class Warehouse(Building):
max_capacity = kp.NumericProperty()
time_to_full = kp.DictProperty({"wood": "", "clay": "", "iron": ""})
time_when_its_full = kp.DictProperty({"wood": "", "clay": "", "iron": ""})
def __init__(self):
self.settings = BUILDINGS.get("WAREHOUSE")
super().__init__()
self.capacity0 = self.settings.get("CAPACITY_INIT")
self.capacity_ratio = self.settings.get("CAPACITY_RATIO")
self.max_capacity = self.calc_capacity(self.level)
self.bind(level=self.on_level)
Clock.schedule_interval(self.calc_when_is_full, .1)
def calc_capacity(self, level):
return self.capacity0 * self.capacity_ratio**(level - 1)
def on_level(self, *args):
self.max_capacity = self.calc_capacity(self.level)
def calc_when_is_full(self, *args):
self.app = App.get_running_app()
for resource in self.app.resources:
resource_until_full = self.max_capacity - resource.current
resource_until_full = max(resource_until_full, 0)
seconds_to_full = resource_until_full / resource.per_s
self.time_to_full[resource._type] = str(
datetime.timedelta(seconds=int(seconds_to_full)))
self.time_when_its_full[resource._type] =\
datetime.datetime.fromtimestamp(time.time() + seconds_to_full).strftime('%H:%M:%S')
class CustomTVLabel(HoverBehavior, TreeViewNode, MDLabel):
"""Custom node object for storing database row"""
item_data = prop.DictProperty() ## Dict with one row from database
def __init__(self,**kwargs):
super().__init__(**kwargs)
class PCDTree(MDBoxLayout):
"""Treeview widget + buttons and dialogs
manipulations refered to data"""
btn_icon = prop.ListProperty(['unfold-more-horizontal','unfold-less-horizontal'])
btn_text = prop.ListProperty(['Expandir Árvore', 'Retrair Árvore'])
app = prop.ObjectProperty() ## Main APP reference
toggled = prop.BooleanProperty(False) ## State of nodes
nodes_dict = prop.DictProperty() ## All nodes instances callable via id
dialog = prop.ObjectProperty() ## Search dialog
search_widget = prop.ObjectProperty() ## Search dialog content instance
def __init__(self, **kwargs):
super().__init__(**kwargs)
self.app = MDApp.get_running_app()
self.populate_all_nodes() ## add nodes to the treeview
self.search_widget = SearchFrame(self) ## creates search widget
self.create_search_dialog() ## creates search dialog with `self.search_widget`
"""
Treeview methods
"""
def regen_tree(self):
"""Regenerates treeview nodes"""
self.ids.treeview.root.nodes = [] ## clear nodes list
self.ids.treeview.clear_widgets() ## clear nodes widgets
self.toggled = False ## reset toggled state
self.populate_all_nodes() ## populate treeview
def _fetch_data_into_dict(self):
"""Fetches data from database and converts into dict
returns a list with a dict for each row of the database
:return: list"""
query = 'SELECT * FROM PCD ORDER BY cls_codigo'
data = self.app.cursor.execute(query).fetchall()
description = [ col[0] for col in self.app.cursor.description ]
return [ dict(zip(description,item)) for item in data ]
def _create_all_nodes(self):
"""Generates all nodes and sorts them between parents and
children, returns a tupple of (parents,children) lists
:return: tupple"""
self.nodes_dict = {} ## nodes instances for future reference
parents = [] ## parents list
children = [] ## children list
data = self._fetch_data_into_dict() ## database items in dict
for item in data:
## Creates treeview node object for each item in database \/
label = CustomTVLabel(text=f"{item['cls_codigo']} - {item['cls_nome']}")
label.item_data = item ## add data dict to object
label.bind(on_touch_down= lambda node, _: self._node_callback(node)) ## bind function
## Adding reference to dict
self.nodes_dict[item['legacyId']] = label
## sorting parents and children
if str(item['parentId']) == 'zero':
parents.append(label)
else:
children.append(label)
return parents,children
def populate_all_nodes(self):
"""Populate treeview with new nodes"""
parents,children = self._create_all_nodes()
for parent in parents:
## add parents to tree
self.ids.treeview.add_node(parent)
## adds children nodes into parents
for parent in self.ids.treeview.iterate_all_nodes():
for child in children:
if parent != self.ids.treeview.root: ## skip root node
if child.item_data['parentId'] == parent.item_data['legacyId']:
self.ids.treeview.add_node(child,parent=parent)
children.remove(child)
def _node_callback(self, node):
"""Callback for treeview nodes, checks if
Form isn't already the selected node
:param node: obj"""
df_c = self.app.root.ids.data_frame.children
if df_c and isinstance(df_c[0], DataManagement):
## Form exists
if df_c[0].item_data['legacyId'] == node.item_data['legacyId']:
## Node is IN the current Form
return
## Form doesn't exist or node != current node
self.generate_data_frame(node)
def generate_data_frame(self, node):
"""Creates data management obj from current
node data. node = instance of selected node
:param node: obj"""
self.app.set_data_management_widget(
view_only = True,
item_data = node.item_data
)
def delete_node_from_tree(self):
"""Delete selected node from tree"""
selected_node = self.ids.treeview.get_selected_node()
self.ids.treeview.remove_node(selected_node)
self.nodes_dict.pop(selected_node.item_data['legacyId'])
"""
Buttons methods
"""
def toggle_all_nodes(self):
"""Toggles all nodes to toggled state"""
for node in self.ids.treeview.iterate_all_nodes():
if node != self.ids.treeview.root:
if self.toggled and node.is_open:
## close open node
self.ids.treeview.toggle_node(node)
if not self.toggled and not node.is_open:
## open closed nodes
self.ids.treeview.toggle_node(node)
## switches toggled state \/
self.toggled = not self.toggled
def switch_button(self,reset=False):
"""Switches tooltip and icon when pressed"""
if reset:
self.btn_icon = ['unfold-more-horizontal','unfold-less-horizontal']
self.btn_text = ['Expandir Árvore', 'Retrair Árvore']
else:
self.btn_icon[0], self.btn_icon[1] = self.btn_icon[1], self.btn_icon[0]
self.btn_text[0], self.btn_text[1] = self.btn_text[1], self.btn_text[0]
"""
Search dialog methods
"""
def create_search_dialog(self):
"""Creates search dialog"""
if not self.dialog:
self.dialog = MDDialog(
title = 'Clique na Classe para encontrá-la na árvore',
size_hint = (.5,.9),
pos_hint = {'right': .9},
overlay_color = [0, 0, 0, .3],
auto_dismiss = False,
type = "custom",
radius = [20,],
content_cls = self.search_widget)
self.dialog.bind(on_open = self.set_focus)
def set_focus(self, *_):
"""Sets focus to text field"""
self.search_widget.ids.to_search.focus = True
class DataManagement(MDBoxLayout):
"""Object of text fields and buttons for managing data"""
## Place holders \/
app = None ## Main APP reference
item_data = prop.DictProperty() ## Dict of one row from database
new_cls = prop.BooleanProperty() ## Bool for new item without parents
view_only = prop.BooleanProperty() ## Enables/Disables text fields
delete_dialog = prop.ObjectProperty() ## Delete Dialog popup object
editing = prop.BooleanProperty(False) ## Enable/Disable editing mode
def __init__(self,view_only=True,item_data=None,new_cls=False,**kwargs):
super().__init__(**kwargs)
self.app = MDApp.get_running_app() ## App object reference
self.view_only = view_only
self.item_data = item_data
self.new_cls = new_cls
self.set_fields() ## Set text field contents
self.add_buttons() ## Add buttons to screen
def set_fields(self):
"""Set rules for text fields content"""
if self.view_only:
## populate fields with current database row
self.populate_fields()
else:
## if not view_only tests for new item
if self.new_cls:
## if new item, changes label icon and adds 'None' to parent node
self.ids.label_icon.icon = 'folder-plus-outline'
self.ids.cls_sub.text = '[ Fundo ]'
self.app.pcd_tree.disabled = True ## Locks treeview
else:
## if not new item, adds current item code as item parent
self.ids.cls_sub.text = self.item_data['cls_codigo']
def add_buttons(self):
"""Add buttons depending on view_only mode"""
if self.view_only:
buttons = ViewButtons(edit_code=str(self.item_data['cls_codigo']))
else:
buttons = EditButtons()
self.ids.btn_frame.clear_widgets()
self.ids.btn_frame.add_widget(buttons)
def enable_edit(self):
"""Enables editing of text fields"""
toast(f'Editando {self.item_data["cls_nome"][:40]}{" [...]" if len(self.item_data["cls_nome"]) > 40 else ""}',1)
self.ids.add_label.text = f'[b]Editando[/b] {self.item_data["cls_nome"]}'
self.editing = True ## Enables editing
self.view_only = False ## Disables view_only mode
self.app.pcd_tree.disabled = True ## Locks treeview
self.add_buttons() ## Add new buttons
def populate_fields(self):
"""Populates text fields with current item_data data"""
self.ids.add_label.text = f'Visualizando [b]{self.item_data["cls_nome"]}[/b]'
self.ids.cls_nome.text = str(self.item_data['cls_nome'])
self.ids.cls_codigo.text = str(self.item_data['cls_codigo'])
self.ids.cls_sub.text = str(self.item_data['cls_sub']) if self.item_data['cls_sub'] != '' else '[ Fundo ]'
self.ids.reg_abertura.text = str(self.item_data['reg_abertura'])
self.ids.reg_desativacao.text = str(self.item_data['reg_desativacao'])
self.ids.reg_reativacao.text = str(self.item_data['reg_reativacao'])
self.ids.reg_mudanca_nome.text = str(self.item_data['reg_mudanca_nome'])
self.ids.reg_deslocamento.text = str(self.item_data['reg_deslocamento'])
self.ids.reg_extincao.text = str(self.item_data['reg_extincao'])
self.ids.ativa.state = 'down' if self.item_data['cls_indicador'] == 'Ativa' else 'normal'
self.ids.inativa.state = 'normal' if self.item_data['cls_indicador'] == 'Ativa' else 'down'
self.ids.fase_corrente.text = str(self.item_data['fase_corrente'])
self.ids.evento_fase_corrente.text = str(self.item_data['evento_fase_corrente'])
self.ids.fase_intermediaria.text = str(self.item_data['fase_intermediaria'])
self.ids.evento_fase_inter.text = str(self.item_data['evento_fase_inter'])
self.ids.preservacao.state = 'down' if self.item_data['dest_final'] == 'Preservação' else 'normal'
self.ids.eliminacao.state = 'normal' if self.item_data['dest_final'] == 'Preservação' else 'down'
self.ids.reg_alteracao.text = str(self.item_data['reg_alteracao'])
self.ids.observacoes.text = str(self.item_data['observacoes'])
def show_delete_dialog(self):
"""Create and open delete dialog popup"""
btn_cancel = MDFlatButton(
text = 'Cancelar',
theme_text_color = 'Custom',
text_color = self.app.theme_cls.primary_color,
on_release = lambda x: self.delete_dialog.dismiss())
btn_confirm = MDRaisedButton(
text = 'Apagar',
elevation = 11,
on_release = lambda *x: (self.delete_item_from_db(), self.delete_dialog.dismiss()))
self.delete_dialog = MDDialog(
title = 'Deseja realmente apagar?',
text = f'{self.item_data["cls_nome"]}',
buttons = [btn_cancel,btn_confirm],
auto_dismiss = False)
self.delete_dialog.open()
def delete_item_from_db(self):
"""Try deleting item from database, if successful, deletes item from treeview"""
try:
delete_row(self.item_data)
except lib.utils.ItemHasChildren:
toast('Classe possui dependentes! Impossível apagar.')
else:
toast(f'{self.item_data["cls_nome"][:40]}{" [...]" if len(self.item_data["cls_nome"]) > 40 else ""} apagado com sucesso!',1)
self.app.root.ids.data_frame.clear_widgets() ## clear data management frame
self.app.pcd_tree.delete_node_from_tree() ## delete item from treeview
def text_fields_into_dict(self):
"""Gets data from text fields into dict
:return: dict"""
data = {
'parentId': self.item_data['legacyId'] if not self.new_cls else 'zero',
'cls_nome': self.ids.cls_nome.text.strip(),
'cls_codigo': self.ids.cls_codigo.text.strip(),
'cls_sub': self.ids.cls_sub.text.strip() if not self.new_cls else '',
'reg_abertura': self.ids.reg_abertura.text.strip(),
'reg_desativacao': self.ids.reg_desativacao.text.strip(),
'reg_reativacao': self.ids.reg_reativacao.text.strip(),
'reg_mudanca_nome': self.ids.reg_mudanca_nome.text.strip(),
'reg_deslocamento': self.ids.reg_deslocamento.text.strip(),
'reg_extincao': self.ids.reg_extincao.text.strip(),
'cls_indicador': 'Ativa' if self.ids.ativa.state == 'down' else 'Inativa',
'fase_corrente': self.ids.fase_corrente.text.strip(),
'evento_fase_corrente': self.ids.evento_fase_corrente.text.strip(),
'fase_intermediaria': self.ids.fase_intermediaria.text.strip(),
'evento_fase_inter': self.ids.evento_fase_inter.text.strip(),
'dest_final': 'Preservação' if self.ids.preservacao.state == 'down' else 'Eliminação',
'reg_alteracao': self.ids.reg_alteracao.text.strip(),
'observacoes': self.ids.observacoes.text.strip()}
return data
def insert_data_into_db(self):
"""Try to insert data into database,
if successful regen treeview with new data"""
data = self.text_fields_into_dict() ## Current item data dict
parent = self.item_data if not self.new_cls else 'zero' ## set parent data if not new cls
if self.ids.cls_nome.text.strip() and self.ids.cls_codigo.text.strip() != '':
## if required fields are not empty
try:
## Instantiate data manager object \/
to_insert = ManageData(item_data=data,parent_data=parent)
if not self.editing:
to_insert.insert_into_db() ## inserts into database
else:
to_insert.update_db() ## updates database
except:
toast('Algo deu errado! Impossível salvar a Classe.')
else:
toast('Classe salva com sucesso!',1)
self.app.root.ids.data_frame.clear_widgets() ## clear data management frame
self.app.pcd_tree.regen_tree() ## Regenerates pcd treeview
self.app.pcd_tree.switch_button(reset=True) ## switch toggle nodes button
self.app.pcd_tree.disabled = False ## Unlocks treeview
else:
## if required fields are empty
toast('Campos obrigatórios estão em branco!')
self.ids.cls_codigo.focus = True if self.ids.cls_codigo.text.strip() == '' else False
self.ids.cls_nome.focus = True if self.ids.cls_nome.text.strip() == '' else False
class AppFrame(FloatLayout):
"""
The core layout of the application, acts as the root widget and
provides methods universal to all child widgets.
"""
btn_layout = kp.ObjectProperty(None)
keybindings = kp.DictProperty({})
config = kp.DictProperty({})
def new_keybind_dialogue(self) -> None:
"""
Opens a NewBindDialogue pop up to get user input.
:return: None
"""
nbd = NewBinding()
self.add_widget(nbd)
def name_bindset_dialogue(self, mode: str = 'Save') -> None:
"""
Opens a NameBindSet pop up to get user input.
:param mode: A string, either 'Save' or 'Load'.
:return: None
"""
sbs = NameBindSet(mode=mode)
self.add_widget(sbs)
def update_keybind(self, **options) -> None:
"""
Creates a new Keybind object or updates an existing one.
:param options: kwargs. Main kwarg that update_keybind requires
is name, a string specifying the user-supplied name of the
keybind.
:return: None
"""
bind_name = options.get('name')
if self.keybindings.get(bind_name):
self.keybindings[bind_name].setup(**options)
else:
new_btn = Keybind()
new_btn.setup(**options)
self.keybindings[bind_name] = new_btn
self.btn_layout.add_widget(new_btn)
@staticmethod
def to_json(file_path: str, data: dict) -> None:
"""
Simple method to save a one line dictionary to a json file.
:param file_path: A string, a valid file path.
:param data: A dictionary.
:return: None
"""
with open(file_path, 'w') as w:
w.write(json.dumps(data))
@staticmethod
def from_json(file_path: str) -> dict:
"""
Simple method to load a one line json into a python dictionary.
:param file_path: A string, a file path.
:return: A dictionary containing the json in file_path, or an
empty dictionary if the file_path was invalid.
"""
if os.path.exists(file_path):
with open(file_path, 'r') as r:
for line in r:
result = json.loads(line)
return result
else:
return dict()
def save(self, file_name: str) -> None:
"""
Saves all the Keybinds in keybindings as well as the values
stored in config.
:param file_name: A string, the name of the file to save to.
:return: None
"""
result = dict()
for k, v in self.keybindings.items():
result[k] = {**v.output()}
self.to_json(f'bindsets/{file_name}.json', result)
self.config['last_bindset'] = file_name
self.save_config()
def save_config(self) -> None:
"""
Saves the config dictionary to a json file called ref.
:return: None
"""
self.to_json('ref.json', self.config)
def load(self, file_name: str) -> bool:
"""
Loads a specified bindset from the bindsets directory and
replaces the existing bindset with Keybinds corresponding to
the new bindset.
:param file_name: A valid file path.
:return: A boolean indicating whether data was successfully
retrieved from the passed file.
"""
p = f'bindsets/{file_name}.json'
result = self.from_json(p)
if len(result) > 0:
self.btn_layout.clear_widgets()
for k, v in result.items():
b = Keybind()
b.setup(k, **v)
self.keybindings[k] = b
self.btn_layout.add_widget(b)
return True
else:
return False
class RallyPoint(Building):
attacker = kp.DictProperty(defaultdict(int))
defender = kp.DictProperty(defaultdict(int))
units_kills_atk = kp.DictProperty(defaultdict(int))
units_kills_def = kp.DictProperty(defaultdict(int))
def __init__(self):
self.settings = BUILDINGS.get("RALLY_POINT")
super().__init__()
self.scavenging = self.settings.get("SCAVENGING")
def calc_simulator(self, *args):
print("simulator", args)
attacker_inputs = args[0]
attacker_inputs = list(reversed(attacker_inputs.children[:-1]))
defender_inputs = args[1]
defender_inputs = list(reversed(defender_inputs.children[:-1]))
app = args[2]
# attacker = defaultdict(int)
attacker_power_per_type = defaultdict(int)
total_defender_power_per_type = defaultdict(
lambda: app.wall.basic_defense)
defender_power_per_type = defaultdict(int)
total_population_per_type = defaultdict(int)
total_population_per_type_def = defaultdict(int)
perc_population_per_type = defaultdict(int)
_types = ["general", "cavalry", "archer"]
# get input units:
for i, unit in enumerate(app.units):
try:
self.attacker[unit] = int(attacker_inputs[i].text)
except ValueError:
self.attacker[unit] = 0
try:
self.defender[unit] = int(defender_inputs[i].text)
except ValueError:
self.defender[unit] = 0
print("attacker", self.attacker)
print("defender", self.defender)
# calc total power done for all units per type:
for i, unit in enumerate(app.units):
attacker_power_per_type[
unit._type] += self.attacker[unit] * unit.atk
for _type in _types:
total_defender_power_per_type[_type] += self.defender[
unit] * unit.defence.get(_type.upper())
print("attacker_power_per_type", attacker_power_per_type)
print("total_defender_power_per_type", total_defender_power_per_type)
# calc total_population_per_type:
for i, unit in enumerate(app.units):
total_population_per_type[
unit._type] += self.attacker[unit] * unit.population
total_population_per_type_def[
unit._type] += self.defender[unit] * unit.population
print("total_population_per_type", total_population_per_type)
print("total_population_per_type_def", total_population_per_type_def)
# calc perc_population_per_type:
total_all_types_population = sum(total_population_per_type.values())
try:
for _type in _types:
perc_population_per_type[_type] += total_population_per_type[
_type] / total_all_types_population
except ZeroDivisionError:
return
print("perc_population_per_type", perc_population_per_type)
# calc defender power after aply perc_population_per_type:
for _type in _types:
defender_power_per_type[_type] = total_defender_power_per_type[
_type] * perc_population_per_type[_type]
print("defender_power_per_type", defender_power_per_type)
# calc total_killed_units_per_type by type:
total_killed_units_per_type = defaultdict(int)
total_killed_units_per_type_def = defaultdict(int)
for _type in _types:
print(_type)
if attacker_power_per_type[_type] == 0:
continue
if total_population_per_type[_type] == 0:
continue
x = attacker_power_per_type[_type] / defender_power_per_type[_type]
x_defender = defender_power_per_type[
_type] / attacker_power_per_type[_type]
print("x", x)
print("x_defender", x_defender)
ratio = 1 / x**0.5
ratio_defender = 1 / x_defender**0.5
print("ratio", ratio)
print("ratio_defender", ratio_defender)
damage_done_by_def = ratio * defender_power_per_type[_type]
damage_done_by_atk = ratio_defender * attacker_power_per_type[_type]
print("damage_done_by_def", damage_done_by_def)
print("damage_done_by_atk", damage_done_by_atk)
total_killed_units_per_type[_type] =\
damage_done_by_def / attacker_power_per_type[_type] * total_population_per_type[_type]
total_killed_units_per_type_def[_type] =\
damage_done_by_atk / defender_power_per_type[_type] * total_population_per_type[_type]
print("total_killed_units_per_type", total_killed_units_per_type)
print("total_killed_units_per_type_def",
total_killed_units_per_type_def)
# calc units_kills: split the type % for all units
for i, unit in enumerate(app.units):
# attacker:
try:
ratio_units = (self.attacker[unit] * unit.population
) / total_population_per_type[unit._type]
print("ratio_units", ratio_units)
self.units_kills_atk[unit] = total_killed_units_per_type[
unit._type] * ratio_units / unit.population
self.units_kills_atk[unit] = min(
round(self.units_kills_atk[unit]), self.attacker[unit])
except ZeroDivisionError:
continue
# defender:
try:
ratio_units_def = (
self.defender[unit] * unit.population
) / total_population_per_type_def[unit._type]
print("ratio_units_def", ratio_units_def)
self.units_kills_def[unit] = total_killed_units_per_type_def[
unit._type] * ratio_units_def / unit.population
self.units_kills_def[unit] = min(
round(self.units_kills_def[unit]), self.defender[unit])
except ZeroDivisionError:
continue
print("self.units_kills_atk", self.units_kills_atk)
print("self.units_kills_def", self.units_kills_def)
class GameApp(App):
width = kp.NumericProperty(Window.width)
height = kp.NumericProperty(Window.height)
# offset = kp.NumericProperty()
# resources:
wood = kp.ObjectProperty(Resource("WOOD"))
clay = kp.ObjectProperty(Resource("CLAY"))
iron = kp.ObjectProperty(Resource("IRON"))
population_icon = kp.StringProperty(
RESOURCES.get("ICON").get("POPULATION"))
resources_ratio = kp.NumericProperty(RESOURCES.get("RATIO"))
population = kp.DictProperty({
"max":
BUILDINGS.get("FARM").get("POPULATION_INIT"),
"buildings":
0,
"units":
0,
"total":
0,
})
# buildings:
headquarters = kp.ObjectProperty(Headquarters())
rally_point = kp.ObjectProperty(RallyPoint())
statue = kp.ObjectProperty(Statue())
timber_camp = kp.ObjectProperty(TimberCamp())
clay_pit = kp.ObjectProperty(ClayPit())
iron_mine = kp.ObjectProperty(IronMine())
farm = kp.ObjectProperty(Farm())
warehouse = kp.ObjectProperty(Warehouse())
hiding_place = kp.ObjectProperty(HidingPlace())
barracks = kp.ObjectProperty(Barracks())
stable = kp.ObjectProperty(Stable())
workshop = kp.ObjectProperty(Workshop())
academy = kp.ObjectProperty(Academy())
smithy = kp.ObjectProperty(Smithy())
market = kp.ObjectProperty(Market())
wall = kp.ObjectProperty(Wall())
# to upgrade buildings:
current_upgrading = kp.ObjectProperty("")
time_left = kp.NumericProperty()
time_eta = kp.ObjectProperty("")
cancel = kp.BooleanProperty(False)
is_upgrading = kp.BooleanProperty(False)
# Units:
spear_fighter = kp.ObjectProperty(Unit(name="SPEAR_FIGHTER"))
swordsman = kp.ObjectProperty(Unit(name="SWORDSMAN"))
axeman = kp.ObjectProperty(Unit(name="AXEMAN"))
archer = kp.ObjectProperty(Unit(name="ARCHER"))
scout = kp.ObjectProperty(Unit(name="SCOUT"))
light_cavalry = kp.ObjectProperty(Unit(name="LIGHT_CAVALRY"))
mounted_archer = kp.ObjectProperty(Unit(name="MOUNTED_ARCHER"))
heavy_cavalry = kp.ObjectProperty(Unit(name="HEAVY_CAVALRY"))
ram = kp.ObjectProperty(Unit(name="RAM"))
catapult = kp.ObjectProperty(Unit(name="CATAPULT"))
paladin = kp.ObjectProperty(Paladin())
noble = kp.ObjectProperty(Unit(name="NOBLE"))
militia = kp.ObjectProperty(Unit(name="MILITIA"))
def build_config(self, *args):
self.units = [
self.spear_fighter, self.swordsman, self.axeman, self.archer,
self.scout, self.light_cavalry, self.mounted_archer,
self.heavy_cavalry, self.ram, self.catapult, self.paladin,
self.noble, self.militia
]
self.buildings = [
self.headquarters, self.rally_point, self.statue, self.timber_camp,
self.clay_pit, self.iron_mine, self.farm, self.warehouse,
self.hiding_place, self.barracks, self.stable, self.workshop,
self.academy, self.smithy, self.market, self.wall
]
def build(self):
self.game = Game(transition=NoTransition())
self.resources = [self.wood, self.clay, self.iron]
self.calc_current_population()
Clock.schedule_interval(self.update_resources, .1)
return self.game
def calc_current_population(self):
for building in self.buildings:
self.population["buildings"] += building.population
for unit in self.units:
self.population["units"] += unit.n * unit.population
self.population[
"total"] = self.population["buildings"] + self.population["units"]
def upgrade_building(self, building):
if self.is_upgrading:
return
# check if can upgrade:
check_resources =\
self.wood.current > building.wood and \
self.clay.current > building.clay and self.iron.current > building.iron
check_max_level = building.level < building.max_level
if not (check_resources and check_max_level):
return
self.current_upgrading = building
self.time_left = building.time
self.time_eta = datetime.datetime.fromtimestamp(
time.time() + self.time_left).strftime('%H:%M:%S')
# update resources:
self.wood.current -= self.current_upgrading.wood
self.clay.current -= self.current_upgrading.clay
self.iron.current -= self.current_upgrading.iron
self.is_upgrading = True
Clock.schedule_interval(self.update_building, .1)
def update_building(self, dt):
if self.cancel:
# undo update resources:
self.wood.current += self.current_upgrading.wood
self.clay.current += self.current_upgrading.clay
self.iron.current += self.current_upgrading.iron
self.current_upgrading = ""
self.time_left = 0
self.cancel = False
self.is_upgrading = False
return False
self.time_left -= dt
if self.time_left <= 0:
self.update_building_finish()
return False
def update_building_finish(self):
# update requirements:
self.current_upgrading.level += 1
self.current_upgrading.update_cost_for_current_level()
self.current_upgrading.update_population_for_current_level()
self.calc_current_population()
self.current_upgrading.time *= self.current_upgrading.ratio
# update buildings:
if self.current_upgrading.name == "headquarters":
for build in self.buildings:
build.time *= self.current_upgrading.time_reduce
if self.current_upgrading.name == "timber_camp":
self.wood.per_s *= self.resources_ratio
if self.current_upgrading.name == "clay_pit":
self.clay.per_s *= self.resources_ratio
if self.current_upgrading.name == "iron_mine":
self.iron.per_s *= self.resources_ratio
if self.current_upgrading.name == "farm":
self.population["max"] *= self.farm.population_ratio
self.current_upgrading = ""
self.is_upgrading = False
def cancel_upgrading(self, *args):
if self.is_upgrading:
self.cancel = True
def update_resources(self, dt):
for resource in self.resources:
resource.current += resource.per_s * dt
resource.current = min(resource.current,
self.warehouse.max_capacity)
class GameWidget(Screen):
app = prop.ObjectProperty()
game = prop.ObjectProperty()
player_name = prop.StringProperty()
current_turn_author = prop.StringProperty()
player_widgets = prop.DictProperty()
deck_widget = prop.ObjectProperty()
pending_actions = []
player_tab_title = '* You *'
def __init__(self, game, **kwargs):
super(GameWidget, self).__init__(**kwargs)
self.game = game
self.player_name = self.app.player_name
self.player_widgets = {player.name: player.make_widget(game_widget=self) \
for player in self.game.get_category(game_component_types.PLAYER).itervalues()}
self.add_player_widget(self.player_widgets[self.player_name])
for widget in self.player_widgets.itervalues():
if widget.player.name != self.player_name:
self.add_player_widget(widget)
deck_zone = self.ids.deck_zone
self.deck_widget = self.game.get_category(
game_component_types.DECK).values()[0].make_widget(
game_widget=self)
deck_zone.add_widget(self.deck_widget)
self.update_current_turn_author()
def update_current_turn_author(self):
self.current_turn_author = self.game.current_flow._author
def is_our_turn(self):
#print("Current player: {0}".format(self.game.current_flow._author))
return self.player_name == self.current_turn_author
def is_our_tab_active(self):
#print("Active tab: {0}".format(self.ids.player_zone.current_tab.text))
return self.ids.player_zone.current_tab.text == self.player_tab_title
def add_player_widget(self, widget):
caption = self.player_tab_title if widget.player.name == self.player_name else widget.player.name
tab = tabbedpanel.TabbedPanelItem(text=caption)
tab.add_widget(widget=widget)
self.ids.player_zone.add_widget(tab)
def queue_action(self, action):
self.pending_actions.append(action)
print(self.pending_actions)
def send_actions(self, *actions):
for action in actions:
msg = action.make_message()
self.app.send_action(msg)
def push_game_forward(self, action):
self.game.receive_message(action)
self.update_current_turn_author()
def notify(self, text):
self.app.notify(text)
class mainwidget(FloatLayout):
#flags=-1 represents game not started and only black can press since white starts
pause_flag=1
white_time=kv.DictProperty({'hour':'0','minute':'5','second':'0'}) # dictionary to hold time of white and black
black_time=kv.DictProperty({'hour':'0','minute':'5','second':'0'})
white_string=kv.StringProperty('0:5:0')
black_string=kv.StringProperty("0:5:0") #strings which contain display of white and black time
def __init__(self):
super(mainwidget, self).__init__()
self.flags=-1
def refresher(self):
Clock.unschedule(self.decrease_time_default_white)
Clock.unschedule(self.decrease_time_default_black)
self.flags=-1
self.white_time={'hour':'0','minute':'5','second':'0'}
self.black_time={'hour':'0','minute':'5','second':'0'}
self.white_string='0:5:0' #used to set times to initial state
self.black_string="0:5:0"
def pauser(self): # used to pause the clock
if(self.pause_flag==1): # if flag 1 then clock is ticking
if(self.flags==1):
Clock.unschedule(self.decrease_time_default_white) # unschedule white flags=1 represents white time is going
elif(self.flags==0): # unschedule black flags=1 represents black time is going
Clock.unschedule(self.decrease_time_default_black)
labels=self.ids['pause_button']
labels.text="resume" #interchange between resume and pause
self.pause_flag=0
elif(self.pause_flag==0): # if flag=0 clock is paused either side it remains constant
if(self.flags==1):
Clock.schedule_interval(self.decrease_time_default_white,1) # resume time if move belongs to white
elif(self.flags==0):
Clock.schedule_interval(self.decrease_time_default_black,1)
labels=self.ids['pause_button']
labels.text="pause" #interchange the name
self.pause_flag=1
def decrease_time_default_black(self,dt):
self.black_time['second']=str(int(self.black_time['second'])-1)
if(int(self.black_time['second'])<0):
self.black_time['minute']=str(int(self.black_time['minute'])-1)
self.black_time['second']=str(int(self.black_time['second'])+60) #decrease the time in black by 1 sec
if(int(self.black_time['minute'])<0):
self.black_time['hour']=str(int(self.black_time['hour'])-1)
self.black_time['minute']=str(int(self.black_time['minute'])+60)
self.black_string=self.black_time['hour']+':'+self.black_time['minute']+':'+self.black_time['second'] # update in the string
def decrease_time_default_white(self,dt):
self.white_time['second']=str(int(self.white_time['second'])-1)
if(int(self.white_time['second'])<0):
self.white_time['minute']=str(int(self.white_time['minute'])-1)
self.white_time['second']=str(int(self.white_time['second'])+60) #decrease the time in black by 1 sec
if(int(self.white_time['minute'])<0):
self.white_time['hour']=str(int(self.white_time['hour'])-1)
self.white_time['hour']=str(int(self.white_time['hour'])+60)
self.white_string=self.white_time['hour']+':'+self.white_time['minute']+':'+self.white_time['second']
def click_setter_black(self):
white=self.ids['white'] #if clicked on black
black=self.ids['black']
if(self.flags ==-1): # beginning of the game
white.background_color=[1,1,1,1] #running color
black.background_color=[0,1,0,1] #dormant color
self.flags=1
Clock.schedule_interval(self.decrease_time_default_white,1)
print(self.white_string)
elif(self.flags==0): # if black presses and its his turn
white.background_color=[1,1,1,1]
black.background_color=[0,1,0,1]
self.flags=1
Clock.unschedule(self.decrease_time_default_black)
Clock.schedule_interval(self.decrease_time_default_white,1)
def click_setter_white(self): # similar to black
white=self.ids['white']
black=self.ids['black']
if(self.flags==1):
white.background_color=[0,1,0,1]
black.background_color=[1,1,1,1]
self.flags=0
Clock.unschedule(self.decrease_time_default_white)
Clock.schedule_interval(self.decrease_time_default_black,1)
class SecondScreen(Screen):
#flags=-1 represents game not started and only black can press since white starts
pause_flag=1
white_time_init=kv.DictProperty({'hour':'0','minute':'5','second':'00'}) # dictionary to hold time of white and black
black_time_init=kv.DictProperty({'hour':'0','minute':'5','second':'00'})
increment_white_time=kv.DictProperty({'hour':'0','minute':'0','second':'02'})
increment_black_time=kv.DictProperty({'hour':'0','minute':'0','second':'02'})
white_time=kv.DictProperty({'hour':'0','minute':'5','second':'00'}) # dictionary to hold time of white and black
black_time=kv.DictProperty({'hour':'0','minute':'5','second':'00'})
white_string=kv.StringProperty('5:00')
black_string=kv.StringProperty("5:00") #strings which contain display of white and black time
flags=-1
def __init__(self, **kw):
super().__init__(**kw)
df=pd.read_csv("helo.csv")
#elf.pause_flag=int(df.loc[0]['pause_flag']) # fields=['flags','pause_flag','white_string','black_string','increment_white','increment_black']
self.white_time=string_to_dict(df.loc[0]['white_string'])
self.black_time=string_to_dict(df.loc[0]['black_string'])
self.white_string=df.loc[0]['white_string']
self.black_string=df.loc[0]['black_string']
self.white_time_init=string_to_dict(df.loc[0]['init_white'])
self.black_time_init=string_to_dict(df.loc[0]['init_black'])
self.increment_white_time=string_to_dict(df.loc[0]['increment_white'])
self.increment_black_time_=string_to_dict(df.loc[0]['increment_black'])
self.flags=df.loc[0]['flags']
def value_time(self,dict):
return int(dict['second'])+int(dict['minute'])*60+int(dict['hour'])*3600
def increment_setter(self,dict1,dict2):
self.increment_white_time=dict1
self.increment_black_time=dict2
def new_value_setter(self,dict1,dict2):
self.flags=-1
self.pause_flag=0
self.white_time_init=dict1
self.black_time_init=dict2
self.white_time=dict1
self.black_time=dict2
self.white_string=format_time(self.white_time)
self.black_string=format_time(self.black_time)
white=self.ids['white']
black=self.ids['black']
white.background_color=[0,1,1,1]
black.background_color=[0,1,1,1]
def refresher(self):
self.exit_pauser()
pop_layout=BoxLayout()
popup=Popup(title="Are u sure u want to refresh",content=pop_layout)
pop_label=Label(text="Refresh will make \n current time lost",font_size=50,color=[1,0.7,0.435,1],halign='right',valign='middle')
q=BoxLayout(orientation="horizontal")
yes_button=Button(text="yes",size_hint=(0.6,0.2))
no_button=Button(text="no",size_hint=(0.6,0.2))
def out(instance):
Clock.unschedule(self.decrease_time_default_white)
Clock.unschedule(self.decrease_time_default_black)
self.flags=-1
self.pause_flag=1
labels=self.ids['pause_button']
labels.text="pause"
self.white_time=self.white_time_init
self.black_time=self.black_time_init
self.white_string=format_time(self.white_time)
self.black_string=format_time(self.black_time)
white=self.ids['white']
black=self.ids['black']
white.background_color=[0,1,1,1]
black.background_color=[0,1,1,1]
popup.dismiss()
yes_button.bind(on_press=out)
no_button.bind(on_press=lambda x:popup.dismiss())
pop_layout.add_widget(pop_label)
q.add_widget(yes_button)
q.add_widget(no_button)
pop_layout.add_widget(q)
popup.open()
def exit_pauser(self):
if(self.pause_flag==1): # if flag 1 then clock is ticking
if(self.flags==1):
Clock.unschedule(self.decrease_time_default_white) # unschedule white flags=1 represents white time is going
elif(self.flags==0): # unschedule black flags=1 represents black time is going
Clock.unschedule(self.decrease_time_default_black)
labels=self.ids['pause_button']
labels.text="resume" #interchange between resume and pause
self.pause_flag=0
def pauser(self): # used to pause the clock
if(self.pause_flag==1): # if flag 1 then clock is ticking
if(self.flags==1):
Clock.unschedule(self.decrease_time_default_white) # unschedule white flags=1 represents white time is going
elif(self.flags==0): # unschedule black flags=1 represents black time is going
Clock.unschedule(self.decrease_time_default_black)
labels=self.ids['pause_button']
labels.text="resume" #interchange between resume and pause
self.pause_flag=0
elif(self.pause_flag==0): # if flag=0 clock is paused either side it remains constant
if(self.flags==1):
Clock.schedule_interval(self.decrease_time_default_white,1) # resume time if move belongs to white
elif(self.flags==0):
Clock.schedule_interval(self.decrease_time_default_black,1)
labels=self.ids['pause_button']
labels.text="pause" #interchange the name
self.pause_flag=1
def decrease_time_default_black(self,dt):
if(self.value_time(self.black_time)==0):
white=self.ids['black']
white.background_color=[1,0,0,1]
self.flags=-2
return
self.black_time['second']=str(int(self.black_time['second'])-1)
if(int(self.black_time['second'])<0):
self.black_time['minute']=str(int(self.black_time['minute'])-1)
self.black_time['second']=str(int(self.black_time['second'])+60) #decrease the time in black by 1 sec
if(int(self.black_time['minute'])<0):
self.black_time['hour']=str(int(self.black_time['hour'])-1)
self.black_time['minute']=str(int(self.black_time['minute'])+60)
self.black_string=format_time(self.black_time) # update in the string
def incrementer_black(self):
self.black_time['second']=str(int(self.black_time['second'])+int(self.increment_black_time['second']))
self.black_time['minute']=str(int(self.black_time['minute'])+int(self.increment_black_time['minute']))
self.black_time['hour']=str(int(self.black_time['hour'])+int(self.increment_black_time['hour']))
seconder=int(self.black_time['second'])%60
minuter=int(int(self.black_time['second'])/60)+int(self.black_time['minute'])
hourer=int(self.black_time['hour'])+int(minuter/60)
minuter=minuter%60
hourer=hourer%24
self.black_time['hour']=str(hourer)
self.black_time['minute']=str(minuter)
self.black_time['second']=str(seconder)
self.black_string=format_time(self.black_time)
def incrementer_white(self):
self.white_time['second']=str(int(self.white_time['second'])+int(self.increment_white_time['second']))
self.white_time['minute']=str(int(self.white_time['minute'])+int(self.increment_white_time['minute']))
self.white_time['hour']=str(int(self.white_time['hour'])+int(self.increment_white_time['hour']))
seconder=int(self.white_time['second'])%60
minuter=int(int(self.white_time['second'])/60)+int(self.white_time['minute'])
hourer=int(self.white_time['hour'])+int(minuter/60)
minuter=minuter%60
hourer=hourer%24
self.white_time['hour']=str(hourer)
self.white_time['minute']=str(minuter)
self.white_time['second']=str(seconder)
self.white_string=format_time(self.white_time)
def decrease_time_default_white(self,dt):
if(self.value_time(self.white_time)==0):
white=self.ids['white']
white.background_color=[1,0,0,1]
self.flags=2
return
self.white_time['second']=str(int(self.white_time['second'])-1)
if(int(self.white_time['second'])<0):
self.white_time['minute']=str(int(self.white_time['minute'])-1)
self.white_time['second']=str(int(self.white_time['second'])+60) #decrease the time in black by 1 sec
if(int(self.white_time['minute'])<0):
self.white_time['hour']=str(int(self.white_time['hour'])-1)
self.white_time['minute']=str(int(self.white_time['minute'])+60)
self.white_string=format_time(self.white_time)
def click_setter_black(self ):
white=self.ids['white'] #if clicked on black
black=self.ids['black']
if(self.flags ==-1 and self.value_time(self.black_time)>0 and self.pause_flag==1): # beginning of the game
white.background_color=[1,1,1,1] #running color
black.background_color=[0,1,0,1] #dormant color
self.flags=1
Clock.schedule_interval(self.decrease_time_default_white,1)
print(self.white_string)
elif(self.flags ==-1 and self.value_time(self.black_time)==0 and self.pause_flag==1):
black.background_color=[1,0,0,1]
white.background_color=[1,0,0,1]
self.flags=-2
Clock.unschedule(self.decrease_time_default_black)
Clock.unschedule(self.decrease_time_default_white)
elif(self.flags==0 and self.value_time(self.black_time)>0 and self.pause_flag==1): # if black presses and its his turn
white.background_color=[1,1,1,1]
black.background_color=[0,1,0,1]
self.flags=1
self.incrementer_black()
Clock.unschedule(self.decrease_time_default_black)
Clock.schedule_interval(self.decrease_time_default_white,1)
elif(self.flags==0 and self.value_time(self.black_time)==0 and self.pause_flag==1):
white.background_color=[0,1,1,1]
black.background_color=[1,0,0,1]
self.flags=-2
Clock.unschedule(self.decrease_time_default_black)
Clock.unschedule(self.decrease_time_default_white)
def click_setter_white(self): # similar to black
white=self.ids['white']
black=self.ids['black']
if(self.flags==1 and self.value_time(self.white_time)>0 and self.pause_flag==1):
white.background_color=[0,1,0,1]
black.background_color=[1,1,1,1]
self.flags=0
self.incrementer_white()
Clock.unschedule(self.decrease_time_default_white)
Clock.schedule_interval(self.decrease_time_default_black,1)
elif(self.flags==1 and self.value_time(self.white_time)==0 and self.pause_flag==1):
white.background_color=[1,0,0,1]
black.background_color=[0,1,1,1]
self.flags=2
Clock.unschedule(self.decrease_time_default_black)
Clock.unschedule(self.decrease_time_default_white)
class GameApp(App):
points = kp.NumericProperty(settings.POINTS["game"]["init"])
languages = kp.ListProperty(["", ""])
words = kp.ListProperty()
number_of_words = kp.NumericProperty()
current_word = kp.DictProperty()
last_word = kp.DictProperty()
def build(self):
Window.size = (400, 600)
self.meta_game = MetaGame()
self.bind(words=self.calc_number_of_words)
return self.meta_game
def add_languages(self, lang1, lang2):
self.languages = [lang1, lang2]
def add_word(self, word1, word2):
# print("add_word(%s, %s)" % (word1, word2))
new_word = {self.languages[0]: word1, self.languages[1]: word2}
new_word["points"] = settings.POINTS["word"]["init"]
self.words.append(new_word)
def delete_word(self, word_to_delete="", language=""):
# print("delete_word()", word_to_delete, language)
# word_to_delete could be a string or a dict/obj
if not language:
language = self.languages[0]
if not isinstance(word_to_delete, str):
word_to_delete = word_to_delete[language]
for word in self.words:
if word[language] == word_to_delete:
self.words.remove(word)
return
def calc_number_of_words(self, *args):
# print("number_of_words()", args)
self.number_of_words = len(self.words)
return self.number_of_words
def pick_random_word(self, lang1="", lang2=""):
print("\npick_random_word(%s, %s)" % (lang1, lang2))
if not lang1:
lang1 = self.languages[0]
if not lang2:
lang2 = self.languages[1]
if lang1 not in self.languages or lang2 not in self.languages or lang1 == lang2:
raise Exception("please insert a valid languages not: %s and %s" %
(lang1, lang2))
if len(self.words) == 1:
return self.words[0]
# calc n_of_words_to_choose_from
# it depends of the points, more points -> more degree -> more difficult
# if the degree is 0 all the words have the same prob to appear
# if the degree is high, will always appear the same words (with less points)
n_of_words_to_choose_from = self.number_of_words
print("n_of_words_to_choose_from: %s" % n_of_words_to_choose_from)
degree = int(self.points / 100)
print("degree: %s" % degree)
for _ in range(degree):
n_of_words_to_choose_from = max(
random.randrange(n_of_words_to_choose_from) + 1, 2)
print("n_of_words_to_choose_from: %s" % n_of_words_to_choose_from)
self.order_by("points")
print("self.words:", self.words)
possible_words_to_choose = self.words[0:n_of_words_to_choose_from]
print("possible_words_to_choose", possible_words_to_choose)
word_choosed = random.choice(possible_words_to_choose)
print(word_choosed, self.last_word)
print(word_choosed[self.languages[0]],
self.last_word.get(self.languages[0], ""))
if word_choosed[self.languages[0]] == self.last_word.get(
self.languages[0], ""):
print("word_choosed == self.last_word")
possible_words_to_choose.remove(word_choosed)
word_choosed = random.choice(possible_words_to_choose)
return word_choosed
def check_solution(self, word1, word2):
print("self.languages", self.languages)
for word in self.words:
print("word", word)
if word[self.languages[0]] == word1:
correct_word = word[self.languages[1]]
correct_word = correct_word.split(", ")
# print("correct_word: %s" % correct_word)
correct_word = [word.lower() for word in correct_word]
if word2 and word2.lower() in correct_word:
# print("gain", correct_word == word2, word2 in correct_word)
return True, word
else:
# print("lose", correct_word)
return False, word
def update_word_points(self, word1, word2):
# print("update_word_points(%s, %s)" % (word1, word2))
increase_rate = settings.POINTS["word"]["increase_rate"]
decreased_rate = settings.POINTS["word"]["decreased_rate"]
is_correct, word = self.check_solution(word1, word2)
if is_correct:
word["points"] *= increase_rate
else:
word["points"] /= decreased_rate
return word
def update_points(self, word1, word2):
print("update_points()", self.points)
down4right_words = settings.POINTS["game"]["down4right_words"]
up4wrong_words_a = settings.POINTS["game"]["up4wrong_words_a"]
up4wrong_words_b = settings.POINTS["game"]["up4wrong_words_b"]
is_correct, _ = self.check_solution(word1, word2)
if is_correct:
increment = up4wrong_words_a / (self.points + up4wrong_words_b)
self.points += increment
else:
self.points -= self.points / down4right_words
def order_by(self, what, reverse=False):
print("order_by(%s, %s)" % (what, reverse))
# print(self.words)
if what in ["points"]:
self.words =\
sorted(self.words, key=lambda x: float(x[what]), reverse=reverse)
else:
self.words =\
sorted(self.words, key=lambda x: strip_accents(x[what]), reverse=reverse)
# print(self.words)
return self.words
# GUI:
def update_word_after_check(self, word1, word2):
print("update_word_after_check(%s, %s)" % (word1, word2))
# print("self.current_word: %s" % self.current_word)
self.current_word = self.update_word_points(word1, word2)
self.update_points(word1, word2)
# print("self.current_word: %s" % self.current_word)
game_menu = self.meta_game.manager.game_menu
game_menu.points_label.text = "Word Points: %s" % round(
self.current_word["points"], 2)
game_menu.word_input.text = str(self.current_word[self.languages[1]])
self.save_game()
def update_word(self):
print("update_word()", self.current_word)
self.last_word = self.current_word.copy()
print("self.last_word:", self.last_word)
self.current_word = self.pick_random_word()
print("self.current_word:", self.current_word)
game_menu = self.meta_game.manager.game_menu
game_menu.points_label.text = "Word Points: %s" % round(
self.current_word["points"], 2)
game_menu.word_label.text = self.current_word[self.languages[0]]
game_menu.word_input.text = ""
def quit(self):
print("quit()")
print(self.meta_game.manager.current)
print(self.meta_game.manager.current_screen.previous_screen)
previous_screen = self.meta_game.manager.current_screen.previous_screen
if previous_screen:
self.meta_game.manager.current = previous_screen
else:
exit()
# load / save game:
def load_game(self):
try:
with open(settings.SAVES_FILE) as f:
data = json.load(f)
self.points = data["points"]
self.languages = data["languages"]
self.words = data["words"]
self.calc_number_of_words()
except FileNotFoundError:
pass
def save_game(self):
with open(settings.SAVES_FILE, "w") as f:
data = {
"points": self.points,
"languages": self.languages,
"words": self.words
}
json.dump(data, f, indent=4)
