def run_test_get_distance_from():
""" Tests the get_distance_from method. """
print()
print('-----------------------------------------------------------')
print('Testing the get_distance_from method')
print('-----------------------------------------------------------')
if not is_implemented('get_distance_from'):
return
print('The following are OUR tests (from m1_tests):')
colors1 = ('dark red', 'green', 'tomato', 'blue', 'plum', 'seashell',
'red', 'peach puff', 'coral', 'chocolate', 'brown')
cc1 = m1.CircleChanger(100, 110, 10, 'violet', colors1)
cc2 = m1.CircleChanger(300, 60, 50, 'red', ('red', 'green'))
evaluate_test(206.15528128088303, cc1.get_distance_from(cc2.circle.center))
evaluate_test(206.15528128088303, cc2.get_distance_from(cc1.circle.center))
evaluate_test(0.0, cc1.get_distance_from(cc1.circle.center))
evaluate_test(0.0, cc2.get_distance_from(cc2.circle.center))
cc1.circle.center.x = 300
cc2.circle.center.y = 500
evaluate_test(390.0, cc1.get_distance_from(cc2.circle.center))
evaluate_test(390.0, cc2.get_distance_from(cc1.circle.center))
evaluate_test(0.0, cc1.get_distance_from(cc1.circle.center))
evaluate_test(0.0, cc2.get_distance_from(cc2.circle.center))
def run_test_change_to_previous_color():
""" Tests the change_to_previous_color method. """
print()
print('-----------------------------------------------------------')
print('Testing the change_to_previous_color method:')
print('-----------------------------------------------------------')
if not is_implemented('change_to_previous_color'):
return
print('The following are OUR tests (from m1_tests):')
random.seed(42) # Makes the tests deterministic, so repeatable.
circle_changers = []
colors1 = ('dark red', 'green', 'tomato', 'blue', 'plum',
'seashell', 'red', 'peach puff', 'coral', 'chocolate',
'brown')
cc1 = m1.CircleChanger(100, 110, 20, 'violet', colors1)
circle_changers.append(cc1)
colors2 = ('yellow', 'magenta', 'blue', 'lavender', 'cyan', 'aquamarine',
'black', 'salmon', 'hot pink', 'forest green',
'spring green')
cc2 = m1.CircleChanger(200, 220, 50, 'orange', colors2)
circle_changers.append(cc2)
xs, ys, rs = (100, 200), (110, 220), (20, 50)
colors = ('violet', 'orange')
colors_tuples = (colors1, colors2)
thickness = 1
for _ in range(3):
for k in range(2):
colors = circle_changers[k].colors
js = list(range(len(colors)))
random.shuffle(js)
j2s = list(range(len(colors)))
random.shuffle(j2s)
# print(js)
# print(j2s)
for j in range(len(colors)):
circle_changers[k].circle.fill_color = colors[js[j]]
circle_changers[k].change_color(j2s[j])
color = colors[js[-1]]
circle_changers[k].change_to_previous_color()
evaluate_circle_changer(circle_changers[k],
xs[k], ys[k], rs[k],
color,
thickness,
colors_tuples[k])
print()
print('-----------------------------------------------------------')
print('Here is the test in m1 itself:')
print('-----------------------------------------------------------')
def run_test_swell_or_shrink_once():
""" Tests the swell_or_shrink_once method. """
print()
print('-----------------------------------------------------------')
print('Testing the swell_or_shrink_once method')
print('-----------------------------------------------------------')
if not is_implemented('swell_or_shrink_once'):
return
print('The following are OUR tests (from m1_tests):')
random.seed(42) # Lets us predict the results of tests.
circle_changers = []
colors1 = ('dark red', 'green', 'tomato', 'blue', 'plum',
'seashell', 'red', 'peach puff', 'coral', 'chocolate',
'brown')
cc1 = m1.CircleChanger(100, 110, 20, 'violet', colors1)
circle_changers.append(cc1)
colors2 = ('yellow', 'magenta', 'blue', 'lavender', 'cyan', 'aquamarine',
'black', 'salmon', 'hot pink', 'forest green',
'spring green')
cc2 = m1.CircleChanger(200, 220, 50, 'orange', colors2)
circle_changers.append(cc2)
colors = (('green', 'plum', 'blue'),
('magenta', 'hot pink', 'forest green'))
thicknesses = ((13, 3, 6),
(5, 13, 4))
xs, ys, rs = (100, 200), (110, 220), (20, 50)
colors_tuples = (colors1, colors2)
for k in range(1, 3):
total = 0
for j in range(1, 4):
amount = 10 * k * (2 * j - 3)
total = total + amount
circle_changers[k - 1].swell_or_shrink_once(amount)
# print(circle_changers[k - 1].circle.fill_color,
# circle_changers[k - 1].circle.outline_thickness)
evaluate_circle_changer(circle_changers[k - 1],
xs[k - 1], ys[k - 1],
rs[k - 1] + total,
colors[k - 1][j - 1],
thicknesses[k - 1][j - 1],
colors_tuples[k - 1])
print()
print('-----------------------------------------------------------')
print('Here is the test in m1 itself:')
print('-----------------------------------------------------------')
def run_test_swell_to_prime():
""" Tests the swell_to_prime method. """
print()
print('-----------------------------------------------------------')
print('Testing the swell_to_prime method:')
print('-----------------------------------------------------------')
if not is_implemented('swell_to_prime'):
return
print('The following are OUR tests (from m1_tests):')
circle_changers = []
colors1 = ('dark red', 'green', 'tomato', 'blue', 'plum',
'seashell', 'red', 'peach puff', 'coral', 'chocolate',
'brown')
cc1 = m1.CircleChanger(100, 110, 1, 'violet', colors1)
circle_changers.append(cc1)
colors2 = ('yellow', 'magenta', 'blue', 'lavender', 'cyan', 'aquamarine',
'black', 'salmon', 'hot pink', 'forest green',
'spring green')
cc2 = m1.CircleChanger(200, 220, 15680, 'orange', colors2)
circle_changers.append(cc2)
xs, ys = (100, 200), (110, 220)
colors = ('violet', 'orange')
colors_tuples = (colors1, colors2)
thickness = 1
primes = ((2, 3, 5, 7, 11, 13, 17, 19,
23, 29, 31, 37, 41, 43, 47, 53, 59, 61, 67, 71, 73,
79, 83, 89, 97, 101),
(15683, 15727, 15731, 15733, 15737, 15739, 15749,
15761, 15767, 15773, 15787, 15791, 15797, 15803))
for k in range(2):
for j in range(len(primes[k])):
circle_changers[k].swell_to_prime()
evaluate_circle_changer(circle_changers[k],
xs[k], ys[k],
primes[k][j],
colors[k],
thickness,
colors_tuples[k])
print()
print('-----------------------------------------------------------')
print('Here is the test in m1 itself:')
print('-----------------------------------------------------------')
def run_test_change_to_original_color():
""" Tests the change_to_original_color method. """
print()
print('-----------------------------------------------------------')
print('Testing the change_to_original_color method')
print('-----------------------------------------------------------')
if not is_implemented('change_to_original_color'):
return
print('The following are OUR tests (from m1_tests):')
circle_changers = []
colors1 = ('dark red', 'green', 'tomato', 'blue', 'plum',
'seashell', 'red', 'peach puff', 'coral', 'chocolate',
'brown')
cc1 = m1.CircleChanger(100, 110, 20, 'violet', colors1)
circle_changers.append(cc1)
colors2 = ('yellow', 'magenta', 'blue', 'lavender', 'cyan', 'aquamarine',
'black', 'salmon', 'hot pink', 'forest green',
'spring green')
cc2 = m1.CircleChanger(200, 220, 50, 'orange', colors2)
circle_changers.append(cc2)
xs, ys, rs = (100, 200), (110, 220), (20, 50)
colors = ('violet', 'orange')
colors_tuples = (colors1, colors2)
thickness = 1
for k in range(2):
circle_changers[k].circle.fill_color = 'ghost white'
circle_changers[k].change_to_original_color()
evaluate_circle_changer(circle_changers[k],
xs[k], ys[k], rs[k],
colors[k],
thickness,
colors_tuples[k])
print()
print('-----------------------------------------------------------')
print('Here is the test in m1 itself:')
print('-----------------------------------------------------------')
def run_test_swallow():
""" Tests the swallow method. """
print()
print('-----------------------------------------------------------')
print('Testing the swallow method:')
print('-----------------------------------------------------------')
if not is_implemented('swallow'):
return
print('The following are OUR tests (from m1_tests):')
circle_changers = []
colors1 = ('dark red', 'green', 'tomato', 'blue', 'plum',
'seashell', 'red', 'peach puff', 'coral', 'chocolate',
'brown')
cc1 = m1.CircleChanger(100, 110, 20, 'violet', colors1)
circle_changers.append(cc1)
colors2 = ('yellow', 'magenta', 'blue', 'lavender', 'cyan', 'aquamarine',
'black', 'salmon', 'hot pink', 'forest green',
'spring green')
cc2 = m1.CircleChanger(200, 220, 50, 'orange', colors2)
circle_changers.append(cc2)
x, y, r = 150, 165, 74.33034 # 373659252
color = 'red'
thickness = 1
colors_tuples = (colors1, colors2)
for k in range(1, 3):
# Following does ac 0 vs ac 1, then ac 1 vs ac 0.
colors_tuple = colors_tuples[k - 2] + colors_tuples[k - 1]
ac = circle_changers[k - 2].swallow(circle_changers[k - 1])
evaluate_circle_changer(ac, x, y, r, color, thickness,
colors_tuple)
print()
print('-----------------------------------------------------------')
print('Here is the test in m1 itself:')
print('-----------------------------------------------------------')
def run_test_init():
""" Tests the __init__ method of the CircleChanger class. """
print()
print('-----------------------------------------------------------')
print('Testing the __init__ method:')
print('-----------------------------------------------------------')
if not is_implemented('__init__', 20):
return
print('The following are OUR tests (from m1_tests):')
colors = ('red', 'green', 'blue')
circle_changers = []
try:
for k in range(1, 3):
ac = m1.CircleChanger(100 * k, 20 * k, 50 + k,
colors[k % len(colors)], k * colors)
circle_changers.append(ac)
except:
print_failure()
print_failure('Something broke in your __init__ function.')
print_failure('The following error messages may be helpful.')
raise
for k in range(1, 3):
for attribute in ('circle', 'colors'):
try:
getattr(circle_changers[k - 1], attribute)
except AttributeError:
print_failure()
print_failure('Your Animate_Circle class does not seem')
print_failure('to have a ' + attribute +
' instance variable.')
print_failure('Stopping our tests of __init__ here.\n')
return
for attribute in ('fill_color', 'x', 'y'):
if hasattr(circle_changers[k - 1], attribute):
print_failure()
print_failure(
'Your Animate_Circle class seems to have\n'
'instance variables that DUPLICATE information.\n\n'
' *** TALK TO YOUR INSTRUCTOR ABOUT THIS. ***\n\n'
'Stopping our tests of __init__ here.\n')
return
if type(circle_changers[k - 1].circle) is not rg.Circle:
print_failure()
print_failure('Your circle instance variable')
print_failure('does not seem to be an rg.Circle.')
print_failure('Stopping tests of __init__ here.')
if type(circle_changers[k - 1].colors) is not tuple:
print_failure()
print_failure('Your colors instance variable')
print_failure('does not seem to be a tuple.')
print_failure('Tuples are like lists, but with parentheses')
print_failure("like this: ('red', 'blue', 'pink')")
print_failure('Stopping tests of __init__ here.')
evaluate_test(100 * k, circle_changers[k - 1].circle.center.x,
'Testing x-coordinate of the circle attribute')
evaluate_test(20 * k, circle_changers[k - 1].circle.center.y,
'Testing y-coordinate of the circle attribute')
evaluate_test(50 + k, circle_changers[k - 1].circle.radius,
'Testing radius of the circle attribute')
evaluate_test(colors[k % len(colors)],
circle_changers[k - 1].circle.fill_color,
'Testing fill_color of the circle attribute')
evaluate_test(k * colors, circle_changers[k - 1].colors,
'Testing the colors attribute')
print()
print('-----------------------------------------------------------')
print('Here is the test in m1 itself:')
print('-----------------------------------------------------------')