Immersive Visualization / IQ-Station Wiki
This site hosts information on virtual reality systems that are geared toward scientific visualization, and as such often toward VR on Linux-based systems. Thus, pages here cover various software (and sometimes hardware) technologies that enable virtual reality operation on Linux.
The original IQ-station effort was to create low-cost (for the time) VR systems making use of 3DTV displays to produce CAVE/Fishtank-style VR displays. That effort pre-dated the rise of the consumer HMD VR systems, however, the realm of midrange-cost large-fishtank systems is still important, and has transitioned from 3DTV-based systems to short-throw projectors.
Difference between revisions of "ParaView Tips"
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m (Added a link to my talk on stereo animation batch rendering) |
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This page will have a handful of ParaView tricks that I find handy, and will probably want to make use of in the future. | This page will have a handful of ParaView tricks that I find handy, and will probably want to make use of in the future. | ||
= | =Stereoscopic Batch rendering= | ||
I gave a talk on the ins and outs of ParaView stereoscopic batch rendering: | |||
* [https://www.tacc.utexas.edu/documents/10165/1147324/02+Creating+Animations+with+Paraview.pdf/51d89121-5610-4dd0-bbec-eef15df5cd38 SuperComputing 2004 talk on stereo animation batch rendering] | |||
Here's my main example of creating a "pvbatch" to render a stereo pair of images. | Here's my main example of creating a "pvbatch" to render a stereo pair of images. | ||
Revision as of 09:00, 23 September 2021
This page will have a handful of ParaView tricks that I find handy, and will probably want to make use of in the future.
Stereoscopic Batch rendering
I gave a talk on the ins and outs of ParaView stereoscopic batch rendering:
Here's my main example of creating a "pvbatch" to render a stereo pair of images.
#! /home/avl/VR/Apps/ParaView/ParaView-v4.0.1-source/Build/bin/pvbatch
from paraview.simple import *
servermanager.LoadState("V3A.pvsm")
SetActiveView(GetRenderView())
view = GetActiveView()
scene = GetAnimationScene()
PythonAnimationCue1 = PythonAnimationCue()
PythonAnimationCue1.Script= """
def start_cue(self):
print 'Animation starting'
print 'NumberOfFrames = ' + str(scene.NumberOfFrames)
print 'FramesPerTimestep = ' + str(scene.FramesPerTimestep)
print 'PlayMode = ' + str(scene.PlayMode)
print 'StartTime = ' + str(scene.StartTime)
print 'EndTime = ' + str(scene.EndTime)
print 'Duration = ' + str(scene.Duration)
def tick(self):
i = scene.TimeKeeper.Time
print "time is " + str(i)
view.ViewTime = i
scene.AnimationTime = i
Render()
def end_cue(self):
print 'Animation ending'
"""
scene.Cues.append(PythonAnimationCue1)
# Make some tweaks to the visualization
#path=FindSource('TemporalParticlesToPathlines5')
#path.MaxTrackLength=55
path2=FindSource('TemporalParticlesToPathlines4')
path2.MaxTrackLength=2000
sphere=FindSource('Glyph4').GlyphType
sphere.PhiResolution=12
sphere.ThetaResolution=12
#tube=FindSource('Tube5')
tube2=FindSource('Tube4')
#tube.NumberofSides=12
#tube.Radius=0.020
tube2.NumberofSides=12
tube2.Radius=0.017
# Setup the rendering parameters
scene.NumberOfFrames=2408
view.ViewSize = [1920,1080]
view.StereoRender = 1
view.StereoType = "Left"
view.UseOffscreenRendering = 1
WriteAnimation("TCollision_02_L/tcollision_02_V3A_L.png")
view.StereoType = "Right"
view.UseOffscreenRendering = 1
WriteAnimation("TCollision_02_R/tcollision_02_V3A_R.png")