def check_inputs():
invalid_positions = [
0, 1, 2, 3, 4, 5, 6, 7, 14, 21, 28, 35, 42, 13, 20, 27, 34, 41, 48, 43,
44, 45, 46, 47
]
key = input()
if key == 'w':
Player.pos -= 7
elif key == 's':
Player.pos += 7
elif key == 'a':
Player.pos -= 1
elif key == 'd':
Player.pos += 1
for position in invalid_positions:
if position == Player.pos:
if key == 'w':
Player.pos += 7
elif key == 's':
Player.pos -= 7
elif key == 'a':
Player.pos += 1
elif key == 'd':
Player.pos -= 1
print('You hit a wall!')
if key == 'q':
exit()
remove = Render()
remove.remove_player()
def tick(self, viz=False):
self.timeline += 1
n = len(self.agents)
for i, agent in enumerate(reversed(self.agents)):
observ, optimalAction = self.observe()
action = agent.forward(observ)
self.update(agent, action, optimalAction)
agent.backward(optimalAction)
# erase dead
if agent.entropy < self._minEntropy:
del self.agents[n - i - 1]
# sort according to entropy
self.sortAgents()
# hybrid or erase
if len(self.agents) < self.agentNum:
self.addAgent(self.hybrid(self.agents[0], self.agents[1]))
elif len(self.agents) > self.agentNum:
del self.agents[-1]
elif np.random.rand() > 1 - self.eraseProb:
idx = np.random.randint(0, len(self.agents))
del self.agents[idx]
if viz and len(self.agents) > 0:
if self.renderObj is None:
self.renderObj = Render()
self.renderObj.update(self.agents[0])
def main(window, handle_events):
## window = Window()
## window.init()
world = World()
world.stage = 1
p1 = Platform(600, 300, 400, 50)
world.add_item(p1)
p2 = Platform(500, 600, 800, 100)
world.add_item(p2)
""" vert order:
0 3
1 2
"""
rest_length, stiffness, damping = 200, 10, 1
spring = Spring(p1, p2, lambda vs: vs[1], lambda vs: vs[0], rest_length, stiffness, damping)
world.add_spring(spring)
spring = Spring(p1, p2, lambda vs: vs[2], lambda vs: vs[3], rest_length, stiffness, damping)
world.add_spring(spring)
spring = Spring(
p1, p2, lambda vs: (vs[1] + vs[3]) / 2, lambda vs: (vs[1] + vs[3]) / 2, rest_length, 10 * stiffness, damping
)
world.add_spring(spring)
font_path = os.path.join(data_dir(), "fonts", "vinque", "vinque.ttf")
fnt = font.Font(font_path, 36)
surface = fnt.render("The adventures of...", True, (255, 255, 255))
word = Word(p2, surface, (200, 50))
world.add_word(word)
fnt = font.Font(font_path, 48)
text = "Woger the wibbly wobbly wombat"
words = [fnt.render(word, True, (255, 255, 255)) for word in text.split()]
word_positions = ((200, 75), (500, 75), (175, 250), (350, 250), (550, 250))
for surface, position in zip(words, word_positions):
word = Word(p1, surface, position)
world.add_word(word)
fnt = font.Font(font_path, 24)
surface = fnt.render("space to continue, use awwow keys in game to weach owanges", True, (0, 0, 0))
word = Word(p2, surface, (40, 550))
world.add_word(word)
render = Render(window, world)
while True:
quit = handle_events(window, world)
if quit:
break
world.update()
render.draw_world()
display.flip()
def render_model_net(root,
output_dir,
output_views=12,
use_dodecahedron=False):
# traversal the directors
sub_dirs = sorted(get_immediate_subdirectories(root))
render = Render()
for sub_dir in sub_dirs:
print("dealing " + sub_dir + "...")
# make output dirs
out_sub_dir = output_dir + "/" + sub_dir
make_dir_not_exist(out_sub_dir + "/test")
make_dir_not_exist(out_sub_dir + "/train")
# ready to convert
source_dir = root + "/" + sub_dir
for d in ["/test", "/train"]:
print(d)
curr_dir = source_dir + d
off_files = list(get_off_file_in_dir(curr_dir))
for i, off_file in enumerate(off_files):
render.render_and_save(curr_dir + "/" + off_file,
out_sub_dir + d, output_views,
use_dodecahedron)
if i % 10 == 0:
print("%d/%d" % (i, len(off_files)))
def main():
args = init_args()
try:
dict_data = json.loads(open(args.json_file).read())
except IOError:
print('Error: no such file {}'.format(args.json_file))
exit()
mantle = JSONMantle()
mantle.class_prefix = args.prefix if args.prefix else ''
if args.author:
mantle.meta_data['author'] = args.author
# Get the file base name
file_basename = os.path.basename(args.json_file)
# Eliminating filename extension
class_name = file_basename.split('.')[0]
mantle.generate_properties(dict_data, class_name)
render_h, render_m = mantle.get_template_data()
render = Render(render_h, render_m, args.output_dir)
render.render_objc()
def stars():
width = 800
height = 600
r = Render(width, height)
def star(s, y, size):
c = random.randint(0, 255)
r.set_color(color(c, c, c))
if size == 1:
r.point(x, y)
elif size == 2:
r.point(x, y)
r.point(x + 1, y)
r.point(x, y + 1)
r.point(x + 1, y + 1)
elif size == 3:
r.point(x, y)
r.point(x + 1, y)
r.point(x, y + 1)
r.point(x - 1, y)
r.point(x, y - 1)
for x in range(width - 4):
for y in random(height - 4):
if random.random() < 0.001:
star(x + 2, y + 2, random.randint(1, 3))
r.display('out.bmp')
def main():
from render import Render
from tree import Tree
from time import time
render = Render(SIZE, FRONT, BACK, TRUNK, TRUNK_STROKE, GRAINS)
render.ctx.set_source_rgba(*FRONT)
render.ctx.set_line_width(ONE)
while True:
render.clear_canvas()
tree = Tree(MID, 0.9, INIT_BRANCH, -pi * 0.5, ONE, ONE,
BRANCH_SPLIT_ANGLE, BRANCH_PROB_SCALE, BRANCH_DIMINISH,
BRANCH_SPLIT_DIMINISH, BRANCH_ANGLE_MAX, BRANCH_ANGLE_EXP)
i = 1
while tree.Q:
i += 1
tree.step()
map(render.branch2, tree.Q)
if not i % 1000:
print i
render.sur.write_to_png(
'/media/var/andreas_tree/test_52_{:10.0f}.png'.format(time()))
def save_DET(dc, path, file_name, plot_options={}):
if isinstance(dc, DataContainer):
dc = [dc]
rd = Render(plot_type="det")
fig = rd.plot(dc, display=False, plot_options=plot_options)
fig.savefig("{}/{}".format(path, file_name))
rd.close_fig(fig)
def __init__(self):
self.render = Render(self)
self.totals = {}
self.pure8 = False
self.mirror = True
self.createScore()
self.calcMapping()
def save_DET(dc, path, file_name, no_ppf, plot_options={}):
if type(dc) is {}.values().__class__:
dc = list(dc)
if isinstance(dc, DataContainer):
dc = [dc]
rd = Render(plot_type="det")
fig = rd.plot(dc, display=False, plot_options=plot_options, no_ppf=no_ppf)
fig.savefig("{}/{}".format(path, file_name))
rd.close_fig(fig)
def __init__(self, planet, agents, viz=True):
self._minEntropy = 1
self._invEntropy = 5
self.viz = viz
self.planet = planet
self.agents = [self.addAgent(agent) for agent in agents]
self._agent = None
if viz:
self.renderObj = Render()
def test_export_aaf():
r = Render(
JSON_EXAMPLE,
'./tmp',
no_clean=True,
# readable=True,
verbose=False,
vcodec='aaf')
r.export()
def test_export_fcpxml():
r = Render(
JSON_EXAMPLE,
'./tmp',
no_clean=True,
# markers=True,
# readable=True,
verbose=False,
vcodec='fcpxml')
r.export()
def renderTrainAndTestSet(blenderFiles, renderedDir, num_samples_train, num_samples_test, num_rotations_train,
num_rotations_test, res_x, res_y, cameraPositions):
global renderList
renderedDir = os.path.abspath(renderedDir)
renderList.append(
Render(blenderFiles, renderedDir + "_train", num_samples_train, num_rotations_train,
cameraPositions, res_x, res_y))
renderList.append(
Render(blenderFiles, renderedDir + "_test", num_samples_test, num_rotations_test, cameraPositions,
res_x, res_y))
def __init__(self, name):
self.progressbar_pos = [0, 0]
self.progressbar_dir = 'e'
self.name = name
self.progressbar_on = False
self.thread = None
self.crossword = Crossword.load(name)
# WINDOW CONFIG
self.window = tkinter.Tk()
self.window.title('Generátor osemsmeroviek')
self.window.resizable(False, False)
self.window.lift()
self.window.focus_force()
self.window.bind('<Escape>', lambda e: self.close())
self.width = self.crossword.x_size * 20 + 18
self.height = self.crossword.y_size * 20 + 18
self.canvas = tkinter.Canvas(self.window,
height=self.height,
width=self.width)
self.canvas.pack(side='right')
Render.draw_table(self.canvas, self.crossword)
# WORD LIST
self.word_list = tkinter.Listbox(self.window, width='22')
self.word_list.pack(side='top', anchor='n')
for word in self.crossword.words:
self.word_list.insert('end', word.word)
if len(self.crossword.words):
Render.draw_letters(self.canvas, self.crossword)
tkinter.Button(self.window,
text='Zmazať slovo',
command=self.delete_selected,
width='18').pack(side='top', anchor='n')
# SPACER
tkinter.LabelFrame(self.window, text='', height='10').pack(side='top')
# NEW WORD
self.nw_entry = tkinter.Entry(self.window, width='22')
self.nw_entry.pack(side='top', anchor='n')
self.nw_entry.bind('<Return>', lambda e: self.add_word())
tkinter.Button(self.window,
text='Pridať slovo',
command=self.add_word,
width='18').pack(side='top', anchor='n')
# SPACER
tkinter.LabelFrame(self.window, text='', height='12').pack(side='top')
# GENERATE AND SAVE
tkinter.Button(self.window,
text='Generovať',
command=self.generate,
width='18').pack(side='top', anchor='s')
self.save_btn = tkinter.Button(self.window,
text='Uložiť',
command=self.save,
width='18',
state='disabled')
self.save_btn.pack(side='top', anchor='s')
def dispatch(self):
if (not self.params.has_key("id")) or (not self.params.has_key("type") or (not self.params.has_key("text"))):
return Render.render_400()
try:
pa = self.params
speech_obj = Speech(pa["id"], pa["text"], pa["lan"], pa["type"])
speech_obj.speak()
# response back to client
response = Render(speech_obj)
return response.render()
except Exception, e:
return Render.render_400(e)
def __init__(self, save_prev_names: bool = False):
self.game_field = [str(i + 1) for i in range(9)]
self.moves_count = 0
if not save_prev_names:
self.first_player, self.second_player = None, None
self.victory_counter = [0, 0]
self.curr_player_mark = "O"
self.render = Render()
logging.basicConfig(level=logging.INFO,
format="%(asctime)s, %(levelname)s - %(message)s",
datefmt="%d-%b-%y %H:%M:%S",
filename="game_logs.log")
def run(self):
# get data
data = TextDataset(self.src)
# preprocess
r = RuleBased()
e = Evaluate()
# nltk as baseline
print("Processsing NLTK as baseline ... ")
nltk_sentences = r.get_nltk_tokenized_sentences(data.clean_text)
query_list = [s.split(" ") for s in nltk_sentences]
begin, end, indexed_sentences = e.find_query_index(data.clean_idx_tokens, query_list)
evaluation = e.evaluate(data, begin, end)
result = {"key":"nltk", "begin":begin, "end":end, "sentences":indexed_sentences, "evaluation":evaluation}
self.results.append(result)
#import pdb; pdb.set_trace()
# #rule_based methods
print("Processsing rule based (Subject) ... ")
filtered = r.filter_subject(nltk_sentences)
query_list = [s.split(" ") for s in filtered]
begin, end, indexed_sentences = e.find_query_index(data.clean_idx_tokens, query_list)
evaluation = e.evaluate(data, begin, end)
result = {"key":"has_subject", "begin":begin, "end":end, "sentences":indexed_sentences, "evaluation":evaluation}
self.results.append(result)
print("Processsing rule based (Verb)... ")
filtered = r.filter_verb(nltk_sentences)
query_list = [s.split(" ") for s in filtered]
begin, end, indexed_sentences = e.find_query_index(data.clean_idx_tokens, query_list)
evaluation = e.evaluate(data, begin, end)
result = {"key":"has_verb", "begin":begin, "end":end, "sentences":indexed_sentences, "evaluation":evaluation}
self.results.append(result)
print("Processsing rule based (Subject & Verb)... ")
filtered = r.filter_subject(nltk_sentences)
filtered = r.filter_verb(filtered)
query_list = [s.split(" ") for s in filtered]
begin, end, indexed_sentences = e.find_query_index(data.clean_idx_tokens, query_list)
evaluation = e.evaluate(data, begin, end)
result = {"key":"has_subjectVerb", "begin":begin, "end":end, "sentences":indexed_sentences, "evaluation":evaluation}
self.results.append(result)
# write result
print("Writing data to: " + str(self.dst) + "\033[1m" + str(self.filename) + "\033[0m")
render = Render(self.dst, self.filename, data, data.ground_truth, self.results)
render.save()
def draw(self, px_per_mm):
inf = array([0, 0])
points = [inf.copy()]
sup = inf.copy()
for attr in ("hip", "shoulder", "elbow", "wrist", "top_of_ht"):
point = getattr(self, attr)
points.append(point)
for i in range(2):
sup[i] = max(sup[i], point[i])
inf[i] = min(inf[i], point[i])
render = Render(inf, sup, px_per_mm)
render.polyline(points, "black")
return render
def get(self, request, **kwargs):
to_date = request.GET.get('to_date') if request.GET.get(
'to_date') else datetime.datetime.today().date()
from_date = request.GET.get('from_date') if request.GET.get(
'from_date') else to_date.replace(day=1)
data_list = []
route_list = []
tickets = TicketSale.objects.filter(applied_date__range=(from_date,
to_date))
if tickets:
for row in tickets:
route_list.append(row.vehicle_id.route_id)
route_list = list(dict.fromkeys(route_list))
for route in route_list:
vehicle_list = []
route_text = RouteInfo.objects.get(pk=route)
vehicle_count = VehicleInfo.objects.filter(route=route).count()
vehicle = VehicleInfo.objects.filter(route_id=route)
for row in vehicle:
vehicle_list.append(row.id)
ticket_count = 0
for row in vehicle_list:
count = TicketSale.objects.filter(vehicle_id=row).count()
ticket_count += count
data_dict = dict()
data_dict['route'] = route_text
data_dict['total_ticket'] = ticket_count
data_dict['total_vehicle'] = vehicle_count
data_list.append(data_dict)
return Render.render('pdf/major_route_forecast.html', {
'query': data_list,
'university': client
})
def get(self, request, **kwargs):
to_date = request.GET.get('to_date') if request.GET.get(
'to_date') else datetime.datetime.today().date()
from_date = request.GET.get('from_date') if request.GET.get(
'from_date') else to_date.replace(day=1)
query = PurchaseInvoice.objects.filter(
entry_date__range=(from_date,
to_date)).values('entry_date').annotate(
amount=Sum('amount'),
vendor=F('vendor_id'),
purchase_id=F('id'))
for row in query:
products = PurchaseProduct.objects.filter(
purchase_id=row['purchase_id'])
all_products = ''
i = 1
for p in products:
if i == len(products):
all_products = all_products + p.product_name
else:
all_products = all_products + p.product_name + ','
i += 1
row['products'] = all_products
row['vendor'] = Vendor.objects.get(pk=row['vendor']).name
return Render.render(
'pdf/date_wise_purchase_report.html', {
'query': query,
'university': client,
'from_date': from_date,
'to_date': to_date
})
def __init__(self, title, xLabel, yLabel, file):
self.file = file
self.dVal = None
plt.xlabel(title)
plt.ylabel(xLabel)
plt.title(yLabel)
self.dVal = Render.load(file)
def get(self, request, ticket_number):
tickets = TicketSale.objects.get(ticket_number=ticket_number)
prev = tickets.ticket_number[2:]
# import pdb; pdb.set_trace()
tickets.invoice = 'PI-' + prev
params = {'university': client, 'tickets': tickets, 'request': request}
return Render.render('pdf/sale_invoice.html', params)
async def req1(req):
print("req1", req.url)
if '/get/' in req.path or '/do/' in req.path or '/post/' in req.path:
return
ext = req.path.split('.')[-1]
if ext in ('mp3', 'js', 'jpg', 'css', 'ttf', 'png', 'woff', 'woff2', 'ico',
'gif', 'map', 'mem', 'pck', 'mp4', 'csv'):
pfil = './web' + req.path
return await response_file(
location=pfil, headers={"cache-control": "public,max-age=216000"})
elif ext in 'html':
pfil = './web' + req.path
tmp = Render(pfil)
rtn = await tmp.parse()
return response_html(
body=rtn, headers={"cache-control": "public,max-age=216000"})
elif ext in 'py':
pfil = '.' + req.path
# /w*.py y /vs_widgets will be served not server side .py
if (req.path[:2] == '/w'
or "/vs_widgets" in req.path) and ".." not in req.path:
return await response_file(
pfil, headers={"cache-control": "public,max-age=216000"})
else:
return response_text("error")
else:
return response_text("error")
def main():
model = init_model(
os.path.dirname(os.path.abspath(__file__)),
getpass.getuser(),
os.uname().nodename
)
def resize(signum, frame):
Render(model)
# Re-renders Terminal in case of SIGWINCH(resize) event
signal.signal(signal.SIGWINCH, resize)
while not model.exit:
try:
Render(model)
try:
model = EventHandler(model, blesses.get_key())
except KeyboardInterrupt:
model = replace(model, exit=1)
except Exception as e:
with open("crash.json", "w+") as f:
f.write(json.dumps(asdict(model),indent=4))
raise e
def start(self):
logging.getLogger(__name__).info("Start of script")
self.load_configuration()
role = self.configuration.role(self.args.role)
if role:
logging.getLogger(__name__).info("Processing role: {r}".format(r=role.name))
renders = []
for file_entry in role.file_entries:
render = Render.from_file_entry(file_entry)
if render:
renders.append(render)
# any renders had errors, don't continue
if not self.render_ok(renders):
sys.exit(1)
# Renders are OK, but don't write anything
if self.args.dry_run:
logging.getLogger(__name__).info("Dry run: OK")
sys.exit(0)
# Renders are OK and we want to write files
for render in renders:
render.to_file()
def build(default, resume):
Renderer = Render()
if default:
try:
posts = parse.Post_parser()
Renderer.Render_posts(posts)
logging.info(" Build successful. Check your output folder.")
except:
logging.exception(" Build failed :(")
elif resume:
try:
details = parse.Resume_parser()
Renderer.Render_resume(details)
logging.info(" Build successful. Check your output folder.")
except:
logging.exception(" Build failed :(")
def start_game():
#needs to be called before pygame.init
pygame.mixer.pre_init(22050, -16, 2, 1024)
window = Window()
window.init()
pygame.init()
sounds = Sounds()
sounds.init()
window.sounds = sounds
pygame.mixer.set_num_channels(32)
# meta game loop
while True:
sounds.play_music("intro", loop=1)
intro_main(window, handle_events)
# so we can mix more channels at once. pygame defaults to 8.
#sounds.play("jump1")
#sounds.play("hit1")
#sounds.play("goal1")
sounds.set_music_tracks(['track-one', 'track-two'])
world = World()
world.stage = 2
populate(world, window)
def count_leaves():
no_leaves = 0
for item in world.items:
if item.role == "Bough":
no_leaves = no_leaves + 1
return no_leaves
CleanUp_Event = pygame.event.Event(CLEANUP,
message="Cleaning Up Your shit")
pygame.time.set_timer(CLEANUP, 1000)
TickTock = pygame.event.Event(
TICK_TOCK, message="TickTock goes the Ticking Clock")
pygame.time.set_timer(TICK_TOCK, int(90000 / count_leaves()))
AddCherry = pygame.event.Event(ADDCHERRY, message="Ooooo Cherry")
pygame.time.set_timer(ADDCHERRY, int(90000 / 5))
AddOwange = pygame.event.Event(ADDOWANGE, message="Ooooo owange")
pygame.time.set_timer(ADDOWANGE, int(1000 * 5))
for i in range(3):
event.post(AddOwange)
pygame.time.set_timer(BIRDY, 1000 * 7)
render = Render(window, world)
quit = runloop(window, world, render)
if quit:
return
def get(self, request, **kwargs):
to_date = request.GET.get('to_date') if request.GET.get(
'to_date') else datetime.datetime.today().date()
from_date = request.GET.get('from_date') if request.GET.get(
'from_date') else to_date.replace(day=1)
query = TicketSale.objects.filter(
applied_date__range=(from_date,
to_date)).values('issued_for').annotate(
total_amount=Sum('total_amount'),
paid_amount=Sum('paid_amount'),
due=F('total_amount') - F('paid_amount'),
)
# for row in query:
# tickets = TicketSale.objects.filter(issued_for=row['issued_for'])
# all_tickets = ''
# i = 1
# for t in tickets:
# if i == len(tickets):
# all_tickets = all_tickets + t.ticket_number
# else:
# all_tickets = all_tickets+t.ticket_number+','
# i += 1
# row['ticket_number'] = all_tickets
return Render.render(
'pdf/passenger_wise_ticket_details.html', {
'query': query,
'university': client,
'from_date': from_date,
'to_date': to_date
})
def get(self, request, **kwargs):
vehicle_id = request.GET['vehicle']
total = 0
# import pdb; pdb.set_trace()
if vehicle_id:
query = PurchaseInvoice.objects.filter(
vehicle_id_id=int(vehicle_id)).values('entry_date').annotate(
amount=Sum('amount'),
vendor=F('vendor_id'),
purchase_id=F('purchase_id'),
)
for row in query:
row['vehicle'] = VehicleInfo.objects.get(
pk=vehicle_id).vehicle_number
row['vendor'] = Vendor.objects.get(pk=row['vendor']).name
total += row['amount']
else:
query = PurchaseInvoice.objects.values('entry_date').annotate(
amount=Sum('amount'),
vendor=F('vendor_id'),
vehicle=F('vehicle_id'),
purchase_id=F('purchase_id'))
for row in query:
row['vehicle'] = VehicleInfo.objects.get(
pk=row['vehicle']).vehicle_number
row['vendor'] = Vendor.objects.get(pk=row['vendor']).name
total += row['amount']
# import pdb; pdb.set_trace()
return Render.render('pdf/vehicle_wise_purchase_report.html', {
'query': query,
'university': client,
'total': total
})
def __init__(self, numDrones, numMobileRobs):
self.drones = self.initDrones(numDrones)
self.mobilerobots = self.initMobileRobs(numMobileRobs)
self.numCollectionPts = 20
self.areaLength = 20 # in meters
self.timeStep = timeStep
self.collectionPts = self.genCollectionPts(self.numCollectionPts)
#CONSTANTS
self.screen_width = screenWidth
self.screen_height = screenHeight
#MAIN LOOP
self.display = Render(len(self.drones), len(self.mobilerobots),
self.drones, self.mobilerobots,
self.collectionPts)
def test_render():
r = Render(
JSON_EXAMPLE,
'./tmp',
no_clean=True,
silent_log=True,
thread_alloc=2,
# readable=True,
verbose=False,
vcodec='h264')
# r.socketThread.daemon = True
r.socketThread.start()
r.render(False)
r.keep_socket_open = False
r.socketThread.join()
print("ahh")
def do_render_cache(cursor=None):
thq = Thread.all()
if cursor:
thq.with_cursor(cursor)
thread = thq.get()
if not thread:
logging.info("stop thread clean")
return
board = thread.parent_key().name()
render = Render(board=board, thread = thread.key().id())
for idx,post in enumerate(thread.posts):
post['text_html'] = markup(
board=board, postid=post.get("post"),
data=escape(post.get('text', '')),
)
if idx == 0:
render.create(post)
else:
render.append(post)
if len(thread.posts) > 1:
thread.put()
else:
thread.delete()
render.save()
deferred.defer(do_render_cache, thq.cursor())
def process(thread_key):
logging.info('process %r' % thread_key)
thread = db.get(thread_key)
render = Render(thread = thread)
for idx,post in enumerate(thread.posts):
if 'text' in post:
post['text_html'] = markup(
board=thread.board, postid=post.get("post"),
data=escape(post.get('text', '')),
)
if 'rainbow_html' in post:
post.pop("rainbow_html")
post['rainbow'] = rainbow.make_rainbow(post['rainbow'])
if 'image' in post and not post.get("key"):
post.pop("image")
post['name'] = 'Kuroneko'
if idx == 0:
render.create(post)
else:
render.append(post)
thread.put()
render.save()
def main():
game = Game()
render = Render(game)
timer = pygame.time.Clock()
players = []
# add player
tank = Tank()
tank.pos = Vec2d(200, 200)
p1 = HumanPlayer('Ray', tank)
p1.Mapping = HumanPlayer.MappingSet1
tank2 = Tank()
tank2.pos = Vec2d(400, 200)
p2 = HumanPlayer('Pest', tank2)
p2.Mapping = HumanPlayer.MappingSet2
players += [p1, p2]
for p in players:
game.add_player(p)
# add obstacle
for pos, col in zip([(100, 400), (500, 400)], ['blue', 'red']):
obs = ObstacleBlock((100, 100), pos, Color(col))
game.obstacles.append(obs)
timer.tick()
FPS = config.FPS
dt = 1.0/FPS
while 1:
for e in pygame.event.get():
if e.type == QUIT:
return
elif e.type == KEYDOWN:
for p in players:
p.on_keydown(e.key)
if e.key == K_b or (e.mod & KMOD_LCTRL) and e.key == K_q:
return
elif e.type == KEYUP:
for p in players:
p.on_keyup(e.key)
game.loop(dt)
render.draw()
game.fps = timer.tick(FPS)
def main():
init()
host, AI = parseOptions()
field = FieldClient()
field.connect(host)
if AI:
snake = AI.SnakeAI(field)
print 'join', AI
field.join(snake)
sSize = config.screen_size #the screen size
fSize = config.field_size1 # the field size
frame_rate = config.frame_rate
screen = pygame.display.set_mode(sSize, 0, 32)
pygame.display.set_caption('SnakeAIC')
render = Render(field, screen)
timer = pygame.time.Clock()
quit = False
while not quit:
for event in pygame.event.get():
if event.type == pygame.QUIT:
quit = True
field.sync()
render.render()
# for debug
# render.render_path(snake._path)
# render.render_coor()
#
pygame.display.flip()
timer.tick(2*frame_rate)
# print timer.get_fps()
field.disconnect()
quitclean()
print "Bye"
def main():
from render import Render
from tree import Tree
from time import time
render = Render(SIZE, FRONT, BACK, TRUNK, TRUNK_STROKE,GRAINS)
render.ctx.set_source_rgba(*FRONT)
render.ctx.set_line_width(ONE)
while True:
render.clear_canvas()
tree = Tree(MID,
0.9,
INIT_BRANCH,
-pi*0.5,
ONE,
ONE,
BRANCH_SPLIT_ANGLE,
BRANCH_PROB_SCALE,
BRANCH_DIMINISH,
BRANCH_SPLIT_DIMINISH,
BRANCH_ANGLE_MAX,
BRANCH_ANGLE_EXP)
i = 1
while tree.Q:
i += 1
tree.step()
map(render.branch2,tree.Q)
if not i%1000:
print i
render.sur.write_to_png('/media/var/andreas_tree/test_52_{:10.0f}.png'.format(time()))
def delete_post(board, thread_num, post_num, rape_msg):
last_deletion = False
th = Thread.get(db.Key.from_path(
"Board", board,
"Thread", thread_num
))
[post] = [p for p in th.posts if p.get('post') == post_num]
logging.info("found: %r" % post)
key = post.get("key")
if key:
post.pop("key", None)
post.pop("image", None)
info = blobstore.BlobInfo.get(
blobstore.BlobKey(key))
info.delete()
try:
th.images.remove(post.get("key"))
except:
pass
logging.info("removed image %r" % post)
else:
last_deletion = True
post['text'] = 'Fuuuuuu'
post['text_html'] = 'Fuuuuuu'
post['rainbow_html'] = u'<b>' + rape_msg + '</b>'
th.put()
Cache.delete(
(
dict(Board=board),
)
)
r = Render(board, thread_num)
#kind of shit:
r.create(th.posts[0])
for a_post in th.posts[1:]:
r.append(a_post)
r.save()
#FIXME: update records in memcache
return last_deletion
def run(self):
#test_entity = Entity('test-include')
character = Entity('character')
self.characters = [character for m in xrange(4)]
self.renderer = Render(self)
self.current_camera = 0
while True:
dt = self.clock.tick() / 1000.0
for e in pygame.event.get():
if e.type == pygame.QUIT: sys.exit()
elif e.type == pygame.KEYDOWN:
if e.key == pygame.K_TAB:
self.current_camera = (self.current_camera +1)%4
if e.key == pygame.K_a:
#self.cameras[self.current_camera].props.dx = 1
pass
elif e.type == pygame.KEYUP:
if e.key == pygame.K_a:
#self.cameras[self.current_camera].props.dx = 0
pass
if e.type == pygame.JOYAXISMOTION or \
e.type == pygame.JOYBALLMOTION or \
e.type == pygame.JOYBUTTONDOWN or \
e.type == pygame.JOYBUTTONUP or \
e.type == pygame.JOYHATMOTION or \
e.type == pygame.KEYDOWN or \
e.type == pygame.KEYUP:
event = InputEvent(e)
for entity in self.entities_to_update:
if e.type == pygame.JOYAXISMOTION:
entity.handle('move', event)
else:
entity.handle('input', event)
for entity in self.entities_to_draw_tiles:
entity.handle('draw-tiles',self.world_surface)
for entity in self.entities_to_update:
entity.handle('update', dt)
self.renderer.render()
def get(self):
user = users.get_current_user()
username = None
if not user:
login = users.create_login_url(self.request.uri)
else:
if User.find(user) is None:
User.create(user)
self.redirect('/profile')
username = user.nickname()
login = users.create_logout_url(self.request.uri)
params = {
'title': 'Main Page',
'login': login,
'username': username
}
self.response.out.write(Render.render('index.html', params))
def __setup(self, eyeshift=[-3.0, 3.0], stereo=False):
"""
Initialize parameters for OpenGL and ready the
texture for rendering
"""
# Set the projection settings for OpenGL
# self.projection = Projection(self.width, self.height, eyeshift)
# Prepare OpenGL and display textures for rendering
self.render = Render(self.width, self.height, eyeshift, stereo)
# Create the Vertex Buffer Objects needed
self.render.create_VBO(self.width, self.height)
# Create the shaders as necessary
self.render.create_shaders()
# Initiate the variable that will hold the current image to
# be rendered
self.current_img = None
# Instantiate the stimuli class and setup the order in which
# to display the stimuli for practice or for the experimental
# block
self.stimulus = Stimuli()
# Now setup the stimuli
if hasattr(self, 'practice'):
self.stimulus.setup(self.practice)
else:
self.stimulus.setup()
# Ready the next stimuli block
self.stimulus.run_state()
# Keep a list of possible stimuli rotations about the Z-axis
# self.z_rotation = [0]
if not STIMULI_ONLY:
self.inclinometer = Inclinometer()
self.inclinometer.set_offset_Y()
self.slants = []
print 'Setting up of the experiment took %s seconds'\
% get_time(self.exp_start, time())
# Run the state that is required
self.run_state()
def get(self):
user = users.get_current_user()
if user:
user_db = User.find(user)
blob_key = user_db.car_photo_blob_id
if blob_key is not None:
car_url = '/serve/%s' % blob_key.key()
else:
car_url = '/img/car.jpg'
params = {
'title': 'Main Page',
'upload_url': blobstore.create_upload_url('/upload'),
'nick': user_db.nick,
'car_number': user_db.car_number,
'car_url': car_url,
'login': users.create_logout_url(self.request.uri),
'username': user.nickname()
}
self.response.out.write(Render.render('profile.html', params))
else:
self.redirect('/')
def delete_post(board, thread_num, post_num, rape_msg):
last_deletion = False
th = Thread.load(thread_num, board)
[post] = [p for p in th.posts if p.get('post') == post_num]
logging.info("found: %r" % post)
key = post.get("key")
if key:
post.pop("key", None)
post.pop("image", None)
info = blobstore.BlobInfo.get(
blobstore.BlobKey(key))
if info:
info.delete()
try:
th.images.remove(post.get("key"))
except:
pass
logging.info("removed image %r" % post)
else:
last_deletion = True
post['text'] = 'Fuuuuuu'
post['text_html'] = 'Fuuuuuu'
post['rainbow_html'] = u'<b>' + rape_msg + '</b>'
th.put()
Cache.remove("board", board)
r = Render(thread=th)
#kind of shit:
r.create(th.posts[0])
for a_post in th.posts[1:]:
r.append(a_post)
r.save()
return last_deletion
def do_render_cache(cursor=None):
thq = Thread.all()
if cursor:
thq.with_cursor(cursor)
thread = thq.get()
if not thread:
logging.info("stop thread clean")
return
board = thread.board
render = Render(board=board, thread = thread.id)
for idx,post in enumerate(thread.posts):
if 'text' in post:
post['text_html'] = markup(
board=board, postid=post.get("post"),
data=escape(post.get('text', '')),
)
if 'rainbow_html' in post:
post.pop("rainbow_html")
post['rainbow'] = rainbow.make_rainbow(post['rainbow'])
if 'image' in post and not post.get("key"):
post.pop("image")
post['name'] = 'Kuroneko'
if idx == 0:
render.create(post)
else:
render.append(post)
if len(thread.posts) > 1:
thread.put()
else:
thread.delete()
render.save()
deferred.defer(do_render_cache, thq.cursor())
def main(window, handle_events, score):
## window = Window()
## window.init()
world = World()
world.stage = 3
p1 = Platform(600, 300, 400, 50)
world.add_item(p1)
p2 = Platform(500, 600, 800, 100)
world.add_item(p2)
""" vert order:
0 3
1 2
"""
rest_length, stiffness, damping = 200, 10, 1
spring = Spring(p1, p2,
lambda vs:vs[1],
lambda vs:vs[0],
rest_length, stiffness, damping)
world.add_spring(spring)
spring = Spring(p1, p2,
lambda vs:vs[2],
lambda vs:vs[3],
rest_length, stiffness, damping)
world.add_spring(spring)
spring = Spring(p1, p2,
lambda vs: (vs[1] + vs[3])/2,
lambda vs: (vs[1] + vs[3])/2,
rest_length, 10*stiffness, damping)
world.add_spring(spring)
font_path = os.path.join(data_dir(), "fonts", "vinque", "vinque.ttf")
## fnt = font.Font(font_path, 36)
## surface = fnt.render('The adventures of...', True, (255,255,255))
## word = Word(p2, surface, (200, 50))
## world.add_word(word)
fnt = font.Font(font_path, 48)
text = 'You scored'
words = [fnt.render(word, True, (0,0,0))
for word in text.split()]
word_positions = (
(150, 60),
(550, 60),
)
for surface, position in zip(words, word_positions):
word = Word(p1, surface, position)
world.add_word(word)
fnt = font.Font(font_path, 96)
surface = fnt.render('% 2d' %score, True, (255,255,255))
word = Word(p2, surface, (230, 350))
world.add_word(word)
fnt = font.Font(font_path, 24)
surface = fnt.render('space to play again, escape to quit', True, (0,0,0))
word = Word(p2, surface, (200, 550))
world.add_word(word)
render = Render(window, world)
while True:
quit = handle_events(window, world)
if quit == 2:
# non-esc keypressed
return False
if quit:
return quit
world.update()
render.draw_world()
display.flip()
def save_post(request, data, board, thread, ip):
def board_increment():
board_db = BoardCounter.get_by_key_name(board)
if not board_db:
board_db = BoardCounter(key_name = board, thread = [])
board_db.counter += 1
board_db.put()
return board_db.counter
postid = db.run_in_transaction(board_increment,)
# create new thread
new = False
if thread == 'new':
new = True
if data.get("sage"):
raise NotFound() # FIXME: move to form
thread = postid
posts = []
thread_db = Thread.create(thread, board)
thread_db.posts = []
thread_db.subject = data.get("subject")[:SUBJECT_MAX]
else:
thread = int(thread)
thread_db = Thread.load(thread, board)
if not thread_db:
raise NotFound()
rb = rainbow.make_rainbow(ip, board, thread)
data['rainbow'] = rb
data['overlay'] = board in OVER
data['text_html'] = markup(
board=board, postid=postid,
data=escape(data.get('text')),
)
# save thread and post number
data['post'] = postid
data['thread'] = thread
now = datetime.now()
data['time'] = now.strftime("%Y-%m-%d, %H:%M")
data['timestamp'] = int(now.strftime("%s"))
img_key = data.get("key")
if img_key:
blob_key = blobstore.BlobKey(img_key)
blob_info = blobstore.BlobInfo.get(blob_key)
data['image'] = {
"size" : blob_info.size,
"content_type" : blob_info.content_type,
"full" : images.get_serving_url(img_key),
"thumb" : images.get_serving_url(img_key, 200),
}
for fname in OPTIONS.get(board, []):
func = globals().get('option_'+fname)
if func:
func(request, data)
thread_db.posts.append(data)
thread_db.put()
r = Render(thread=thread_db)
r.post_html = ''
r.add(data, new) # WARNING: side effect on data
r.save()
deferred.defer(save_post_defer,
thread_db.boards, thread,
r.post_html, data.get('text_html'),
postid,
len(thread_db.posts),
data.get("sage"),
)
# send notify
thread_flag = 'new' if new else 'sage' if data.get("sage") else 'bump'
match_msg = Post(board = board, thread = thread, thread_flag = thread_flag)
match_msg.data = dict(
board = board,
thread = thread,
html = r.post_html,
text = data.get('text'),
last = postid,
count = len(thread_db.posts),
evt = 'newpost'
)
matcher.match(match_msg, topic='post',
result_task_queue='postnotify')
return postid, thread
class Colors:
__borg_state = {}
__account_colors_id = "account_colors"
__color_id = "colors"
def __init__(self, config):
self.__dict__ = self.__borg_state
self.config = config
self.api = GW2_API(config)
self.ds = DataStore(config)
self.render = Render(config)
def colorize(self):
"""Generate the embedded pages pertaining to an account's colors"""
# Start by getting all the colors this account has
my_colors = self.api.get("account/dyes")
# Now, load previous color data
old_colors = self.ds.get(self.__account_colors_id)
# Find new colors
new_colors = set(my_colors) - set(old_colors.get('colors', {}))
# Now, obtain color details on each color
temp_colors = self.api.get_with_limit("colors",
{ "ids" : my_colors }, "ids", 200)
listings = self.api.get_with_limit("commerce/listings",
{ "ids" : [c['item'] for c in temp_colors] }, "ids", 200)
colors_by_id = {}
colors_by_set = {}
for c in temp_colors:
colors_by_id[c['item']] = c
cat = c['categories'][-1]
if cat not in colors_by_set:
colors_by_set[cat] = []
colors_by_set[cat].append(c['item'])
listings_by_id = {}
for l in listings:
listings_by_id[l['id']] = l
data = {}
color_library = {}
total_value = 0
rarities = []
for rarity in colors_by_set.keys():
if rarity not in color_library:
color_library[rarity] = []
if rarity not in rarities:
rarities.append(rarity)
colors_by_set[rarity].sort()
for c in colors_by_set[rarity]:
cost = 0
if c in listings_by_id:
cost = listings_by_id[c]['sells'][0]['unit_price']
color_library[rarity].append({
"dye" : colors_by_id[c],
"price" : cost
})
total_value += cost
# Hackish way to ensure we sort rarities right
rarities_sorted = []
if "Starter" in rarities:
rarities_sorted.append("Starter")
rarities.remove("Starter")
if "Common" in rarities:
rarities_sorted.append("Common")
rarities.remove("Common")
if "Uncommon" in rarities:
rarities_sorted.append("Uncommon")
rarities.remove("Uncommon")
if "Rare" in rarities:
rarities_sorted.append("Rare")
rarities.remove("Rare")
if len(rarities) > 0:
rarities.sort()
rarities_sorted.extend(rarities)
data = {
'colors' : color_library,
'value' : total_value,
'rarities' : rarities_sorted
}
# Finally, render
return self.render.render(self.__color_id, data)
class Viewer(Window):
"""
Create the Window and process OpenGL
"""
# ------------------------------------------------------------------
# HANDLE INITIALIZATION
# ------------------------------------------------------------------
def __init__(self, participant, *args, **kwargs):
"""
Setup window using default settings, disable visibility of
the mouse cursor
Setup the window for stimulus
"""
# Record the start of the experiment
self.exp_start = time()
super(Viewer, self).__init__(*args, **kwargs)
# Clear the scene as soon as the window is loaded
self.clear()
# Disable visibility of the mouse
self.set_mouse_visible(False)
if STIMULI_ONLY:
self.states = [self.__display_stimuli]
else:
# INITIATE THE STATES REQUIRED FOR THE EXPERIMENT
# Declare all the possible action states for Viewer
self.states = [
self.__display_message, self.__ready_block
]
# Set requirement of practice
self.practice = participant['practice']
# Set to True, when it is break time
self.on_break = False
# Set to True, when the experiment has run its course
self.ended = False
self.directory = participant['dir']
self.session = participant['day']
self.data = []
# Initiate reaction time list
self.reaction_times = []
# If practice is required, add the states required onto itself
# to create 2 blocks
if self.practice:
self.states += self.states
# Add a __display_message state at the end to show the thank
# you message
self.states += [self.__display_message]
# Set the state to be used
self.run_state = self.states.pop(0)
if participant:
# Set the initial parameters for the window
self.__setup(participant['eyeshift'], participant['stereo'])
else:
self.__setup()
# Set the draw module
self.on_draw = self.__draw
def __setup(self, eyeshift=[-3.0, 3.0], stereo=False):
"""
Initialize parameters for OpenGL and ready the
texture for rendering
"""
# Set the projection settings for OpenGL
# self.projection = Projection(self.width, self.height, eyeshift)
# Prepare OpenGL and display textures for rendering
self.render = Render(self.width, self.height, eyeshift, stereo)
# Create the Vertex Buffer Objects needed
self.render.create_VBO(self.width, self.height)
# Create the shaders as necessary
self.render.create_shaders()
# Initiate the variable that will hold the current image to
# be rendered
self.current_img = None
# Instantiate the stimuli class and setup the order in which
# to display the stimuli for practice or for the experimental
# block
self.stimulus = Stimuli()
# Now setup the stimuli
if hasattr(self, 'practice'):
self.stimulus.setup(self.practice)
else:
self.stimulus.setup()
# Ready the next stimuli block
self.stimulus.run_state()
# Keep a list of possible stimuli rotations about the Z-axis
# self.z_rotation = [0]
if not STIMULI_ONLY:
self.inclinometer = Inclinometer()
self.inclinometer.set_offset_Y()
self.slants = []
print 'Setting up of the experiment took %s seconds'\
% get_time(self.exp_start, time())
# Run the state that is required
self.run_state()
# ------------------------------------------------------------------
# HANDLE KEYBOARD EVENTS
# ------------------------------------------------------------------
def on_key_press(self, symbol, modifier):
if symbol == key.ESCAPE:
self.render.disable_GL_STATE()
self.render.unbind_all()
if not STIMULI_ONLY:
self.inclinometer.close()
self.__compile_data()
exit(1)
elif symbol == key.SPACE:
if not self.on_break or self.states[0] == self.__display_message:
if self.run_state == self.__display_stimuli:
if hasattr(self, 'reaction_times'):
self.reaction_times.append(time() - self.stimuli_presented)
press_time = time()
self.slants.append(self.inclinometer.get_Y() + 90.0)
print get_time(press_time, time())
Beep(2500, 500)
# If there are still some states to be run
# We continue onto them
if self.states:
if not self.run_state == self.__display_fix:
# Move to the next state
self.run_state = self.states.pop(0)
# And run it
self.run_state()
# Else we exit the experiment
else:
exit(1)
# ------------------------------------------------------------------
# HANDLE STATES
# ------------------------------------------------------------------
def __display_message(self):
"""
Display the message as necessary
"""
# If the experiment has not already ended, we prepare the next
# stimulus
if not self.ended and not self.on_break:
# Get the next stimuli colormap and heightmap ready
self.stimulus.run_state()
# Tell the Render instance not attempt to render stimuli
self.render_stimuli = False
# If the experimental has ended, we display the message:
# Thank you for your participation in the experiment!
if self.ended:
self.current_img = self.render.messages['thank_you']
self.inclinometer.close()
self.__compile_data()
# If the practice block needs to be run, we display the message:
# Please press [SPACE] to begin the practice block
elif self.practice:
self.current_img = self.render.messages['begin_practice']
# If it is break time during the experimental block, we display
# the message:
# Take a break, please
elif not self.practice and self.on_break:
self.current_img = self.render.messages['break']
# We then schedule the end of the break, to take place after
# a certain number of seconds, set by BREAK_DURATION
schedule_once(self.__end_break, BREAK_DURATION)
# If the experimental block can be run, we display the message:
# Please press [SPACE] to begin the formal experiment
elif not self.practice and not self.on_break:
self.__compile_data(False)
self.current_img = self.render.messages['begin_exp']
# Set the shaders to not be used, bind the VBO using bind_message
# and assign current_img as the texture
self.__ready_texture(False, self.render.bind_message)
def __ready_block(self):
"""
Extend the list of states so as to include the state change
as the practice or experimental block is run
"""
# Add further states in accordance with whether practice or
# the formal experiment is to run
states = []
for i in range(0, len(self.stimulus.order) + 1):
# Interchange between fixation point display and the stimuli
states.append(self.__display_fix)
states.append(self.__display_stimuli)
# Add the newly created states to the front of the list of states
self.states = states + self.states
# If it is not the practice block, we must schedule a break
# The interval to a break is determined by the setting: BREAK_INTERVAL
schedule_once(self.__break_time, BREAK_INTERVAL)
if states:
# Pop the foremost state and run it
self.run_state = self.states.pop(0)
self.run_state()
def __display_fix(self):
"""
Display the fixation point
"""
# Tell the Render instance not attempt to render stimuli
self.render_stimuli = False
# Set current_img to the fixation point image
self.current_img = self.render.fix_image
# Set the shaders to not be used, bind the VBO using bind_message
# and assign current_img as the texture
self.__ready_texture(False, self.render.bind_message)
# Ready the change over in state
schedule_once(self.__next_state, FIX_DUR)
def __display_stimuli(self):
"""
Display the stimuli images in order
"""
if not STIMULI_ONLY:
temp_data = []
for data in self.stimulus.current:
temp_data.append(data)
self.data.append(temp_data)
# Set current_img to the next stimulus image to be displayed
self.current_img = self.stimulus.colormap[self.stimulus.current[0]]
# Set the shaders to be used, bind the VBO and assign current_img
# as the texture
# Use the shader only if allowed by ENABLE_SHADER
self.__ready_texture(True, self.render.bind_stimuli)
# Randomly choose rotation for stimuli about the X-axis
# from the list of POSSIBLE_SLANTS
# num = randint(0, len(POSSIBLE_SLANTS) - 1)
# self.render.rotation['X'] = POSSIBLE_SLANTS[num]
self.render.scale['Z'] = self.stimulus.current[1]
self.render.rotation['X'] = self.stimulus.current[2]
# Randomly choose rotation for stimuli about the Z-axis
# from the list of possible Z-axis rotations
# num = randint(0, len(self.z_rotation) - 1)
# self.render.rotation['Z'] = self.z_rotation[num]
# If there are no more stimulus to present in this block
if not self.stimulus.run_state():
# If the practice block is currently ongoing
# We must now prepare for the experimental block
if self.practice:
# Since we just finished the practice block
# We can set self.practice to False now
self.practice = False
# Prepare the experimental block
self.stimulus.run_state()
# If the practice block is not running, it must be the
# experimental block that has ended
else:
# Set ended to true
self.ended = True
def __break_time(self, dt):
"""
Add a __display_message state into self.states to display a break
"""
if self.states and not self.ended:
# Set on_break to True, as we are now on a break
self.on_break = True
# If the next state is to display the fixation point, we can
# schedule the break before the next stimuli process begins
if self.states[0] == self.__display_fix:
# Place the __display_message state before the other states
self.states = [self.__display_message] + self.states
# If the next state is to display the stimuli, we must schedule
# the break after it is completed
elif self.states[0] == self.__display_stimuli:
# We pop out the __display_stimuli state
self.states.pop(0)
# We then add it back in, with the __display_message state
self.states = [self.__display_stimuli, self.__display_message] +\
self.states
def __end_break(self, dt):
"""
Add a __display_message state into self.states to display the
end of the break
"""
# Set on_break to False, as the break has now ended
self.on_break = False
# Tell the Render instance not attempt to render stimuli
self.render_stimuli = False
# Set the current_img to the resume_exp image
self.current_img = self.render.messages['resume_exp']
# Set the shaders to not be used, bind the VBO using bind_message
# and assign current_img as the texture
self.__ready_texture(False, self.render.bind_message)
schedule_once(self.__break_time, BREAK_INTERVAL)
def __next_state(self, dt=FIX_DUR):
"""
Move onto the next state and run it
"""
self.run_state = self.states.pop(0)
self.run_state()
def __ready_texture(self, shader_use, bind_function):
"""
Set the shader use, call the binding function for the Vertex
Buffer Objects and assign the texture as necessary
"""
# Set the use of the shaders
self.__shader_use(shader_use)
# Call the appropriate VBO binding function
bind_function()
if ENABLE_SHADER:
i = self.stimulus.current[0]
if shader_use:
textures = [self.current_img, self.stimulus.heightmap[i],
self.stimulus.normalmap[i]]
else:
textures = [self.current_img]
for img in textures:
# Assign the texture
self.render.assign_texture(img, img.width, img.height)
else:
# Assign the texture
self.render.assign_texture(self.current_img,
self.current_img.width,
self.current_img.height)
# ------------------------------------------------------------------
# HANDLE SHADER USE
# ------------------------------------------------------------------
def __shader_use(self, use):
"""
If the shader is enabled and is set to be used for the rendering,
run it.
Otherwise pass boolean value [use] to not use shaders in the
rendering, even if ENABLE_SHADER is set to True
"""
# Store identification of stimuli or non-stimuli image rendering
self.render_stimuli = use
# If the shader is enabled, pass values to the shader
if ENABLE_SHADER:
i = self.stimulus.current[0]
# Pass stimuli colormap and heightmap to shaders
self.render.pass_to_shaders(self.render.shader, use,
self.current_img,
self.stimulus.heightmap[i],
self.stimulus.normalmap[i])
# ------------------------------------------------------------------
# HANDLE RENDERING
# ------------------------------------------------------------------
def __draw(self):
"""
Overwriting Window's own on_draw() module
This will simply call upon self.render.draw() after all the
states have been set
"""
# for i in range(0, len(self.projection.eyeshiftset)):
# Set the view
# self.projection.set_perspective(50.0)
# projection = self.projection.set_projection_matrix(self.projection.\
# eyeshiftset[1])
# Call the general draw module in Render
if self.render_stimuli:
self.render.draw(self.render_stimuli, self.render.rotation['X'])
# for i in [-1, 0, 1]:
# for j in [0, 1, 2]:
# self.render.translation['X'] = i * SCALE_X
# self.render.translation['Y'] = j * SCALE_Y
# self.render.draw(self.render_stimuli)
self.stimuli_presented = time()
else:
self.render.draw()
# Return success of rendering
return EVENT_HANDLED
def __compile_data(self, exp_ended=True):
if exp_ended:
total_exp_time = get_time(self.exp_start, time())
print 'The experiment ran for %s seconds' % total_exp_time
compiled_data = {}
for count, data in enumerate(self.data):
if count < len(self.reaction_times):
compiled_data[count] = {}
compiled_data[count]['image'] = data[0]
compiled_data[count]['height_ratio'] = data[1]
compiled_data[count]['slant'] = data[2]
compiled_data[count]['rt'] = self.reaction_times[count]
compiled_data[count]['answer'] = self.slants[count]
else:
break
if compiled_data:
self.data = []
self.reaction_times = []
self.slants = []
path = 'session'
if not exp_ended:
path = 'practice'
ext = ''
loop = 0
while True:
t = join(self.directory, '%s_%d%s.json' % (path,
self.session, ext))
if not isfile(t):
path = t
break
ext = chr(65 + loop)
loop += 1
with open(path, 'wb') as f:
dump(compiled_data, f)
def save_post(request, data, board, thread):
board_db = Board.get_by_key_name(board)
if not board_db:
board_db = Board(key_name = board, thread = [])
board_db.counter += 1
# create new thread
new = False
if thread == 'new':
new = True
if data.get("sage"):
raise NotFound() # FIXME: move to form
thread = board_db.counter
posts = []
thread_db = Thread.create(thread, board)
thread_db.posts = []
thread_db.subject = data.get("subject")[:SUBJECT_MAX]
else:
thread = int(thread)
if thread in board_db.thread and not data.get("sage"):
board_db.thread.remove(thread)
thread_db = Thread.load(thread, board)
if not thread_db:
raise NotFound()
if not data.get("sage"):
board_db.thread.insert(0, thread)
per_page = get_config('aib.ib', 'thread_per_page')
pages = get_config('aib.ib', 'board_pages')
board_db.thread = board_db.thread[:per_page*pages]
rb = rainbow.make_rainbow(request.remote_addr, board, thread)
data['rainbow'] = rb
data['overlay'] = board in OVER
data['text_html'] = markup(
board=board, postid=board_db.counter,
data=escape(data.get('text', '')),
)
# save thread and post number
data['post'] = board_db.counter
data['thread'] = thread
now = datetime.now()
data['time'] = now.strftime("%Y-%m-%d, %H:%M")
data['timestamp'] = int(now.strftime("%s"))
img_key = data.get("key")
if img_key:
blob_key = blobstore.BlobKey(img_key)
blob_info = blobstore.BlobInfo.get(blob_key)
data['image'] = {
"size" : blob_info.size,
"content_type" : blob_info.content_type,
"full" : images.get_serving_url(img_key),
"thumb" : images.get_serving_url(img_key, 200),
}
for fname in OPTIONS.get(board, []):
func = globals().get('option_'+fname)
if func:
func(request, data)
thread_db.posts.append(data)
db.put( (thread_db, board_db))
Cache.remove("board", board)
r = Render(board, thread)
r.add(data, new)
r.save()
deferred.defer(rss.add, board, thread, board_db.counter,
data.get("text_html") )
if not new:
deferred.defer(
watchers_post_notify,
board, thread, r.post_html,
len(thread_db.posts), board_db.counter
)
return board_db.counter, thread
class Game(object):
def __init__(self):
self.screen_size = (500,500)
self.map_size = (128,128)
self.tile_size = (5,5)
self.world_size = (self.tile_size[0] * self.map_size[0], self.tile_size[1] * self.map_size[1])
self.grid = Grid(self.world_size[0],self.world_size[1])
GridGenerator(self.grid,Vec2(self.tile_size[0],self.tile_size[1]))
pygame.init()
self.clock = pygame.time.Clock()
self.screen = pygame.display.set_mode((500,500))
self.component_manager = componentmanager.ComponentManager()
self.component_manager.register_component('MovementComponent', MovementComponent())
self.component_manager.register_component('ExampleComponent', ExampleComponent())
self.component_manager.register_component('TileDraw', TileDraw())
self.component_manager.register_component('InputMovementComponent', InputMovementComponent())
self.entity_manager = EntityManager()
self.resource_manager = ResourceManager(os.path.join(sys.path[0], 'res'))
self.resource_manager.register_loader('definition', LoadEntityDefinition)
self.resource_manager.register_loader('sprite', LoadImage)
self.input_manager = InputManager()
self.input_manager.init_joysticks()
self.entities_to_update = []
self.entities_to_input = []
self.entities_to_draw_tiles = []
def register_for_updates(self, entity):
self.entities_to_update.append(entity)
def register_for_input(self, entity):
self.entities_to_input.append(entity)
def register_for_draw_tiles(self,entity):
self.entities_to_draw_tiles.append(entity)
def run(self):
#test_entity = Entity('test-include')
character = Entity('character')
self.characters = [character for m in xrange(4)]
self.renderer = Render(self)
self.current_camera = 0
while True:
dt = self.clock.tick() / 1000.0
for e in pygame.event.get():
if e.type == pygame.QUIT: sys.exit()
elif e.type == pygame.KEYDOWN:
if e.key == pygame.K_TAB:
self.current_camera = (self.current_camera +1)%4
if e.key == pygame.K_a:
#self.cameras[self.current_camera].props.dx = 1
pass
elif e.type == pygame.KEYUP:
if e.key == pygame.K_a:
#self.cameras[self.current_camera].props.dx = 0
pass
if e.type == pygame.JOYAXISMOTION or \
e.type == pygame.JOYBALLMOTION or \
e.type == pygame.JOYBUTTONDOWN or \
e.type == pygame.JOYBUTTONUP or \
e.type == pygame.JOYHATMOTION or \
e.type == pygame.KEYDOWN or \
e.type == pygame.KEYUP:
event = InputEvent(e)
for entity in self.entities_to_update:
if e.type == pygame.JOYAXISMOTION:
entity.handle('move', event)
else:
entity.handle('input', event)
for entity in self.entities_to_draw_tiles:
entity.handle('draw-tiles',self.world_surface)
for entity in self.entities_to_update:
entity.handle('update', dt)
self.renderer.render()
You should have received a copy of the GNU General Public License along with
this program. If not, see <http://www.gnu.org/licenses/>.
"""
def status(message):
message = " " + message
print (time.clock()),
print message
status("Initializing Canvas() object.")
screen = Canvas() # use default values for the Etch-a-sketch
status("Initializing Render() object.")
image_to_draw = Render() # defaults to NullPath
#status("Loading image.")
#image_to_draw.load_image()
status("Setting path generator strategy.")
#image_to_draw.set_path_generator(HelloWorld)
image_to_draw.set_path_generator(RasterPath)
status("Loading image.")
image_to_draw.open_image()
status("Generating path.")
image_to_draw.generate_path()
def main(args):
os.chdir(os.path.dirname(os.path.realpath(__file__)))
desired_lang = os.environ.get('LANGUAGE', 'en')[:2]
cfg = config.Parse()
if 'language' in cfg:
desired_lang = cfg['language']
else:
cfg['language'] = desired_lang
language.select(desired_lang)
# Hint the window manager to put the window in the center of the screen
os.putenv('SDL_VIDEO_CENTERED', '1')
pygame.init()
pygame.joystick.init()
for i in range(pygame.joystick.get_count()):
pygame.joystick.Joystick(i).init()
# Ignore mouse motion (greatly reduces resources when not needed)
pygame.event.set_blocked(pygame.MOUSEMOTION)
pygame.mouse.set_visible(False)
available_maps = glob.glob(os.path.join(MAPS_DIR, '*.map'))
available_maps = [os.path.basename(m) for m in available_maps]
available_maps.sort()
selected = {
'players_count': 1,
'map': available_maps[0],
'exit': False,
'toggle_fullscreen': None,
'language': None,
'fullscreen': False,
'new_settings_applied': False,
}
render = Render(fullscreen=cfg.get('fullscreen', False))
if args.debug:
render.show_fps = True
while 42:
selected['new_settings_applied'] = False
selected = menu.main_menu(cfg, render, available_maps, selected)
if selected['exit']:
break
if selected['toggle_fullscreen'] is not None:
render.toggle_full_screen(selected['toggle_fullscreen'])
selected['toggle_fullscreen'] = None
continue
if selected['language'] is not None:
language.select(selected['language'])
selected['language'] = None
continue
if selected['new_settings_applied']:
continue
pygame.mixer.init(buffer=512)
game_loop(
cfg,
render,
players_count=selected['players_count'],
map_name=selected['map']
)
pygame.mixer.stop()
render.quit()
pygame.quit()
sys.exit(0)
global g_changed
g_changed = changed
g_time = time.clock()
def restart():
global render
global point_generator
point_generator = PointGenerator()
point_generator.changeXFunc()
point_generator.changeYFunc()
if random.random() > 0.5:
render.swapColors();
repaint()
#main setup
render = Render(g_width, g_height)
pygame.mouse.set_visible(False)
pygame.display.toggle_fullscreen()
#create and draw first polyline
restart()
#main loop
while True:
try:
#check idle time
if time.clock() - g_time > 60:
if g_changed:
render.save()
restart()
def __init__(self, config):
self.__dict__ = self.__borg_state
self.config = config
self.api = GW2_API(config)
self.ds = DataStore(config)
self.render = Render(config)
This program is distributed in the hope that it will be useful, but WITHOUT ANY
WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS FOR A
PARTICULAR PURPOSE. See the GNU General Public License for more details.
You should have received a copy of the GNU General Public License along with
this program. If not, see <http://www.gnu.org/licenses/>.
"""
def status(message):
message = " " + message
print (time.clock()),
print message
# screen = Canvas() # use default values for the Etch-a-sketch
status("Initializing Render() object.")
image_to_draw = Render()
status("Setting path generator strategy.")
#image_to_draw.set_path_generator(HelloWorld)
image_to_draw.set_path_generator(RasterPath)
status("Loading image.")
image_to_draw.open_image()
status("Generating path.")
image_to_draw.generate_path()
# status("Closing image.")
# image_to_draw.close_image()
def save_post(request, data, board, thread):
board_db = Board.get_by_key_name(board)
if not board_db:
board_db = Board(key_name = board, thread = [])
board_db.counter += 1
# create new thread
new = False
if thread == 'new':
new = True
if data.get("sage"):
raise NotFound() # FIXME: move to form
thread = board_db.counter
posts = []
thread_db = Thread.create(thread, board)
thread_db.posts = []
thread_db.subject = data.get("subject")[:SUBJECT_MAX]
else:
thread = int(thread)
#if thread not in board_db.thread:
# raise NotFound()
if thread in board_db.thread and not data.get("sage"):
board_db.thread.remove(thread)
thread_db = Thread.load(thread, board)
if not thread_db:
raise NotFound()
if not data.get("sage"):
board_db.thread.insert(0, thread)
board_db.thread = board_db.thread[:THREAD_PER_PAGE*BOARD_PAGES]
rb = rainbow.make_rainbow(request.remote_addr, board, thread)
data['rainbow'] = rb
data['rainbow_html'] = rainbow.rainbow(rb)
data['text_html'] = markup(
board=board, postid=board_db.counter,
data=escape(data.get('text', '')),
)
# FIXME: move to field
data['name'] = data.get("name") or "Anonymous"
# save thread and post number
data['post'] = board_db.counter
data['thread'] = thread
now = datetime.now()
data['time'] = now.strftime("%Y-%m-%d, %H:%M")
data['timestamp'] = int(now.strftime("%s"))
img_key = data.get("key")
if img_key:
blob_key = blobstore.BlobKey(img_key)
blob_info = blobstore.BlobInfo.get(blob_key)
data['image'] = {
"size" : blob_info.size,
"content_type" : blob_info.content_type,
"full" : images.get_serving_url(img_key),
"thumb" : images.get_serving_url(img_key, 200),
}
for fname in board_options.get(board, []):
func = globals().get('option_'+fname)
if func:
func(request, data)
thread_db.posts.append(data)
db.put( (thread_db, board_db))
Cache.delete(
(
dict(Board=board),
)
)
memcache.set("threadlist-%s" % board, board_db.thread)
memcache.set("post-%s-%d" %(board, board_db.counter), data)
r = Render(board, thread)
r.add(data, new)
r.save()
key = "update-thread-%s-%d" % (board, thread)
if not new:
send = {
"html" : r.post_html,
"evt" : "newpost" ,
"count" : len(thread_db.posts),
"last" : board_db.counter,
}
watchers = memcache.get(key) or []
for person in watchers:
logging.info("send data to key %s" % (person+key))
channel.send_message(person+key, dumps(send))
return board_db.counter, thread
def main():
from modules.path import Path
from modules.helpers import get_limit_indices
from modules.export import Exporter
from render import Render
from fn import Fn
fn = Fn(prefix='./res/')
exporter = Exporter()
render = Render(SIZE, BACK, FRONT)
render.set_line_width(LINE_WIDTH)
#the = 0.5*PI*ones(NMAX)
xy = column_stack((ones(NMAX)*START_X,linspace(START_Y,STOP_Y,NMAX)))
draw_start,draw_stop = get_limit_indices(xy,top=START_Y,bottom=STOP_Y)
# last_xy = xy[draw_start:draw_stop,:]
# draw_circles = render.circles
for i in count():
## gradient-like distribution of lines
pix = sqrt(1+i)*ONE
## linear distribution of lines
#pix = PIX_BETWEEN*ONE
path = Path(xy,pix)
path.trace(-PIHALF)
path.noise()
path.interpolate(int(pix/ONE)*2)
xy = path.xy_interpolated
## remove nodes above and below canvas
canvas_start,canvas_stop = get_limit_indices(xy,top=0.,bottom=1.)
xy = xy[canvas_start:canvas_stop,:]
## render nodes above STOP_Y and below START_Y
draw_start,draw_stop = get_limit_indices(xy,top=START_Y,bottom=STOP_Y)
#draw_circles(xy[draw_start:draw_stop,:],\
#ones(draw_stop-draw_start)*ONE)
render.path(xy[draw_start:draw_stop,:])
exporter.add(xy[draw_start:draw_stop,:])
xmax = xy[:,0].max()
if (xmax>STOP_X):
break
print 'num',i,'points', len(path.xy_circles),'x', xmax
name = fn.name()
render.transparent_pix()
render.write_to_png(name+'.png')
exporter.export(name+'.2obj')