CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

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CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University

Transcript of CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Page 1: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

CSE 690: GPGPU

Lecture 11: Projects, Papers

Klaus Mueller

Computer Science, Stony Brook University

Page 2: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

General Graphics

Page 3: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Raytracing

• Pioneering paper on this topic (2002) “Ray Tracing on Programmable Graphics

Hardware” by Purcell et al. “Raytracing on a Stream Processor”,

Purcell’s PhD dissertation at Stanford

Page 4: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Raytracing

• “GPU-Based Non-Linear Raytracing” by Weiskopf et al.

should also present the original paper by Groeller and the paper by Pharr “Rendering Complex Scenes with Memory-Coherent Ray Tracing”

simulates rays undergoing forces in dynamical systems, astrophysics, black holes

Page 5: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Sub-Surface Scattering

• “GPU Algorithms for Radiosity and Subsurface Scattering” by Carr et al.

also present original paper “A practical model for subsurface light transport” by Jensen at al.

compare with CPU approach in “Interactive Subsurface Scattering for Translucent Meshes” by Hao et al.

Page 6: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Radiosity

• “Radiosity on Graphics Hardware” by Coombe et al.

should also present Keller’s “Instant Radiosity” paper

and “The Ray-Engine” by Carr and Hart and “Real-Time Global Illumination on GPU” by

Nijasure et al.

Page 7: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Photon Mapping

• A technique to achieve global illumination “Photon Mapping on Programmable Graphics

Hardware” by Purcell et al. new paper: “Simulating Photon Mapping for Real-

time Applications” by Larsen et al. should also present the original photon mapping

paper by Jensen et al.

Page 8: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Volume Rendering

Page 9: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Standard Volume Rendering

• “Acceleration Techniques for GPU-based Volume Rendering” by Krueger and Westermann

present background on volume rendering earlier paper “High-Quality Pre-Integrated Volume

Rendering Using Hardware-Accelerated Pixel Shading” by Engel et al.

Page 10: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Advanced Volume Rendering

• “High-Quality Two-Level Volume Rendering of Segmented Data Sets on Consumer Graphics Hardware” by Hadwiger et al.

should also present the original paper on two-level volume rendering by Hauser et al.

and “Hardware-accelerated high-quality filtering on PC hardware” by Hadwiger et al.

Page 11: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Unstructured Grids

• “A Fast High Accuracy Volume Renderer for Unstructured Data” by Moreland and Angel

present background on unstructured grid rendering and summarize the highlights of these papers:• “Hardware-based view-independent cell

projection” by Weiler et al.

• “High-quality unstructured volume rendering on the PC platform” by Guthe et al.

• “Hardware-Assisted Visibility Sorting for Unstructured Volume Rendering” by Callahan et al.

Page 12: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Signal and Image Processing

Page 13: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Transforms

• "The FFT on a GPU” by Moreland and Angel

• “GPU-based Frequency Domain Volume Rendering” by Viola et al.

also overview the original paper of “Frequency domain volume” rendering by Totsuka and Levoy

• “The Discrete Wavelet Transform on a GPU” by Wang et al.

Page 14: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Images, Textures, and Sound

• “Fast and Accurate Color Image Processing Using 3D Graphics Cards” by Colantoni et al.

“GPU Image Inpainting via Texture Synthesis” by Chong

“Tile-Based Texture Mapping on Graphics Hardware” by Wei

“Computation of room acoustics using programmable video hardware” by Jedrzejewski

Page 15: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Image-Based Flow Visualization

• “3D IBFV: Hardware-Accelerated 3D Flow Visualization” by Telea and van Wijk

the first paper: “Image Based Flow Visualization” by van Wijk

• “GPU-Based 3D Texture Advection for the Visualization of Unsteady Flow Fields” by Weiskopf and Ertl

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Segmentation and Computer Vision

Page 17: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Segmentation with Level Sets

• “Interactive Deformation and Visualization of Level Set Surfaces using Graphics Hardware” by Lefohn 

earlier segmentation paper: • “Fast Volume Segmentation With Simultaneous

Visualization Using Programmable Graphics Hardware” by Sherbondy

medical application paper: “GIST: An Interactive, GPU-Based Level-Set Segmentation Tool for 3D Medical Images” by Lefohn

Page 18: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

System and API Issues

• “A Streaming Narrow Band Algorithm: Interactive Computation and Visualization of Level Sets” by Lefohn

touches on CPU-GPU load balancing and memory management

• Other papers: “Brook for GPUs: Stream Computing on Graphics

Hardware” by Buch et al. “Shader Algebra” by McCool et al. “Scout: A Hardware-Accelerated System for Quantitatively

Driven Visualization and Analysis” by McCormick et al.

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Image Analysis

• “Generalized Distance Transforms and Skeletons in Graphics Hardware” by Strzodka and Telea

also summarize the Siggraph paper by Hoff

• “A graphics hardware implementation of the Generalized Hough Transform for fast object recognition, scale, and 3D pose detection” by Strzodka et al.

Page 20: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Computer Vision

• “Computer Vision Signal Processing on Graphics Processing Units” by Fung and Mann

Mediated Reality Using Computer Graphics Hardware for Computer Vision by Fung et al.

• “Using Multiple Graphics Cards as a General Purpose Parallel Computer : Applications to Computer Vision” by Fung and Mann

• The OpenVIDIA project: Parallel GPU Computer Vision

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Computer Vision (cont’d)

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General Purpose Computing

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General Scientific Computing

• “SIMD Optimization of Linear Expressions for Programmable Graphics Hardware” by Bajaj et al.

• “General Mathematics in Graphics Hardware” by Trendall and Steward

• “Using Modern Graphics Architectures for General-Purpose Computing: A Framework and Analysis” by Thompson et al.

• “GPU Cluster for High Performance Computing” by Fan et al.

• “Parallel Computing with Multiple GPUs on a Single Machine to Achieve Performance Gains” by Gulde at al.

Page 24: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Visual Simulations

• “Visual Simulation of Ice Crystal Growth” by Kim and Lin

“Simulation of cloth” (see nVidia demo) “Benchmarking and Implementation of

Probability-Based Simulations on Programmable Graphics Cards” by Tomov et al.

Page 25: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Medical Applications

• “Accelerating Popular Tomographic Reconstruction Algorithms On Commodity PC Graphics Hardware” by Xu and Mueller

• “Ultra-Fast 3D Filtered Backprojection on Commodity Graphics Hardware” by Xu and Mueller

Page 26: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

Databases

• “Fast Database Operations using Graphics Processors” Govindaraju et al.

Page 27: CSE 690: GPGPU Lecture 11: Projects, Papers Klaus Mueller Computer Science, Stony Brook University.

…or suggest your own topic