async def buy(
self,
ctx,
arg='list'
): # A command to buy an specific item, if argument is not passed, it's returns a list with available items.
economy = Economy(self.bot)
listed_items = self.getItems(ctx)
if arg == 'list':
if not listed_items:
await ctx.channel.send('Not available articles in server')
return
else:
await ctx.channel.send('Available items: ')
for item in listed_items:
await ctx.channel.send(f"{item}: ${listed_items[item]}")
else:
if arg in listed_items:
boolean = economy.checkWallet(ctx, listed_items[arg])
if boolean is True:
await ctx.channel.send('Purchased %s' % (arg))
else:
await ctx.channel.send(
"You don't have enough money to buy this article")
pass
else:
ctx.channel.send('Error 404: Item not found')
def EvaluateMap(chromosome=[0.00, 0.10, 0.10, 0.00], economy=Economy(50)):
# Init economy and map
economy = Economy(50)
gameMap = gamemap.GameMap(economy, 10, 10, *chromosome)
output = Output()
times = 30
mapcopy = copy.deepcopy(gameMap)
armies = [
Game.selectArmy(
economy,
mapcopy,
armyColor="white",
output=Output(),
aUnitPool=['SoldierClass', 'TechnicianClass', 'MageClass'])
for _ in range(times)
]
score = sum(
[Game(economy, mapcopy, army, output, 0.0).run() for army in armies])
print(score / times)
return score / times,
def doMapGenerationComparison():
# Init economy
economy = Economy(500);
# Init messaging
output = ConsoleOutput();
# Set colors
sAttackerColor = "white";
gameMap = GameMap(economy, 10, 10, 0.1, 0.1, 0.05, 0.05);
# Create an army
army = Game.selectArmy(economy, gameMap, "white", output)
# For this army, create 3 maps (1 easy, 1 average, 1 difficult)
for pParams in [(0.01, 0.15, 0.01, 0.01, "easy"), (0.05, 0.15, 0.11, 0.08, "medium"),
(0.03, 0.01, 0.12, 0.08, "difficult")]:
gameMap = GameMap(economy, 10, 10, pParams[0], pParams[1], pParams[2], pParams[3]);
# Run the easy 10 times
allScores = []
for iCnt in range(10):
score = runGameMap(economy, gameMap, army, output)
allScores += [score]
os.rename("GameTimeline.json", "GameTimeline%s.json"%(pParams[4]))
print str(pParams) + ":" + str(allScores)
def __init__(self, data_path, data=None):
self.default_price = 1
economy = Economy(data_path)
self.goods = economy.goods
self.bids = {}
self.offers = {}
if data is None:
self.prices = {}
self.momentums = {}
else:
self.prices = data['prices']
if "momentums" in data:
self.momentums = data['momentums']
else:
self.momentums = {}
for good_name in self.goods:
if good_name not in self.prices or "coin" in good_name:
if "default_price" in self.goods[good_name]:
self.prices[good_name] = self.goods[good_name][
'default_price']
else:
self.prices[good_name] = self.default_price
if good_name not in self.momentums:
self.momentums[good_name] = 0
def printMap(params):
economy = Economy(50)
gameMap = gamemap.GameMap(economy, 10, 10, *params)
output = ConsoleOutput()
output.drawMap(gameMap, [], [])
print(gameMap)
def main():
random_seed = np.random.randint(4294967295)
parameters = {
"random_seed": random_seed,
"n_generations": 100,
"n_periods_per_generation": 30,
"n_goods": 5,
"n_agents": 100,
"p_mutation": 0.1,
"mating_rate": 0.3
}
e = Economy(**parameters)
e.run()
def setUp(self):
self.e = Economy(
'Honolulu',
'pv', 'wine',
qy ** sp.Rational(1,2) * qx ** (sp.Rational(1,2)),
make_ellipsoid_ppf(170,170),
[0.2, 0.2, 0.2]
)
def main(argv): # take pkd and int as arguments
filename = "../savedata/" + argv[1] + ".pkl"
try:
with open(filename, "rb") as load_file:
economy = pickle.load(load_file)
except FileNotFoundError:
economy = Economy()
open(filename, "w+")
try:
generations = int(argv[2])
except ValueError:
print("Error: Invalid input: " + argv[2])
return
while generations > 0:
economy.pass_generation()
generations -= 1
with open(filename, "wb") as save_file:
pickle.dump(economy, save_file)
def main():
economy = Economy()
output = Output()
curmap = GameMap(economy)
myevol = RandomUnitEvolution()
print(
myevol.evolveEachUnit(
economy, curmap, Game.selectArmy(economy, curmap, "white",
output)))
def doAgentTrainingComparison():
# Init economy
economy = Economy(500);
# Init messaging
output = ConsoleOutput();
# Set colors
sAttackerColor = "white";
# A medium map
gameMap = GameMap(economy, 10, 10, 0.05, 0.15, 0.11, 0.08);
# Create an army
# Select an army
army = Game.selectArmy(economy, gameMap, "white", output)
# Run game on map 10 times
allScores = []
for iCnt in range(10):
score = runGameMap(economy, gameMap, army, output)
allScores += [score]
# Record avg performance
os.rename("GameTimeline.json", "GameTimeline%s.json" % ("Untrained"))
print str("Scores for Untrained") + ":" + str(allScores)
# Evolve army RANDOM
myevol = RandomUnitEvolution()
myevol.evolveEachUnit(economy, gameMap, army)
# Reset scores
allScores = []
# Run game on map 10 times
# Record avg performance
for iCnt in range(10):
score = runGameMap(economy, gameMap, army, output)
allScores += [score]
os.rename("GameTimeline.json", "GameTimeline%s.json" % ("TrainedRandom"))
print str("Scores for TrainedRandom") + ":" + str(allScores)
# Reset scores
allScores = []
# Evolve army GENETIC
MapBuilder.unit_evolver.getArmy(army, gameMap, economy)
# Run game on map 10 times
# Record avg performance
for iCnt in range(10):
score = runGameMap(economy, gameMap, army, output)
allScores += [score]
# Record avg performance
os.rename("GameTimeline.json", "GameTimeline%s.json" % ("TrainedGenetic"))
print str("Scores for TrainedGenetic") + ":" + str(allScores)
def compute(random_seed):
parameters = {
"mating_rate": 0.3,
"max_production": 10,
"n_agents": 300,
"n_generations": 10**4,
"n_goods": 3,
"n_periods_per_generation": 5,
"p_mutation": 0.1,
"production_advantages": [4, 2, 0.5],
"production_costs": [4, 2, 2],
"random_seed": random_seed,
"u": 10
}
e = Economy(**parameters)
return parameters, e.run()
def __init__(self, city, data_path, data=None):
self.city = city
self.economy = Economy(data_path)
self.goods = self.economy.goods
self.recipes = self.economy.recipes
self.professions = self.economy.professions
self.one_round_food = 5
self.utility_of_money = 0
if data:
self.money = data['money']
self.first_name = data['first_name']
self.last_name = data['last_name']
self.skills = data['skills']
self.affinities = data['affinities']
self.possessions = data['possessions']
self.birthdate = data['birthdate']
else:
#print("RESTARTING")
self.money = self.economy.default_money
name = generate_a_name()
self.first_name = name['first_name']
self.last_name = name['last_name']
self.skills = {}
self.affinities = {}
self.possessions = {}
self.birthdate = random.randrange(20, 100)
for profession in self.professions:
if profession not in self.skills:
self.skills[profession] = random.randrange(0, 101)
for good_name in self.goods:
good = self.goods[good_name]
if good_name not in self.affinities:
affinity = 0
if 'function_for_affinity' in good:
affinity = rvp_parse(good['function_for_affinity'])
self.affinities[good_name] = affinity
if good_name not in self.possessions:
self.possessions[good_name] = 0
self.margin = 0
def fun(args):
n_periods_per_generation = int(args[0])
random_seed = np.random.randint(4294967295)
# random_seed = 4043318547
parameters = {
"random_seed": random_seed,
"n_generations": 50,
"n_periods_per_generation": n_periods_per_generation,
"n_goods": 3,
"n_agents": 1000,
"p_mutation": 0.05
}
e = Economy(**parameters)
backup = e.run()
return np.mean(backup["production_diversity"][-10:])
def __init__(self, data_path, city_data):
self.data_path = data_path
self.file_name = data_path + city_data['file']
self.name = city_data['name']
self.default_population = city_data['default_population']
self.economy = Economy(data_path)
self.history = None
self.potentials = {}
for profession in self.economy.professions:
self.potentials[profession] = 50
for potential in city_data['potentials']:
self.potentials[potential] = city_data['potentials'][potential]
if os.path.isfile(self.file_name):
self.load()
else:
self.init()
from economy import Economy
economy = Economy(
id="MISTAH_KURTZ",
numeric_id=3,
# as of May 2015 the following cargos must have fixed positions if used by an economy:
# passengers: 0, mail: 2, goods 5, food 11
# keep the rest of the cargos alphabetised
# bump the min. compatible version if this list changes
cargos=[
'passengers', 'alcohol', 'mail', 'building_materials', 'cassava',
'goods', 'chemicals', 'clay', 'coffee', 'copper', 'copper_ore', 'food',
'diamonds', 'edible_oil', 'engineering_supplies', 'farm_supplies',
'fruits', 'livestock', 'lumber', 'maize', 'manganese', 'nuts', 'oil',
'petrol', 'phosphate', 'rubber', 'sand', 'stone', 'wood'
])
# coding: utf-8
import locale
from discord.ext import commands
from base import DISCORD_LOCALE, DISCORD_OPERATOR, DISCORD_TOKEN
from condorcet import Condorcet
from birthday import HappyBirthday
from rolemanager import RoleManager
from economy import Economy
if __name__ == '__main__':
locale.setlocale(locale.LC_ALL, DISCORD_LOCALE)
bot = commands.Bot(command_prefix=DISCORD_OPERATOR)
bot.add_cog(Condorcet(bot))
bot.add_cog(HappyBirthday(bot))
bot.add_cog(RoleManager(bot))
bot.add_cog(Economy(bot))
bot.run(DISCORD_TOKEN)
economy = Economy(
id="BETTER_LIVING_THROUGH_CHEMISTRY",
numeric_id=2,
# as of May 2015 the following cargos must have fixed positions if used by an economy:
# passengers: 0, mail: 2, goods 5, food 11
# keep the rest of the cargos alphabetised
# bump the min. compatible version if this list changes
cargos=[
"passengers",
"alcohol",
"mail",
"aluminium",
"ammonia",
"ammonium_nitrate",
"chlorine",
"cleaning_agents",
"copper",
"electrical_parts",
"engineering_supplies",
"food", # must be in slot 11
"ethylene",
"explosives",
"farm_supplies",
"fish",
"food_additives",
"furniture",
"glass",
"grain",
"hydrochloric_acid",
"limestone",
"livestock",
"lumber",
"lye",
"milk",
"methanol",
"naphtha",
"oil",
"packaging",
"paints_and_coatings",
"petrol",
"phosphate",
"phosphoric_acid",
"plant_fibres", # should be cotton?
"plastics",
"potash",
"propylene",
"rubber", # includes synthetic rubber, export only
"salt",
"sand",
"soda_ash",
"steel",
"sulphur",
"sulphuric_acid",
"textiles",
"tinplate",
"urea",
"vehicles",
],
)
army[index].strategy.riskiness = {
"SoldierClass": evolvedParams[2],
"TrapClass": evolvedParams[3],
"TowerClass": evolvedParams[4]
}
# Base probability to get closer to interact
army[index].strategy.fasting = evolvedParams[5]
# Base probability to return if hungry
army[index].strategy.greed = evolvedParams[6]
for u in army[:5]:
print u.strategy.curiosity
# scores.sort(reverse=True)
# for score in scores[:5]:
# print(score)
return army
if __name__ == "__main__":
economy = Economy()
output = Output()
curmap = gamemap.GameMap(economy)
army = Game.selectArmy(
economy,
curmap,
armyColor="white",
output=Output(),
aUnitPool=['SoldierClass', 'TechnicianClass', 'MageClass'])
economy = Economy(
id="BASIC_ARCTIC",
numeric_id=1,
# as of May 2015 the following cargos must have fixed positions if used by an economy:
# passengers: 0, mail: 2, goods 5, food 11
# keep the rest of the cargos alphabetised
# bump the min. compatible version if this list changes
cargos=[
"passengers",
"ammonia",
"mail",
"engineering_supplies",
"explosives",
"farm_supplies",
"fertiliser",
"fish",
"kaolin",
"logs",
"lumber",
"food",
"paper",
"peat",
"phosphate",
"potash",
"pyrite_ore",
"sulphur",
"zinc",
],
# as of March 2021 this cargoflow tuning is a temporary patch up, might need more work
cargoflow_graph_tuning={
"group_edges_subgraphs": [],
"ranking_subgraphs": [
("sink", ["T_town_industries", "T_towns_food"]),
],
"clusters": [
# {"nodes": [], "rank": "", "color": ""},
],
},
)
economy = Economy(
id="STEELTOWN",
numeric_id=5,
# as of May 2015 the following cargos must have fixed positions if used by an economy:
# passengers: 0, mail: 2, goods 5, food 11
# keep the rest of the cargos alphabetised
# bump the min. compatible version if this list changes
cargos=[
"passengers",
"acid",
"mail",
"alloy_steel",
"aluminium",
"vehicles", # no goods?
"carbon_black",
"carbon_steel",
"cast_iron",
"cement",
"chlorine",
"food",
"cleaning_agents",
"coal",
"coal_tar",
"coke",
"electrical_parts",
"engineering_supplies",
"farm_supplies",
"ferrochrome",
"glass",
"iron_ore",
"limestone",
"lye",
"manganese",
"oxygen",
"paints_and_coatings",
"pig_iron",
"pipe",
"plastics",
"quicklime",
"rubber",
"salt",
"sand",
"scrap_metal",
"slag",
"soda_ash",
"stainless_steel",
"steel_sections",
"steel_sheet",
"steel_wire_rod",
"sulphur",
"tyres",
"vehicle_bodies",
"vehicle_engines",
"vehicle_parts",
"zinc",
"potash",
],
# as of April 2021 this cargoflow graph is really as optimised as can be
# the pacemaker is the salt -> chlor-alkali -> acid chain which requires 15 steps in horizontal rank
# this limits how big the font / industry images can be
# I've tried using vertical edges or reversed edges to cut the number of steps, but it makes the overall flow less legible
cargoflow_graph_tuning={
"group_edges_subgraphs": [
["basic_oxygen_furnace", "electric_arc_furnace"],
["pig_iron"] # groups edges can be set for a single node
],
"ranking_subgraphs": [
("source", ["potash_mine", "quarry", "farm", "coal_mine"]),
("same", ["chlor_alkali_plant", "lime_kiln", "cryo_plant"]),
("same", ["wire_and_section_mill", "sheet_and_pipe_mill"]),
("same", ["cleaning_agents", "zinc", "cement"]),
(
"same",
[
"component_factory",
"body_plant",
"engine_plant",
"tyre_plant",
],
),
(
"same",
[
"plastics",
"alloy_steel",
"stainless_steel",
"glass",
"sulphur",
"aluminium",
],
),
("sink", [
"assembly_plant", "vehicles", "T_town_industries",
"T_towns_vehicles"
]),
],
"clusters": [
{
"nodes": ["blast_furnace", "pig_iron", "basic_oxygen_furnace"],
"rank": "same",
},
{
"nodes": ["oxygen", "quicklime"],
"rank": "same",
"color": "white"
},
{
"nodes": ["junk_yard", "scrap_metal", "electric_arc_furnace"],
"rank": "same",
},
{
"nodes": ["quarry", "limestone_mine"],
"rank": "source",
"color": "white",
},
{
"nodes": ["bulk_terminal", "food", "chlorine", "potash"],
"color": "white",
},
{
"nodes": ["pipe", "steel_sections", "cement", "lye"],
"rank": "same",
"color": "white",
},
{
"nodes": ["coal", "coal_mine", "coke_oven"],
"rank": "same"
},
{
"nodes": ["carbon_steel", "acid"],
"rank": "same",
"color": "white"
},
{
"nodes": ["coal_tar", "carbon_black_plant", "carbon_black"],
"rank": "source",
},
{
"nodes": [
"stainless_steel",
"alloy_steel",
"plastics",
"electrical_parts",
],
"color":
"white",
},
{
"nodes": ["glass", "paints_and_coatings", "steel_sheet"],
"rank": "same",
"color": "white",
},
{
"nodes": ["sulphur", "rubber", "steel_wire_rod"],
"rank": "source",
"color": "white",
},
{
"nodes": ["aluminium", "cast_iron"],
"rank": "source",
"color": "white",
},
{
"nodes": [
"assembly_plant",
"vehicle_parts",
"tyres",
"vehicle_engines",
"vehicle_bodies",
],
"color":
"white",
},
],
},
)
def main() :
print("We can run the economy, Captain!")
start_time = time.time()
# TODO: create list of cities
data_path = "dat/"
with open(data_path + "economy.json") as json_file:
economy_raw = json.load(json_file)
json_file.close()
cities_raw = economy_raw['cities']
history_file = "history.json"
cities = []
histories = []
if os.path.isfile(history_file) :
if "reset" not in sys.argv:
with open(history_file, "r") as fd:
histories = json.load(fd)
fd.close()
for city_data in cities_raw:
if "reset" in sys.argv:
filename = data_path + city_data['file']
if os.path.isfile(filename):
os.remove(filename)
city = City(data_path, city_data)
if city.name in histories:
city.history = histories[city.name]
cities.append(city)
days_to_simulate = 1
for arg in sys.argv:
try:
days_to_simulate = int(arg)
except:
pass
stop_up_time = time.time()
print("start up % 6ld s" % (stop_up_time - start_time))
for i in range(days_to_simulate):
for city in cities:
print("%s Day %d" % (city.name, city.day))
start_inner_time = time.time()
city.advance_day()
stop_inner_time = time.time()
print("city cycle %d % 6ld s" % (i, stop_inner_time - start_inner_time))
end_time = time.time()
seconds = end_time - start_time
millis = seconds * 1000
minutes = seconds / 60
hours = minutes / 60
millis %= 1000
seconds %= 60
minutes %= 60
print("%02d:%02d:%02d.%03d" % (hours, minutes, seconds, millis))
histories = {}
for city in cities:
city.save()
histories[city.name] = city.history
with open("prices.json", "w") as fd:
city_prices = {}
for city in cities:
city_prices[city.name] = city.market.prices
json.dump(city_prices, fd)
fd.close()
with open(history_file, "w") as fd:
#json.dump(histories, fd, indent=2)
json.dump(histories, fd)
economy = Economy(data_path)
economy.reset()
economy = Economy(
id="IN_A_HOT_COUNTRY",
numeric_id=3,
# as of May 2015 the following cargos must have fixed positions if used by an economy:
# passengers: 0, mail: 2, goods 5, food 11
# keep the rest of the cargos alphabetised
# bump the min. compatible version if this list changes
cargos=[
"passengers",
"alcohol",
"mail",
"building_materials",
"cassava",
"goods",
"chemicals",
"clay",
"coffee",
"copper",
"copper_ore",
"food",
"diamonds",
"edible_oil",
"engineering_supplies",
"farm_supplies",
"fruits",
"livestock",
"lumber",
"maize",
"manganese",
"nuts",
"oil",
"petrol",
"phosphate",
"rubber",
"sand",
"stone",
"wood",
],
cargoflow_graph_tuning={
"group_edges_subgraphs": [],
"ranking_subgraphs": [
("same", ["port", "goods"]),
("sink", ["T_town_industries", "N_force_rank"]),
],
"clusters": [
#{"nodes": [], "rank": "", "color": ""},
],
},
)
def set_up_economy(i):
print "Please follow us to set up all the details."
raw_input()
'''I'm asking the user to determine the 3 important numbers of ECON world.
These numbers determine the structure of ECON world.'''
number_of_goods = int(
input(
"Please enter the number of goods (the first good will be vaccination):"
))
while not number_of_goods >= 1:
print 'You should have at least ONE good in economy.'
number_of_goods = int(
input(
"Please enter the number of goods (the first good will be vaccination):"
))
number_of_factors = int(input("Please enter the number of factors:"))
while not number_of_factors >= 1:
print 'You should have at least ONE factor in economy.'
number_of_goods = int(
input(
"Please enter the number of goods (the first good will be vaccination):"
))
gamma = float(input("Please enter the gamma of your economy:"))
while not gamma < 1 or gamma == 0:
print 'Please make sure gamma is smaller than 1 and not equal to 0.'
gamma = float(input("Please enter the gamma of your economy:"))
number_of_types = int(
input("Please determine how many types of consumers(more than 1):"))
while not number_of_types >= 1:
print 'You should have at least ONE type of consumer in economy.'
number_of_types = int(
input(
"Please determine how many types of consumers(more than 1):"))
number_of_consumers_by_type = []
for i in range(number_of_types):
number_of_consumers_by_type.append(
int(
input(
'Please determine how many consumers(more than 1) in type %s:'
% (i))))
total_number_of_consumers = int(sum(number_of_consumers_by_type))
print "\n Now let's set the parameters for goods"
raw_input()
Goods = [[]] * number_of_goods
for g in range(number_of_goods):
if g == 0:
Goods[g] = Good(
float(
input('Please determine ksi for good %s(more than 1):' %
(g))), 'public')
while not Goods[g] >= 0.0:
print 'ksi for good should not be smaller than 0.'
Goods[g] = Good(
float(
input(
'Please determine ksi for good %s(more than 1):' %
(g))), 'public')
else:
Goods[g] = Good(
float(
input('Please determine ksi for good %s(more than 1):' %
(g))), 'private')
while not Goods[g] >= 0.0:
print 'ksi for good should not be smaller than 0.'
Goods[g] = Good(
float(
input(
'Please determine ksi for good %s(more than 1):' %
(g))), 'private')
print "\n Now let's set the parameters for factors"
raw_input()
Factors = [[]] * number_of_factors
for f in range(number_of_factors):
Factors[f] = Factor(
float(
input('Please determine theta for factor %s(more than 1):' %
(f))))
while not Factors[f] >= 0.0:
print 'Theta should be greater than 0.'
Factors[f] = Factor(
float(
input(
'Please determine theta for factor %s(more than 1):' %
(f))))
print "\n Now let's set the parameters for consumers"
raw_input()
alphas = [[]] * number_of_types
betas = np.zeros(number_of_types)
for ty in range(number_of_types):
para = np.array(
input('Please enter the alphas and beta for consumer type %s:' %
(ty)))
while len(para) != number_of_goods + 1:
para=np.array(input("Make sure you enter %s parameters. \n" \
"Please enter the alphas and beta for consumer type %s:" %(number_of_goods+1,ty)))
alphas[ty] = np.array(para[0:number_of_goods])
betas[ty] = para[number_of_goods]
while not np.all(alphas[ty] > 0.0) or not np.sum(
alphas[ty]) == 1.0 or not betas[ty] >= 0.0:
print 'Make sure that alphas and beta are positive or that sum of alpha equals to 1.'
para = np.array(
input(
'Please enter the alphas and beta for consumer type %s:' %
(ty)))
alphas[ty] = np.array(para[0:number_of_goods])
betas[ty] = para[number_of_goods]
print "\n Now let's set the parameters for producers"
raw_input()
psis = [[]] * number_of_goods
for g in range(number_of_goods):
psis[g] = np.array(
input('Please enter the psis for the production of good %s:' %
(g)))
while not np.all(psis[g] > 0):
print 'Make sure psis be positive.'
psis[g] = np.array(
input('Please enter the psis for the production of good %s:' %
(g)))
ECO = Economy(gamma, number_of_goods, number_of_factors, number_of_types,
number_of_consumers_by_type, total_number_of_consumers,
Goods, Factors, alphas, betas, psis)
return ECO
from economy import Economy
economy = Economy(
id="BASIC_TEMPERATE",
numeric_id=0,
# as of May 2015 the following cargos must have fixed positions if used by an economy:
# passengers: 0, mail: 2, goods 5, food 11
# keep the rest of the cargos alphabetised
# bump the min. compatible version if this list changes
cargos=[
"passengers",
"alcohol",
"mail",
"chemicals",
"coal",
"goods",
"engineering_supplies",
"farm_supplies",
"fish",
"fruits",
"iron_ore",
"food",
"kaolin",
"livestock",
"milk",
"sand",
"scrap_metal",
"steel",
],
)
economy = Economy(id = "FIRS",
numeric_id = 2,
# as of May 2015 the following cargos must have fixed positions if used by an economy:
# passengers: 0, mail: 2, goods 5, food 11
# keep the rest of the cargos alphabetised
# bump the min. compatible version if this list changes
cargos = ['passengers',
'alcohol',
'mail',
'bauxite',
'building_materials',
'goods',
'chemicals',
'clay',
'coal',
'engineering_supplies',
'farm_supplies',
'food',
'fish',
'fruits',
'grain',
'iron_ore',
'livestock',
'lumber',
'packaging',
'metal',
'milk',
'oil',
'petrol',
'plant_fibres',
'recyclables',
'sand',
'scrap_metal',
'stone',
'sugar_beet',
'wood',
'wool'])
# Get rid of deep map copy
del mapInstance
# Actually render
pygame.display.flip()
def saveToFile(self, sFilename):
fOut = open(sFilename, 'w')
fOut.write(self.msg)
fOut.close()
if __name__ == "__main__":
# Init economy and map
economy = Economy(5000)
gameMap = gamemap.GameMap(economy, 20, 20)
output = Output()
# Init army
# Set colors
sAttackerColor = (255, 255, 255)
army = Game.selectArmy(
economy,
gameMap,
sAttackerColor,
output,
[
"AssassinClass",
"BarbarianClass",
"DruidClass",
"EnchanterClass",
from economy import Economy
economy = Economy(id = "BASIC_TEMPERATE",
numeric_id = 0,
# as of May 2015 the following cargos must have fixed positions if used by an economy:
# passengers: 0, mail: 2, goods 5, food 11
# keep the rest of the cargos alphabetised
# bump the min. compatible version if this list changes
cargos = ['passengers',
'alcohol',
'mail',
'chemicals',
'clay',
'goods',
'coal',
'engineering_supplies',
'farm_supplies',
'fish',
'fruits',
'food',
'iron_ore',
'livestock',
'milk',
'sand',
'scrap_metal',
'steel'])
import sys
from economy import Economy
from reverse_polish import rvp_parse
data_path = "dat/"
economy = Economy(data_path)
recipes = economy.recipes
max = 0
max_action = ""
def draw_function():
for recipe in recipes:
if "mine gold" in recipe['action']:
break
print(recipe)
line = "% 4s | " % ("")
for skill in range(0, 101, 2):
line += str("% 3d" % (skill))
print(line)
line_length = len(line)
line = ""
for i in range(line_length):
line += "-"
print(line)
from economy import Economy
economy = Economy(id = "BASIC_TROPIC",
numeric_id = 4,
# as of May 2015 the following cargos must have fixed positions if used by an economy:
# passengers: 0, mail: 2, goods 5, food 11
# keep the rest of the cargos alphabetised
# bump the min. compatible version if this list changes
cargos = ['passengers',
'alcohol',
'mail',
'beans',
'chemicals',
'goods',
'coffee',
'copper',
'copper_ore',
'engineering_supplies',
'farm_supplies',
'food', # has to be out of order for compatibility
'fish',
'fruits',
'grain',
'livestock',
'nitrates',
'oil',
'wool'])
from economy import Economy
economy = Economy(
id="BASIC_ARCTIC",
numeric_id=1,
# as of May 2015 the following cargos must have fixed positions if used by an economy:
# passengers: 0, mail: 2, goods 5, food 11
# keep the rest of the cargos alphabetised
# bump the min. compatible version if this list changes
cargos=[
'passengers', 'kaolin', 'mail', 'engineering_supplies',
'farm_supplies', 'goods', 'paper', 'pyrite_ore', 'alcohol', 'lumber',
'phosphate', 'food', 'explosives', 'zinc', 'fish', 'sulphur',
'fertiliser', 'wood', 'peat'
])
