def setupCube():
geode = osg.Geode()
geode.addDrawable(osg.ShapeDrawable(osg.Box(osg.Vec3(0.0,0.0,0.0),2)))
geode.setStateSet(setupStateSet())
return geode
def createTouchRepresentations(parent_group, num_objects):
# create some geometry which is shown for every touch-point
for(unsigned int i = 0 i not = num_objects ++i)
ss = std.ostringstream()
geode = osg.Geode()
drawable = osg.ShapeDrawable(osg.Box(osg.Vec3(0,0,0), 100))
drawable.setColor(osg.Vec4(0.5, 0.5, 0.5,1))
geode.addDrawable(drawable)
ss, "Touch ", i
text = osgText.Text()
geode.addDrawable( text )
drawable.setDataVariance(osg.Object.DYNAMIC)
_drawables.push_back(drawable)
text.setFont("fonts/arial.ttf")
text.setPosition(osg.Vec3(110,0,0))
text.setText(ss.str())
_texts.push_back(text)
text.setDataVariance(osg.Object.DYNAMIC)
mat = osg.MatrixTransform()
mat.addChild(geode)
mat.setNodeMask(0x0)
_mats.push_back(mat)
parent_group.addChild(mat)
def buildEndEffector():
mt = osg.MatrixTransform()
m = osg.Matrix()
length = 17.0
m.makeTranslate(0,0,length/2)
mt.setMatrix(m)
geode_3 = osg.Geode()
shape1 = osg.ShapeDrawable(osg.Box(osg.Vec3(-EndEffector, 0.0, 0.0), .5, 1.5, length), hints)
shape2 = osg.ShapeDrawable(osg.Box(osg.Vec3( EndEffector, 0.0, 0.0), .5, 1.5, length), hints)
shape1.setColor(osg.Vec4(0.8, 0.8, 0.4, 1.0))
shape2.setColor(osg.Vec4(0.8, 0.8, 0.4, 1.0))
geode_3.addDrawable(shape1)
geode_3.addDrawable(shape2)
mt.addChild(geode_3)
return mt
def createShapes():
geode = osg.Geode()
# ---------------------------------------
# Set up a StateSet to texture the objects
# ---------------------------------------
stateset = osg.StateSet()
image = osgDB.readImageFile( "Images/lz.rgb" )
if image :
texture = osg.Texture2D()
texture.setImage(image)
texture.setFilter(osg.Texture.MIN_FILTER, osg.Texture.LINEAR)
stateset.setTextureAttributeAndModes(0,texture, osg.StateAttribute.ON)
stateset.setMode(GL_LIGHTING, osg.StateAttribute.ON)
geode.setStateSet( stateset )
radius = 0.8
height = 1.0
hints = osg.TessellationHints()
hints.setDetailRatio(0.5)
geode.addDrawable(osg.ShapeDrawable(osg.Sphere(osg.Vec3(0.0,0.0,0.0),radius),hints))
geode.addDrawable(osg.ShapeDrawable(osg.Box(osg.Vec3(2.0,0.0,0.0),2*radius),hints))
geode.addDrawable(osg.ShapeDrawable(osg.Cone(osg.Vec3(4.0,0.0,0.0),radius,height),hints))
geode.addDrawable(osg.ShapeDrawable(osg.Cylinder(osg.Vec3(6.0,0.0,0.0),radius,height),hints))
geode.addDrawable(osg.ShapeDrawable(osg.Capsule(osg.Vec3(8.0,0.0,0.0),radius,height),hints))
grid = osg.HeightField()
grid.allocate(38,39)
grid.setXInterval(0.28)
grid.setYInterval(0.28)
for(unsigned int r=0r<39++r)
for(unsigned int c=0c<38++c)
grid.setHeight(c,r,vertex[r+c*39][2])
def main(argv):
# use an ArgumentParser object to manage the program arguments.
arguments = osg.ArgumentParser(argv)
# read the scene from the list of file specified commandline args.
scene = osgDB.readNodeFiles(arguments)
# if not loaded assume no arguments passed in, try use default model instead.
if not scene : scene = osgDB.readNodeFile("dumptruck.osgt")
if not scene :
geode = osg.Geode()
drawable = osg.ShapeDrawable(osg.Box(osg.Vec3(0,0,0), 100))
drawable.setColor(osg.Vec4(0.5, 0.5, 0.5,1))
geode.addDrawable(drawable)
scene = geode
# construct the viewer.
viewer = osgViewer.Viewer()
group = osg.Group()
# add the HUD subgraph.
if scene.valid() : group.addChild(scene)
viewer.setCameraManipulator(osgGA.MultiTouchTrackballManipulator())
viewer.realize()
gc = viewer.getCamera().getGraphicsContext()
#ifdef __APPLE__
# as multitouch is disabled by default, enable it now
win = dynamic_cast<osgViewer.GraphicsWindowCocoa*>(gc)
if win : win.setMultiTouchEnabled(True)
def createTexturedCube(fRadius, vPosition, texture, geodeName):
# create a cube shape
bCube = osg.Box(vPosition,fRadius)
# osg.Box *bCube = osg.Box(vPosition,fRadius)
# create a container that makes the cube drawable
sdCube = osg.ShapeDrawable(bCube)
# create a geode object to as a container for our drawable cube object
geodeCube = osg.Geode()
geodeCube.setName( geodeName )
# set the object texture state
SetObjectTextureState(geodeCube, texture)
# add our drawable cube to the geode container
geodeCube.addDrawable(sdCube)
return(geodeCube)
def createDemoScene(fixedSizeInScreen):
root = osg.Group()
geode_1 = osg.Geode()
transform_1 = osg.MatrixTransform()
geode_2 = osg.Geode()
transform_2 = osg.MatrixTransform()
geode_3 = osg.Geode()
transform_3 = osg.MatrixTransform()
geode_4 = osg.Geode()
transform_4 = osg.MatrixTransform()
geode_5 = osg.Geode()
transform_5 = osg.MatrixTransform()
geode_6 = osg.Geode()
transform_6 = osg.MatrixTransform()
geode_7 = osg.Geode()
transform_7 = osg.MatrixTransform()
radius = 0.8
height = 1.0
hints = osg.TessellationHints()
hints.setDetailRatio(2.0)
shape = osg.ShapeDrawable()
shape = osg.ShapeDrawable(osg.Box(osg.Vec3(0.0, 0.0, -2.0), 10, 10.0, 0.1), hints)
shape.setColor(osg.Vec4(0.5, 0.5, 0.7, 1.0))
geode_1.addDrawable(shape)
shape = osg.ShapeDrawable(osg.Cylinder(osg.Vec3(0.0, 0.0, 0.0), radius * 2,radius), hints)
shape.setColor(osg.Vec4(0.8, 0.8, 0.8, 1.0))
geode_2.addDrawable(shape)
shape = osg.ShapeDrawable(osg.Cylinder(osg.Vec3(-3.0, 0.0, 0.0), radius,radius), hints)
shape.setColor(osg.Vec4(0.6, 0.8, 0.8, 1.0))
geode_3.addDrawable(shape)
shape = osg.ShapeDrawable(osg.Cone(osg.Vec3(3.0, 0.0, 0.0), 2 * radius,radius), hints)
shape.setColor(osg.Vec4(0.4, 0.9, 0.3, 1.0))
geode_4.addDrawable(shape)
shape = osg.ShapeDrawable(osg.Cone(osg.Vec3(0.0, -3.0, 0.0), radius, height), hints)
shape.setColor(osg.Vec4(0.2, 0.5, 0.7, 1.0))
geode_5.addDrawable(shape)
shape = osg.ShapeDrawable(osg.Cylinder(osg.Vec3(0.0, 3.0, 0.0), radius, height), hints)
shape.setColor(osg.Vec4(1.0, 0.3, 0.3, 1.0))
geode_6.addDrawable(shape)
shape = osg.ShapeDrawable(osg.Cone(osg.Vec3(0.0, 0.0, 3.0), 2.0, 2.0), hints)
shape.setColor(osg.Vec4(0.8, 0.8, 0.4, 1.0))
geode_7.addDrawable(shape)
# material
matirial = osg.Material()
matirial.setColorMode(osg.Material.DIFFUSE)
matirial.setAmbient(osg.Material.FRONT_AND_BACK, osg.Vec4(0, 0, 0, 1))
matirial.setSpecular(osg.Material.FRONT_AND_BACK, osg.Vec4(1, 1, 1, 1))
matirial.setShininess(osg.Material.FRONT_AND_BACK, 64.0)
root.getOrCreateStateSet().setAttributeAndModes(matirial, osg.StateAttribute.ON)
transform_1.addChild(addDraggerToScene(geode_1,"TabBoxDragger",fixedSizeInScreen))
transform_2.addChild(addDraggerToScene(geode_2,"TabPlaneDragger",fixedSizeInScreen))
transform_3.addChild(addDraggerToScene(geode_3,"TabBoxTrackballDragger",fixedSizeInScreen))
transform_4.addChild(addDraggerToScene(geode_4,"TrackballDragger",fixedSizeInScreen))
transform_5.addChild(addDraggerToScene(geode_5,"Translate1DDragger",fixedSizeInScreen))
transform_6.addChild(addDraggerToScene(geode_6,"Translate2DDragger",fixedSizeInScreen))
transform_7.addChild(addDraggerToScene(geode_7,"TranslateAxisDragger",fixedSizeInScreen))
root.addChild(transform_1)
root.addChild(transform_2)
root.addChild(transform_3)
root.addChild(transform_4)
root.addChild(transform_5)
root.addChild(transform_6)
root.addChild(transform_7)
return root
def main(argv):
# use an ArgumentParser object to manage the program arguments.
arguments = osg.ArgumentParser(argv)
# read the scene from the list of file specified commandline args.
scene = osgDB.readNodeFiles(arguments)
if not scene and arguments.read("--relative-camera-scene") :
# Create a test scene with a camera that has a relative reference frame.
group = osg.Group()
sphere = osg.Geode()
sphere.setName("Sphere")
sphere.addDrawable(osg.ShapeDrawable(osg.Sphere()))
cube = osg.Geode()
cube.setName("Cube")
cube.addDrawable(osg.ShapeDrawable(osg.Box()))
camera = osg.Camera()
camera.setRenderOrder(osg.Camera.POST_RENDER)
camera.setClearMask(GL_DEPTH_BUFFER_BIT)
camera.setReferenceFrame(osg.Transform.RELATIVE_RF)
camera.setViewMatrix(osg.Matrix.translate(-2, 0, 0))
xform = osg.MatrixTransform(osg.Matrix.translate(1, 1, 1))
xform.addChild(camera)
group.addChild(sphere)
group.addChild(xform)
camera.addChild(cube)
scene = group
# if not loaded assume no arguments passed in, try use default mode instead.
if not scene : scene = osgDB.readNodeFile("fountain.osgt")
group = dynamic_cast<osg.Group*>(scene)
if not group :
group = osg.Group()
group.addChild(scene)
updateText = osgText.Text()
# add the HUD subgraph.
group.addChild(createHUD(updateText))
if arguments.read("--CompositeViewer") :
view = osgViewer.View()
# add the handler for doing the picking
view.addEventHandler(PickHandler(updateText))
# set the scene to render
view.setSceneData(group)
view.setUpViewAcrossAllScreens()
viewer = osgViewer.CompositeViewer()
viewer.addView(view)
return viewer.run()
else:
viewer = osgViewer.Viewer()
# add all the camera manipulators
keyswitchManipulator = osgGA.KeySwitchMatrixManipulator()
keyswitchManipulator.addMatrixManipulator( ord("1"), "Trackball", osgGA.TrackballManipulator() )
keyswitchManipulator.addMatrixManipulator( ord("2"), "Flight", osgGA.FlightManipulator() )
keyswitchManipulator.addMatrixManipulator( ord("3"), "Drive", osgGA.DriveManipulator() )
num = keyswitchManipulator.getNumMatrixManipulators()
keyswitchManipulator.addMatrixManipulator( ord("4"), "Terrain", osgGA.TerrainManipulator() )
pathfile = str()
keyForAnimationPath = ord("5")
while arguments.read("-p",pathfile) :
apm = osgGA.AnimationPathManipulator(pathfile)
if apm or not apm.valid() :
num = keyswitchManipulator.getNumMatrixManipulators()
keyswitchManipulator.addMatrixManipulator( keyForAnimationPath, "Path", apm )
++keyForAnimationPath
keyswitchManipulator.selectMatrixManipulator(num)
viewer.setCameraManipulator( keyswitchManipulator )
# add the handler for doing the picking
viewer.addEventHandler(PickHandler(updateText))
# set the scene to render
viewer.setSceneData(group)
return viewer.run()
AnimateCallback(Operation op) : _operation(op)
virtual void operator() ( osg.Uniform* uniform, osg.NodeVisitor* nv )
angle = 2.0 * nv.getFrameStamp().getSimulationTime()
sine = sinf( angle ) # -1 . 1
switch(_operation)
case SIN : uniform.set( sine ) break
_operation = Operation()
int main(int, char **)
# construct the viewer.
viewer = osgViewer.Viewer()
# use a geode with a Box ShapeDrawable
basicModel = osg.Geode()
basicModel.addDrawable(osg.ShapeDrawable(osg.Box(osg.Vec3(0.0,0.0,0.0),1.0)))
# create the "blocky" shader, a simple animation test
ss = basicModel.getOrCreateStateSet()
program = osg.Program()
program.setName( "blocky" )
program.addShader( osg.Shader( osg.Shader.VERTEX, blockyVertSource ) )
program.addShader( osg.Shader( osg.Shader.FRAGMENT, blockyFragSource ) )
ss.setAttributeAndModes(program, osg.StateAttribute.ON)
# attach some animated Uniform variable to the state set
SineUniform = osg.Uniform( "Sine", 0.0 )
ss.addUniform( SineUniform )
SineUniform.setUpdateCallback(AnimateCallback(AnimateCallback.SIN))
# run the osg.Viewer using our model
def main():
viewer = osgViewer.Viewer()
# Declare a group to act as root node of a scene:
root = osg.Group()
# Declare a box class (derived from shape class) instance
# This constructor takes an osg.Vec3 to define the center
# and a float to define the height, width and depth.
# (an overloaded constructor allows you to specify unique
# height, width and height values.)
unitCube = osg.Box( osg.Vec3(0,0,0), 1.0)
unitCube.setDataVariance(osg.Object.DYNAMIC)
# Declare an instance of the shape drawable class and initialize
# it with the unitCube shape we created above.
# This class is derived from 'drawable' so instances of this
# class can be added to Geode instances.
unitCubeDrawable = osg.ShapeDrawable(unitCube)
# Declare a instance of the geode class:
basicShapesGeode = osg.Geode()
# Add the unit cube drawable to the geode:
basicShapesGeode.addDrawable(unitCubeDrawable)
# Add the goede to the scene:
root.addChild(basicShapesGeode)
unitSphere = osg.Sphere( osg.Vec3(0,0,0), 1.0)
unitSphereDrawable = osg.ShapeDrawable(unitSphere)
unitSphereDrawable.setColor( osg.Vec4(0.1, 0.1, 0.1, 0.1) )
unitSphereXForm = osg.PositionAttitudeTransform()
unitSphereXForm.setPosition(osg.Vec3(3.0,0,0))
unitSphereGeode = osg.Geode()
root.addChild(unitSphereXForm)
unitSphereXForm.addChild(unitSphereGeode)
unitSphereGeode.addDrawable(unitSphereDrawable)
pyramidGeode = createPyramid()
pyramidXForm = osg.PositionAttitudeTransform()
pyramidXForm.setPosition(osg.Vec3(0,-3.0,0))
root.addChild(pyramidXForm)
pyramidXForm.addChild(pyramidGeode)
KLN89FaceTexture = osg.Texture2D()
# protect from being optimized away as static state:
KLN89FaceTexture.setDataVariance(osg.Object.DYNAMIC)
klnFace = osgDB.readImageFile("../NPS_Data/Textures/KLN89FaceB.tga")
if klnFace is None:
print " couldn't find texture, quitting."
sys.exit(-1)
KLN89FaceTexture.setImage(klnFace)
# Declare a state set for 'BLEND' texture mode
blendStateSet = osg.StateSet()
# Declare a TexEnv instance, set the mode to 'BLEND'
blendTexEnv = osg.TexEnv()
blendTexEnv.setMode(osg.TexEnv.BLEND)
# Turn the attribute of texture 0 'ON'
blendStateSet.setTextureAttributeAndModes(0,KLN89FaceTexture,osg.StateAttribute.ON)
# Set the texture texture environment for texture 0 to the
# texture envirnoment we declared above:
blendStateSet.setTextureAttribute(0,blendTexEnv)
decalStateSet = osg.StateSet()
decalTexEnv = osg.TexEnv()
decalTexEnv.setMode(osg.TexEnv.DECAL)
decalStateSet.setTextureAttributeAndModes(0,KLN89FaceTexture,osg.StateAttribute.ON)
decalStateSet.setTextureAttribute(0,decalTexEnv)
root.setStateSet(blendStateSet)
unitSphereGeode.setStateSet(decalStateSet)
# OSG1 viewer.setUpViewer(osgProducer.Viewer.STANDARD_SETTINGS)
viewer.setSceneData( root )
viewer.setCameraManipulator(osgGA.TrackballManipulator())
viewer.realize()
while not viewer.done():
viewer.frame()
return 0
def main(argv):
arguments = osg.ArgumentParser(argv)
# construct the viewer.
viewer = osgViewer.Viewer(arguments)
typedef std.list< osg.OperationThread > Threads
operationThreads = Threads()
updateOperation = UpdateTextOperation()
numThreads = 0
if arguments.read("--mt", numThreads) or arguments.read("--mt") :
# construct a multi-threaded text updating test.
if numThreads==0 : numThreads = 1
# create a group to add everything into.
mainGroup = osg.Group()
center = osg.Vec3(0.5,0.5,0.5)
diameter = 1.0
loadedModel = osgDB.readNodeFiles(arguments)
if loadedModel.valid() :
mainGroup.addChild(loadedModel)
center = loadedModel.getBound().center()
diameter = loadedModel.getBound().radius() * 2.0
for(unsigned int i=0 i<numThreads ++i)
textGroup = osg.Group()
mainGroup.addChild(textGroup)
# create the background thread
operationThread = osg.OperationThread()
operationThreads.push_back(operationThread)
# create the operation that will run in the background and
# sync once per frame with the main viewer loop.
updateOperation = UpdateTextOperation(center, diameter, textGroup)
# add the operation to the operation thread and start it.
operationThread.add(updateOperation)
operationThread.startThread()
# add the operation to the viewer to sync once per frame.
viewer.addUpdateOperation(updateOperation)
# add a unit cube for the text to appear within.
geode = osg.Geode()
geode.getOrCreateStateSet().setAttribute(osg.PolygonMode(osg.PolygonMode.FRONT_AND_BACK,osg.PolygonMode.LINE))
geode.addDrawable(osg.ShapeDrawable(osg.Box(center,diameter)))
mainGroup.addChild(geode)
viewer.setSceneData(mainGroup)
def main(argv):
arguments = osg.ArgumentParser( argc, argv )
textureFile = str("Images/smoke.rgb")
while arguments.read("--texture", textureFile) :
pointSize = 20.0
while arguments.read("--point", pointSize) :
visibilityDistance = -1.0
while arguments.read("--visibility", visibilityDistance) :
customShape = False
while arguments.read("--enable-custom") : customShape = True
useShaders = True
while arguments.read("--disable-shaders") : useShaders = False
#**
# Customize particle template and system attributes
# **
ps = osgParticle.ParticleSystem()
ps.getDefaultParticleTemplate().setLifeTime( 5.0 )
if customShape :
# osgParticle now supports making use of customized drawables. The draw() method will be executed
# and display lists will be called for each particle. It is always a huge consumption of memory, and
# hardly to use shaders to render them, so please be careful using this feature.
ps.getDefaultParticleTemplate().setShape( osgParticle.Particle.USER )
ps.getDefaultParticleTemplate().setDrawable( osg.ShapeDrawable(osg.Box(osg.Vec3(), 1.0)) )
useShaders = False
else:
# The shader only supports rendering points at present.
ps.getDefaultParticleTemplate().setShape( osgParticle.Particle.POINT )
# Set the visibility distance of particles, due to their Z-value in the eye coordinates.
# Particles that are out of the distance (or behind the eye) will not be rendered.
ps.setVisibilityDistance( visibilityDistance )
if useShaders :
# Set using local GLSL shaders to render particles.
# At present, this is slightly efficient than ordinary methods. The bottlenack here seems to be the cull
# traversal time. Operators go through the particle list again and again...
ps.setDefaultAttributesUsingShaders( textureFile, True, 0 )
else:
# The default methods uses glBegin()/glEnd() pairs. Fortunately the GLBeginEndAdapter does improve the
# process, which mimics the immediate mode with glDrawArrays().
ps.setDefaultAttributes( textureFile, True, False, 0 )
# Without the help of shaders, we have to sort particles to make the visibility distance work. Sorting is
# also useful in rendering transparent particles in back-to-front order.
if visibilityDistance>0.0 :
ps.setSortMode( osgParticle.ParticleSystem.SORT_BACK_TO_FRONT )
# At last, to make the point sprite work, we have to set the points size and the sprite attribute.
stateset = ps.getOrCreateStateSet()
stateset.setAttribute( osg.Point(pointSize) )
stateset.setTextureAttributeAndModes( 0, osg.PointSprite, osg.StateAttribute.ON )()
#**
# Construct other particle system elements, including the emitter and program
# **
emitter = osgParticle.ModularEmitter()
emitter.setParticleSystem( ps )
program = osgParticle.ModularProgram()
program.setParticleSystem( ps )
createFountainEffect( emitter, program )
#**
# Add the entire particle system to the scene graph
# **
parent = osg.MatrixTransform()
parent.addChild( emitter )
parent.addChild( program )
# The updater can receive particle systems as child drawables now. The addParticleSystem() method
# is still usable, with which we should define another geode to contain a particle system.
updater = osgParticle.ParticleSystemUpdater()
#updater.addDrawable( ps )
root = osg.Group()
root.addChild( parent )
root.addChild( updater )
# FIXME 2010.9.19: the updater can't be a drawable otehrwise the ParticleEffect will not work properly. why?
updater.addParticleSystem( ps )
geode = osg.Geode()
geode.addDrawable( ps )
root.addChild( geode )
#**
# Start the viewer
# **
viewer = osgViewer.Viewer()
viewer.addEventHandler( osgGA.StateSetManipulator(viewer.getCamera().getOrCreateStateSet()) )
viewer.addEventHandler( osgViewer.StatsHandler )()
viewer.addEventHandler( osgViewer.WindowSizeHandler )()
viewer.setSceneData( root )
viewer.setCameraManipulator( osgGA.TrackballManipulator )()
# A floating error of delta-time should be explained here:
# The particles emitter, program and updater all use a 'dt' to compute the time value in every frame.
# Because the 'dt' is a double value, it is not suitable to keep three copies of it seperately, which
# is the previous implementation. The small error makes some opeartors unable to work correctly, e.g.
# the BounceOperator.
# Now we make use of the getDeltaTime() of ParticleSystem to maintain and dispatch the delta time. But..
# it is not the best solution so far, since there are still very few particles acting unexpectedly.
return viewer.run()
# FIXME 2010.9.19: At present, getDeltaTime() is not used and the implementations in the updater and processors still
# use a (t - _t0) as the delta time, which is of course causing floating errors. ParticleEffect will not work if we
# replace the delta time with getDeltaTime()... Need to find a solution.
if __name__ == "__main__":
main(sys.argv)
geode.addDrawable( geometry )
geode.getOrCreateStateSet().setMode(GL_LIGHTING, False)
return geode
int main (int argc, char* argv[])
arguments = osg.ArgumentParser(argv)
viewer = osgViewer.Viewer(arguments)
viewer.setCameraManipulator(osgGA.TrackballManipulator())
root = osg.Group()
axe = createAxis()
geode = osg.Geode()
geode.addDrawable(osg.ShapeDrawable(osg.Box(osg.Vec3(0.0,0.0,0.0),0.5)))
#Tranformation to be manipulated by the animation
trans = osg.MatrixTransform()
trans.setName("AnimatedNode")
#Dynamic object, has to be updated during update traversal
trans.setDataVariance(osg.Object.DYNAMIC)
#Animation callback for Matrix transforms, name is targetName for Channels
updatecb = osgAnimation.UpdateMatrixTransform("AnimatedCallback")
#add manipulator Stack, names must match with channel names
#elements are applied in LIFO order
#The first element modifies the position component of the matrix
#The second element modifies the rotation around x-axis
updatecb.getStackedTransforms().push_back(osgAnimation.StackedTranslateElement("position"))
updatecb.getStackedTransforms().push_back(osgAnimation.StackedRotateAxisElement("euler",osg.Vec3(1,0,0),0))
#connect the UpdateMatrixTransform callback to the MatrixTRanform
extern osg.Node * CreateSimpleHierarchy( osg.Node * model )
extern osg.Node * CreateAdvancedHierarchy( osg.Node * model )
########################################
osg.Node * CreateGlobe( void )
# File not found - create textured sphere
geode = osg.Geode()
hints = osg.TessellationHints()
hints.setDetailRatio( 0.3 )
#if 1
shape = osg.ShapeDrawable
( osg.Sphere(osg.Vec3(0.0, 0.0, 0.0), 4.0 ), hints )
#else:
shape = osg.ShapeDrawable
( osg.Box( osg.Vec3(-1.0, -1.0, -1.0), 2.0, 2.0, 2.0 ) )
#endif
shape.setColor(osg.Vec4(0.8, 0.8, 0.8, 1.0))
geode.addDrawable( shape )
stateSet = osg.StateSet()
texture = osg.Texture2D(
osgDB.readImageFile("Images/land_shallow_topo_2048.jpg")
)
material = osg.Material()
material.setAmbient