def __init__(self, x, y, type, numOfVehicles, numOfLanes, vehicleSpeed, height):
self.x = x
self.y = y
self.height = height
self.cars = []
self.numOfLanes = numOfLanes
if type ==1: #lane of cars
for i in range(numOfVehicles):
if i%2 == 0:
if vehicleSpeed >= 0:
c = Car(x + i * 60, y + self.height/4, vehicleSpeed)
else:
c = Lorry(x + self.width - i * 70, y + self.height/4, vehicleSpeed)
else:
if vehicleSpeed >= 0:
c = Car(x + i * 60, y + self.height/4, vehicleSpeed)
else:
c = Car(x + self.width - i * 60, y + self.height/4, vehicleSpeed)
self.cars.append(c)
if type ==2: #lane of lorrys
for i in range(numOfVehicles):
if i%2 == 0:
if vehicleSpeed >= 0:
c = Lorry(x + i * 70, y + self.height/4, vehicleSpeed)
else:
c = Lorry(x + self.width - i * 70, y + self.height/4, vehicleSpeed)
else:
if vehicleSpeed >= 0:
c = Lorry(x + i * 70, y + self.height/4, vehicleSpeed)
else:
c = Lorry(x + self.width - i * 70, y + self.height/4, vehicleSpeed)
self.cars.append(c)
def __init__(self):
self.car = Car()
self.car.stop()
self.map = Map((self.MapSize, self.MapSize), self.TileSize)
self.pos = mul(self.map.sizeInMeters(), (0.5, ) * 2)
self.dir = 0.0
def main():
#car objects created with different cars
c1 = Car.Car(2009, "Toyota")
c2 = Car.Car(2012, "Ford")
c3 = Car.Car(2015, "Honda")
#String representation all 3 cars
print(" MAKE YEAR SPEED")
print(c1)
print(c2)
print(c3)
print()
#accelerate 5 times
print("Accelerating {0} {1}". format(c1.getYear(), c1.getMake()))
for i in range(6):
print("{0}".format(c1.getSpeed()), end=" ")
if c1.getSpeed() < 22:
c1.accelerate()
print()
print()
#loop using applyBreak() 5 times
print("Applying break to {0} {1}". format(c1.getYear(), c1.getMake()))
for i in range(6):
print("{0}".format(c1.getSpeed()), end=" ")
c1.applyBreak()
def index(request, route):
close_old_connections()
if route == 'wxegisterSign':
callBackDict = UserInfo.wxegisterSign(request)
elif route == 'wxgetCarList':
callBackDict = Car.wxgetCarList(request)
elif route == 'wxAddCar':
callBackDict = Car.wxAddCar(request)
elif route == 'wxEditCar':
callBackDict = Car.wxEditCar(request)
elif route == 'getCarInfo':
callBackDict = CheckGetInfo.getCarInfo(request)
elif route == 'getGetTaskInfo':
callBackDict = CheckGetInfo.getGetTaskInfo(request)
elif route == 'getDoTaskInfo':
callBackDict = CheckGetInfo.getDoTaskInfo(request)
elif route == 'adminGetAllUsers':
callBackDict = UserInfo.adminGetAllUsers(request)
elif route == 'perfectUserInfo':
callBackDict = UserInfo.perfectUserInfo(request)
elif route == 'webSign':
callBackDict = UserInfo.webSign(request)
elif route == 'adminisEnabledUser':
callBackDict = UserInfo.adminisEnabledUser(request)
else:
return HttpResponse("no found !!!")
if callBackDict == None:
callBackDict = {"code": -1, 'msg': '系统异常'}
return HttpResponse(json.dumps(callBackDict))
def test_car_wheels(self):
man = Car('MAN', 'Truck', 'trailer')
koenigsegg = Car('Koenigsegg', 'Agera R')
self.assertEqual(
[8, 4], [man.num_of_wheels, koenigsegg.num_of_wheels],
msg=
'The car shoud have four (4) wheels except its a type of trailer')
def reproduce(self,cars):
nextGenCars = []
self.maxFitness = 0
for i in range(0,np.size(cars)):
if(cars[i].fitness > self.maxFitness):
self.maxFitness = cars[i].fitness
self.maxFitnessIndex = i
neuralNetworkStructure = cars[0].neuralNetwork.neuralNetworkArchitecture
if(self.maxFitnessIndex != -1):
nextGenCars.append(Car.Car(cars[0].posInit,cars[0].sensors,neuralNetworkStructure))
nextGenCars[0].neuralNetwork = NN.NNetwork(1,neuralNetworkStructure,[cars[self.maxFitnessIndex].neuralNetwork])
nextGenCars[0].isBest = True
else:
nextGenCars.append(Car.Car(cars[0].posInit,cars[0].sensors,neuralNetworkStructure))
nextGenCars[0].neuralNetwork = NN.NNetwork(1,neuralNetworkStructure,self.crossover(cars))
self.mutate(nextGenCars[0])
for i in range(1,np.size(cars)):
nextGenCars.append(Car.Car(cars[0].posInit,cars[0].sensors,neuralNetworkStructure))
nextGenCars[i].neuralNetwork = NN.NNetwork(1,neuralNetworkStructure,self.crossover(cars))
self.mutate(nextGenCars[i])
self.generation += 1
return nextGenCars
def __init__(self, x, y, type, numOfVehicles, vehicleSpeed, height):
self.x = x
self.y = y
self.height = height
self.cars = []
self.carsSpeed = vehicleSpeed
if type == 1: #lane of cars
for i in range(numOfVehicles):
if vehicleSpeed >= 0:
c = Car(x + i * 50, y + height / 4, vehicleSpeed)
self.startX = x
#self.startY = y+10
else:
c = Car(x + self.width - i * 50, y + height / 4,
vehicleSpeed)
self.startX = x + self.width
#self.startY = y + 10
self.cars.append(c)
if type == 2: #lane of lorries
for i in range(numOfVehicles):
if vehicleSpeed >= 0:
c = Lorry(x + i * 70, y + height / 4, vehicleSpeed)
self.startX = x
else:
c = Lorry(x + self.width - i * 70, y + height / 4,
vehicleSpeed)
self.startX = x + self.width
self.cars.append(c)
def __init__(self): self.car = Car(self.TRACK_LENGHT) self.road = Road() self.ambient = self.init_ambient() #lista de objetos que nao colidem com o carro self.obstacles = self.init_obstacles() self.angle = 50 self.game_over = False
def run(self):
clock = pygame.time.Clock()
screen = pygame.display.set_mode((self.width, self.height))
screen1 = pygame.Surface((self.width , self.height))
pygame.display.set_caption(self.title)
car1 = Car(self.width//2, self.height//2)
pygame.mixer.music.load('engine.wav')
pygame.mixer.music.play(-1)
while(True):
fps = 30
clock.tick(fps)
pygame.display.update()
self.keyPressed(car1)
car1.update()
self.xOff = car1.x
self.yOff = car1.y
font = pygame.font.SysFont("comicsansms", 30)
self.time += 1/30
timerS = "LAP TIME : " + str(int(self.time))
text = font.render(timerS, True, (0, 0, 0))
#Checks for quitting
for event in pygame.event.get():
if event.type == pygame.QUIT:
pygame.quit();
sys.exit();
screen.fill((0, 255, 0))
self.redrawAll(screen, car1, text)
pygame.display.flip()
pygame.mixer.music.load('engine.wav')
pygame.mixer.music.play(-1)
def initialize(self):
# Setup Background, game objects, and initial states
win = GraphWin('App-Controlled Car', 800, 600)
self.maze = Maze(win)
self.maze.draw()
self.car = Car(win)
self.car.draw()
self.isRunning = True
# Setup Queues, Listeners, and off threads
self.inputQueue = Queue(maxsize=0)
#keyboardListener = KeyboardListener(self.inputQueue)
#keyboardListener.start()
joystickListener = JoystickListener("Web Joystick Listener",
self.inputQueue)
joystickListener.start()
# Setup Game Loop
self.run()
# Pause and Close
win.getMouse()
win.close()
def test_drive_car(self):
man = Car('MAN', 'Truck', 'trailer')
moving_man = man.drive(7)
moving_man_instance = isinstance(moving_man, Car)
moving_man_type = type(moving_man) is Car
self.assertListEqual([True, True, man.speed],
[moving_man_instance, moving_man_type, moving_man.speed],
msg='The car drive function should return the instance of the Car class')
def test_car_speed2(self):
man = Car('Mercedes', 'SLR500')
parked_speed = man.speed
moving_speed = man.drive(3).speed
self.assertListEqual([parked_speed, moving_speed],
[0, 1000],
msg='The Mercedes should have speed 0 km/h until you put `the pedal to the metal`')
def test_car_speed(self):
man = Car('MAN', 'Truck', 'trailer')
parked_speed = man.speed
moving_speed = man.drive(7).speed
self.assertListEqual([parked_speed, moving_speed],
[0, 77],
msg='The Trailer should have speed 0 km/h until you put `the pedal to the metal`')
def test_car_doors(self):
opel = Car('Opel', 'Omega 3')
porshe = Car('Porshe', '911 Turbo')
self.assertListEqual([opel.num_of_doors,
porshe.num_of_doors,
Car('Koenigsegg', 'Agera R').num_of_doors],
[4, 2, 2],
msg='The car shoud have four (4) doors except its a Porshe or Koenigsegg')
class Slam:
MapSize = 16
TileSize = 0.25
ScanAngle = math.pi / 3
def __init__(self):
self.car = Car()
self.car.stop()
self.map = Map((self.MapSize, self.MapSize), self.TileSize)
self.pos = mul(self.map.sizeInMeters(), (0.5, ) * 2)
self.dir = 0.0
def scan(self):
self.car.pointSonic()
scans = self.car.scanSector(-self.ScanAngle, self.ScanAngle)
for ang, dist in scans:
delta = vecindir(self.dir + ang, dist)
end = add(self.pos, delta)
self.map.setLine(self.pos, end)
def turn(self, tgt):
to = sub(tgt, self.pos)
a = normalize_angle(vecdir(to) - self.dir)
self.car.turn(a)
self.dir = normalize_angle(self.dir + a)
def moveTo(self, tgt):
self.turn(tgt)
dist = vecdist(tgt, self.pos)
self.car.move(dist)
self.pos = tgt
def getData(dataFile, hoofdbrandstof):
cars = []
with open(dataFile, "rU") as csvfile:
reader = csv.reader(csvfile, "SKV")
reader.next() # skip titles
for row in reader:
car = Car()
car.fillAspects(row)
if car.Hoofdbrandstof == hoofdbrandstof:
cars.append(car)
return cars
class main():
def __init__(self):
self.initialize()
def initialize(self):
# Setup Background, game objects, and initial states
win = GraphWin('App-Controlled Car', 800, 600)
self.maze = Maze(win)
self.maze.draw()
self.car = Car(win)
self.car.draw()
self.isRunning = True
# Setup Queues, Listeners, and off threads
self.inputQueue = Queue(maxsize=0)
#keyboardListener = KeyboardListener(self.inputQueue)
#keyboardListener.start()
joystickListener = JoystickListener("Web Joystick Listener",
self.inputQueue)
joystickListener.start()
# Setup Game Loop
self.run()
# Pause and Close
win.getMouse()
win.close()
def run(self):
# Game Loop
while self.isRunning:
# Process Events - Process inputs and other things
self.processEvents()
# Update - Update all objects that needs updating, ex position changes, physics
#self.car.update(joystickInput)
# Draw - Render things on screen
self.car.move(self.inputQueue.get()['x'] * carSpeed,
self.inputQueue.get()['y'] * carSpeed)
# Pause thread for framerate
time.sleep(0.017)
def processEvents(self):
# Check if game is complete or not
if self.car.carBody.getCenter().getX(
) > 580 and self.car.carBody.getCenter().getY() > 380:
self.isRunning = False
def spawn_cars(self, rate, r0, r1, r2, r3):
if random.random() < r0:
car_list.append(Car(575, -500, 0, SOUTH, 100, (92, 152, 249)))
env.total_num_cars += 1
if random.random() < r1:
car_list.append(Car(1700, 425, 0, WEST, 100, (92, 152, 249)))
env.total_num_cars += 1
if random.random() < r2:
car_list.append(Car(625, 1400, 0, NORTH, 100, (92, 152, 249)))
env.total_num_cars += 1
if random.random() < r3:
car_list.append(Car(-500, 475, 0, EAST, 100, (92, 152, 249)))
env.total_num_cars += 1
def start(self):
c = Car.Car() # creating the Car object
e = EventHandler.EventHandler(
c
) # the event handler object is created. The Car object is passed as an argument
c.setEventHandler(e)
c.startCar() # method in car class is invoked to start the car
def main():
car_year_model = 0
car_make = ""
car_speed = 0
car_year_model = input("Enter year model: ")
car_make = input("Enter the make of car: ")
car_speed = int(input("Enter the speed: "))
car = Car.Car(car_year_model, car_make, car_speed)
x = 0
current_speed = 0
print("\nYear Model: ", car.get_year_model())
print("Make: ", car.get_make())
for x in range(0, 4):
current_speed += car.accelerate(car_speed)
x += 1
print("Current Speed: ", current_speed)
x = 0
for x in range(0, 4):
current_speed -= car.brake(car_speed)
x += 1
print("Current Speed: ", current_speed)
def main():
pl.figure(figsize=(8 * 1.1, 6 * 1.1))
pl.axis('equal')
pl.grid('on')
pl.xlabel('x (meters)')
pl.ylabel('y (meters)')
pl.legend(fancybox=True, framealpha=0.5)
pl.xlim([-20., 20.])
pl.ylim([-20., 20.])
start = (0.0, 0.0, 0.0)
myCar = Car.Car(2.66, 1.5, -1.0, start, 5.5)
myCar.visualize_as_center = False
if os.path.isfile('cost_func.pickle'):
with open('cost_func.pickle', 'rb') as handle:
cost_func = pickle.load(handle)
for current_cell in cost_func:
current_pos = nonholonomic_cost_func.dist_2_cont(current_cell)
# myCar.visualize(current_pos, 'c:')
pl.plot(current_pos[0], current_pos[1], '+c', label='start')
#
# pl.pause(0.01)
pl.show()
print 'End.'
def parsing(self, input):
"""
Transform input string to board
:param input: input board
:type input: str
:return: None
"""
lines = list(map(lambda l: l.strip(), input.strip().split('\n')))
self.height = len(lines)
prev = '.'
for i, line in enumerate(lines):
width = len(line.replace('>', ''))
if self.width == 0:
self.width = width
else:
assert self.width == width, "Check equality"
for j, char in enumerate(line):
if char == '.':
pass
elif char == '>':
self.finish = (i, j)
elif char not in self.cars:
self.cars[char] = Car(char, Position(i, j), 1)
else:
self.cars[char].size += 1
self.cars[char].is_horizontal = (char == prev)
prev = char
def run(self):
rbfn_parameter = [
self.iteration_entry.get(),
self.numberOfGroup_entry.get(),
self.matingProbability_entry.get(),
self.mutationProbability_entry.get(),
self.numberOfHiddenLayerNeurons_entry.get()
]
self.rbfn = RBFN.RBFN(rbfn_parameter, self.data)
optimal_vector = self.rbfn.train()
self.car = Car.Car(self.car_info, self.car_size, self.rbfn,
optimal_vector)
is_arrived, wheel_degree_list, car_degree_list, car_loaction_list, distant_array = self.car.run(
)
if is_arrived:
self.draw_arrived_track(car_degree_list, car_loaction_list)
print("error times:", self.count_error)
print("global_min_e:", self.rbfn.ga.global_min_e)
print("optimal_vector:", optimal_vector)
for i in range(len(wheel_degree_list)):
print("wheel_degree_list[" + str(i) + "]:" +
str(wheel_degree_list[i]) + ", car_degree_list[" +
str(i) + "]:" + str(car_degree_list[i]) +
", self.car_x:" + str(car_loaction_list[i][0]) +
" self.car_y:" + str(car_loaction_list[i][1]) +
", front_distant:" + str(distant_array[i][0]) +
" right_distant:" + str(distant_array[i][1]) +
" left_distant:" + str(distant_array[i][2]))
print('\n\n')
self.count_error = 0
else:
print(self.count_error)
self.count_error += 1
self.run()
def car_predicting(model, year_car, color,karkerd):
Car.CAR_data_fetching()
dbconnector_C = mysql.connector.connect(host="127.0.0.1",
user="******" % mysq_useranem,
password="******" % mysql_password,
database="H_C",
table="car_info"
)
my_cursor_C = dbconnector_C.cursor()
X = []
Y = [] #price of car
my_cursor_C.execute("SELECT model, year_car, color, karkard FROM car_info;")
res1 = my_cursor_C.fetchall()
for row1 in res1:
X.append(row1)
my_cursor_C.execute("SELECT price FROM car_info;")
res2 = my_cursor_C.fetchall()
for row2 in res2:
Y.append(row2)
person1 = [[model, year_car, color, karkerd]]
carpred = tree.DecisionTreeClassifier()
carpred = carpred.fit(X, Y)
answer1 = carpred.predict(person1)
dbconnector_C.commit()
dbconnector_C.close()
my_cursor_C.close()
return answer1
def apply(self):
self.scr.delete('1.0', tk.END)
car_var1 = self.field1_variable.get()
car_var2 = self.field2_variable.get()
car_var3 = self.field3_variable.get()
car_var4 = self.field4_variable.get()
if len(car_var1) < 3:
self.scr.insert(tk.INSERT, 'Warning:\tInvalid make / make not found\n')
if len(car_var2) < 1:
self.scr.insert(tk.INSERT, 'Warning:\tInvalid model / model not found\n')
if len(car_var3) < 4:
self.scr.insert(tk.INSERT, 'Warning:\tInvalid year / year not found\n')
if len(car_var4) < 9:
self.scr.insert(tk.INSERT, 'Warning:\tInvalid ip address / ip address not found\n')
#----------------------------------------------------------------------
# If valid is entered display the correct data
#----------------------------------------------------------------------
if (len(car_var1) > 2) and (len(car_var2) > 0) and (len(car_var3) > 3) and (len(car_var4) > 8):
# create car object and update labels with car data
self.chevy = Car.Car(car_var1, car_var2, car_var3, car_var4) # create a car object
self.make = self.chevy.getMake()
self.mode = self.chevy.getModel()
self.year = self.chevy.getYear()
self.port = self.chevy.getPortNumber()
self.scr.insert(tk.INSERT, self.chevy.read_dtc_trace())
self.scr.insert(tk.INSERT, '\n\nData Trace:\n')
self.scr.insert(tk.INSERT, '----------------------------------------------------------------------------------------\n')
self.scr.insert(tk.INSERT, self.chevy.read_uas_trace())
self.label1 = ttk.Label(self.l1Frame, text='Make : ' + self.make + '\t').grid(column = 0, row = 0)
self.label2 = ttk.Label(self.l1Frame, text="Model: " + self.mode + '\t').grid(column = 0, row = 1)
self.label3 = ttk.Label(self.l1Frame, text="Year : " + self.year + '\t').grid(column = 0, row = 2)
self.label4 = ttk.Label(self.l1Frame, text="PORT : " + self.port + '\t').grid(column = 0, row = 3)
self.label5 = ttk.Label(self.stat_frame, text="Vehicle speed : \t" + str(self.chevy.getSpeed()) + 'KPH').grid(column = 0, row = 0)
self.label6 = ttk.Label(self.stat_frame, text="Engine speed : \t" + str(self.chevy.getEngineSpeed()) + 'RPM' ).grid(column = 0, row = 1)
self.label7 = ttk.Label(self.stat_frame, text="Voltage level : \t" + str(self.chevy.getVoltageLevel()) + 'Volt').grid(column = 0, row = 2)
self.label8 = ttk.Label(self.stat_frame, text="Pressure level: \t" + str(self.chevy.getPressureLevel()) + 'KPS').grid(column = 0, row = 3)
self.label8 = ttk.Label(self.stat_frame, text="Current level : \t" + str(self.chevy.getCurrentLevel()) + 'AMP').grid(column = 0, row = 4)
self.label4 = ttk.Label(self.l1Frame, text="PORT : " + self.port + '\t').grid(column = 0, row = 3)
#-------------------------------------------------------------
fig = Figure(figsize=(12, 8), facecolor='white')
#-------------------------------------------------------------
# axis = fig.add_subplot(111)
# 1 row, 1 column, only graph
axis = fig.add_subplot(211) # 2 rows, 1 column, Top graph
#-------------------------------------------------------------
xValues = [1,2,3,4]
yValues = [5,7,6,8]
axis.plot(xValues, yValues)
axis.set_xlabel('Horizontal Label')
axis.set_ylabel('Vertical Label')
# axis.grid() # default line style
axis.grid(linestyle='-')
def __init__(self):
self.vis = vision.Vision()
self.cam = camera.Camera()
self.lines = Lines.Lines()
self.car = Car.Car()
self.other_cars = OtherCars.OtherCars()
self.vacancies = None
self.frame = None
def main():
all_cars = {}
car_num = 0
InputFile = open(sys.argv[1], "r")
#Adding a car to the dictionary of the cars and assigning the key added the correct properties. (the properties are used in the Car.py module)
for line in InputFile:
car_num += 1
new_line = (line.rstrip("\n")).split(",")
all_cars[car_num] = Car(car_num, new_line[0], new_line[1], new_line[2],
new_line[3])
all_cars[car_num].width = (all_cars[car_num].coordinates[2] -
all_cars[car_num].coordinates[0])
all_cars[car_num].height = (all_cars[car_num].coordinates[3] -
all_cars[car_num].coordinates[1])
return all_cars
def test_default_car_name(self):
gm = Car()
self.assertEqual(
'General',
gm.name,
msg=
'The car should be called `General` if no name was passed as an argument'
)
def test_default_car_model(self):
gm = Car()
self.assertEqual(
'GM',
gm.model,
msg=
"The car's model should be called `GM` if no model was passed as an argument"
)
def scrape_autolist():
web_cars = driver.find_elements_by_xpath(
'//div[@class="vehicle-item-view"]')
cars = []
for x in web_cars:
name = x.find_elements_by_xpath('.//div[@class="headline"]')[0].text
cost = x.find_elements_by_xpath('.//div[@class="headline"]')[1].text
cars.append(Car(name, cost))
def __init__(self, speed=.014):
self.__score = 0
self.__speed = speed
#Lnked List stores a list of Obstacle objects
self.__obstacles = adt.LinkedList()
#Create single object of type car
self.__auto = cr.Car()
import Car
car = Car("Toyota", "Camery", 2015)
car.printDetails()
from Car import*
vehicle = Car()
def display_all(main_surface, display_list, text_list):
main_surface.fill((0, 50, 50))
for element in display_list:
element.display(main_surface)
for element_val in range(0, len(text_list)):
main_surface.blit(font.render(str(text_list[element_val]), True, (0, 255, 0)), (10, 10 + (10 * element_val)))
def update_all(update_list):
for element in update_list:
element.update()
running = True
while running:
clock.tick(60)
for event in pygame.event.get():
if event.type == pygame.QUIT:
running = False
if event.type == pygame.KEYDOWN:
None
key = pygame.key.get_pressed()
if key[pygame.K_LEFT]:
vehicle.left = True
from Car import *
# Exercise 1
my_car = Car('Toyota', 'Prius', 0)
your_car = Car('Toyota', 'Camry', 100)
my_car.drive(100)
print(my_car.get_kilometers()) #100
your_car.drive(1000)
print(your_car.get_kilometers()) #1100
# Exercise 2
class Student():
def __init__(self, name, age, school):
self.name = name
self.age = age
self.school = school
def get_name(self):
return self.name
def get_age(self):
return self.age
def get_school(self):
return self.school
def set_school(self, school):
self.school = school