def _update_children(self, prosp):
mortality = self._mortality["children"] * Utils.opposite(prosp)
n_children = self._children
[dead, grown] = Utils.rsplit(n_children, mortality)
[men, women] = Utils.rsplit(grown, self._grown_rates["men-women"])
# print("Dead children: " + str(dead))
return [-dead, men, women, 0, 0]
def _get_men_availability_factor(young_men, young_women):
if young_women > 0:
men_factor = young_men / young_women
res = (men_factor * 0.5) / 2
return Utils.saturate(Utils.saturate(res, 1.0), men_factor * 3)
else:
return 0
def _update_births(self, prosp):
n_young_men = self._young_men
n_young_women = self._young_women
men_availability_factor = self._get_men_availability_factor(n_young_men, n_young_women)
women_fertility = n_young_women * self._grown_rates["women-fertility"] * Utils.perturbate_high(prosp)
births = round(women_fertility * men_availability_factor)
return [births, 0, 0, 0, 0]
def migrate(group, world, information, verbose):
"""
This event checks if a group migrates from it's current position.
If the event occurs a fact is added to the group.
:param group: The group to check.
:param world: The world.
:param information: A dictionary with the information for the events.
:param verbose: True if the event has to register into facts, False otherwise
"""
if random.random() < chance_to_migrate(group, world, information["occupied_positions"]):
positions = land_cells_around(world, group.position, group.migration_radius, information["occupied_positions"])
prosperity = ([Utils.perturbate_low(group.get_prosperity(world, p)), p] for p in positions)
best = max(prosperity)
group.position = best[1]
fact = "{} is moving to better lands {}.".format(group.name, best[1])
if verbose:
if information["turn"] in group.facts:
group.facts[information["turn"]].append(fact)
else:
group.facts[information["turn"]] = [fact]
if information["turn"] in group.file_facts:
group.file_facts[information["turn"]]['pos'] = best[1]
else:
group.file_facts[information["turn"]] = {'pos': best[1]}
def chance_to_discover_agriculture(group, world):
if group.nomadism != "nomadic" and not ("Agriculture" in group.activities):
agr_prosp = group.get_base_prosperity_per_activity("Agriculture", world, group.position)
p = (agr_prosp - 0.75) * 6.0
p *= discovery_population_factor(group.total_persons, 200)
return Utils.saturate(max(0.0, p), 0.3)
else:
return 0
def chance_to_become_sedentary(group):
if group.nomadism == "semi-sedentary" and "Agriculture" in group.activities:
prosperity = group.prosperity
if prosperity > 0.72:
return Utils.saturate((prosperity - 0.75) / 1.5, 0.2)
else:
return 0
else:
return 0
def get_prosperity_per_activity(self, world, position):
"""
This function returns the prosperity of each activity of group in the given position.
:param world: The world in which the group lives.
:param position: The position to check.
:return: A list with the prosperity for each activity of the group.
"""
prosperity = []
for activity in self.activities:
base = self.get_base_prosperity_per_activity(activity, world, position)
crowding = self._get_crowding_per_activity(activity)
prosperity.append(Utils.saturate(base * crowding, 1.0))
return prosperity
def chance_to_develop_trade(group, occupied_positions):
if group.nomadism == "sedentary" and not group.knows_trade:
neighbours = groups_around(group.position, group.trade_radius, occupied_positions)
if neighbours > 0:
prosperity = group.prosperity
if prosperity > 0.8:
return Utils.saturate((prosperity - 0.78) / 1.3, 0.3)
else:
return 0.05
else:
return 0
else:
return 0
def _update_old(self, prosp):
mortality_men = Utils.saturate(self._mortality["old-men"] * Utils.opposite(prosp), 1.0)
mortality_women = Utils.saturate(self._mortality["old-women"] * Utils.opposite(prosp), 1.0)
n_old_men = self._old_men
n_old_women = self._old_women
[m_dead, m_alive] = Utils.rsplit(n_old_men, mortality_men)
[w_dead, w_alive] = Utils.rsplit(n_old_women, mortality_women)
# print("Dead old men: " + str(m_dead) + " dead old women: " + str(w_dead))
return [0, 0, 0, -m_dead, -w_dead]
def _update_young(self, prosp):
mortality_men = self._mortality["young-men"] * Utils.opposite(prosp)
mortality_women = self._mortality["young-women"] * Utils.opposite(prosp)
n_young_men = self._young_men
n_young_women = self._young_women
[m_dead, m_alive] = Utils.rsplit(n_young_men, mortality_men)
[w_dead, w_alive] = Utils.rsplit(n_young_women, mortality_women)
[m_grown, m_rest] = Utils.rsplit(m_alive, self._grown_rates["old-men"])
[w_grown, w_rest] = Utils.rsplit(w_alive, self._grown_rates["old-women"])
# print("Dead young men: " + str(m_dead) + " dead young women: " + str(w_dead))
return [0, -1 * (m_dead + m_grown), -1 * (w_dead + w_grown), m_grown, w_grown]
def __init__(self, position, tribe, default, id):
"""
This will create a group in the given position, and with the given parameters.
The tribe parameters will be merged with the default ones.
:param position: The position to set the group.
:param tribe: A dictionary containing all the custom parameters for the group.
:param default: A dictionary containing all the default parameters for all the groups.
"""
self._position = position
self.id = id
mix_tribe = copy.deepcopy(tribe)
def_tribe = copy.deepcopy(default)
mix_tribe = Utils.update(mix_tribe, def_tribe)
self._tribe = mix_tribe
self.name = eval(mix_tribe["Name"])(mix_tribe["Name-rules"])
self.type = mix_tribe["Type"]
self._children = random.randrange(0, mix_tribe["Max-initial-population"]["children"])
self._young_men = random.randrange(0, mix_tribe["Max-initial-population"]["young-men"])
self._young_women = random.randrange(0, mix_tribe["Max-initial-population"]["young-women"])
self._old_men = random.randrange(0, mix_tribe["Max-initial-population"]["old-men"])
self._old_women = random.randrange(0, mix_tribe["Max-initial-population"]["old-women"])
self.activities = mix_tribe["Start-activities"]
self._max_populations = mix_tribe["Max-population-for-activity"]
self._biomes_prosperity_per_activity = mix_tribe["Biomes-prosperity-per-activity"]
self._crowding_per_activity = mix_tribe["Crowding-for-activity"]
self._mortality = mix_tribe["Mortality-rates"]
self._grown_rates = mix_tribe["Grown-rates"]
self._last_prosperity = 0
self.nomadism = "nomadic"
self._events = mix_tribe["Events"]
self._migration_radius = mix_tribe["Migration-radius"]
self._migration_rate = mix_tribe["Migration-rate"]
self.facts = {}
self.file_facts = {}
self._wealth = 0
self._wealth_base_multiplier = mix_tribe["Wealth-base-multiplier"]
self._trade_radius = mix_tribe["Trade-base-radius"]
self.knows_trade = False
self.file_facts[0] = {'pos': self._position, 'nomadism': 'nomadic'}
def groups_around_info(pos, radius, groups):
rad = range(-radius, radius + 1)
positions = itertools.product(rad, rad)
occupied = [g.position for g in groups]
g_positions = [Utils.add_list(pos, p) for p in positions if Utils.add_list(pos, p) in occupied and not p == (0, 0)]
return [g for g in groups if g.position in g_positions]
def groups_around(pos, radius, occupied_positions):
rad = range(-radius, radius + 1)
positions = itertools.product(rad, rad)
return len([p for p in positions if Utils.add_list(pos, p) in occupied_positions and not p == (0, 0)])
def land_cells_around(world, pos, radius, occupied_positions):
rad = range(-radius, radius + 1)
positions = itertools.product(rad, rad)
filtered = (Utils.add_list(pos, p) for p in positions if inside_world(world, Utils.add_list(pos, p)))
land = (p for p in filtered if is_land(world, p))
return (p for p in land if p not in occupied_positions)
def chance_to_become_semi_sedentary(group):
prosperity = group.prosperity
if group.nomadism == "nomadic" and prosperity > 0.6:
return Utils.saturate((prosperity - 0.75) / 1.5, 0.1)
else:
return 0
def chance_to_trade(group, information):
if group.knows_trade:
neighbours = groups_around_info(group.position, group.trade_radius, information["groups"])
chance = Utils.saturate(len(neighbours) / (group.trade_radius * group.trade_radius - 1), 0.8)
return [chance, neighbours]
return [0, 0]