Computer Graphics Forum · 2009 · 14 citations · 25 references
ComputingComputer ScienceHigh-performance ComputingComputer GraphicsRenderingVolume VisualizationGraphics Processing UnitsRendering PipelineScientific Volume VisualizationVolume RenderingVolumetric RenderingVolumetric VisualizationGpu AcceleratorsGpu-accelerated Volume RenderingGpu-based RenderingLight Transport TheoryParticle RenderingPhoton MappingTransport TheoryVolume Rendering Acceleration
Abstract Visualizing dynamic participating media in particle form by fully solving equations from the light transport theory is a computationally very expensive process. In this paper, we present a computational pipeline for particle volume rendering that is easily accelerated by the current GPU. To fully harness its massively parallel computing power, we transform input particles into a volumetric density field using a GPU‐assisted, adaptive density estimation technique that iteratively adapts the smoothing length for local grid cells. Then, the volume data is visualized efficiently based on the volume photon mapping method where our GPU techniques further improve the rendering quality offered by previous implementations while performing rendering computation in acceptable time. It is demonstrated that high quality volume renderings can be easily produced from large particle datasets in time frames of a few seconds to less than a minute.
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Synthesis and evaluation of linear motion transitions
Jing Wang, Bobby Bodenheimer · ACM Transactions on Graphics · 2008 · 1.5K citations
J. J. Monaghan · Computer Physics Communications · 1988 · 1.1K citations
James T. Kajiya, Brian P Von Herzen · 1984 · 746 citations
Computing, Physics, Visualization +16
James T. Kajiya, Brian P Von Herzen · ACM SIGGRAPH Computer Graphics · 1984 · 692 citations
Computing, Physics, Visualization +16