tick = 0
av_fps = 0
i_n=0
spf = 0.1 # seconds per frame, i.e. water image change
next_time = time.time() + spf
dx = 0.02
offset = 0.0 # uv offset
do = -0.001 # uv increment
# Fetch key presses.
mykeys = Keyboard()
fr = 0
# Display scene and rotate shape
while DISPLAY.loop_running():
myshape.draw()
myshape.rotateIncY(0.247)
myshape.rotateIncZ(0.1613)
myshape.translateX(dx)
if myshape.x() > 5: dx = -0.05
elif myshape.x() < -5: dx = 0.05
mywater.draw()
offset = (offset + do) % 1.0 # move texture offset in v direction
mywater.set_offset((0.0, offset))
mystring.draw()
mystring.rotateIncZ(0.05)
if time.time() > next_time:
i_n = (i_n + 1) % num_n
mymouse.start() omx, omy = mymouse.position() CAMERA = Camera.instance() # Display scene and rotate cuboid while DISPLAY.loop_running(): CAMERA.reset() CAMERA.rotate(tilt, rot, 0) CAMERA.position((xm, ym, zm)) # for opaque objects it is more efficient to draw from near to far as the # shader will not calculate pixels already concealed by something nearer monolith.draw() mytrees1.draw() mytrees2.draw() mytrees3.draw() mymap.draw() myecube.draw() mx, my = mymouse.position() #if mx>display.left and mx<display.right and my>display.top and my<display.bottom: rot -= (mx-omx)*0.2 tilt += (my-omy)*0.2 omx=mx omy=my #Press ESCAPE to terminate k = mykeys.read()
if (xm < -490 or xm > 490 or zm < -490 or zm > 490):
fly = True #reached the edge of the maze!
if not (mx == omx and my == omy and oxm == xm and ozm == zm):
CAMERA.reset()
CAMERA.rotate(tilt, 0, 0)
CAMERA.rotate(0, rot, 0)
CAMERA.position((xm, ym, zm))
omx = mx
omy = my
oxm = xm
ozm = zm
myecube.position(xm, ym, zm)
myecube.draw()
mymap.draw()
mytrees1.draw()
raspberry.draw()
monst.draw()
# monster movement
mDy -= gravity
mDelx, mDelz = mSx - xm, mSz - zm #distance from monster
mDist = math.sqrt(mDelx**2 + mDelz**2)
mDx = -0.1 * mDelx / mDist
mDz = -0.1 * mDelz / mDist
monst.rotateIncY(100.0 / mDist)
if mDist > 100: #far away so teleport it nearer
mSx, mSz = xm + 100 * random.random() - 50, zm + 100 * random.random(
) - 50
if mSx < -mapwidth / 2: mSx = -mapwidth / 2
if mSx > mapwidth / 2: mSx = mapwidth / 2
screenshot("forestWalk" + str(scshots) + ".jpg")
scshots += 1
elif k == 10: #key RETURN
mc = 0
elif k == 27: #Escape key
mykeys.close()
mymouse.stop()
DISPLAY.stop()
break
else:
print(k)
# for opaque objects it is more efficient to draw from near to far as the
# shader will not calculate pixels already concealed by something nearer
monolith.draw()
mytrees1.draw()
mytrees2.draw()
mytrees3.draw()
mymap.draw()
myecube.draw()
mx, my = mymouse.position()
#if mx>display.left and mx<display.right and my>display.top and my<display.bottom:
rot -= (mx - omx) * 0.2
tilt += (my - omy) * 0.2
omx = mx
omy = my
CAMERA.was_moved = False
quit()
tick = 0
av_fps = 0
i_n = 0
spf = 0.1 # seconds per frame, i.e. water image change
next_time = time.time() + spf
dx = 0.02
offset = 0.0 # uv offset
do = -0.001 # uv increment
# Fetch key presses.
mykeys = Keyboard()
fr = 0
# Display scene and rotate shape
while DISPLAY.loop_running():
myshape.draw()
myshape.rotateIncY(0.247)
myshape.rotateIncZ(0.1613)
myshape.translateX(dx)
if myshape.x() > 5: dx = -0.05
elif myshape.x() < -5: dx = 0.05
mywater.draw()
offset = (offset + do) % 1.0 # move texture offset in v direction
mywater.set_offset((0.0, offset))
mystring.draw()
mystring.rotateIncZ(0.05)
if time.time() > next_time:
i_n = (i_n + 1) % num_n
ym += dy*0.5
if (xm < -490 or xm > 490 or zm < -490 or zm > 490): fly = True #reached the edge of the maze!
if not (mx == omx and my == omy and oxm == xm and ozm == zm):
CAMERA.reset()
CAMERA.rotate(tilt, 0, 0)
CAMERA.rotate(0, rot, 0)
CAMERA.position((xm, ym, zm))
omx = mx
omy = my
oxm = xm
ozm = zm
myecube.position(xm, ym, zm)
myecube.draw()
mymap.draw()
mytrees1.draw()
raspberry.draw()
monst.draw()
# monster movement
mDy -= gravity
mDelx,mDelz = mSx-xm, mSz-zm #distance from monster
mDist = math.sqrt(mDelx**2 + mDelz**2)
mDx = -0.1*mDelx/mDist
mDz = -0.1*mDelz/mDist
monst.rotateIncY(100.0/mDist)
if mDist > 100: #far away so teleport it nearer
mSx, mSz = xm + 100*random.random() - 50, zm + 100*random.random() - 50
if mSx < -mapwidth/2: mSx = -mapwidth/2
if mSx > mapwidth/2: mSx = mapwidth/2
if mSz < -mapdepth/2: mSz = -mapdepth/2
while DISPLAY.loop_running(): CAMERA.reset() #tilt can be used as a means to prevent the view from going under the landscape! if tilt < -1: sf = 15 - 12.5/abs(tilt) else: sf = 2.5 xoff = sf*math.sin(math.radians(rot)) yoff = abs(1.25*sf*math.sin(math.radians(tilt))) + 3.25 zoff = -sf*math.cos(math.radians(rot)) CAMERA.rotate(tilt, rot, 0) CAMERA.position((xm + xoff, ym + yoff, zm + zoff)) #zoom CAMERA out so we can see our robot #draw robot robot.position(xm, ym, zm) robot.rotateToY(-rot) robot.draw() station.draw() mymap.draw() #Draw the landscape myecube.draw() #Draw environment cube myecube.position(xm, ym, zm) mx, my = mymouse.position() #if mx>DISPLAY.left and mx<DISPLAY.right and my>DISPLAY.top and my<DISPLAY.bottom: rot -= (mx-omx) * 0.2 tilt += (my-omy) * 0.1 omx = mx omy = my #Press ESCAPE to terminate
CAMERA.reset()
#tilt can be used as a means to prevent the view from going under the landscape!
if tilt < -1: sf = 15 - 12.5 / abs(tilt)
else: sf = 2.5
xoff = sf * math.sin(math.radians(rot))
yoff = abs(1.25 * sf * math.sin(math.radians(tilt))) + 3.25
zoff = -sf * math.cos(math.radians(rot))
CAMERA.rotate(tilt, rot, 0)
CAMERA.position((xm + xoff, ym + yoff,
zm + zoff)) #zoom CAMERA out so we can see our robot
#draw robot
robot.position(xm, ym, zm)
robot.rotateToY(-rot)
robot.draw()
station.draw()
mymap.draw() #Draw the landscape
myecube.draw() #Draw environment cube
myecube.position(xm, ym, zm)
mx, my = mymouse.position()
#if mx>DISPLAY.left and mx<DISPLAY.right and my>DISPLAY.top and my<DISPLAY.bottom:
rot -= (mx - omx) * 0.2
tilt += (my - omy) * 0.1
omx = mx
omy = my
#Press ESCAPE to terminate
