def __init__(self, game, *args, **kwargs):
Screen.__init__(self, *args, **kwargs)
self.backdrop = common_res.bg_ingame
self.flash_alpha = 0.0
self.game = game
self.ui_class = game.ui_meta.ui_class
self.gameui = self.ui_class(parent=False,
game=game,
**r2d((0, 0, 820,
720))) # add when game starts
self.events_box = GameScreen.EventsBox(parent=self)
self.chat_box = GameScreen.ChatBox(parent=self)
self.panel = GameScreen.RoomControlPanel(parent=self)
self.btn_exit = Button(parent=self,
caption=u'退出房间',
zindex=1,
**r2d((730, 670, 75, 25)))
@self.btn_exit.event
def on_click():
box = ConfirmBox(u'真的要离开吗？',
buttons=ConfirmBox.Presets.OKCancel,
parent=self)
@box.event
def on_confirm(val):
if val:
Executive.call('exit_game', ui_message, [])
def set_header(self, missed_planet):
if missed_planet:
self.header['res'] = '# res not set\n'
self.header['orientation'] = '# orientation not set\n'
self.header['aspect'] = '# aspect tip, rotate not set\n'
self.header['rNorm'] = '# rNorm not set\n'
else:
self.header['orientation'] = '# orientation: {}\n'.format(
repr(self.config.orientation))
self.header[
'aspect'] = '# aspect tip, rotate: {:.4f} {:.4f}\n'.format(
utils.r2d(self.tip), utils.r2d(self.rotate))
self.header['rNorm'] = '# rNorm: {}\n'.format(self.rNorm)
if self.bType:
self.header['bType'] = '# bType: {}\n'.format(self.bType)
if self.outType:
self.header['outType'] = '# outType: {}\n'.format(
self.outType)
if self.outType == 'image':
self.header['imgSize'] = '# imgSize: {}\n'.format(
self.imSize)
resolution = utils.r2asec(
math.atan(
abs(self.b[1][0] - self.b[0][0]) * self.rNorm /
self.config.distance))
print('resolution = ', resolution)
self.header['res'] = '# res: {} arcsec\n'.format(
resolution)
self.header['gtype'] = '# gtype: {}\n'.format(self.config.gtype)
self.header['radii'] = '# radii: {:.1f} {:.1f} km\n'.format(
self.config.Req, self.config.Rpol)
self.header['distance'] = '# distance: {} km\n'.format(
self.config.distance)
def __init__(self, parent=None):
Control.__init__(self, parent=parent, **r2d((0, 0, 820, 720)))
self.btn_getready = Button(
parent=self, caption=u'准备', **r2d((360, 80, 100, 35))
)
self.ready = False
l = []
class MyPP(PlayerPortrait):
# this class is INTENTIONALLY put here
# to make cached avatars get gc'd
cached_avatar = {}
for x, y, color in parent.ui_class.portrait_location:
l.append(MyPP('NONAME', parent=self, x=x, y=y, color=color))
self.portraits = l
@self.btn_getready.event
def on_click():
if self.ready:
Executive.call('cancel_ready', ui_message, [])
self.ready = False
self.btn_getready.caption = u'准备'
self.btn_getready.update()
else:
Executive.call('get_ready', ui_message, [])
#self.btn_getready.state = Button.DISABLED
self.ready = True
self.btn_getready.caption = u'取消准备'
self.btn_getready.update()
def __init__(self, game, *args, **kwargs):
Screen.__init__(self, *args, **kwargs)
self.backdrop = common_res.bg_ingame
self.flash_alpha = 0.0
self.game = game
self.ui_class = game.ui_meta.ui_class
self.gameui = self.ui_class(
parent=False, game=game,
**r2d((0, 0, 820, 720))
) # add when game starts
self.events_box = GameScreen.EventsBox(parent=self)
self.chat_box = GameScreen.ChatBox(parent=self)
self.panel = GameScreen.RoomControlPanel(parent=self)
self.btn_exit = Button(
parent=self, caption=u'退出房间', zindex=1,
**r2d((730, 670, 75, 25))
)
@self.btn_exit.event
def on_click():
box = ConfirmBox(u'真的要离开吗？', buttons=ConfirmBox.Presets.OKCancel, parent=self)
@box.event
def on_confirm(val):
if val:
Executive.call('exit_game', ui_message, [])
def __init__(self, parent=None):
Control.__init__(self, parent=parent, **r2d((0, 0, 820, 720)))
self.btn_getready = Button(parent=self,
caption=u'准备',
**r2d((360, 80, 100, 35)))
self.ready = False
l = []
class MyPP(PlayerPortrait):
# this class is INTENTIONALLY put here
# to make cached avatars get gc'd
cached_avatar = {}
for x, y, color in parent.ui_class.portrait_location:
l.append(MyPP('NONAME', parent=self, x=x, y=y, color=color))
self.portraits = l
@self.btn_getready.event
def on_click():
if self.ready:
Executive.call('cancel_ready', ui_message, [])
self.ready = False
self.btn_getready.caption = u'准备'
self.btn_getready.update()
else:
Executive.call('get_ready', ui_message, [])
#self.btn_getready.state = Button.DISABLED
self.ready = True
self.btn_getready.caption = u'取消准备'
self.btn_getready.update()
def print_a_step(self):
s = '\ttype: %s, gamma = %.2f deg, lat = %.2f deg, lng = %.2f |g| = %.2f\n' % (
self.gtype, u.r2d(self.gamma), u.r2d(
self.pclat), u.r2d(self.delta_lng), self.gmag * 1000.0)
s += '\tr = [%.2f, %.2f, %.2f] km, |r| = %.2f km\n' % (
self.r[_X], self.r[_Y], self.r[_Z], self.rmag)
s += '\tn = [%.4f, %.4f, %.4f]' % (self.n[_X], self.n[_Y],
self.n[_Z])
print(s)
return s
def __str__(self):
s = '-------------------------Geoid---------------------------\n'
s += 'type: %s, gamma = %.2f deg, lat = %.2f deg, lng = %.2f\n' % (
self.gtype, u.r2d(self.gamma), u.r2d(
self.pclat), u.r2d(self.delta_lng))
s += 'r = [%.2f, %.2f, %.2f] km, |r| = %.2f km\n' % (
self.r[_X], self.r[_Y], self.r[_Z], self.rmag)
s += 'n = [%.4f, %.4f, %.4f]\n' % (self.n[_X], self.n[_Y],
self.n[_Z])
s += 't = [%.4f, %.4f, %.4f]\n' % (self.t[_X], self.t[_Y],
self.t[_Z])
s += 'g = [%.6f, %.6f], |g| = %.6f\n' % (self.g[0], self.g[1],
self.gmag)
s += '---------------------------------------------------------\n'
return s
def findEdge(atm, b, rNorm, tip, rotate, gtype, printdot=False):
tmp = (b[0]**2 + b[1]**2)
try:
zQ_Trial = np.arange(math.sqrt(1.0 - tmp) * 1.01, 0.0, -0.005)
except ValueError:
return None, None
pclat_zQ_Trial = []
r_zQ_Trial = []
r_pclat_zQ_Trial = []
hitPlanet = False
geoid = shape.Shape(gtype)
for zQ in zQ_Trial:
if printdot:
print('.', end='')
sys.stdout.flush()
# Q
b_vec = np.array([b[0], b[1], zQ])
# --> P
b_vec = rotate2planet(rotate, tip, b_vec)
r1 = np.linalg.norm(b_vec) * rNorm
r_zQ_Trial.append(r1)
# get planetocentric latitude/longitude
pclat = utils.r2d(
math.asin(np.dot(b_vec, yHat) / np.linalg.norm(b_vec)))
delta_lng = utils.r2d(
math.atan2(np.dot(b_vec, xHat), np.dot(b_vec, zHat)))
pclat_zQ_Trial.append(pclat)
r2 = geoid.calcShape(atm, rNorm, pclat, delta_lng)
r_pclat_zQ_Trial.append(r2)
if r1 <= r2:
hitPlanet = True
break
if not hitPlanet:
return None, None
# interpolate to value
xx = np.flipud(np.array(r_zQ_Trial) - np.array(r_pclat_zQ_Trial))
yy = np.flipud(np.array(zQ_Trial[0:len(r_zQ_Trial)]))
try:
zQ = np.interp(0.0, xx, yy)
b = np.array([b[0], b[1], zQ])
edge = rNorm * rotate2planet(rotate, tip, b)
except ValueError:
b = None
edge = None
del zQ_Trial, pclat_zQ_Trial, r_zQ_Trial, r_pclat_zQ_Trial, geoid, xx, yy
return edge, b # same vector but in P and Q coordinate systems
def findEdge(atm, b, rNorm, tip, rotate, gtype, printdot=False):
tmp = (b[0]**2 + b[1]**2)
try:
zQ_Trial = np.arange(math.sqrt(1.0 - tmp) * 1.01, 0.0, -0.005)
except ValueError:
return None, None
pclat_zQ_Trial = []
r_zQ_Trial = []
r_pclat_zQ_Trial = []
hitPlanet = False
geoid = shape.Shape(gtype)
for zQ in zQ_Trial:
if printdot:
print('.', end='')
sys.stdout.flush()
# Q
b_vec = np.array([b[0], b[1], zQ])
# --> P
b_vec = rotate2planet(rotate, tip, b_vec)
r1 = np.linalg.norm(b_vec) * rNorm
r_zQ_Trial.append(r1)
# get planetocentric latitude/longitude
pclat = utils.r2d(math.asin(np.dot(b_vec, yHat) / np.linalg.norm(b_vec)))
delta_lng = utils.r2d(math.atan2(np.dot(b_vec, xHat), np.dot(b_vec, zHat)))
pclat_zQ_Trial.append(pclat)
r2 = geoid.calcShape(atm, rNorm, pclat, delta_lng)
r_pclat_zQ_Trial.append(r2)
if r1 <= r2:
hitPlanet = True
break
if not hitPlanet:
return None, None
# interpolate to value
xx = np.flipud(np.array(r_zQ_Trial) - np.array(r_pclat_zQ_Trial))
yy = np.flipud(np.array(zQ_Trial[0:len(r_zQ_Trial)]))
try:
zQ = np.interp(0.0, xx, yy)
b = np.array([b[0], b[1], zQ])
edge = rNorm * rotate2planet(rotate, tip, b)
except ValueError:
b = None
edge = None
del zQ_Trial, pclat_zQ_Trial, r_zQ_Trial, r_pclat_zQ_Trial, geoid, xx, yy
return edge, b # same vector but in P and Q coordinate systems
def on_message(self, _type, *args):
rst = handle_chat(_type, args)
if rst:
self.chat_box.append(rst)
elif _type == 'game_started':
self.remove_control(self.panel)
self.gameui.init()
self.add_control(self.gameui)
self.game.start()
# utils.hub_interrupt(self.game.start)
elif _type == 'end_game':
self.remove_control(self.gameui)
self.add_control(self.panel)
g = args[0]
elif _type == 'client_game_finished':
g = args[0]
g.ui_meta.ui_class.show_result(g)
elif _type in ('game_left', 'fleed'):
GameHallScreen().switch()
elif _type == 'game_joined':
# last game ended, this is the auto
# created game
self.game = game = args[0]
self.panel.btn_getready.state = Button.NORMAL
self.gameui = self.ui_class(
parent=False, game=self.game,
**r2d((0, 0, 820, 720))
)
SoundManager.switch_bgm(common_res.bgm_hall)
self.backdrop = common_res.bg_ingame
self.set_color(Colors.green)
self.events_box.clear()
elif _type == 'game_crashed':
ConfirmBox(u'游戏逻辑已经崩溃，请退出房间！\n这是不正常的状态，你可以报告bug。', parent=self)
elif _type == 'observe_request':
uid, uname = args[0]
box = ConfirmBox(
u'玩家 %s 希望旁观你的游戏，是否允许？\n旁观玩家可以看到你的手牌。' % uname,
parent=self, buttons=((u'允许', True), (u'不允许', False)), default=False
)
@box.event
def on_confirm(val, uid=uid):
Executive.call('observe_grant', ui_message, [uid, val])
else:
Screen.on_message(self, _type, *args)
def on_message(self, _type, *args):
rst = handle_chat(_type, args)
if rst:
self.chat_box.append(rst)
elif _type == 'game_started':
self.remove_control(self.panel)
self.gameui.init()
self.add_control(self.gameui)
self.game.start()
# utils.hub_interrupt(self.game.start)
elif _type == 'end_game':
self.remove_control(self.gameui)
self.add_control(self.panel)
g = args[0]
elif _type == 'client_game_finished':
g = args[0]
g.ui_meta.ui_class.show_result(g)
elif _type in ('game_left', 'fleed'):
GameHallScreen().switch()
elif _type == 'game_joined':
# last game ended, this is the auto
# created game
self.game = game = args[0]
self.panel.btn_getready.state = Button.NORMAL
self.gameui = self.ui_class(parent=False,
game=self.game,
**r2d((0, 0, 820, 720)))
SoundManager.switch_bgm(common_res.bgm_hall)
self.backdrop = common_res.bg_ingame
self.set_color(Colors.green)
self.events_box.clear()
elif _type == 'game_crashed':
ConfirmBox(u'游戏逻辑已经崩溃，请退出房间！\n这是不正常的状态，你可以报告bug。', parent=self)
elif _type == 'observe_request':
uid, uname = args[0]
box = ConfirmBox(u'玩家 %s 希望旁观你的游戏，是否允许？\n旁观玩家可以看到你的手牌。' % uname,
parent=self,
buttons=((u'允许', True), (u'不允许', False)),
default=False)
@box.event
def on_confirm(val, uid=uid):
Executive.call('observe_grant', ui_message, [uid, val])
else:
Screen.on_message(self, _type, *args)
def __init__(self, parent=None):
Control.__init__(self, parent=parent, **r2d((0, 0, 820, 720)))
self.btn_getready = Button(parent=self, caption=u"准备", **r2d((360, 80, 100, 35)))
self.btn_invite = Button(parent=self, caption=u"邀请", **r2d((360, 40, 100, 35)))
self.ready = False
l = []
class MyPP(PlayerPortrait):
# this class is INTENTIONALLY put here
# to make cached avatars get gc'd
cached_avatar = {}
for x, y, color in parent.ui_class.portrait_location:
l.append(MyPP("NONAME", parent=self, x=x, y=y, color=color))
self.portraits = l
@self.btn_getready.event
def on_click():
if self.ready:
Executive.call("cancel_ready", ui_message, [])
self.ready = False
self.btn_getready.caption = u"准备"
self.btn_getready.update()
else:
Executive.call("get_ready", ui_message, [])
# self.btn_getready.state = Button.DISABLED
self.ready = True
self.btn_getready.caption = u"取消准备"
self.btn_getready.update()
@self.btn_invite.event # noqa
def on_click():
GameScreen.InvitePanel(self.parent.game.gameid, parent=self)
def __init__(self, game, *a, **k):
self.game = game
game.event_observer = UIEventHook
Control.__init__(self, *a, **k)
self.char_portraits = None
self.deck_indicator = DeckIndicator(parent=self, x=30, y=680, width=50, height=25)
self.handcard_area = HandCardArea(parent=self, x=238, y=9, zindex=3, width=93 * 5 + 42, height=145)
self.deck_area = PortraitCardArea(
parent=self, width=1, height=1, x=self.width // 2, y=self.height // 2, zindex=4
)
self.btn_afk = Button(parent=self, caption=u"让⑨帮你玩", zindex=1, color=Colors.blue, **r2d((730, 640, 75, 25)))
self.gameintro_icon = GameIntroIcon(parent=self, game=game, **r2d((780, 610, 25, 25)))
self.afk = False
@self.btn_afk.event
def on_click():
v = not self.afk
self.afk = v
self.btn_afk.color = (Colors.blue, Colors.orange)[v]
self.btn_afk.update()
@self.handcard_area.event
def on_selection_change():
self.dispatch_event("on_selection_change")
self.dropcard_area = DropCardArea(parent=self, x=0, y=324, zindex=3, width=820, height=125)
class Animations(pyglet.graphics.Batch, Control):
def __init__(self, **k):
pyglet.graphics.Batch.__init__(self)
Control.__init__(self, x=0, y=0, width=0, height=0, zindex=2, **k)
def hit_test(self, x, y):
return False
self.animations = Animations(parent=self)
self.selecting_player = 0
def set_header(self, missed_planet):
if missed_planet:
self.header['res'] = '# res not set\n'
self.header['orientation'] = '# orientation not set\n'
self.header['aspect'] = '# aspect tip, rotate not set\n'
self.header['rNorm'] = '# rNorm not set\n'
else:
self.header['orientation'] = '# orientation: {}\n'.format(repr(self.config.orientation))
self.header['aspect'] = '# aspect tip, rotate: {:.4f} {:.4f}\n'.format(utils.r2d(self.tip), utils.r2d(self.rotate))
self.header['rNorm'] = '# rNorm: {}\n'.format(self.rNorm)
if self.bType:
self.header['bType'] = '# bType: {}\n'.format(self.bType)
if self.outType:
self.header['outType'] = '# outType: {}\n'.format(self.outType)
if self.outType == 'image':
self.header['imgSize'] = '# imgSize: {}\n'.format(self.imSize)
resolution = utils.r2asec(math.atan(abs(self.b[1][0] - self.b[0][0]) * self.rNorm / self.config.distance))
print('resolution = ', resolution)
self.header['res'] = '# res: {} arcsec\n'.format(resolution)
self.header['gtype'] = '# gtype: {}\n'.format(self.config.gtype)
self.header['radii'] = '# radii: {:.1f} {:.1f} km\n'.format(self.config.Req, self.config.Rpol)
self.header['distance'] = '# distance: {} km\n'.format(self.config.distance)
def compute_ds(atm, b, orientation=None, gtype=None, verbose=False, plot=True):
"""Computes the path length through the atmosphere given:
b = impact parameter (fractional distance to outer edge at that latitude in observer's coordinates)
orientation = position angle of the planet [0]='tip', [1]='subearth latitude' """
if gtype is None:
gtype = atm.config.gtype
if orientation is None:
orientation = atm.config.orientation
path = Ray()
req = atm.layerProperty[atm.config.LP['R']] # radius of layers along equator
rNorm = req[0]
nr = atm.layerProperty[atm.config.LP['N']] # refractive index of layers
P = atm.gas[atm.config.C['P']]
if (b[0]**2 + b[1]**2) > 1.0:
return path
mu = math.sqrt(1.0 - b[0]**2 - b[1]**2)
f = 1.0 - atm.config.Rpol / atm.config.Req
tip, rotate = computeAspect(orientation, f)
if verbose:
print('intersection: ({:.3f}, {:.3f}) '.format(b[0], b[1]), end='')
print('aspect: ({:%.4f}, {:.4f})'.format(tip * 180.0 / np.pi, rotate * 180.0 / np.pi))
print('Finding atmospheric edge', end='')
edge, b = findEdge(atm, b, rNorm, tip, rotate, gtype)
if edge is None:
return path
r1 = np.linalg.norm(edge)
# get planetocentric latitude/longitude
pclat = utils.r2d(math.asin(np.dot(edge, yHat) / np.linalg.norm(edge)))
delta_lng = utils.r2d(math.atan2(np.dot(edge, xHat), np.dot(edge, zHat)))
geoid = shape.Shape(gtype)
r2 = geoid.calcShape(atm, rNorm, pclat, delta_lng)
if verbose:
print(' within {:.2f} m'.format(abs(r1 - r2) * 100.0))
geoid.printShort()
if plot:
plotStuff(atm=atm, r=rNorm, b=b, gtype=gtype, delta_lng=delta_lng, geoid=geoid, tip=tip, rotate=rotate)
# initialize - everything below is in planetocentric coordinates, so need to rotate s-vector
start = np.array([0.0, 0.0, -1.0])
start = rotate2planet(rotate, tip, start)
s = [start]
n = [geoid.n]
r = [geoid.r]
t_inc = [math.acos(-np.dot(s[-1], n[-1]))] # incident angle_0
nratio = nr[0] / nr[1] # refractive index ratio_0
t_tran = [math.asin(nratio * math.sin(t_inc[-1]))] # transmitted angle_0
# return array initialization, use a value to keep indexing numbering for loop
ds = [0.0]
layer4ds = [0.0]
r4ds = [0.0] # not needed, but for information
P4ds = [0.0] # not needed, but for information
doppler = []
# loop while in atmosphere
i = 0 # loops over the path
layer = 0 # keeps track which physical layer you are in
inAtmosphere = True
direction = 'ingress'
while inAtmosphere:
if verbose:
print('------------------')
print('\tstep {d}: layer {d} {s} '.format(i, layer, direction))
print('\ts = [{:.4f}, {:.4f}, {:.4f}], ds = {:.4f}'.format(s[-1][_X], s[-1][_Y], s[-1][_Z], ds[-1]))
geoid.print_a_step()
print('\tt_inc, tran: {:.8f} -> {:.8f}'.format(utils.r2d(t_inc[-1]), utils.r2d(t_tran[-1])))
# update s-vector
s.append(nratio * s[i] + raypathdir[direction] * (nratio * math.cos(t_inc[i]) * n[i] - math.cos(t_tran[i]) * n[i]))
rNowMag = geoid.rmag
rNextMag = geoid.calcShape(atm, req[layer + raypathdir[direction]], pclat, delta_lng)
rdots = np.dot(r[i], s[i + 1])
vw = np.interp(pclat, atm.config.vwlat, atm.config.vwdat) / 1000.0
dopp = 1.0 - (atm.config.omega_m * rNowMag * math.cos(utils.d2r(pclat)) + vw) * math.sin(utils.d2r(delta_lng)) / 3.0E5
# get ds, checking for exit, errors and warnings...
try:
dsp = -rdots + math.sqrt(rdots**2.0 + rNextMag**2.0 - rNowMag**2.0)
dsm = -rdots - math.sqrt(rdots**2.0 + rNextMag**2.0 - rNowMag**2.0)
if direction == 'ingress':
ds_step = dsm
elif direction == 'egress':
ds_step = dsp
except ValueError: # tangent layer (probably)
if direction == 'ingress':
print('In tangent layer ', end='')
direction = 'tangent'
ds_step = -2.0 * rdots
if ds_step > rNorm:
inAtmosphere = False
print('Error: tangent ds too large')
break
rNextMag = rNowMag
else:
inAtmosphere = False
break
if ds_step < 0.0: # What is correct here? Is this true for egress, or only in error? 8/1/14 I commented out if statement,
# but only print statement was indented
print('Error: ds < 0 ({}: r.s={}, ds={}, [{},{}])'.format(direction, rdots, ds_step, dsp, dsm))
inAtmosphere = False
break
if atm.config.limb == 'sec': # overwrite ds_step with secant version
ds_step = abs(rNextMag - rNowMag) / mu
# append to return arrays
ds.append(ds_step)
layer4ds.append(layer)
r4ds.append(rNowMag)
P4ds.append(atm.gas[atm.config.C['P']][layer])
doppler.append(dopp)
# get next step, double-check r value (and compute n, etc)
rnext = r[i] + ds[i + 1] * s[i + 1]
pclat = utils.r2d(math.asin(np.dot(rnext, yHat) / np.linalg.norm(rnext)))
delta_lng = utils.r2d(math.atan2(np.dot(rnext, xHat), np.dot(rnext, zHat)))
r2 = geoid.calcShape(atm, req[layer + raypathdir[direction]], pclat, delta_lng)
if abs(r2 - rNextMag) > 2.0 and layer != 0:
print('Warning: {} != {} ({} km) at layer {}'.format(r2, rNextMag, r2 - rNextMag, layer))
r.append(rnext) # which is also geoid.r, or should be
n.append(geoid.n)
# get new incident angle
layer += raypathdir[direction]
if direction == 'tangent':
direction = 'egress'
t_inc.append(np.pi / 2.0)
else:
try:
t_inc.append(math.acos(-raypathdir[direction] * np.dot(s[i + 1], n[i + 1])))
except ValueError:
print('t_inc ValueError |s_(i+1)| = {}, |n_(i+1)| = {} - set to previous'.format(np.linalg.norm(s[i + 1]), np.linalg.norm(n[i + 1])))
t_inc.append(t_inc[i])
inAtmosphere = False
break
i += 1
# get refractive index ratio and check for exit
try:
nratio = nr[layer] / nr[layer + raypathdir[direction]]
nratio = 1.0
try:
t_tmp = math.asin(nratio * math.sin(t_inc[-1]))
except ValueError:
t_tmp = nratio * np.pi / 2.0
t_tran.append(t_tmp)
except IndexError:
inAtmosphere = False
# ## end loop ###
# Get rid of the first entry, which was just used to make indexing in loop consistent
del ds[0], layer4ds[0], r4ds[0], P4ds[0]
dsmu = []
for i in range(min(len(ds), len(r4ds)) - 1):
if abs(r4ds[i] - r4ds[i + 1]) < 1E-6:
dsmuappend = 0.001
else:
dsmuappend = ds[i] / (r4ds[i] - r4ds[i + 1])
dsmu.append(dsmuappend)
path.update(ds=ds, layer4ds=layer4ds, r4ds=r4ds, P4ds=P4ds, doppler=doppler, tip=tip, rotate=rotate, rNorm=rNorm)
if plot:
plt.figure('test_ds')
plt.plot(dsmu)
plt.plot([0, 1499], [1.0 / mu, 1.0 / mu])
plotStuff(r=np.array(r), ray=path)
del s, r, n, ds, layer4ds, r4ds, P4ds, geoid, req, nr
return path
def on_message(self, _type, *args):
rst = handle_chat(_type, args)
if rst:
self.chat_box.append(rst)
return
elif _type == 'game_started':
from utils import notify
notify(u'东方符斗祭 - 游戏提醒', u'游戏已开始，请注意。')
self.remove_control(self.panel)
self.gameui.init()
self.add_control(self.gameui)
self.game.start()
elif _type == 'end_game':
self.remove_control(self.gameui)
self.add_control(self.panel)
g = args[0]
elif _type == 'client_game_finished':
g = args[0]
g.ui_meta.ui_class.show_result(g)
elif _type in ('game_left', 'fleed'):
GameHallScreen().switch()
elif _type == 'game_joined':
# last game ended, this is the auto
# created game
self.game = args[0]
self.panel.btn_getready.state = Button.NORMAL
self.gameui = self.ui_class(
parent=False, game=self.game,
**r2d((0, 0, 820, 720))
)
SoundManager.switch_bgm(common_res.bgm_hall)
self.backdrop = common_res.bg_ingame
self.set_color(Colors.green)
self.events_box.clear()
elif _type == 'game_crashed':
ConfirmBox(
u'游戏逻辑已经崩溃，请退出房间！\n'
u'这是不正常的状态，你可以报告bug。\n'
u'游戏ID：%d' % self.game.gameid,
parent=self
)
from __main__ import do_crashreport
do_crashreport()
elif _type == 'observe_request':
uid, uname = args[0]
box = ConfirmBox(
u'玩家 %s 希望旁观你的游戏，是否允许？\n'
u'旁观玩家可以看到你的手牌。' % uname,
parent=self, buttons=((u'允许', True), (u'不允许', False)), default=False
)
@box.event
def on_confirm(val, uid=uid):
Executive.call('observe_grant', ui_message, [uid, val])
elif _type == 'observer_enter':
obuid, obname, uname = args[0]
self.chat_box.append(
u'|B|R>> |r|c0000ffff%s|r[|c9100ffff%d|r]|r趴在了|c0000ffff%s|r身后\n' % (obname, obuid, uname)
)
elif _type == 'observer_leave':
obuid, obname, uname = args[0]
self.chat_box.append(
u'|B|R>> |r|c0000ffff%s|r飘走了\n' % obname
)
else:
Screen.on_message(self, _type, *args)
def printShort(self):
s = '%s: gamma = %.2f, lat = %.2f, lng = %.2f, |r|=%.2f km\n' % (self.gtype, u.r2d(self.gamma), u.r2d(self.pclat), u.r2d(self.delta_lng), self.rmag)
print(s)
return s
def print_a_step(self):
s = '\ttype: %s, gamma = %.2f deg, lat = %.2f deg, lng = %.2f |g| = %.2f\n' % (self.gtype, u.r2d(self.gamma), u.r2d(self.pclat), u.r2d(self.delta_lng), self.gmag * 1000.0)
s += '\tr = [%.2f, %.2f, %.2f] km, |r| = %.2f km\n' % (self.r[_X], self.r[_Y], self.r[_Z], self.rmag)
s += '\tn = [%.4f, %.4f, %.4f]' % (self.n[_X], self.n[_Y], self.n[_Z])
print(s)
return s
def __init__(self, game, *a, **k):
self.selection_change = ObservableEvent()
self.game = game
Control.__init__(self, can_focus=True, *a, **k)
self.keystrokes = '\x00'
self.char_portraits = None
self.deck_indicator = DeckIndicator(
parent=self,
x=30,
y=660,
width=50,
height=25,
)
self.handcard_area = HandCardArea(
parent=self,
view=self,
x=238,
y=9,
zindex=3,
width=93 * 5 + 42,
height=145,
)
self.deck_area = PortraitCardArea(
parent=self,
width=1,
height=1,
x=self.width // 2,
y=self.height // 2,
zindex=4,
)
self.btn_afk = OptionButton(parent=self,
zindex=1,
conf=(
(u'让⑨帮你玩', Colors.blue, False),
(u'⑨在帮你玩', Colors.orange, True),
),
**r2d((30, 625, 75, 25)))
self.gameintro_icon = GameIntroIcon(parent=self,
game=game,
**r2d((690, 630, 25, 25)))
self.dropcard_area = DropCardArea(
parent=self,
x=0,
y=324,
zindex=3,
width=820,
height=125,
)
class Animations(pyglet.graphics.Batch, Control):
def __init__(self, **k):
pyglet.graphics.Batch.__init__(self)
Control.__init__(self,
x=0,
y=0,
width=0,
height=0,
zindex=2,
**k)
self.animations = []
def delete(self):
Control.delete(self)
for a in self.animations:
a.delete()
def hit_test(self, x, y):
return False
self.animations = Animations(parent=self)
self.selecting_player = 0
self.action_params = {}
def __init__(self, game, *a, **k):
self.game = game
game.event_observer = UIEventHook
Control.__init__(self, can_focus=True, *a, **k)
self.keystrokes = '\x00'
self.char_portraits = None
self.deck_indicator = DeckIndicator(
parent=self,
x=30,
y=680,
width=50,
height=25,
)
self.handcard_area = HandCardArea(
parent=self,
x=238,
y=9,
zindex=3,
width=93 * 5 + 42,
height=145,
)
self.deck_area = PortraitCardArea(
parent=self,
width=1,
height=1,
x=self.width // 2,
y=self.height // 2,
zindex=4,
)
self.btn_afk = Button(parent=self,
caption=u'让⑨帮你玩',
zindex=1,
color=Colors.blue,
**r2d((730, 640, 75, 25)))
self.gameintro_icon = GameIntroIcon(parent=self,
game=game,
**r2d((780, 610, 25, 25)))
self.afk = False
@self.btn_afk.event
def on_click():
v = not self.afk
self.afk = v
self.btn_afk.color = (Colors.blue, Colors.orange)[v]
self.btn_afk.update()
@self.handcard_area.event
def on_selection_change():
self.dispatch_event('on_selection_change')
self.dropcard_area = DropCardArea(
parent=self,
x=0,
y=324,
zindex=3,
width=820,
height=125,
)
class Animations(pyglet.graphics.Batch, Control):
def __init__(self, **k):
pyglet.graphics.Batch.__init__(self)
Control.__init__(self,
x=0,
y=0,
width=0,
height=0,
zindex=2,
**k)
def hit_test(self, x, y):
return False
self.animations = Animations(parent=self)
self.selecting_player = 0
def compute_ds(atm, b, orientation=None, gtype=None, verbose=False, plot=True):
"""Computes the path length through the atmosphere given:
b = impact parameter (fractional distance to outer edge at that latitude in observer's coordinates)
orientation = position angle of the planet [0]='tip', [1]='subearth latitude' """
if gtype is None:
gtype = atm.config.gtype
if orientation is None:
orientation = atm.config.orientation
path = Ray()
req = atm.layerProperty[
atm.config.LP['R']] # radius of layers along equator
rNorm = req[0]
nr = atm.layerProperty[atm.config.LP['N']] # refractive index of layers
P = atm.gas[atm.config.C['P']]
if (b[0]**2 + b[1]**2) > 1.0:
return path
mu = math.sqrt(1.0 - b[0]**2 - b[1]**2)
f = 1.0 - atm.config.Rpol / atm.config.Req
tip, rotate = computeAspect(orientation, f)
if verbose:
print('intersection: ({:.3f}, {:.3f}) '.format(b[0], b[1]), end='')
print('aspect: ({:%.4f}, {:.4f})'.format(tip * 180.0 / np.pi,
rotate * 180.0 / np.pi))
print('Finding atmospheric edge', end='')
edge, b = findEdge(atm, b, rNorm, tip, rotate, gtype)
if edge is None:
return path
r1 = np.linalg.norm(edge)
# get planetocentric latitude/longitude
pclat = utils.r2d(math.asin(np.dot(edge, yHat) / np.linalg.norm(edge)))
delta_lng = utils.r2d(math.atan2(np.dot(edge, xHat), np.dot(edge, zHat)))
geoid = shape.Shape(gtype)
r2 = geoid.calcShape(atm, rNorm, pclat, delta_lng)
if verbose:
print(' within {:.2f} m'.format(abs(r1 - r2) * 100.0))
geoid.printShort()
if plot:
plotStuff(atm=atm,
r=rNorm,
b=b,
gtype=gtype,
delta_lng=delta_lng,
geoid=geoid,
tip=tip,
rotate=rotate)
# initialize - everything below is in planetocentric coordinates, so need to rotate s-vector
start = np.array([0.0, 0.0, -1.0])
start = rotate2planet(rotate, tip, start)
s = [start]
n = [geoid.n]
r = [geoid.r]
t_inc = [math.acos(-np.dot(s[-1], n[-1]))] # incident angle_0
nratio = nr[0] / nr[1] # refractive index ratio_0
t_tran = [math.asin(nratio * math.sin(t_inc[-1]))] # transmitted angle_0
# return array initialization, use a value to keep indexing numbering for loop
ds = [0.0]
layer4ds = [0.0]
r4ds = [0.0] # not needed, but for information
P4ds = [0.0] # not needed, but for information
doppler = []
# loop while in atmosphere
i = 0 # loops over the path
layer = 0 # keeps track which physical layer you are in
inAtmosphere = True
direction = 'ingress'
while inAtmosphere:
if verbose:
print('------------------')
print('\tstep {d}: layer {d} {s} '.format(i, layer, direction))
print('\ts = [{:.4f}, {:.4f}, {:.4f}], ds = {:.4f}'.format(
s[-1][_X], s[-1][_Y], s[-1][_Z], ds[-1]))
geoid.print_a_step()
print('\tt_inc, tran: {:.8f} -> {:.8f}'.format(
utils.r2d(t_inc[-1]), utils.r2d(t_tran[-1])))
# update s-vector
s.append(
nratio * s[i] + raypathdir[direction] *
(nratio * math.cos(t_inc[i]) * n[i] - math.cos(t_tran[i]) * n[i]))
rNowMag = geoid.rmag
rNextMag = geoid.calcShape(atm, req[layer + raypathdir[direction]],
pclat, delta_lng)
rdots = np.dot(r[i], s[i + 1])
vw = np.interp(pclat, atm.config.vwlat, atm.config.vwdat) / 1000.0
dopp = 1.0 - (atm.config.omega_m * rNowMag * math.cos(utils.d2r(pclat))
+ vw) * math.sin(utils.d2r(delta_lng)) / 3.0E5
# get ds, checking for exit, errors and warnings...
try:
dsp = -rdots + math.sqrt(rdots**2.0 + rNextMag**2.0 - rNowMag**2.0)
dsm = -rdots - math.sqrt(rdots**2.0 + rNextMag**2.0 - rNowMag**2.0)
if direction == 'ingress':
ds_step = dsm
elif direction == 'egress':
ds_step = dsp
except ValueError: # tangent layer (probably)
if direction == 'ingress':
print('In tangent layer ', end='')
direction = 'tangent'
ds_step = -2.0 * rdots
if ds_step > rNorm:
inAtmosphere = False
print('Error: tangent ds too large')
break
rNextMag = rNowMag
else:
inAtmosphere = False
break
if ds_step < 0.0: # What is correct here? Is this true for egress, or only in error? 8/1/14 I commented out if statement,
# but only print statement was indented
print('Error: ds < 0 ({}: r.s={}, ds={}, [{},{}])'.format(
direction, rdots, ds_step, dsp, dsm))
inAtmosphere = False
break
if atm.config.limb == 'sec': # overwrite ds_step with secant version
ds_step = abs(rNextMag - rNowMag) / mu
# append to return arrays
ds.append(ds_step)
layer4ds.append(layer)
r4ds.append(rNowMag)
P4ds.append(atm.gas[atm.config.C['P']][layer])
doppler.append(dopp)
# get next step, double-check r value (and compute n, etc)
rnext = r[i] + ds[i + 1] * s[i + 1]
pclat = utils.r2d(
math.asin(np.dot(rnext, yHat) / np.linalg.norm(rnext)))
delta_lng = utils.r2d(
math.atan2(np.dot(rnext, xHat), np.dot(rnext, zHat)))
r2 = geoid.calcShape(atm, req[layer + raypathdir[direction]], pclat,
delta_lng)
if abs(r2 - rNextMag) > 2.0 and layer != 0:
print('Warning: {} != {} ({} km) at layer {}'.format(
r2, rNextMag, r2 - rNextMag, layer))
r.append(rnext) # which is also geoid.r, or should be
n.append(geoid.n)
# get new incident angle
layer += raypathdir[direction]
if direction == 'tangent':
direction = 'egress'
t_inc.append(np.pi / 2.0)
else:
try:
t_inc.append(
math.acos(-raypathdir[direction] *
np.dot(s[i + 1], n[i + 1])))
except ValueError:
print(
't_inc ValueError |s_(i+1)| = {}, |n_(i+1)| = {} - set to previous'
.format(np.linalg.norm(s[i + 1]),
np.linalg.norm(n[i + 1])))
t_inc.append(t_inc[i])
inAtmosphere = False
break
i += 1
# get refractive index ratio and check for exit
try:
nratio = nr[layer] / nr[layer + raypathdir[direction]]
nratio = 1.0
try:
t_tmp = math.asin(nratio * math.sin(t_inc[-1]))
except ValueError:
t_tmp = nratio * np.pi / 2.0
t_tran.append(t_tmp)
except IndexError:
inAtmosphere = False
# ## end loop ###
# Get rid of the first entry, which was just used to make indexing in loop consistent
del ds[0], layer4ds[0], r4ds[0], P4ds[0]
dsmu = []
for i in range(min(len(ds), len(r4ds)) - 1):
if abs(r4ds[i] - r4ds[i + 1]) < 1E-6:
dsmuappend = 0.001
else:
dsmuappend = ds[i] / (r4ds[i] - r4ds[i + 1])
dsmu.append(dsmuappend)
path.update(ds=ds,
layer4ds=layer4ds,
r4ds=r4ds,
P4ds=P4ds,
doppler=doppler,
tip=tip,
rotate=rotate,
rNorm=rNorm)
if plot:
plt.figure('test_ds')
plt.plot(dsmu)
plt.plot([0, 1499], [1.0 / mu, 1.0 / mu])
plotStuff(r=np.array(r), ray=path)
del s, r, n, ds, layer4ds, r4ds, P4ds, geoid, req, nr
return path
def printShort(self):
s = '%s: gamma = %.2f, lat = %.2f, lng = %.2f, |r|=%.2f km\n' % (
self.gtype, u.r2d(self.gamma), u.r2d(
self.pclat), u.r2d(self.delta_lng), self.rmag)
print(s)
return s
def __init__(self, game, *a, **k):
self.selection_change = ObservableEvent()
self.game = game
Control.__init__(self, can_focus=True, *a, **k)
self.keystrokes = '\x00'
self.char_portraits = None
self.deck_indicator = DeckIndicator(
parent=self, x=30, y=660, width=50, height=25,
)
self.handcard_area = HandCardArea(
parent=self, view=self, x=238, y=9, zindex=3,
width=93*5+42, height=145,
)
self.deck_area = PortraitCardArea(
parent=self, width=1, height=1,
x=self.width//2, y=self.height//2, zindex=4,
)
self.btn_afk = OptionButton(
parent=self, zindex=1, conf=(
(u'让⑨帮你玩', Colors.blue, False),
(u'⑨在帮你玩', Colors.orange, True),
), **r2d((30, 625, 75, 25))
)
self.gameintro_icon = GameIntroIcon(
parent=self, game=game,
**r2d((690, 630, 25, 25))
)
self.dropcard_area = DropCardArea(
parent=self, x=0, y=324, zindex=3,
width=820, height=125,
)
class Animations(pyglet.graphics.Batch, Control):
def __init__(self, **k):
pyglet.graphics.Batch.__init__(self)
Control.__init__(
self, x=0, y=0,
width=0, height=0, zindex=2,
**k
)
self.animations = []
def delete(self):
Control.delete(self)
for a in self.animations:
a.delete()
def hit_test(self, x, y):
return False
self.animations = Animations(parent=self)
self.selecting_player = 0
self.action_params = {}
def __str__(self):
s = '-------------------------Geoid---------------------------\n'
s += 'type: %s, gamma = %.2f deg, lat = %.2f deg, lng = %.2f\n' % (self.gtype, u.r2d(self.gamma), u.r2d(self.pclat), u.r2d(self.delta_lng))
s += 'r = [%.2f, %.2f, %.2f] km, |r| = %.2f km\n' % (self.r[_X], self.r[_Y], self.r[_Z], self.rmag)
s += 'n = [%.4f, %.4f, %.4f]\n' % (self.n[_X], self.n[_Y], self.n[_Z])
s += 't = [%.4f, %.4f, %.4f]\n' % (self.t[_X], self.t[_Y], self.t[_Z])
s += 'g = [%.6f, %.6f], |g| = %.6f\n' % (self.g[0], self.g[1], self.gmag)
s += '---------------------------------------------------------\n'
return s
def on_message(self, _type, *args):
rst = handle_chat(_type, args)
if rst:
self.chat_box.append(rst)
return
elif _type == 'game_started':
from utils import notify
notify(u'东方符斗祭 - 游戏提醒', u'游戏已开始，请注意。')
self.remove_control(self.panel)
self.add_control(self.gameui)
self.gameui.init()
self.game.start()
elif _type == 'end_game':
self.remove_control(self.gameui)
self.add_control(self.panel)
g = args[0]
elif _type == 'client_game_finished':
g = args[0]
g.ui_meta.ui_class.show_result(g)
elif _type in ('game_left', 'fleed'):
GameHallScreen().switch()
elif _type == 'game_joined':
# last game ended, this is the auto
# created game
self.game = args[0]
self.panel.btn_getready.state = Button.NORMAL
self.gameui = self.ui_class(
parent=False, game=self.game,
**r2d((0, 0, 820, 720))
)
SoundManager.switch_bgm(common_res.bgm_hall)
self.backdrop = common_res.bg_ingame.get()
self.set_color(Colors.green)
self.events_box.clear()
elif _type == 'game_crashed':
ConfirmBox(
u'游戏逻辑已经崩溃，请退出房间！\n'
u'这是不正常的状态，你可以报告bug。\n'
u'游戏ID：%d' % self.game.gameid,
parent=self
)
from __main__ import do_crashreport
do_crashreport()
elif _type == 'observe_request':
uid, uname = args[0]
box = ConfirmBox(
u'玩家 %s 希望旁观你的游戏，是否允许？\n'
u'旁观玩家可以看到你的手牌。' % uname,
parent=self, buttons=((u'允许', True), (u'不允许', False)), default=False
)
@box.event
def on_confirm(val, uid=uid):
Executive.call('observe_grant', ui_message, [uid, val])
elif _type == 'observer_enter':
obuid, obname, uname = args[0]
self.chat_box.append(
u'|B|R>> |r|c0000ffff%s|r[|c9100ffff%d|r]|r趴在了|c0000ffff%s|r身后\n' % (obname, obuid, uname)
)
elif _type == 'observer_leave':
obuid, obname, uname = args[0]
self.chat_box.append(
u'|B|R>> |r|c0000ffff%s|r飘走了\n' % obname
)
else:
Screen.on_message(self, _type, *args)