def test21():
# d=sim.Pdf((sim.Uniform(10,20),10,sim.Uniform(20,30),80,sim.Uniform(30,40),10))
d=sim.Pdf((sim.Uniform(10,20),sim.Uniform(20,30),sim.Uniform(30,40)),(10,80,10))
for i in range(20):
print (d.sample())
def process(self):
while True:
yield self.hold(thinkingtime_mean * sim.Uniform(0.5, 1.5)(),
mode='thinking')
yield self.request(self.leftfork, self.rightfork, mode='waiting')
yield self.hold(eatingtime_mean * sim.Uniform(0.5, 1.5)(),
mode='eating')
self.release()
def process(self):
while True:
thinkingtime = sim.Uniform(0.5, 1.5).sample() * thinkingtime_mean
eatingtime = sim.Uniform(0.5, 1.5).sample() * eatingtime_mean
yield self.hold(thinkingtime, mode='thinking')
yield self.request(self.leftfork, self.rightfork, mode='waiting')
yield self.hold(eatingtime, mode='eating')
self.release()
def process(self):
global status
while (status=="active"):
for _ in range(n_placas_dia):
Placa()
yield self.hold(sim.Uniform(5, 15).sample())
for _ in range(n_rodas_dia):
Roda()
yield self.hold(sim.Uniform(5,15).sample())
for _ in range(n_produtos_dia):
Finish()
yield self.hold(sim.Uniform(5, 15).sample())
def process(self):
# Attendo un tempo casuale tra oggi e il giorno dell'appuntamento per cancellarlo
yield self.hold(
sim.Uniform(
0,
int(self.appointment.info['relative_visit_day'] - env.now())))
self.appointment.activate()
def process(self):
global horario
while (horario == "aberta"):
for _ in range(n_placas_por_dia):
Prancha()
yield self.hold(sim.Uniform(5, 15).sample())
for _ in range(n_rodas_por_dia):
Roda()
yield self.hold(sim.Uniform(5,15).sample())
for _ in range(n_produtos_por_dia):
Finish()
yield self.hold(sim.Uniform(5, 15).sample())
def process(self):
while True:
yield self.hold(sim.Exponential(iat).sample())
ship = Ship(name=sidename(self.side) + 'ship.')
ship.side = self.side
ship.length = meanlength * sim.Uniform(2 / 3, 4 / 3).sample()
if lock.mode() == 'Idle':
lock.activate()
def process(self):
while True:
yield self.hold(sim.Uniform(1, 5)())
res = sim.Pdf(resources, 1)()
yield self.request(res)
yield self.hold(res.sequence_number() * 1 +
(env.now() % 24) * 0.01)
self.release()
def process(self):
while True: # Continuous loop
discharge_ports = ["Teeside", "Stenungsund", "Nynashamn", "Huelva"]
Cargo(load_port="Rotterdam",
discharge_port=random.choice(discharge_ports))
yield self.hold(
sim.Uniform(CARGO_INTERVAL_LOWER,
CARGO_INTERVAL_UPPER).sample())
def process(self):
while True:
Customer().enter(waitingline)
for clerk in clerks:
if clerk.ispassive():
clerk.activate()
break # activate only one clerk
yield self.hold(sim.Uniform(5, 15).sample())
def process(self):
yield self.request(washers)
duration = sim.Uniform(0, 5)()
self.duration_anim = sim.AnimateRectangle((0, 0, duration * 10, 20), fillcolor='',
linecolor='yellow', x=100, y=self.my_y, arg=self, parent=self)
self.wait_anim.fillcolor = 'yellow'
self.wait_anim.x = 100
yield self.hold(duration)
def process(self):
while True: # Infinite loop to generate ships
yield self.hold(sim.Exponential(iat).sample())
ship = Ship(name=sidename(self.side) +
"ship.") # The name os the ship is lship.# of rship.#
ship.side = self.side
ship.length = meanlength * sim.Uniform(2.0 / 3, 4.0 / 3).sample()
if lock.mode() == "Idle": # If lock is idle then activate it
lock.activate()
def process(self):
while True: # Continuous loop
while len(cargo_queue) == 0:
yield self.passivate()
print("Departure ballast to load port")
yield self.hold(
sim.Uniform(BALLAST_TRAVEL_TIME_MIN,
BALLAST_TRAVEL_TIME_MAX).sample())
print("Arrive ballast at load port")
self.cargo = cargo_queue.pop()
print("Cargo loaded")
print("Departure laden load port")
yield self.hold(
sim.Uniform(LADEN_TRAVEL_TIME_MIN,
LADEN_TRAVEL_TIME_MAX).sample())
print("Arrive laden discharge port")
self.cargo.activate()
print("Cargo discharged")
def test39():
class C(sim.Component):
def process(self):
yield self.request(r,s='y')
env=sim.Environment(trace=True)
x=sim.Uniform(4)
r = sim.Resource()
C()
env.run(4)
def execute_voyage(self):
print("{:.2f} - {}: Departure ballast to {}".format(
env.now(), self.name(), self.cargo.load_port))
yield self.hold(
sim.Uniform(BALLAST_TRAVEL_TIME_MIN,
BALLAST_TRAVEL_TIME_MAX).sample())
print("{:.2f} - {}: Arrive ballast at {}".format(
env.now(), self.name(), self.cargo.load_port))
yield self.hold(LOAD_DISCHARGE_TIME)
print("{:.2f} - {}: Cargo loaded at {}".format(env.now(), self.name(),
self.cargo.load_port))
print("{:.2f} - {}: Departure laden to {}".format(
env.now(), self.name(), self.cargo.discharge_port))
yield self.hold(
sim.Uniform(LADEN_TRAVEL_TIME_MIN, LADEN_TRAVEL_TIME_MAX).sample())
print("{:.2f} - {}: Arrive laden at {}".format(
env.now(), self.name(), self.cargo.discharge_port))
self.cargo.activate()
print("{:.2f} - {}: Cargo discharged".format(env.now(), self.name()))
def execute_voyage(self):
print("{:.2f} - {}: Departure ballast to {}".format(env.now(), self.name(), self.cargo.load_port))
yield self.hold(sim.Uniform(BALLAST_TRAVEL_TIME_MIN, BALLAST_TRAVEL_TIME_MAX).sample())
print("{:.2f} - {}: Arrive ballast at {}".format(env.now(), self.name(), self.cargo.load_port))
yield self.hold(LOAD_DISCHARGE_TIME)
print("{:.2f} - {}: Cargo loaded at {}".format(env.now(), self.name(), self.cargo.load_port))
travel_time_laden = self.cargo.distance/CRUISE_SPEED/24
print("{:.2f} - {}: Departure laden to {} (Distance: {} NM, Travel time: {:.2f} days)".format(env.now(), self.name(), self.cargo.discharge_port, self.cargo.distance, travel_time_laden))
yield self.hold(travel_time_laden)
print("{:.2f} - {}: Arrive laden at {}".format(env.now(), self.name(), self.cargo.discharge_port))
self.cargo.activate()
print("{:.2f} - {}: Cargo discharged".format(env.now(), self.name()))
def process(self):
yield self.request(washers)
duration = sim.Uniform(0, 5)()
self.duration_anim = sim.AnimateRectangle(
spec=(0, 0, duration * 10, 20),
x=100,
y=lambda arg, t: arg.index(self.queues()[0]) * 30 + 50,
fillcolor='',
linecolor='yellow',
arg=self,
parent=self)
self.wait_anim.fillcolor = 'yellow'
self.wait_anim.x = 100
yield self.hold(duration)
def test3():
print('test3')
sim.Environment(random_seed=1234567)
print('string')
d = sim.Distribution('Exponential (1000)')
sample_and_print(d, 5)
sim.random_seed(1234567)
sample_and_print(d, 5)
sim.random_seed(None)
sample_and_print(d, 5)
print('triangular')
tr = sim.Triangular(1, 5, 3)
sample_and_print(tr, 5)
print('uniform')
u = sim.Uniform(1, 1.1)
sample_and_print(u, 5)
print('constant')
c = sim.Constant(10)
sample_and_print(c, 5)
print('normal')
n = sim.Normal(1, 2)
sample_and_print(n, 5)
sample_and_print(n, 5)
print('cdf')
cdf = sim.Cdf((1, 0, 2, 25, 2, 75, 3, 100))
sample_and_print(cdf, 5)
sample_and_print(cdf, 5)
print('pdf')
pdf = sim.Pdf((1, 2), 1)
sample_and_print(pdf, 5)
print('pdf 1')
pdf = sim.Pdf((sim.Uniform(10, 20), 10, sim.Uniform(20, 30), 80,
sim.Uniform(30, 40), 10))
sample_and_print(pdf, 5)
print('pdf 2')
pdf = sim.Pdf(
(sim.Uniform(10, 20), sim.Uniform(20, 30), sim.Uniform(30, 40)),
(10, 80, 10))
sample_and_print(pdf, 5)
print('pdf 3')
pdf = sim.Pdf(('red', 'green', 1000), (10, 1, 10))
sample_and_print(pdf, 5)
def process(self):
env.print_trace('', self.name(), 'arrrived')
patience = sim.Uniform(MIN_PATIENCE, MAX_PATIENCE).sample()
yield self.request(counter, fail_delay=patience)
wait = env.now() - self.creation_time()
if self.failed():
# We reneged
env.print_trace('', self.name(),
'RENEGED after {:6.3f}'.format(wait))
else:
# We got to the counter
env.print_trace('', self.name(), 'waited for {:6.3f}'.format(wait))
yield self.hold(sim.Exponential(TIME_IN_BANK).sample())
env.print_trace('', self.name(), 'finished')
def process(self):
self.live_till = env.now() + int(sim.Uniform(60, 90).sample())
env.print_trace('', '', 'going to live till',
'{:13.3f}'.format(self.live_till))
if env.king is None: # there is no king, so this prince will become king, immediately
kings.append(('no king', env.lastkingdied, env.now(),
env.now() - env.lastkingdied))
env.king = self
else:
yield self.wait((king_died, True, -env.now()),
fail_at=self.live_till)
if self.failed(): # the prince dies before getting to the throne
env.print_trace('', '', 'dies before getting to the throne')
return
env.king = self
env.print_trace('', '', 'vive le roi!', env.king.name())
kings.append((self.name(), env.now(), self.live_till,
self.live_till - env.now()))
yield self.hold(till=self.live_till)
env.print_trace('', '', 'Le roi est mort.')
env.king = None
king_died.trigger(max=1)
if env.king is None:
env.lastkingdied = env.now()
def process(self):
while True: # Infinite loop
# Selects randomly the origin floor of that visitor
fromfloor = floors[sim.IntUniform(self.from_[0], self.from_[1]).sample()]
# Selects randomly the destination floor of that visitor
while True:
tofloor = floors[sim.IntUniform(self.to[0], self.to[1]).sample()]
if fromfloor != tofloor: # The selection is valid if origin and destination are different
break
Visitor(fromfloor=fromfloor, tofloor=tofloor) # Generates an instance of Visitor
if self.id == "0_n":
load = load_0_n
elif self.id == "n_0":
load = load_n_0
else:
load = load_n_n
if load == 0: # If there is no load then passivate the VisitorGenerator
yield self.passivate()
else:
iat = 3600 / load
r = sim.Uniform(0.5, 1.5).sample()
yield self.hold(r * iat) # Holds during interarrival time
# Gas station.py
import salabim as sim
# based on SimPy example model
GAS_STATION_SIZE = 200.0 # liters
THRESHOLD = 25.0 # Threshold for calling the tank truck (in %)
FUEL_TANK_SIZE = 50.0 # liters
# Min/max levels of fuel tanks (in liters)
FUEL_TANK_LEVEL = sim.Uniform(5, 25)
REFUELING_SPEED = 2.0 # liters / second
TANK_TRUCK_TIME = 300.0 # Seconds it takes the tank truck to arrive
T_INTER = sim.Uniform(10, 100) # Create a car every [min, max] seconds
SIM_TIME = 200000 # Simulation time in seconds
class Car(sim.Component):
"""
A car arrives at the gas station for refueling.
It requests one of the gas station's fuel pumps and tries to get the
desired amount of gas from it. If the stations reservoir is
depleted, the car has to wait for the tank truck to arrive.
"""
def process(self):
fuel_tank_level = int(FUEL_TANK_LEVEL.sample())
yield self.request(gas_station)
liters_required = FUEL_TANK_SIZE - fuel_tank_level
if (fuel_pump.available_quantity() -
liters_required) / fuel_pump.capacity() * 100 < THRESHOLD:
def process(self):
while True:
yield self.hold(sim.Uniform(0, 2)())
Car()
def process(self):
while True:
yield self.hold(sim.Uniform(2,4).sample())
dir=sim.Pdf(directions,1).sample()
Car(dir=dir)
def process(self):
while True:
yield self.wait((light.green,True,1),(light.green,True,1),fail_delay=8,all=True)
yield self.hold(sim.Uniform(1,3).sample())
def process(self):
yield self.request(r)
yield self.hold(sim.Uniform(0,2)())
def process(self):
while True:
yield self.hold(sim.Uniform(0, 20)())
self.enter(q)
yield self.hold(sim.Uniform(0, 20)())
self.leave()
def test7():
print('test7')
class X1(sim.Component):
def process(self):
yield self.request(r1,5,r2,2,greedy=True,fail_at=5)
yield self.passivate()
class X2(sim.Component):
def process(self):
yield self.request(r1,8,r2)
yield self.passivate()
class X3(sim.Component):
def process(self):
yield self.request(r1,7)
yield self.passivate()
de=sim.Environment(trace=True)
x1=X1()
x2=X2()
x3=X3()
X4=sim.Component()
r1=sim.Resource(capacity=10,anonymous=True)
r2=sim.Resource()
r3=sim.Resource()
q={}
for i in range(1,5):
q[i]=sim.Queue()
x1.enter(q[1])
x1.enter(q[2])
x1.enter(q[3])
x2.enter(q[1])
x3.enter(q[1])
env.run(10)
r2.capacity(2)
env.run(20)
print(sim.default_env)
print(x1)
print(x2)
print(x3)
print (q[1])
print (q[2])
print (q[3])
print (q[4])
print(r1)
print(r2)
print(r3)
d=sim.Exponential(10)
print(d)
print(sim.Uniform(1,2))
print(sim.Triangular(40,150,55))
print(sim.Distribution('Constant(5)'))
def process(self):
while True:
yield self.request(res)
yield self.hold(5)
self.release(res)
class Part(sim.Component):
def setup(self, machine):
self.machine = machine
def process(self):
while True:
yield self.hold(ttf())
self.machine.interrupt()
yield self.hold(ttr())
self.machine.resume()
env = sim.Environment(trace=True)
ttf = sim.Uniform(10, 20) # time to failure distribution
ttr = sim.Uniform(3, 6) # time to repair distribution
res = sim.Resource()
for _ in range(2):
Machine()
env.run(400)
def process(self):
while True:
Customer()
yield self.hold(sim.Uniform(5, 15).sample())