Exemple #1
0
 def post(self):
     args_dict = {}
     for field_name in FIELDS:
         field_value = self.request.get(field_name, None)
         if field_value is None:
             self.response.status = '400 - Bad request (missing parameter)'
             return
         args_dict[field_name] = self.request.get(field_name, None)
     map_to_insert = model.Map(**args_dict)
     index = search.Index(name=MAP_INDEX)
     index.put(map_to_insert)
  def PutTestMapJson(self, map_id, map_root, maproot_json, owner='test1',
                     domain='gmail.test'):
    """Stores a test map from a given maproot in the datastore."""
    map_object = model.Map(model.MapModel(
        key_name=map_id, owners=[owner], editors=[], viewers=[], domain=domain,
        domains=[domain], domain_role=None, world_readable=True))
    new_version = model.MapVersionModel(
        parent=map_object.model, maproot_json=maproot_json)
    # Update the MapModel from fields in the MapRoot JSON.
    map_object.model.title = map_root.get('title', '')
    map_object.model.description = map_root.get('description', '')
    map_object.model.current_version = new_version.put()

    map_object.model.put()
Exemple #3
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 def PutTestMap(self,
                map_id,
                file_name,
                owner='test1',
                domain='gmail.test'):
     """Stores a test map in the datastore."""
     json_data = ReadFile(file_name)
     map_object = model.Map(
         model.MapModel(key_name=map_id,
                        owners=[owner],
                        editors=[],
                        viewers=[],
                        domain=domain,
                        domains=[domain],
                        domain_role=None,
                        world_readable=True))
     map_root = json.loads(json_data)  # validate the JSON first
     new_version = model.MapVersionModel(parent=map_object.model,
                                         maproot_json=json_data)
     # Update the MapModel from fields in the MapRoot JSON.
     map_object.model.title = map_root.get('title', '')
     map_object.model.description = map_root.get('description', '')
     map_object.model.current_version = new_version.put()
     map_object.model.put()
Exemple #4
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import model
import view

c = model.Character("characterdata.json")
c.vision=3
m = model.Map("mapdata_big.json")

gv = view.GameView(m,c)
gv.mainloop()
    def __init__(self,
                 in_path_photo=None,
                 in_path_oil=None,
                 autoencoder_path=None,
                 num_epochs=100,
                 batch_size=50,
                 learning_rate=0.0002,
                 recon_loss_weight=10,
                 penalty_coef=10,
                 verbose=True):
        """
        This class implements the siamese architecture.
        :param in_path_photo: (string) the file path indicating the location of the training data for photographs.
        :param in_path_oil: the file path indicating the location of the training data for oil.
        :param autoencoder_path: (string) the path where the save files of the autoencoders are stored.
        :param num_epochs: (int) the number of epochs.
        :param batch_size: (int) the batch size.
        :param learning_rate: (int) the learning rate for the Adam optimizer.
        :param recon_loss_weight: (float) the parameter that scales the cycle consistency / reconstruction loss (beta)
        :param penalty_coef: (float) the penalty coefficient for the Wasserstein GAN (lambda)
        :param verbose: (boolean) if true, the training process is printed to console
        """
        self.device = torch.device(
            'cuda' if torch.cuda.is_available() else 'cpu')
        self.use_cuda = torch.cuda.is_available()
        self.in_path_photo = in_path_photo
        self.in_path_oil = in_path_oil
        self.num_epochs = num_epochs
        self.batch_size = batch_size
        self.learning_rate = learning_rate
        self.recon_loss_weight = recon_loss_weight
        self.penalty_coef = penalty_coef
        self.verbose = verbose

        self.start_epoch = 1
        self.d_photo_losses = []
        self.d_oil_losses = []
        self.g_photo_losses = []
        self.g_oil_losses = []
        self.photo_rec_losses = []
        self.oil_rec_losses = []

        self.auto_photo = autoencoder.Autoencoder()
        self.auto_photo.load(autoencoder_path + 'autoencoder_photo_20.pth')
        self.auto_photo.eval()
        self.auto_oil = autoencoder.Autoencoder()
        self.auto_oil.load(autoencoder_path + 'autoencoder_oil_20.pth')
        self.auto_oil.eval()

        self.map_v_to_u = model.Map().cuda() if self.use_cuda else model.Map()
        self.map_u_to_v = model.Map().cuda() if self.use_cuda else model.Map()

        self.v_to_u_optimizer = torch.optim.Adam(self.map_v_to_u.parameters(),
                                                 lr=learning_rate,
                                                 betas=(0.5, 0.9))
        self.u_to_v_optimizer = torch.optim.Adam(self.map_u_to_v.parameters(),
                                                 lr=learning_rate,
                                                 betas=(0.5, 0.9))

        self.discriminator_photo = model.Discriminator().cuda(
        ) if self.use_cuda else model.Discriminator()
        self.discriminator_oil = model.Discriminator().cuda(
        ) if self.use_cuda else model.Discriminator()

        self.d_photo_optimizer = torch.optim.Adam(
            self.discriminator_photo.parameters(),
            lr=learning_rate,
            betas=(0.5, 0.9))
        self.d_oil_optimizer = torch.optim.Adam(
            self.discriminator_oil.parameters(),
            lr=learning_rate,
            betas=(0.5, 0.9))