def __init__(self, surface, color, width, height, x, y, song_name):
self.surface = surface
self.color = color
self.width = width
self.height = height
self.x = x
self.y = y
self.song_title = song_name
self.score = 0
self.status_icons = {}
#sub bars
self.barHeight = height*.5 #factor of how large the bar is. 1 = 100%
self.barY = (height-self.barHeight)/2
self.font = pygame.font.Font(None, 26)
self.hpPos = 400
self.mpPos = 600
self.song_title_pos = 80
self.healthBar = Bar(surface=self.surface, frontColor=(255,0,0), backColor=(128,128,128), curValue=100, maxValue=100, width=150, height=self.barHeight, x=self.hpPos, y=self.barY)
self.kiBar = Bar(surface=self.surface, frontColor=(0,0,255), backColor=(128,128,128), curValue=100, maxValue=100, width=150, height=self.barHeight, x=self.mpPos, y=self.barY)
self.draw()
self.update_score(0) # Force draw the initial zero
def __init__(self,
center_x,
center_y,
animation_images,
saved_params=None):
super().__init__(center_x, center_y, animation_images)
self._max_health = self._max_mana = self._max_stamina = 100
self._speed_changing = 3
self._amount_damage = random.randint(140, 200)
self._passive_regeneration = 0.1
self._regeneration_interval = 10
self._last_attack_time = 250
self._animation_interval = 150
self._experience_up_level = 1000 * pow(1.1, self._level)
self._selected_attack = GameEnums.AttackTypes.FIREBALL.value
self._inventory = Inventory.Inventory()
self._health_bar = Bar.Bar(Constants.GAME_WINDOW_WIDTH // 2 - 250,
Constants.GAME_WINDOW_HEIGHT - 96,
'resources/images/bars/health_bar.png')
self._mana_bar = Bar.Bar(Constants.GAME_WINDOW_WIDTH // 2 + 155,
Constants.GAME_WINDOW_HEIGHT - 96,
'resources/images/bars/mana_bar.png')
if saved_params is None:
self._level = 1
self._current_experience = 0
self._current_health = 100
self._current_stamina = self._max_stamina
self._current_mana = self._max_mana
else:
self._level = saved_params['level']
self._current_experience = saved_params['current_experience']
self._current_health = saved_params['current_health']
self._current_stamina = saved_params['current_stamina']
self._current_mana = saved_params['current_mana']
def setUp(self):
self.c = Character("bob")
self.bar = Bar("Test")
self.bar.add_box(Box(1))
self.bar.add_box(Box(2))
self.bar.add_box(Box(3))
self.bar.add_box(Box(4))
self.c.add_bar(self.bar)
def bar_default(name):
"""
Returns a bar of size 1, 2
:param name: the name of the bar
:return:
"""
b = Bar(name)
b.add_box(Box(1))
b.add_box(Box(2))
return b
def sethero(self):
i = None
for i in self.planets:
break
self.player = Player((i.rect.x, i.rect.y - i.radius))
if loadlatest == True and self.s.dataexist():
t = self.s.loadrecent()
self.player.pos = np.array([t[1], t[2]])
self.player.vel = np.array([t[3], t[4]])
self.player.angle = t[5]
self.player.accel = np.array([t[6], t[7]])
self.hero.add(self.player)
self.fuelbar = Bar()
def reset(self):
self.bars.clear()
y0 = -self.bar_height
for i in range(self.number_of_bars):
self.bars.append(
Bar(self.game,
Vector2D(0, y0 - i * (self.offset + self.bar_height))))
def __init__(self, parent):
Frame.__init__(self, parent)
self.parent = parent
self.W = self.parent.winfo_screenwidth() - bbc.MIN_W
self.H = self.parent.winfo_screenheight() - bbc.MIN_H
if self.W < bbc.MIN_W:
self.W = bbc.MIN_W
if self.H < bbc.MIN_H:
self.H = bbc.MIN_H
self.board = Board(self)
self.ball = Ball(self.board)
self.barTop = Bar(self.board, bbc.BAR_T)
self.barBottom = Bar(self.board, bbc.BAR_B)
self.initialize()
def __init__(self, name, refresh_rate=3):
self.name = name
self.bars = {} # address bars by name
self.aspects = AspectContainer()
self.skills = SkillContainer()
self.fate = 0
self.refresh_rate = refresh_rate
self.consequence_bar = Bar("consequence")
self.consequences = []
def bar_consequence(name):
"""
Returns a bar of size 2, 4, 6
:param name: the name of the bar
:return:
"""
b = Bar(name)
b.add_box(Box(2))
b.add_box(Box(4))
b.add_box(Box(6))
return b
def insertEmptyBar(self,n):
i=n
bar = Bar.Bar()
while(i>1):
rownum = self.dailyBar.shape[0]-1
bar.strtime=' '
bar.utc_time=self.dailyBar.ix[rownum]['utcdatetime']+60
bar.open=0
bar.close=0
bar.high=self.dailyBar.ix[rownum]['high']
bar.low=self.dailyBar.ix[rownum]['low']
bar.position=self.dailyBar.ix[rownum]['position']
self.update_dailyBar(bar)
if(datetime.datetime.fromtimestamp(bar.utc_time).minute% self.K_min==0):
self.update_dailyBarMin(bar)
pass
i-=1
pass
def get_bars(songs_data):
bars = []
for song_data in songs_data:
seg_starts = song_data.seg_starts
bar_starts = song_data.bar_starts
pitches = song_data.seg_pitches
# Because of how the song data is being collected, these two
# don't match up, even though they should
pitches_and_segs = min(len(pitches), len(seg_starts)) - 1
# The bars starts don't match exactly with the pitch starts,
# hence this mess
for i in xrange(pitches_and_segs):
# The if should be true for bar_starts[len(bars)], but this
# is to make sure.
for j in range(len(bars), len(bar_starts)):
if seg_starts[i] < bar_starts[j] < seg_starts[i+1]:
bars.append(str(Bar.Bar(SongData.get_pitch(pitches[i]))))
return bars
from DirectorioDeBares import *
from Bar import *
from Caracteristica import *
from Calificacion import *
from RegistroDeCalificaciones import *
from Cartografo import *
wifi = Caracteristica("Wi-Fi")
aircon = Caracteristica("Aire Acondicionado")
precios = Caracteristica("Precios")
directorio = DirectorioDeBares()
cartografo = Cartografo()
bar1 = Bar("Tienda del cafe", "Santa Fe y Callao", [wifi])
bar2 = Bar("Cafe Martinez", "Av. Pueyrredon y Cordoba",
[wifi, aircon, precios])
bar3 = Bar("Starbucks", "Las Heras y Uriburu",
[aircon, precios, Caracteristica("enchufes")])
bar4 = Bar("Tips", "Las Heras y Av. Pueyrredon", [wifi])
bar5 = Bar("Muu lecheria", "Costa Rica y Armenia", [])
bar6 = Bar("La biela", "Junin y Guido", [wifi])
bar7 = Bar("Pani", "Junin y Vicente Lopez", [wifi, precios])
bar8 = Bar("Milli", "Av. Pueyrredon y French", [wifi, aircon, precios])
directorio.agregar(bar1)
directorio.agregar(bar2)
directorio.agregar(bar3)
directorio.agregar(bar4)
directorio.agregar(bar5)
if args.gis:
from GIS import *
gis(args.gis)
if args.type == 'Pie' and args.title == None:
parser.error('If you want a Pie plot, you also have to set a title with -title argument')
if args.type == "bar":
parse_bar = ParseBar(args.input)
dict_bar = parse_bar.process_data()
if args.dimension == "2D":
bar = Bar2D(dict_bar)
else:
bar = Bar(dict_bar)
if args.view == "image":
bar.init("image")
else:
bar.init("gui")
elif args.type == "scatter":
parse_scatter = ParseScatter(args.input)
dict_scatter = parse_scatter.process_data()
if args.dimension == "2D":
scatter = Scatter2D(dict_scatter)
else:
scatter = Scatter(dict_scatter)
def set(canvas,g):
axes = adxl345.getAxes(True)
g.setGforce(axes['x'],axes['y'])
canvas.after(5,set,canvas,g)
None
root = Tk()
canvas = Canvas(root,width=winWidth,height=winHeight,bg="white")
canvas.pack()
rpm = Rpm(canvas,winWidth/2,winHeight/4,winWidth/1.25,winHeight/4,50,"yellow","yellow",20,140,0,10000)
speed = Text(canvas,winWidth/2,winHeight/4,"Helvetica",speedFontSize,"bold italic","black","137")
mileage = Text(canvas,winWidth/2,(winHeight/10)*3,"Helvetica",10,"bold ","black","162.372 KM")
clutch=Bar(canvas,winWidth-92,winHeight,30,-60,"blue")
brake=Bar(canvas,winWidth-61,winHeight,30,-30,"red")
throttle=Bar(canvas,winWidth-30,winHeight,30,-100,"green")
temp1 = Circle(canvas,(winWidth/4)*1,(winHeight/2)*1,100,25,240,300,20,100,"#28cfbc",circleFontSize,"OIL T.")
temp2 = Circle(canvas,(winWidth/4)*2,(winHeight/2)*1,100,25,240,300,20,100,"#28cfbc",circleFontSize,"OIL P.")
temp3 = Circle(canvas,(winWidth/4)*3,(winHeight/2)*1,100,25,240,300,20,100,"#28cfbc",circleFontSize,"H2O T.")
temp4 = Circle(canvas,(winWidth/4)*1,(winHeight/4)*3,100,25,240,300,20,100,"#28cfbc",circleFontSize,"H2O T.2")
temp5 = Circle(canvas,(winWidth/4)*2,(winHeight/4)*3,100,25,240,300,20,100,"#28cfbc",circleFontSize,"IAT")
#temp6 = Circle(canvas,(winWidth/4)*3,(winHeight/4)*3,100,25,240,300,20,100,"#28cfbc",circleFontSize,"BAT")
arrowLeft=Arrow(canvas,(winWidth/3)*1,winHeight/4,0.15,"green","left")
arrowRight=Arrow(canvas,(winWidth/3)*2,winHeight/4,0.15,"green","right")
g = Gforce(canvas,(winWidth/4)*3,(winHeight/4)*3,125,2,1,"gray",4,"red")
chord_list += [chord_name_em, chord_name_a, chord_name_d, chord_name_d]
tempo = 200.0
midi = pretty_midi.PrettyMIDI(initial_tempo=tempo)
music_program = pretty_midi.instrument_name_to_program('Vibraphone')
chord_program = pretty_midi.instrument_name_to_program('Marimba')
music_part = pretty_midi.Instrument(program=music_program)
chord_part = pretty_midi.Instrument(program=chord_program)
## 本番
# now_pos: 16分音符何個分の位置にいるか
now_pos = 0
for chord_s in chord_list:
chord = Chord.Chord(chord_s)
# 主旋律
bar = Bar.Bar(chord, tempo, now_pos)
nodes = bar.Nodes
for node in nodes:
note = node.note
music_part.notes.append(note)
# コードの貼り付け
for pitch_int in chord.pitch_ints:
node = Node.Node(16, pitch_int, now_pos, tempo)
note = node.note
chord_part.notes.append(note)
# 共通
now_pos += 16
# コードだけ
# for chord_s in chord_list:
# chord = Chord.Chord(chord_s)
class Display:
def __init__(self, dbcom=""):
py.init()
self.s = None
if dbcom == "create":
self.s = Saver("create")
else:
self.s = Saver()
self.initdisplayvar()
self.win = py.display.set_mode((self.winx, self.winy))
self.sound = Sound()
self.writer = Text(self.win)
self.init_event_variables()
self.run()
self.spacewalk = np.array([0, 0])
def initdisplayvar(self):
self.winx = 900
self.winy = 800
self.stopgame = False
def init_event_variables(self):
self.planets = []
self.hero = py.sprite.Group()
self.map = py.sprite.Group()
self.missiles = py.sprite.Group()
self.satellites = py.sprite.Group()
self.explosions = py.sprite.Group()
self.trail = Trail()
self.player = None
self.fuelbar = None
self.wkup = False
self.wkdo = False
self.wklf = False
self.wkrh = False
self.zoomin = False
self.zoomout = False
self.autotrail = False
self.m_W_player = False
self.m_S_player = False
self.r_L_player = False
self.r_R_player = False
self.setorbital = False
self.launchmissile = False
pass
def setplanets(self):
#initates the game settings and the sprites positions
PG = PlanetGenerator()
for i in PG.planets:
self.planets.append(i)
#sat = i.get_satellite()
#self.satellites.add(sat)
def sethero(self):
i = None
for i in self.planets:
break
self.player = Player((i.rect.x, i.rect.y - i.radius))
if loadlatest == True and self.s.dataexist():
t = self.s.loadrecent()
self.player.pos = np.array([t[1], t[2]])
self.player.vel = np.array([t[3], t[4]])
self.player.angle = t[5]
self.player.accel = np.array([t[6], t[7]])
self.hero.add(self.player)
self.fuelbar = Bar()
def setmap(self):
self.map.add(Map(self.planets))
def sprites_handler(self):
pass
def eventhandler(self):
for event in py.event.get():
if event.type == py.QUIT:
self.stopgame = True
if event.type == 2:
if event.key == py.K_UP:
self.zoomin = True
if event.key == py.K_DOWN:
self.zoomout = True
if event.key == py.K_LEFT:
self.wklf = True
if event.key == py.K_RIGHT:
self.wkrh = True
if event.key == py.K_i:
self.player.invert()
if event.key == py.K_a:
self.r_L_player = True
if event.key == py.K_d:
self.r_R_player = True
if event.key == py.K_w:
self.m_W_player = True
self.player.accelerating = True
self.sound.thrusts()
if event.key == py.K_s:
self.m_S_player = True
if event.key == py.K_o:
self.setorbital = True
if event.key == py.K_SPACE:
self.launchmissile = True
self.player.missilecount += 1
if event.key == py.K_t:
self.player.autorotate = not self.player.autorotate
if event.key == py.K_j:
self.trail.addpoint(self.player.pos)
if event.key == py.K_c:
self.trail.clear()
if event.key == py.K_k:
self.autotrail = not self.autotrail
if event.key == py.K_r:
self.player.pos = np.array([0, -22300 - size / 2], float)
self.player.angu_vel = 0
self.player.vel = np.array([0.0, 0.0])
self.player.angle = 0
self.sound.offthrust.stop()
if event.type == 3:
if event.key == py.K_UP:
self.zoomin = False
if event.key == py.K_DOWN:
self.zoomout = False
if event.key == py.K_LEFT:
self.wklf = False
if event.key == py.K_RIGHT:
self.wkrh = False
if event.key == py.K_a:
self.r_L_player = False
if event.key == py.K_d:
self.r_R_player = False
if event.key == py.K_w:
self.m_W_player = False
self.player.accelerating = False
self.sound.stopthrusts()
if event.key == py.K_s:
self.m_S_player = False
if event.key == py.K_q:
self.stopgame = True
if event.key == py.K_o:
self.setorbital = False
def affectgravity(self):
nonthingtrue = True
count = 0
min = 100000000000
minindex = 0
for i in self.planets:
r = i.pos - self.player.pos
dis = np.linalg.norm(r)
if (dis < min):
min = dis
minindex = count
count += 1
nearplanet = self.planets[minindex]
r = nearplanet.pos - self.player.pos
dis = np.linalg.norm(r)
orb_vel = np.sqrt(nearplanet.mass / dis)
self.player.requireorbitalvel = orb_vel
if self.setorbital:
self.player.setvelocity(orb_vel)
self.setorbital = False
for i in self.planets:
r = i.pos - self.player.pos
dis = np.linalg.norm(r)
if ((dis > 1 and dis < i.radius + 3000)
and (not self.player.stopgravity)):
g = i.mass / (dis)**2
g_vec = g * r / dis
self.player.vel += g_vec * dt
def respondevents(self):
mpt = [0, 0]
if self.wkup:
mpt[1] = -10
if self.wkdo:
mpt[1] = 10
if self.wklf:
mpt[0] = -10
if self.wkrh:
mpt[0] = 10
if self.m_W_player or self.m_S_player:
if self.m_W_player:
self.player.accelerating = True
self.player.accelerate()
#print("accelerate")
if self.m_S_player:
#print("decelerate")
self.player.decelerate()
else:
self.player.accelerating = False
self.player.nonfireimage()
self.player.stopaccelerate()
#print("stopping")
if self.r_L_player:
self.player.rotate(False)
elif self.r_R_player:
self.player.rotate(True)
if self.launchmissile:
#print("missile launched")
self.launchmissile = False
self.missiles.add(
Missile(self.player, str(self.player.missilecount),
self.player.zoom))
for i in self.planets:
i.update(2, self.player.pos)
self.hero.update(self.planets)
self.map.update(self.player.pos)
self.missiles.update(self.planets)
self.satellites.update(self.player.pos)
for missile in self.missiles:
if missile.killme:
self.explosions.add(Explosion(missile.pos))
missile.kill()
self.explosions.update(self.player)
def writeparameters(self):
velocitystr = "Velocity: " + str(int(np.linalg.norm(self.player.vel)))
vestrlencen = len(velocitystr) / 2
orbitalstr = "Req orbital: " + str(int(self.player.requireorbitalvel))
orbitalstrlen = len(orbitalstr) / 2
angvelstr = "Angular Velocity:" + str("{0:.2f}".format(
self.player.angu_vel))
angvelstrlen = len(angvelstr) / 2
self.writer.draw((vestrlencen * 7, 100), velocitystr)
self.writer.draw((orbitalstrlen * 7, 120), orbitalstr)
self.writer.draw((angvelstrlen * 7, 80), angvelstr)
def draw(self):
if self.zoomin:
config.zoom_value += 0.2
elif self.zoomout:
if config.zoom_value > 1:
config.zoom_value -= 0.2
if self.zoomin or self.zoomout:
#planets zoom
self.trail.zoom = config.zoom_value
for i in self.planets:
i.zoom = config.zoom_value
#ship zoom
self.player.zoom = config.zoom_value
#missile zoom
for i in self.missiles:
i.zoom = config.zoom_value
print(config.zoom_value)
for i in self.planets:
for j in i.clouds:
j.zoom = config.zoom_value
for i in self.planets:
self.win.blit(i.atmos_image, (i.atmos_rect.x, i.atmos_rect.y))
self.win.blit(i.image, (i.rect.x, i.rect.y))
self.hero.draw(self.win)
self.map.draw(self.win)
self.missiles.draw(self.win)
if self.win != None:
for planet in self.planets:
planet.clouds.draw(self.win)
self.fuelbar.draw(self.win, self.player.fuel, 100)
self.trail.draw(self.win, self.player.pos)
self.explosions.draw(self.win)
self.writeparameters()
if self.autotrail:
self.trail.autotrail(self.player)
def run(self):
self.stopgame = False
self.setplanets()
self.sethero()
self.setmap()
self.sound.theme()
#testing
while (not self.stopgame):
self.win.fill((0, 30, 40))
self.eventhandler()
self.respondevents()
for i in self.planets:
#print(np.array(self.player.pos),np.array([i.rect.x,i.rect.y]))
break
self.draw()
self.affectgravity()
self.trail.maintainlength()
py.display.update()
if self.stopgame == True:
self.s.save(self.player)
self.s.commit()
elif self.player.fuel < 0.1:
self.stopgame = True
self.s.save(self.player)
self.s.commit()
##### crear usuarios
print '\nCreando usuarios\n'
user1 = Usuario("Leandro")
user2 = Usuario("Juani")
user3 = Usuario("Axel")
user4 = Usuario("Andy")
user5 = Usuario("Petr")
user6 = Usuario("Axel")
print '\nCreando bares\n'
#### crear bares
bar1 = Bar("Super Bar", (1000, 1000), True)
bar2 = Bar("Nuevo Bar", (3, 1), True)
bar3 = Bar("Bar Cool", (1, 3), False)
bar4 = Bar("Nuevo Bar", (-1000, -999), True)
bar5 = Bar("Nuevo Bar 3", (10, 10), True)
print '\nProbando registros bares y usuarios\n'
#### probando registros
regBar = RegistrarBar()
regUser = RegistrarUsuario()
RegistroBares = []
RegistroUsuarios = []
regBar.agregarBar(bar1, RegistroBares)
def main():
parser = argparse.ArgumentParser()
parser.add_argument('source_path', help="Path to the video or audio file to subtitle", nargs='?')
parser.add_argument('-C', '--concurrency', help="Number of concurrent API requests to make", type=int, default=10)
parser.add_argument('-o', '--output',
help="Output path for subtitles (by default, subtitles are saved in \
the same directory and name as the source path)")
parser.add_argument('-F', '--format', help="Destination subtitle format", default="srt")
parser.add_argument('-S', '--src-language', help="Language spoken in source file", default="en")
parser.add_argument('-D', '--dst-language', help="Desired language for the subtitles", default="en")
parser.add_argument('-K', '--api-key',
help="The Google Translate API key to be used. (Required for subtitle translation)")
parser.add_argument('--list-formats', help="List all available subtitle formats", action='store_true')
parser.add_argument('--list-languages', help="List all available source/destination languages", action='store_true')
args = parser.parse_args()
ifargs.list_formats:
print("List of formats:")
forsubtitle_format in FORMATTERS.keys():
print("{format}".format(format=subtitle_format))
return 0
ifargs.list_languages:
print("List of all languages:")
for code, language in sorted(LANGUAGE_CODES.items()):
print("{code}\t{language}".format(code=code, language=language))
return 0
ifargs.format not in FORMATTERS.keys():
print("Subtitle format not supported. Run with --list-formats to see all supported formats.")
return 1
ifargs.src_language not in LANGUAGE_CODES.keys():
print("Source language not supported. Run with --list-languages to see all supported languages.")
return 1
ifargs.dst_language not in LANGUAGE_CODES.keys():
print(
"Destination language not supported. Run with --list-languages to see all supported languages.")
return 1
if not args.source_path:
print("Error: You need to specify a source path.")
return 1
audio_filename, audio_rate = extract_audio(args.source_path)
regions = find_speech_regions(audio_filename)
pool = multiprocessing.Pool(args.concurrency)
converter = FLACConverter(source_path=audio_filename)
recognizer = SpeechRecognizer(language=args.src_language, rate=audio_rate, api_key=GOOGLE_SPEECH_API_KEY)
transcripts = []
if regions:
try:
widgets = ["Converting speech regions to FLAC files: ", Percentage(), ' ', Bar(), ' ', ETA()]
pbar = ProgressBar(widgets=widgets, maxval=len(regions)).start()
extracted_regions = []
fori, extracted_region in enumerate(pool.imap(converter, regions)):
extracted_regions.append(extracted_region)
pbar.update(i)
pbar.finish()
widgets = ["Performing speech recognition: ", Percentage(), ' ', Bar(), ' ', ETA()]
pbar = ProgressBar(widgets=widgets, maxval=len(regions)).start()
fori, transcript in enumerate(pool.imap(recognizer, extracted_regions)):
transcripts.append(transcript)
pbar.update(i)
pbar.finish()
if not is_same_language(args.src_language, args.dst_language):
ifargs.api_key:
google_translate_api_key = args.api_key
translator = Translator(args.dst_language, google_translate_api_key, dst=args.dst_language,
src=args.src_language)
prompt = "Translating from {0} to {1}: ".format(args.src_language, args.dst_language)
widgets = [prompt, Percentage(), ' ', Bar(), ' ', ETA()]
pbar = ProgressBar(widgets=widgets, maxval=len(regions)).start()
translated_transcripts = []
fori, transcript in enumerate(pool.imap(translator, transcripts)):
translated_transcripts.append(transcript)
pbar.update(i)
pbar.finish()
transcripts = translated_transcripts
else:
print ("Error: Subtitle translation requires specified Google Translate API key. \ See --help for further information.")
return 1
exceptKeyboardInterrupt:
pbar.finish()
pool.terminate()
pool.join()
print ("Cancelling transcription")
return 1
timed_subtitles = [(r, t) for r, t in zip(regions, transcripts) if t]
formatter = FORMATTERS.get(args.format)
formatted_subtitles = formatter(timed_subtitles)
dest = args.output
if not dest:
base, ext = os.path.splitext(args.source_path)
dest = "{base}.{format}".format(base=base, format=args.format)
with open(dest, 'wb') as f:
f.write(formatted_subtitles.encode("utf-8"))
print ("Subtitles file created at {}".format(dest))
os.remove(audio_filename)
return 0
if __name__ == '__main
sys.exit(main())
clock = pygame.time.Clock()
LOGO_IMAGE = pygame.image.load(os.path.join("logo.png"))
MAP_WIDTH = 500
MAP_HEIGHT = 500
GAME_AREA = (30, 30, 30 + MAP_WIDTH, 30 + MAP_HEIGHT)
#게임 데이터들
FAST_FPS = 50
SLOW_FPS = 10
FPS = FAST_FPS
BAR_WIDTH = 200
BAR_HEIGHT = 20
BAR_MOVE_WIDTH = 20
BALL_MOVE_SPEED = 4
game = True
bar = Bar.Bar(((MAP_WIDTH - BAR_WIDTH) / 2, MAP_HEIGHT - BAR_HEIGHT))
barCoord = [(MAP_WIDTH - BAR_WIDTH) / 2, MAP_HEIGHT - BAR_HEIGHT]
boundary = False #끝에 닿았는지
RANDOM_VECTOR_SPEED = 90
randomVectorCount = 1
vectorDirection = [-2, 1]
ball = Ball((30, 30), 10)
drawRainbow = drawRainbow(FPS)
# to create bricks and brickList
brickList = {}
#초기 bricks 생성
LOGO_IMAGE = pygame.image.load(os.path.join("logo.png")) # 로고 이미지 불러오기
MAP_WIDTH = 500 #게임 플레이할 공간의 가로 길이
MAP_HEIGHT = 500 #게임 플레이할 공간의 세로 길이
GAME_AREA = (30, 30, 30 + MAP_WIDTH, 30 + MAP_HEIGHT
) # 게임 플레이할 공간과 실행창 사이 간격? (왼쪽 사이 간격, 위쪽 사이 간격, ...?)
#게임 데이터들
FAST_FPS = 50 #빠른 FPS
SLOW_FPS = 10 #느린 FPS
FPS = FAST_FPS #빠른 FPS로 기본 설정
BAR_WIDTH = 100 #바 가로 길이
BAR_HEIGHT = 20 #바 세로 길이
BAR_MOVE_WIDTH = 20
BALL_MOVE_SPEED = 4
game = True
bar = Bar.Bar(((MAP_WIDTH - BAR_WIDTH) / 2,
MAP_HEIGHT - BAR_HEIGHT)) #게임 초기 실행시 바 기본위치 (가로, 세로)
barCoord = [(MAP_WIDTH - BAR_WIDTH) / 2, MAP_HEIGHT - BAR_HEIGHT]
boundary = False #끝에 닿았는지 확인
currentLife = 10
RANDOM_VECTOR_SPEED = 90 #???
randomVectorCount = 1
#???
vectorDirection = [-2, 1] #공 벡터 방향
ball = Ball((30, 30), 10)
drawRainbow = drawRainbow(FPS)
# to create bricks and brickList
brickList = {}
class StatusBar:
"""The Main PyMan Class - This class handles the main
initialization and creating of the Game."""
def __init__(self, surface, color, width, height, x, y, song_name):
self.surface = surface
self.color = color
self.width = width
self.height = height
self.x = x
self.y = y
self.song_title = song_name
self.score = 0
self.status_icons = {}
#sub bars
self.barHeight = height*.5 #factor of how large the bar is. 1 = 100%
self.barY = (height-self.barHeight)/2
self.font = pygame.font.Font(None, 26)
self.hpPos = 400
self.mpPos = 600
self.song_title_pos = 80
self.healthBar = Bar(surface=self.surface, frontColor=(255,0,0), backColor=(128,128,128), curValue=100, maxValue=100, width=150, height=self.barHeight, x=self.hpPos, y=self.barY)
self.kiBar = Bar(surface=self.surface, frontColor=(0,0,255), backColor=(128,128,128), curValue=100, maxValue=100, width=150, height=self.barHeight, x=self.mpPos, y=self.barY)
self.draw()
self.update_score(0) # Force draw the initial zero
def draw(self):
self.rect = pygame.Rect(self.x, self.y, self.width, self.height)
pygame.draw.rect(self.surface, self.color, self.rect, 0)
song_title_text = self.font.render(self.song_title, 1, (10, 10, 10))
song_title_text_pos = song_title_text.get_rect()
song_title_text_pos.centerx = song_title_text_pos.width / 2.0
song_title_text_pos.centery = self.barY + song_title_text_pos.height
self.surface.blit(song_title_text, song_title_text_pos)
# Display some hpText and Bar
hpText = self.font.render("HP:", 1, (10, 10, 10))
hpTextPos = hpText.get_rect()
hpTextPos.centerx = self.hpPos - 20
hpTextPos.centery = self.barY+hpText.get_rect().height
self.surface.blit(hpText, hpTextPos)
self.healthBar.draw()
# Display some mpText and Bar
mpText = self.font.render("Ki:", 1, (10, 10, 10))
mpTextPos = mpText.get_rect()
mpTextPos.centerx = self.mpPos - 20
mpTextPos.centery = self.barY+mpText.get_rect().height
self.surface.blit(mpText, mpTextPos)
self.kiBar.draw()
# Display the score!
score_pos = 800
score_text = self.font.render("Score:", 1, (10, 10, 10))
score_text_pos = score_text.get_rect()
score_text_pos.centerx = score_pos - 20
score_text_pos.centery = self.barY + score_text_pos.height
self.surface.blit(score_text, score_text_pos)
cur_icon_x_pos = self.width - 32
cur_icon_y_pos = self.barY
# Draw some status icons
for icon in self.status_icons.values():
self.surface.blit(icon, (cur_icon_x_pos, cur_icon_y_pos))
cur_icon_x_pos = cur_icon_x_pos - 46
# Display some expText and Bar
# expPos = 800
# expText = font.render("Rep:", 1, (10, 10, 10))
# expTextPos = expText.get_rect()
# expTextPos.centerx = expPos - 20
# expTextPos.centery = self.barY+expText.get_rect().height
# self.surface.blit(expText, expTextPos)
# self.kiBar = Bar(surface=self.surface, frontColor=(0,255,0), backColor=(128,128,128), curValue=100, maxValue=100, width=150, height=self.barHeight, x=expPos, y=self.barY)
def update_score(self, add_score):
self.draw()
self.score = self.score + add_score
score_pos = 800
score_val = self.font.render(str(self.score), 1, (10, 10, 10))
score_val_pos = score_val.get_rect()
score_val_pos.centerx = score_pos + 20
score_val_pos.centery = self.barY + score_val_pos.height
self.surface.blit(score_val, score_val_pos)
def add_status_icon(self, icon_name):
print "trying to add ", icon_name
if not (icon_name in self.status_icons):
new_icon, jank_rect = load_image_from_folder('status_icons', icon_name)
self.status_icons[icon_name] = new_icon
self.update_score(0) # calls Draw
def remove_status_icon(self, icon_name):
if icon_name in self.status_icons:
del self.status_icons[icon_name]
self.update_score(0) # calls Draw
#ArghMatey.py
import config
import Bar
import Fight
import Ship
import Island
import Montauk
start = raw_input("Last week, you and your friends got together and marathoned the entire Pirates of the Caribean series. About halfway through the third movie, one of them mentioned a pirate themed bar she had heard just opened up. You all excitedly made plans for the following Friday. Now, the day has come. You've been laying in bed all day - regretting you said you would go and debating whether or not you should tell them you have scurvy and continue playing red dead til 3 in the morning. \n ( Stay home / Go out ): ").lower()
Bar.stay_or_go(start)
raw_input( "You get to the bar. Outside there's a big ship-shaped sign that says The Ship in old-timey lettering. Beneath that, there's an even bigger bouncer with a fake parrot sitting on his shoulder. No one in line is in costume. You look ridiculous.")
config.name = raw_input("Bouncer: 'Ahoy Matey and welcome to The Ship! If you're on the list head in. If not, walk the plank. What's your name?' \nEnter your name: ")
raw_input("Bouncer: '{}, {}, {}. Ah! There it is! Head on in.'".format(config.name, config.name, config.name))
raw_input("As you walk past, the parrot on his shoulder squawks at you and lurches. I guess it was real after all. You say something about it to your friends but none of them saw it.")
raw_input("When you walk in, you are greeted by a sea shanty and a lively bar. In the background, you hear a dull buzzing sound.")
dance = ""
Bar.danceFloor(0)
class CharacterBarTest(unittest.TestCase):
def setUp(self):
self.c = Character("bob")
self.bar = Bar("Test")
self.bar.add_box(Box(1))
self.bar.add_box(Box(2))
self.bar.add_box(Box(3))
self.bar.add_box(Box(4))
self.c.add_bar(self.bar)
def test_add(self):
self.assertEqual(self.bar, self.c.get_bar("Test"),
"Did not properly add bar to character")
def test_get_empty(self):
self.assertEqual(None, self.c.get_bar("Does not exist"),
"None not returned on non-existent bar")
def test_get_non_case_sensitive(self):
self.assertEqual(self.bar, self.c.get_bar("TEST"),
"not non-case-sensitive")
def test_removal(self):
self.assertEqual(self.bar, self.c.remove_bar("Test"),
"Did not return true on successful removal")
self.assertEqual(None, self.c.get_bar("Test"),
"Did not remove bar properly")
def test_removal_does_not_exit(self):
self.assertFalse(self.c.remove_bar("Does not exist"),
"Did not return false on non-existent bar")
def test_spend(self):
self.c.spend_box("Test", 1)
self.assertTrue(self.bar[1].used, "Did not spend the correct box")
self.assertFalse(self.bar[2].used, "Did not spend the correct box")
self.assertFalse(self.bar[3].used, "Did not spend the correct box")
self.assertFalse(self.bar[4].used, "Did not spend the correct box")
self.c.spend_box("Test", 2)
self.assertTrue(self.bar[1].used, "Did not spend the correct box")
self.assertTrue(self.bar[2].used, "Did not spend the correct box")
self.assertFalse(self.bar[3].used, "Did not spend the correct box")
self.assertFalse(self.bar[4].used, "Did not spend the correct box")
def test_refresh(self):
# spend all
self.bar[1].spend()
self.bar[2].spend()
self.bar[3].spend()
self.bar[4].spend()
self.c.refresh_box("Test", 1)
self.assertFalse(self.bar[1].used, "Did not refresh the correct box")
self.assertTrue(self.bar[2].used, "Did not refresh the correct box")
self.assertTrue(self.bar[3].used, "Did not refresh the correct box")
self.assertTrue(self.bar[4].used, "Did not refresh the correct box")
self.c.refresh_box("Test", 3)
self.assertFalse(self.bar[1].used, "Did not refresh the correct box")
self.assertTrue(self.bar[2].used, "Did not refresh the correct box")
self.assertFalse(self.bar[3].used, "Did not refresh the correct box")
self.assertTrue(self.bar[4].used, "Did not refresh the correct box")
def test_refresh_non_case_sensitive(self):
# spend all
self.bar[1].spend()
self.bar[2].spend()
self.bar[3].spend()
self.bar[4].spend()
self.c.refresh_box("test", 1)
self.assertFalse(self.bar[1].used, "Did not refresh the correct box")
self.assertTrue(self.bar[2].used, "Did not refresh the correct box")
self.assertTrue(self.bar[3].used, "Did not refresh the correct box")
self.assertTrue(self.bar[4].used, "Did not refresh the correct box")
def test_spend_non_case_sensitive(self):
self.c.spend_bar("TEST")
self.assertTrue(self.bar[1].used, "Did not spend the correct box")
self.assertTrue(self.bar[2].used, "Did not spend the correct box")
self.assertTrue(self.bar[3].used, "Did not spend the correct box")
self.assertTrue(self.bar[4].used, "Did not spend the correct box")
def test_refresh_bar(self):
self.c.refresh_bar("test")
self.assertFalse(self.bar[1].used, "Did not refresh")
self.assertFalse(self.bar[2].used, "Did not refresh")
self.assertFalse(self.bar[3].used, "Did not refresh")
self.assertFalse(self.bar[4].used, "Did not refresh")
def test_spend_bar(self):
self.c.spend_bar("test")
self.assertTrue(self.bar[1].used, "Did not spend")
self.assertTrue(self.bar[2].used, "Did not spend")
self.assertTrue(self.bar[3].used, "Did not spend")
self.assertTrue(self.bar[4].used, "Did not spend")
def __bar(self):
Player.unlock_c = 1
self.__bg.destroy()
Bar.Bar()
def __add_bar_(self):
last_bar = self.bars[-1]
position = Vector2D(
0, last_bar.position.y - (self.offset + self.bar_height))
self.bars.append(Bar(self.game, position))
class BingBall(Frame):
def __init__(self, parent):
Frame.__init__(self, parent)
self.parent = parent
self.W = self.parent.winfo_screenwidth() - bbc.MIN_W
self.H = self.parent.winfo_screenheight() - bbc.MIN_H
if self.W < bbc.MIN_W:
self.W = bbc.MIN_W
if self.H < bbc.MIN_H:
self.H = bbc.MIN_H
self.board = Board(self)
self.ball = Ball(self.board)
self.barTop = Bar(self.board, bbc.BAR_T)
self.barBottom = Bar(self.board, bbc.BAR_B)
self.initialize()
def initialize(self):
self.reset_score()
self.parent.title("BingBall Game")
self.parent.config(bg="#324b21")
self.pack(side=RIGHT, padx=5, pady=5)
def reset_score(self):
bbc.BAR_SCORE_G = 0
bbc.BAR_SCORE_R = 0
def direct_bar_auto(self):
if bbc.IS_AUTO is False:
return 1
fx, fy, lx, ly = self.ball.get_current_coords()
if fy + self.H*bbc.SPEED[1] <= 0:
self.barTop.do_moving(10 + fx + 2*bbc.SPEED[0])
if ly + self.H*bbc.SPEED[1] >= self.H:
self.barBottom.do_moving(lx + 2*bbc.SPEED[0] - 10)
self.after(5, self.direct_bar_auto)
def bar_top_event_left(self, event):
self.barTop.to_move(bbc.DIRECT_TO_LEFT)
def bar_top_event_right(self, event):
self.barTop.to_move(bbc.DIRECT_TO_RIGHT)
def bar_bottom_event_left(self, event):
self.barBottom.to_move(bbc.DIRECT_TO_LEFT)
def bar_bottom_event_right(self, event):
self.barBottom.to_move(bbc.DIRECT_TO_RIGHT)
def bar_top_event(self, event):
self.barTop.do_moving(event.x)
def play_event(self, event):
if bbc.IS_PLAYING is True:
bbc.IS_PLAYING = False
else:
bbc.IS_PLAYING = True
self.play()
def play(self):
self.direct_bar_auto()
self.ball.do_moving()
def auto_play_event(self, event):
if bbc.IS_PLAYING is False:
if bbc.IS_AUTO is False:
self.reset_score()
bbc.IS_AUTO = True
self.reset_event_switch()
def manual_play_event(self, event):
if bbc.IS_PLAYING is False:
if bbc.IS_AUTO is True:
self.reset_score()
bbc.IS_AUTO = False
self.reset_event_switch()
def up_delay_event(self, event):
if bbc.DELAY < MAX_DELAY:
bbc.DELAY += 1
def down_delay_event(self, event):
if bbc.DELAY > MIN_DELAY:
bbc.DELAY -= 1
def main(self):
self.parent.bind("<space>", self.play_event)
self.parent.bind("<F1>", self.auto_play_event)
self.parent.bind("<F2>", self.manual_play_event)
self.parent.bind("<Up>", self.down_delay_event)
self.parent.bind("<Down>", self.up_delay_event)
self.reset_event_switch()
self.play()
def reset_event_switch(self):
if bbc.IS_AUTO is True:
self.parent.unbind("<Left>")
self.parent.unbind("<Right>")
self.parent.unbind("<a>")
self.parent.unbind("<d>")
self.board.unbind("<1>")
else:
self.parent.bind("<a>", self.bar_top_event_left)
self.parent.bind("<d>", self.bar_top_event_right)
self.parent.bind("<Left>", self.bar_bottom_event_left)
self.parent.bind("<Right>", self.bar_bottom_event_right)
self.board.bind("<1>", self.bar_top_event)
class Construction:
def __init__(self, file = None,
nodes = None, bars = None,
defaultNode = None,
defaultBar = None):
self.defaultBar = defaultBar or Bar()
self.defaultNode = defaultNode or Node()
self.elements = []
self.sizeX, self.sizeY = 0.0, 0.0
# Максимальные нагрузки
self.maxF, self.specq = 0.0, 0.0
self.maxqOnL = 0.0 # Относительная распределённая нагрузка = q / L
self.maxN = 0.0
self.maxU = 0.0
self.maxSigma = 0.0
# Координаты узлов для бинарного поиска ближайшего узла и стержня
self.nodeXs = []
# [A] * {Deltas} = {b}
self.A = None
self.b = None
self.Deltas = None
self.calculated = False # Конструкция была рассчитана
if file is None:
if nodes is None or bars is None: # Создаём конструкцию из элементов
return
else:
if len(nodes) != len(bars) + 1:
raise Exception("Некорректная конструкция " \
"(ожидается: количество узлов = количество стержней + 1)")
for i in range(0, len(bars)):
self.elements.append(nodes[i])
self.elements.append(bars[i])
self.elements.append(nodes[-1])
else:
try:
construction = json.load(file)
except Exception as e:
raise Exception("Невозможно обработать файл конструкции: %s" % e)
try:
self.defaultNode = Node(construction["default"]["node"])
except KeyError:
pass
try:
self.defaultBar = Bar(construction["default"]["bar"])
except KeyError:
pass
try:
self.A = eval(construction["A"])
self.b = eval(construction["b"])
self.calculated = True
except KeyError:
self.A = None
self.b = None
self.calculated = False
lastWasBar = True
for item in construction["construction"]:
element = self.elementFromJSON(item)
if type(element) == Bar:
if lastWasBar:
self.elements.append(copy.deepcopy(self.defaultNode))
lastWasBar = True
else:
if not lastWasBar:
self.elements.append(copy.deepcopy(self.defaultBar))
lastWasBar = False
self.elements.append(element)
if lastWasBar:
self.elements.append(copy.deepcopy(self.defaultNode))
# Вычисляем размеры конструкции, максимальные нагрузки, координаты и номера элементов
x, i = 0, 0
for element in self.elements:
self.calculated = self.calculated and element.calculated()
# Размеры
(elSizeX, elSizeY) = element.size()
self.sizeX += elSizeX
self.sizeY = max(self.sizeY, elSizeY)
# Нагрузки
(F, q) = element.loads()
self.maxF = max(self.maxF, abs(F))
# Относительная распределённая нагрузка
if elSizeX > 0:
qOnL = float(abs(q)) / elSizeX
if qOnL > self.maxqOnL:
self.maxqOnL, self.specq = qOnL, abs(q)
# Координата элемента
element.x = copy.deepcopy(x)
x += elSizeX
# Номер элемента
element.i = copy.deepcopy(i)
if type(element) == Bar: i += 1
# Предвычисляем список с координатами узлов (для бинарного поиска элементов)
for element in self.elements:
if type(element) == Node: self.nodeXs.append(element.x)
if len(self.elements) == 0:
self.calculated = False
if self.calculated:
for element in self.elements:
if type(element) == Bar:
c = element.maxComponents()
self.maxN = max(self.maxN, c[0])
self.maxU = max(self.maxU, c[1])
self.maxSigma = max(self.maxSigma, c[2])
def dump(self, file):
retDict = {
"default": {
"node": self.defaultNode.dump(),
"bar": self.defaultBar.dump()
},
"construction": [ element.dump() for element in self.elements ]
}
if self.calculated:
retDict.update({ "A": str(self.A), "b": str(self.b) })
json.dump(
retDict,
file
)
def calculate(self):
if self.empty(): return
bars = (len(self.elements) - 1) / 2
if bars > 0:
self.A = zeros(bars + 1)
self.b = zeros(bars + 1, 1)
self.Deltas = []
for element in self.elements:
element.calculate()
if type(element) == Bar:
self.A += diag(zeros(element.i), element.K, zeros(bars - element.i - 1))
# Учитываем реакции стержня
self.b[element.i , 0] -= element.Q[0, 0]
self.b[element.i + 1, 0] -= element.Q[1, 0]
else:
# Учитываем сосредоточенную нагрузку на узел
self.b[element.i] += element.F
self.Deltas.append(Symbol("Delta%s" % element.i))
for element in self.elements:
if type(element) == Node:
if element.fixed:
self.A.row_del(element.i)
self.A.col_del(element.i)
self.A = self.A \
.col_insert(element.i, zeros(bars, 1)) \
.row_insert(element.i, zeros(1, element.i) \
.row_join(Matrix([[1.0]])) \
.row_join(zeros(1, bars - element.i)))
self.b[element.i, 0] = 0
# Вычисляем перемещения узлов
res = solve_linear_system(self.A.row_join(self.b), *self.Deltas)
if res is None:
raise Exception("Конструкция не может быть рассчитана!")
for element in self.elements:
if type(element) == Bar:
element.U0 = res[self.Deltas[element.i ]]
element.UL = res[self.Deltas[element.i + 1]]
else:
element.Delta = res[self.Deltas[element.i]]
self.maxN = 0.0
self.maxU = 0.0
self.maxSigma = 0.0
for element in self.elements:
if type(element) == Bar:
c = element.maxComponents()
self.maxN = max(self.maxN, c[0])
self.maxU = max(self.maxU, c[1])
self.maxSigma = max(self.maxSigma, c[2])
self.calculated = True
else:
if len(self.elements) == 1: # Единственный узел неподвижен
self.elements[0].Delta = 0.0
self.maxN = 0.0
self.maxU = 0.0
self.maxSigma = 0.0
self.calculated = True
else:
self.calculated = False
def elementFromJSON(self, item):
isBar = similarToBar(item)
isNode = similarToNode(item)
if isBar and (not isNode):
return Bar(item, self.defaultBar)
elif (not isBar) and isNode:
return Node(item, self.defaultNode)
elif isBar and isNode:
raise Exception("Элемент конструкции похож на стержень и узел одновременно: %s" % item)
else:
raise Exception("Элемент конструкции не похож на стержень или узел: %s" % item)
def size(self, barNumber = None):
return (self.sizeX, self.sizeY) if barNumber is None \
else self.bar(barNumber).size()
def maxLoads(self, barNumber = None):
if barNumber is None:
return (self.maxF, self.specq, self.maxqOnL)
else:
bar = self.bar(barNumber)
nodeL, nodeR = self.nodeLeft(barNumber), self.nodeRigth(barNumber)
return (max(abs(nodeL.F), abs(nodeR.F)), abs(bar.q), abs(float(bar.q) / bar.L))
def maxComponents(self, barNumber = None):
return (self.maxN, self.maxU, self.maxSigma) if barNumber is None \
else self.bar(barNumber).maxComponents()
def empty(self):
return True if self.elementsCount() == 0 else False
def elementsCount(self):
return len(self.elements)
def barsCount(self):
return self.elementsCount() // 2
def nodesCount(self):
elementsCount = self.elementsCount()
return elementsCount // 2 + 1 if elementsCount > 0 else 0
def element(self, i):
return self.elements[i]
def bar(self, barNumber):
return self.element(2 * barNumber + 1)
def node(self, nodeNumber):
return self.element(2 * nodeNumber)
def nodeLeft(self, barNumber):
return self.node(barNumber)
def nodeRight(self, barNumber):
return self.node(barNumber + 1)
def barFirst(self):
return self.bar(0)
def barLast(self):
return self.bar(self.barsCount() - 1)
def nodeFirst(self):
return self.node(0)
def nodeLast(self):
return self.node(self.nodesCount() - 1)
import os
import sys
import string
sys.path.insert(0, '../lib/')
from Parser import *
from Polygon import *
from Scatter import *
from Pie import *
from Bar import *
if __name__ == '__main__':
test_pie = ParsePie("../json/pie.json")
test_bar = ParseBar("../json/bar.json")
test_scat = ParseScatter("../json/scatter.json")
dict_pie = test_pie.process_data()
dict_bar = test_bar.process_data()
dict_scat = test_scat.process_data()
pie = Pie(dict_pie, "Movies")
bar = Bar(dict_bar)
scat = Scatter(dict_scat)
def __init__(self, file = None,
nodes = None, bars = None,
defaultNode = None,
defaultBar = None):
self.defaultBar = defaultBar or Bar()
self.defaultNode = defaultNode or Node()
self.elements = []
self.sizeX, self.sizeY = 0.0, 0.0
# Максимальные нагрузки
self.maxF, self.specq = 0.0, 0.0
self.maxqOnL = 0.0 # Относительная распределённая нагрузка = q / L
self.maxN = 0.0
self.maxU = 0.0
self.maxSigma = 0.0
# Координаты узлов для бинарного поиска ближайшего узла и стержня
self.nodeXs = []
# [A] * {Deltas} = {b}
self.A = None
self.b = None
self.Deltas = None
self.calculated = False # Конструкция была рассчитана
if file is None:
if nodes is None or bars is None: # Создаём конструкцию из элементов
return
else:
if len(nodes) != len(bars) + 1:
raise Exception("Некорректная конструкция " \
"(ожидается: количество узлов = количество стержней + 1)")
for i in range(0, len(bars)):
self.elements.append(nodes[i])
self.elements.append(bars[i])
self.elements.append(nodes[-1])
else:
try:
construction = json.load(file)
except Exception as e:
raise Exception("Невозможно обработать файл конструкции: %s" % e)
try:
self.defaultNode = Node(construction["default"]["node"])
except KeyError:
pass
try:
self.defaultBar = Bar(construction["default"]["bar"])
except KeyError:
pass
try:
self.A = eval(construction["A"])
self.b = eval(construction["b"])
self.calculated = True
except KeyError:
self.A = None
self.b = None
self.calculated = False
lastWasBar = True
for item in construction["construction"]:
element = self.elementFromJSON(item)
if type(element) == Bar:
if lastWasBar:
self.elements.append(copy.deepcopy(self.defaultNode))
lastWasBar = True
else:
if not lastWasBar:
self.elements.append(copy.deepcopy(self.defaultBar))
lastWasBar = False
self.elements.append(element)
if lastWasBar:
self.elements.append(copy.deepcopy(self.defaultNode))
# Вычисляем размеры конструкции, максимальные нагрузки, координаты и номера элементов
x, i = 0, 0
for element in self.elements:
self.calculated = self.calculated and element.calculated()
# Размеры
(elSizeX, elSizeY) = element.size()
self.sizeX += elSizeX
self.sizeY = max(self.sizeY, elSizeY)
# Нагрузки
(F, q) = element.loads()
self.maxF = max(self.maxF, abs(F))
# Относительная распределённая нагрузка
if elSizeX > 0:
qOnL = float(abs(q)) / elSizeX
if qOnL > self.maxqOnL:
self.maxqOnL, self.specq = qOnL, abs(q)
# Координата элемента
element.x = copy.deepcopy(x)
x += elSizeX
# Номер элемента
element.i = copy.deepcopy(i)
if type(element) == Bar: i += 1
# Предвычисляем список с координатами узлов (для бинарного поиска элементов)
for element in self.elements:
if type(element) == Node: self.nodeXs.append(element.x)
if len(self.elements) == 0:
self.calculated = False
if self.calculated:
for element in self.elements:
if type(element) == Bar:
c = element.maxComponents()
self.maxN = max(self.maxN, c[0])
self.maxU = max(self.maxU, c[1])
self.maxSigma = max(self.maxSigma, c[2])