODispenser()
od.addToWorld(ph)
od.setPos( _vec3(TABLE_SIZE.x-WALL_WIDTH, DISP_OFFSET.y, DISP_OFFSET.z)*_vec3(-.5,ky,1), 3 )
for i in range(4):
o = OColElem()
o.addToWorld(ph)
o.color = TEAM_COLORS[1]
od.fill(o, (i+1)*0.035)
# Lintels and lintel storages
ols = OLintelStorage()
ols.addToWorld(ph)
ols.setPos(-0.200, 0)
ol = OLintel()
ol.addToWorld(ph)
ol.color = TEAM_COLORS[0]
ols.fill(ol)
ols = OLintelStorage()
ols.addToWorld(ph)
ols.setPos(-0.600, 0)
ol = OLintel()
ol.addToWorld(ph)
ol.color = TEAM_COLORS[0]
ols.fill(ol)
ols = OLintelStorage()
ols.addToWorld(ph)
ols.setPos(0.200, 0)
ol = OLintel()
ol.addToWorld(ph)
ol.color = TEAM_COLORS[1]
ols.fill(ol)
ols = OLintelStorage()
ols.addToWorld(ph)
ols.setPos(0.600, 0)
ol = OLintel()
ol.addToWorld(ph)
ol.color = TEAM_COLORS[1]
ols.fill(ol)