def point_camera(self):
pos = mouse.get_rel()
x_offset = pos[0]
y_offset = pos[1]
x_offset *= self.sensitivity
y_offset *= self.sensitivity
self.yaw += x_offset * self.sensitivity
self.pitch += -y_offset * self.sensitivity
if self.pitch > 89.0:
self.pitch = 89.0
if self.pitch < -89.0:
self.pitch = -89.0
direction_x = cos(radians(self.pitch)) * cos(radians(self.yaw))
direction_y = sin(radians(self.pitch))
direction_z = cos(radians(self.pitch)) * sin(radians(self.yaw))
self.camera_front = vector.normalise(
np.array([direction_x, direction_y, direction_z],
dtype=np.float32))
self.camera_front = Vector3(self.camera_front)
view_matrix = self.look_at(self.camera_position,
self.camera_position + self.camera_front)
glUniformMatrix4fv(self.view_loc, 1, GL_FALSE, view_matrix)
def getRel(self):
"""Returns the new position of the mouse relative to the
last call to getRel or getPos, in the same units as the :class:`~visual.Window`.
"""
if usePygame:
relPosPix=numpy.array(mouse.get_rel()) * [1,-1]
return self._pix2windowUnits(relPosPix)
else:
#NB getPost() resets lastPos so MUST retrieve lastPos first
if self.lastPos is None: relPos = self.getPos()
else: relPos = -self.lastPos+self.getPos()#DON't switch to (this-lastPos)
return relPos
def updateMousePosition(self):
self.mousePosition = self.mousePosition + Vector2(mouse.get_rel())
if self.mousePosition.x < 0:
self.mousePosition.x = 0
elif self.mousePosition.x > self.screenSize.x - self.rect.width:
self.mousePosition.x = self.screenSize.x - self.rect.width
if self.mousePosition.y < 0:
self.mousePosition.y = 0
elif self.mousePosition.y > self.screenSize.y - self.rect.h:
self.mousePosition.y = self.screenSize.y - self.rect.h
self.rect.x = self.mousePosition.x
self.rect.y = self.mousePosition.y
def React(self, events, keys):
# Process events.
for event in events:
if KEYDOWN == event.type:
if K_UP == event.key:
self.Player.Shoot()
elif K_SPACE == event.key:
self.Player.ShootBomb()
elif MOUSEBUTTONDOWN == event.type:
leftButton, middleButton, rightButton = mouse.get_pressed()
if leftButton:
self.Player.Shoot()
elif middleButton:
self.Player.ShootBomb()
# Process pressed keys.
if keys[K_LEFT]:
self.Player.Move(Direction.Left)
elif keys[K_RIGHT]:
self.Player.Move(Direction.Right)
rightMouseButton = mouse.get_pressed()[2]
self.Player._shieldUp = bool(keys[K_DOWN] or rightMouseButton)
# Process mouse input.
mouseMovement = mouse.get_rel()
self.Player.Move(Direction.Right, mouseMovement[0])
if __name__ == '__main__':
pygame.init()
SCREEN_SIZE = (800, 600) # initialize screen size
SCREEN = display.set_mode(SCREEN_SIZE) # load screen
triangle = Polygon([(0, 70), (110, 0), (110, 70)])
rhombus = Polygon([(0, 80), (20, 0), (80, 0), (60, 80)])
triangle.move_ip(200, 200)
rhombus.move_ip(300, 300)
font = Font(None, 24)
r = mouse.get_rel()
grab, other = None, None
while 1:
SCREEN.fill((0, 0, 0))
draw.polygon(SCREEN, (255, 0, 0), triangle.P, 1)
draw.polygon(SCREEN, (0, 0, 255), rhombus.P, 1)
mouse_pos = mouse.get_pos()
for ev in event.get():
if ev.type == KEYDOWN:
if ev.key == K_q: exit()
if ev.type == MOUSEBUTTONDOWN:
if grab: grab, other = None, None
elif rhombus.collidepoint(mouse_pos):
grab = rhombus
other = triangle
elif triangle.collidepoint(mouse_pos):
def mouse_relpos(self): return mouse.get_rel()
def update(self):
def go():
# START
# Fairly obvious, initialize the pygame library
pygame.init()
# Create the world in which all physical things reside. It is our coordinate system and universe.
world = World(vector((20.0, 20.0, 2000.0)), vector((-10.0, 0.0, 10.0)))
# Create startup cameras and make the world visible to them
eyecam = Camera()
eyecam.registerObject(world)
scopecam = Camera()
scopecam.registerObject(world)
# Setup the program window (just a special case of a View)
screen = Screen(eyecam, vector((1000,800,0)), -1.0)
screen.display = pygame.display.set_mode((1000, 800))
# Setup the display surfaces to be drawn to screen and list them
main_dim = vector((1000,800,0.0))
scope_dim = vector((240,240,0.0))
mainview = View(eyecam, main_dim, zero_vector, 1.0)
scopeview = Scope(scopecam, scope_dim, (main_dim - scope_dim) / 2.0, 4.0)
views = [ mainview, scopeview ]
# Hide the cursor
mouse.set_visible(False)
# Let's set up some useful variables
now = pygame.time.get_ticks() # The current program time
shot_fired = False #
chase_bullet = False
hide_scope = True
lock_mouse = False
power = 100.0
#mainview.reposition(eyecam)
scopeview.setPower(power)
timescale = 1.0
tot_mag = 0.0
tot_dur = 0.0
frames = 0
if lock_mouse:
mouse.set_pos((scope_dim / 2.0).xy())
while 1:
last_t = now
now = pygame.time.get_ticks()
t_length = float(now - last_t)
if world.has_hit:
shot_end = now
#break
if world.bullet.position.z() > world.target.position.z() + 1000.0:
#world.bullet.position = vector((world.bullet.position.x(), world.bullet.position.y(), world.target.position.z() - 0.01))
shot_end = now
break
#pass
for event in pygame.event.get():
if event.type == pygame.MOUSEBUTTONDOWN:
if event.dict['button'] == 4:
power += 1.0
if event.dict['button'] == 5:
power -= 1.0
power = scopeview.setPower(power)
print power
if event.type == pygame.QUIT:
sys.exit()
sx, sy = (0.5 * mainview.dimensions).xy()
if lock_mouse:
mx, my = mouse.get_rel()
mouse.set_pos(sx, sy)
r = (1.0 / (10000 * power))* (vector((sx - mx, sy - my, 0)))
scopecam.rotation += r
eyecam.rotation += r
else:
mx, my = mouse.get_pos()
r = (1.0 / (1000 * power))* (vector((sx - mx, sy - my, 0)))
scopecam.rotation = r
eyecam.rotation = r
world.bullet.rotation = scopecam.rotation
scopeview.reposition(scopeview.camera)
mainview.reposition(mainview.camera)
b1, b2, b3 = mouse.get_pressed()
if b1 and not shot_fired:
shot_fired = True
shot_start = now
world.bullet.velocity = rotate(vector((0.0,0.0,800.0)), (-world.bullet.rotation - scopeview.tweaks))
print 'Start Velocity: ' + str(world.bullet.velocity.magnitude())
#mainview.camera.rotation = zero_vector
mainview.setPower(50.0)
#scopeview.reposition(view.camera)
#scopeview.overlay = [] # hide scope
world.movers += [world.bullet]
# Move everything. The world does most of the work once we tell it to,
# we just need to handle the less tangible stuff.
world.moveObjects(timescale * (t_length / 1000.0))
# Bullet chasing
if shot_fired:
#scopecam.rotation = world.bullet.rotation
if hide_scope:
scopeview.visible = False
bp = world.bullet.position
lbp = world.bullet.last_position
diff = bp - lbp
mag = diff.magnitude()
magxz = sqrt(diff.x()**2 + diff.z()**2)
frames += 1
tot_mag += mag
tot_dur += t_length * timescale
if chase_bullet and mag > 0.0:
h = arctan2(diff.x(), diff.z())
e = arcsin(diff.y() / mag)
eyecam.rotation = vector((h, -e, 0))
eyecam.position = bp & vector((1,1,1))
mainview.setPower(10.0)
mainview.reposition(mainview.camera)
#print eyecam.position
#scopeview.reposition(eyecam)
# Grab each view's camera image, then draw them to the program window in sequence
for view in views:
view.updateDisplay()
view.draw(screen.display)
#
fps = 1000.0 / (t_length + (1 if t_length == 0 else 0))
screen.drawOverlay((fps,))
pygame.display.flip()
for view in views:
view.updateDisplay()
view.draw(screen.display, (screen.dimensions - view.dimensions) / 2.0)
pygame.display.flip()
print "Flight time: " + str(tot_dur / 1000.0) + " s"
print "Impact energy: " + str(.5 * world.bullet.mass * world.bullet.velocity.magnitude() ** 2) + " J"
print 'End Position'
print world.bullet.position
print 'End Velocity: ' + str(world.bullet.velocity.magnitude())
print "Average frame time: " + str((tot_dur / 1000.0) / float(frames))
print "Average FPS: " + str(float(frames) / tot_dur * 1000)
print "Average distance per frame: " + str(tot_mag / float(frames))
pygame.time.delay(1000)
pygame.display.quit()
pygame.quit()
def update(self):
"""move the objects or tiles as needed and handle the expansion of the
tile 2d list as needed based on the user panning the map."""
delta = mouse.get_rel()
if (self.selected != None):
self.selected.move(delta[0], delta[1])
if (self.scrolling):
self.x_offset += delta[0]
self.y_offset += delta[1]
#if the tiles have gone to far to the left on the x append a column
#~of tiles
#Use the top right tile to get the x and y value
#advance through the rows and add a column of tiles to the
#~right
top_left = self.tiles[0][0]
bottom_right = self.tiles[len(self.tiles) - 1][len(self.tiles[0]) -
1]
if (bottom_right.rect.right + self.x_offset < 650):
for i, row in enumerate(self.tiles):
right = self.tiles[i][len(self.tiles[i]) - 1]
tile = Tile('resources/terrain/grass0.png',
x=right.rect.right,
y=right.rect.y)
tile.in_bin = False
row.append(tile)
#if the tiles have gone too far up on the y append a row to tiles
#~and fill with Tiles
if (bottom_right.rect.bottom + self.y_offset < 500):
row = []
for i in range(0, len(self.tiles[0])):
bottom = self.tiles[len(self.tiles) - 1][i]
tile = Tile('resources/terrain/grass0.png',
x=bottom.rect.x,
y=bottom.rect.y + Tile.HEIGHT)
tile.in_bin = False
row.append(tile)
self.tiles.append(row)
#if the tiles have gone too far right on the x advance throught the
#~rows and insert a row of tiles on the left
if (top_left.rect.x + self.x_offset > 100):
for i, row in enumerate(self.tiles):
left = self.tiles[i][0]
tile = Tile('resources/terrain/grass0.png',
x=left.rect.x - Tile.WIDTH,
y=left.rect.y)
tile.in_bin = False
row.insert(0, tile)
#if the tiles have gone too far down on the y insert a new row at
#~the begining and fill it with tiles
if (top_left.rect.y + self.y_offset > -50):
row = []
for i in range(0, len(self.tiles[0])):
top = self.tiles[0][i]
tile = Tile('resources/terrain/grass0.png',
x=top.rect.x,
y=top.rect.y - Tile.HEIGHT)
tile.in_bin = False
row.append(tile)
self.tiles.insert(0, row)
if __name__ == '__main__':
pygame.init()
SCREEN_SIZE = (800, 600) # initialize screen size
SCREEN = display.set_mode(SCREEN_SIZE) # load screen
triangle = Polygon([(0, 70), (110, 0), (110, 70)])
rhombus = Polygon([(0, 80), (20, 0), (80, 0), (60, 80)])
triangle.move_ip(200, 200)
rhombus.move_ip(300, 300)
font = Font(None, 24)
r = mouse.get_rel()
grab, other = None, None
while 1:
SCREEN.fill((0, 0, 0))
draw.polygon(SCREEN, (255, 0, 0), triangle.P, 1)
draw.polygon(SCREEN, (0, 0, 255), rhombus.P, 1)
mouse_pos = mouse.get_pos()
for ev in event.get():
if ev.type == KEYDOWN:
if ev.key == K_q: exit()
if ev.type == MOUSEBUTTONDOWN:
if grab: grab, other = None, None
elif rhombus.collidepoint(mouse_pos):
grab = rhombus
other = triangle
elif triangle.collidepoint(mouse_pos):
def go():
# START
# Fairly obvious, initialize the pygame library
pygame.init()
# Create the world in which all physical things reside. It is our coordinate system and universe.
world = World(vector((20.0, 20.0, 2000.0)), vector((-10.0, 0.0, 10.0)))
# Create startup cameras and make the world visible to them
eyecam = Camera()
eyecam.registerObject(world)
scopecam = Camera()
scopecam.registerObject(world)
# Setup the program window (just a special case of a View)
screen = Screen(eyecam, vector((1000, 800, 0)), -1.0)
screen.display = pygame.display.set_mode((1000, 800))
# Setup the display surfaces to be drawn to screen and list them
main_dim = vector((1000, 800, 0.0))
scope_dim = vector((240, 240, 0.0))
mainview = View(eyecam, main_dim, zero_vector, 1.0)
scopeview = Scope(scopecam, scope_dim, (main_dim - scope_dim) / 2.0, 4.0)
views = [mainview, scopeview]
# Hide the cursor
mouse.set_visible(False)
# Let's set up some useful variables
now = pygame.time.get_ticks() # The current program time
shot_fired = False #
chase_bullet = False
hide_scope = True
lock_mouse = False
power = 100.0
#mainview.reposition(eyecam)
scopeview.setPower(power)
timescale = 1.0
tot_mag = 0.0
tot_dur = 0.0
frames = 0
if lock_mouse:
mouse.set_pos((scope_dim / 2.0).xy())
while 1:
last_t = now
now = pygame.time.get_ticks()
t_length = float(now - last_t)
if world.has_hit:
shot_end = now
#break
if world.bullet.position.z() > world.target.position.z() + 1000.0:
#world.bullet.position = vector((world.bullet.position.x(), world.bullet.position.y(), world.target.position.z() - 0.01))
shot_end = now
break
#pass
for event in pygame.event.get():
if event.type == pygame.MOUSEBUTTONDOWN:
if event.dict['button'] == 4:
power += 1.0
if event.dict['button'] == 5:
power -= 1.0
power = scopeview.setPower(power)
print power
if event.type == pygame.QUIT:
sys.exit()
sx, sy = (0.5 * mainview.dimensions).xy()
if lock_mouse:
mx, my = mouse.get_rel()
mouse.set_pos(sx, sy)
r = (1.0 / (10000 * power)) * (vector((sx - mx, sy - my, 0)))
scopecam.rotation += r
eyecam.rotation += r
else:
mx, my = mouse.get_pos()
r = (1.0 / (1000 * power)) * (vector((sx - mx, sy - my, 0)))
scopecam.rotation = r
eyecam.rotation = r
world.bullet.rotation = scopecam.rotation
scopeview.reposition(scopeview.camera)
mainview.reposition(mainview.camera)
b1, b2, b3 = mouse.get_pressed()
if b1 and not shot_fired:
shot_fired = True
shot_start = now
world.bullet.velocity = rotate(vector(
(0.0, 0.0,
800.0)), (-world.bullet.rotation - scopeview.tweaks))
print 'Start Velocity: ' + str(world.bullet.velocity.magnitude())
#mainview.camera.rotation = zero_vector
mainview.setPower(50.0)
#scopeview.reposition(view.camera)
#scopeview.overlay = [] # hide scope
world.movers += [world.bullet]
# Move everything. The world does most of the work once we tell it to,
# we just need to handle the less tangible stuff.
world.moveObjects(timescale * (t_length / 1000.0))
# Bullet chasing
if shot_fired:
#scopecam.rotation = world.bullet.rotation
if hide_scope:
scopeview.visible = False
bp = world.bullet.position
lbp = world.bullet.last_position
diff = bp - lbp
mag = diff.magnitude()
magxz = sqrt(diff.x()**2 + diff.z()**2)
frames += 1
tot_mag += mag
tot_dur += t_length * timescale
if chase_bullet and mag > 0.0:
h = arctan2(diff.x(), diff.z())
e = arcsin(diff.y() / mag)
eyecam.rotation = vector((h, -e, 0))
eyecam.position = bp & vector((1, 1, 1))
mainview.setPower(10.0)
mainview.reposition(mainview.camera)
#print eyecam.position
#scopeview.reposition(eyecam)
# Grab each view's camera image, then draw them to the program window in sequence
for view in views:
view.updateDisplay()
view.draw(screen.display)
#
fps = 1000.0 / (t_length + (1 if t_length == 0 else 0))
screen.drawOverlay((fps, ))
pygame.display.flip()
for view in views:
view.updateDisplay()
view.draw(screen.display, (screen.dimensions - view.dimensions) / 2.0)
pygame.display.flip()
print "Flight time: " + str(tot_dur / 1000.0) + " s"
print "Impact energy: " + str(
.5 * world.bullet.mass * world.bullet.velocity.magnitude()**2) + " J"
print 'End Position'
print world.bullet.position
print 'End Velocity: ' + str(world.bullet.velocity.magnitude())
print "Average frame time: " + str((tot_dur / 1000.0) / float(frames))
print "Average FPS: " + str(float(frames) / tot_dur * 1000)
print "Average distance per frame: " + str(tot_mag / float(frames))
pygame.time.delay(1000)
pygame.display.quit()
pygame.quit()
