def test_add_radius():
""" Test for adding 2 radii."""
c1 = Circle(5)
c2 = Circle(15)
c3 = c1 + c2
assert c3.radius == 20
assert c3.radius != 5
def test__add__():
""" Test for alternative way of addition."""
c1 = Circle(10)
c2 = Circle(20)
c3 = c1 + c2
assert c3.radius == 30
assert c3.radius != 10
def initialPosition(self, low=2, up=12):
"Returns List of Objects. This list is a position, i.e, a pattern of circles inside a container"
initGrid = self.initialGrid # initial grid, only inside points
#objects = []
numObj = random.randint(low, up)
while (len(self.objects) < numObj) and initGrid:
p = random.choice(
initGrid) # select a point from grid, point is a tuple (x,y)
idxp = initGrid.index(
p) # index of selected point in the list initGrid
r = random.choice(self.radii) # Choose randomly an object
circle = Circle(*p, radius=r) # Set circle in selected point p
#if len(self.objects): # if there are at least two cirlcles in the list
#flag = True
while any(circle.overlapping(obj) for obj in self.objects):
#flag = any(circle.overlapping(obj) for obj in self.objects)
#if flag:
p = random.choice(initGrid) # select point
circle.center = p # assign another center
idxp = initGrid.index(p) # index of selected point
initGrid.pop(idxp) # remove from init list
self.removeOutside()
#if circle.is_outside(self.grid): # test if circle is outside
# circle.radius = min(self.radii) # try with minimum radius for verify. It is a point in the inside frontier
self.objects.append(circle)
#pts.append(initGrid.pop(idxp)) # remove from init list and put in list of points
initGrid = set(initGrid) - set(self.grid.coverage(
circle)) # forbidden points for next iteration
initGrid = list(initGrid) # update grid points
for obj, c in zip(self.objects, cycle(Circle.colors)):
obj.color = c
return self.objects
def __add__(self, other):
'Sum two Monkeys'
sumObjects = self.objects + other.objects
setObjects = {(obj.x, obj.y, obj.radius)
for obj in sumObjects} # remove duplicates
sumObjects = (Circle(x, y, r, color=c)
for (x, y,
r), c in zip(setObjects, cycle(Circle.colors)))
return Monkey2(self.grid, self.radii, sumObjects)
def __init__(self, x, y):
Automobile._automobileCount += 1
self._autoName = __class__.__name__
self._autoNum = Automobile._automobileCount
self._components = dict(body=Rectangle(x, y, 8, 2),
roof=Square(x - 0.6, y + 1, 2),
wheel1=Circle(x - 3, y - 1, 0.5),
wheel2=Circle(x + 3, y - 1, 0.5))
self._top = self._components[max(
self._components, key=lambda i: self._components[i].top())].top()
self._bottom = self._components[min(
self._components,
key=lambda i: self._components[i].bottom())].bottom()
self._left = self._components[min(
self._components,
key=lambda i: self._components[i].left())].left()
self._right = self._components[max(
self._components,
key=lambda i: self._components[i].right())].right()
self._COM = (x, y)
def __init__(self, x, y):
Automobile._automobileCount += 1
self._autoName = __class__.__name__
self._autoNum = Automobile._automobileCount
self._components = dict(body=Rectangle(x, y, 20, 10),
roof=Circle(x + 10, y, 5),
hood=Square(x + 12.5, y - 2.5, 5),
wheel1=Circle(x - 7, y - 5, 1),
wheel2=Circle(x - 4, y - 5, 1),
wheel3=Circle(x + 12.5, y - 5, 1))
self._top = self._components[max(
self._components, key=lambda i: self._components[i].top())].top()
self._bottom = self._components[min(
self._components,
key=lambda i: self._components[i].bottom())].bottom()
self._left = self._components[min(
self._components,
key=lambda i: self._components[i].left())].left()
self._right = self._components[max(
self._components,
key=lambda i: self._components[i].right())].right()
self._COM = (x, y)
def initialGrid(self):
'Initial grid for selecting random initial points'
coords_xInside = self.grid.xcoords[
1:
-1] # only coordinates inside container, for this reason remove the first and last element
coords_yInside = self.grid.ycoords[
1:-1] # only coordinates inside container
Radius = min(self.radii) # choose a minimum radii
x, y = coords_xInside[0], coords_yInside[
0] # choose the very first point (corner point)
circle = Circle(x, y, Radius) # set a circle in a choosen point
while circle.is_outside(self.grid): # test if circle is outside
coords_yInside = coords_yInside[1:-1] # update list
coords_xInside = coords_xInside[1:-1] # update list
x, y = coords_xInside[0], coords_yInside[
0] # choose the first point, this is a corner point
circle.center = x, y # set a circle in the new point
return list(product(coords_xInside, coords_yInside))
def timerFired(data):
if (data.stateGame == "splashScreen"):
pass
elif (data.stateGame == "playGame"):
data.gameObject.frameNumber += 1
data.gameObject.getXYCoordinates()
for key in data.gameObject.dictPlayersLocation:
#value is going to be a tuple of x and y
sidePlayer = determineSidePlayer(data, key)
value = data.gameObject.dictPlayersLocation[key]
xCord = value[0]
yCord = value[1]
jerseyNum = value[2]
circleObj = Circle(xCord, yCord, jerseyNum, sidePlayer)
data.listCircles.append(circleObj)
currentPlayersOnCourt(data)
if (data.pauseGame):
data.timerDelay = 1
elif (data.pauseGame == False):
data.timerDelay = 35
def setUp(self):
self.c1 = Circle(0.0, 0.0, 1.0)
self.c2 = Circle(1.0, 1.0, 1.0)
def listObjects(self):
'Creates a list of objects from a list of tuple solution [(x,x,x,...,x,x),(y,y,y,...,y,y),(r,r,r,...,r,r)]'
list_TupleSolution = self.getSolutionsDF()
return [Circle(*t) for t in list_TupleSolution]
def test_circles_sort():
""" Test sorting."""
circles = [
Circle(6),
Circle(7),
Circle(8),
Circle(4),
Circle(0),
Circle(2),
Circle(3),
Circle(5),
Circle(9),
Circle(1)
]
assert Circle(6) < Circle(8)
assert Circle(3) < Circle(5)
assert Circle(2) > Circle(1)
assert Circle(9) > Circle(7)
def test_radius_reset():
c = Circle(4)
c.radius = 10
assert c.radius == 10
assert c.diameter == 20
def test_diameter():
c = Circle(4)
assert c.diameter == 8
assert c.diameter != 10
def test__eq__():
""" Test for 'equal to'."""
c1 = Circle(5)
c2 = Circle(5)
assert c1 == c2
def test_area_from_diameter():
c = Circle(7)
assert c.area == pi * 7**2
def test__mul__():
"""Test for increase by a factor."""
c1 = Circle(5)
factor = 3
c2 = c1 * factor
assert c2.radius == 15
def test_incr():
""" Test for alternative way to increase by a factor."""
c1 = Circle(12)
factor = 4
c3 = c1 * factor
assert c3.radius == 48
def test_area():
c = Circle(5)
assert c.area == pi * 5**2
assert c.area != 80
def test__lt__():
""" Test for 'less than'."""
c1 = Circle(15)
c2 = Circle(18)
assert c1 < c2
assert c1 != c2
def test_init():
Circle(4)
def test_repr():
""" Test for printing formal representation of object."""
c = Circle(10.0)
assert repr(c) == "Circle(10.0)"
def test_str():
""" Test for printing string, informal representation of object."""
c = Circle(5)
assert str(c) == "A circle with radius: 5"
def setUp(self):
#Both circles initially have the same Centre of Mass and overlap perfectly
self.c1 = Circle(1.0, 1.0, 1.0)
self.c2 = Circle(1.0, 1.0, 1.0)
def test__gt__():
""" Test for 'greater than'."""
c1 = Circle(10)
c2 = Circle(8)
assert c1 > c2
assert c1 != c2
def setUp(self):
#Both shapes initially have the same Centre of Mass
self.c1 = Circle(0.0, 0.0, 1.0)
self.sq1 = Square(0.0, 0.0, 1.0)
def test_diameter_set():
c = Circle(10)
c.diameter = 8
assert c.diameter == 8
assert c.radius == 4
assert c.radius != 10
def test_radius():
c = Circle(4)
assert c.radius == 4
assert c.radius != 6
def test_area_from_diam():
c = Circle(5)
assert c.area == pi * 5**2