def test_geometry(self):
self.ip = ImagePoint("bunny.png", (0, 0))
self.ip.movable = True
self.p1 = Point((0, 0), color=Color(0x008000, 1))
self.p1.movable = True
self.p2 = Point((0, -1))
self.p3 = Point((1.2, 0))
self.l1 = LineSegment(self.p2,
self.p3,
style=LineStyle(3, Color(0, 1)))
self.l2 = LineSegment(self.p2,
self.p1,
style=LineStyle(3, Color(0, 1)))
self.c2 = Circle((-1, -1), self.p1)
ma = MathApp()
ma.run()
self.ip.destroy()
self.p1.destroy()
self.p2.destroy()
self.p3.destroy()
self.c2.destroy()
self.l1.destroy()
self.l2.destroy()
def run(self, rocket=None):
"""
Execute the Planet (and Rocket) simulation.
Optional parameters:
* **rocket** Reference to a Rocket object - sets the initial view
"""
if rocket:
viewalt = rocket.altitude
viewanom = rocket.tanomaly
else:
viewalt = 0
viewanom = pi / 2
self.viewaltitude = self.kwargs.get('viewalt',
viewalt) # how high to look
self.viewanomaly = self.kwargs.get('viewanom',
viewanom) # where to look
self.viewanomalyd = self.kwargs.get('viewanomd',
degrees(self.viewanomaly))
self._planetcircle = Circle((0, 0),
self.radius,
style=LineStyle(1, Color(self.color, 1)),
color=Color(self.color, 0.5))
r = self.radius + self.viewaltitude
self.viewPosition = (r * cos(self.viewanomaly),
r * sin(self.viewanomaly))
super().run()
def __init__(self, **kwargs):
scale = kwargs.get("viewscale", 10) # 10 pixels per meter default
self.radius = kwargs.get("radius", 6.371e6) # Earth - meters
self.mass = kwargs.get("planetmass", 5.9722e24) # Earth - kg
self.color = kwargs.get("color", 0x008040) # greenish
self.viewaltitude = kwargs.get("viewalt", 0) # how high to look
self.viewanomaly = kwargs.get("viewanom", pi / 2) # where to look
self.viewanomalyd = kwargs.get("viewanomd", degrees(self.viewanomaly))
self._planetcircle = Circle(
(0, 0),
self.radius,
style=LineStyle(1, Color(self.color, 1)),
color=Color(self.color, 0.5),
)
super().__init__(scale)
def test_geometry(self):
self.ip = ImagePoint("bunny.png", (0, 0))
self.ip.movable = True
self.p1 = Point((0, 0), color=Color(0x008000, 1))
self.p1.movable = True
self.p2 = Point((0, -1))
self.p3 = Point((1.2, 0))
self.l1 = LineSegment(self.p2, self.p3, style=LineStyle(3, Color(0, 1)))
self.l2 = LineSegment(self.p2, self.p1, style=LineStyle(3, Color(0, 1)))
self.c2 = Circle((-1, -1), self.p1)
ma = MathApp()
ma.run()
self.ip.destroy()
self.p1.destroy()
self.p2.destroy()
self.p3.destroy()
self.c2.destroy()
self.l1.destroy()
self.l2.destroy()
class TestMathMethods(unittest.TestCase):
def buttonstatus(self):
return "True" if self.imgbutton() else "False"
def labelcoords(self):
return (100 + self.vslider1(), 175)
def buttoncoords(self):
return (300 + self.vslider1(), 175)
def labelcolor(self):
colorval = self.vslider1()
return Color(colorval * 256, 1)
def pressbutton(self, caller):
print("button pressed: ", caller)
def __init__(self, arg):
super().__init__(arg)
def test_controls(self):
self.imgbutton = InputImageButton(
"ggame/images/button-round.png",
self.pressbutton,
(0, 0),
frame=Frame(0, 0, 100, 100),
qty=2,
)
self.imgbutton.scale = 0.5
self.vslider1 = Slider(
(100, 150), 0, 250, 125, positioning="physical", steps=10
)
self.label = Label(
self.labelcoords,
self.buttonstatus,
size=15,
positioning="physical",
color=self.labelcolor,
)
self.button = InputButton(
self.pressbutton,
self.buttoncoords,
"Press Me",
size=15,
positioning="physical",
)
self.numinput = InputNumeric((300, 275), 3.14, positioning="physical")
ma = MathApp()
ma.run()
self.vslider1.destroy()
self.label.destroy()
self.button.destroy()
self.numinput.destroy()
self.imgbutton.destroy()
def test_geometry(self):
self.ip = ImagePoint("bunny.png", (0, 0))
self.ip.movable = True
self.p1 = Point((0, 0), color=Color(0x008000, 1))
self.p1.movable = True
self.p2 = Point((0, -1))
self.p3 = Point((1.2, 0))
self.l1 = LineSegment(self.p2, self.p3, style=LineStyle(3, Color(0, 1)))
self.l2 = LineSegment(self.p2, self.p1, style=LineStyle(3, Color(0, 1)))
self.c2 = Circle((-1, -1), self.p1)
ma = MathApp()
ma.run()
self.ip.destroy()
self.p1.destroy()
self.p2.destroy()
self.p3.destroy()
self.c2.destroy()
self.l1.destroy()
self.l2.destroy()
def test_fancycontrols(self):
self.imgbutton = InputImageButton(
"ggame/images/button-round.png",
self.pressbutton,
(0, 0),
frame=Frame(0, 0, 100, 100),
qty=2,
)
self.imgbutton.scale = 0.5
self.ii = ImageIndicator(
"ggame/images/red-led-off-on.png",
(300, 500),
self.imgbutton,
positioning="physical",
frame=Frame(0, 0, 600, 600),
qty=2,
)
self.ii.scale = 0.1
self.glassbutton = GlassButton(None, (0, -0.5))
self.toggle = MetalToggle(0, (0, -1))
self.Li = LEDIndicator((300, 450), self.glassbutton, positioning="physical")
self.Lit = LEDIndicator((300, 480), self.toggle, positioning="physical")
ma = MathApp()
ma.run()
self.imgbutton.destroy()
self.ii.destroy()
self.glassbutton.destroy()
self.toggle.destroy()
self.Li.destroy()
self.Lit.destroy()
def timercallback(self, timer):
self.assertEqual(timer, self.timer)
self.callbackcomplete = True
def test_timer(self):
self.callbackcomplete = False
self.timer = Timer()
self.timer.callAfter(0.1, self.timercallback)
ma = MathApp()
ma.run()
for i in range(10):
time.sleep(1 / 60)
ma._animate(1)
self.assertEquals(self.callbackcomplete, True)
self.timer.destroy()
class TestMathMethods(unittest.TestCase):
def buttonstatus(self):
return "True" if self.imgbutton() else "False"
def labelcoords(self):
return (100 + self.vslider1(), 175)
def buttoncoords(self):
return (300 + self.vslider1(), 175)
def labelcolor(self):
colorval = self.vslider1()
return Color(colorval * 256, 1)
def pressbutton(self, caller):
print("button pressed: ", caller)
def __init__(self, arg):
super().__init__(arg)
def test_controls(self):
self.imgbutton = InputImageButton(
"images/button-round.png",
self.pressbutton,
(0, 0),
frame=Frame(0, 0, 100, 100),
qty=2,
)
self.imgbutton.scale = 0.5
self.vslider1 = Slider((100, 150),
0,
250,
125,
positioning="physical",
steps=10)
self.label = Label(
self.labelcoords,
self.buttonstatus,
size=15,
positioning="physical",
color=self.labelcolor,
)
self.button = InputButton(
self.pressbutton,
self.buttoncoords,
"Press Me",
size=15,
positioning="physical",
)
self.numinput = InputNumeric((300, 275), 3.14, positioning="physical")
ma = MathApp()
ma.run()
self.vslider1.destroy()
self.label.destroy()
self.button.destroy()
self.numinput.destroy()
self.imgbutton.destroy()
def test_geometry(self):
self.ip = ImagePoint("bunny.png", (0, 0))
self.ip.movable = True
self.p1 = Point((0, 0), color=Color(0x008000, 1))
self.p1.movable = True
self.p2 = Point((0, -1))
self.p3 = Point((1.2, 0))
self.l1 = LineSegment(self.p2,
self.p3,
style=LineStyle(3, Color(0, 1)))
self.l2 = LineSegment(self.p2,
self.p1,
style=LineStyle(3, Color(0, 1)))
self.c2 = Circle((-1, -1), self.p1)
ma = MathApp()
ma.run()
self.ip.destroy()
self.p1.destroy()
self.p2.destroy()
self.p3.destroy()
self.c2.destroy()
self.l1.destroy()
self.l2.destroy()
def test_fancycontrols(self):
self.imgbutton = InputImageButton(
"images/button-round.png",
self.pressbutton,
(0, 0),
frame=Frame(0, 0, 100, 100),
qty=2,
)
self.imgbutton.scale = 0.5
self.ii = ImageIndicator(
"images/red-led-off-on.png",
(300, 500),
self.imgbutton,
positioning="physical",
frame=Frame(0, 0, 600, 600),
qty=2,
)
self.ii.scale = 0.1
self.glassbutton = GlassButton(None, (0, -0.5))
self.toggle = MetalToggle(0, (0, -1))
self.Li = LEDIndicator((300, 450),
self.glassbutton,
positioning="physical")
self.Lit = LEDIndicator((300, 480),
self.toggle,
positioning="physical")
ma = MathApp()
ma.run()
self.imgbutton.destroy()
self.ii.destroy()
self.glassbutton.destroy()
self.toggle.destroy()
self.Li.destroy()
self.Lit.destroy()
def timercallback(self, timer):
self.assertEqual(timer, self.timer)
self.callbackcomplete = True
def test_timer(self):
self.callbackcomplete = False
self.timer = Timer()
self.timer.callAfter(0.1, self.timercallback)
ma = MathApp()
ma.run()
for i in range(10):
time.sleep(1 / 60)
ma._animate(1)
self.assertEquals(self.callbackcomplete, True)
self.timer.destroy()
""" Example of using MathApp Circle class. """ from ggame.point import Point from ggame.circle import Circle from ggame.mathapp import MathApp # P1 is the center of the circle P1 = Point((0.5, 1)) # P2 is on the perimeter P2 = Point((1.3, 1)) # define a circle from center and perimeter points C = Circle(P1, P2) # allow the user to drag the perimeter point to resize the circle P2.movable = True MathApp().run()