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Multiresolution green’s function methods for interactive simulation of large-scale elastostatic objects (2003)

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by Douglas Leonard James
Venue:ACM Trans. Graph
Citations:53 - 12 self
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BibTeX

@ARTICLE{James03multiresolutiongreen’s,
    author = {Douglas Leonard James},
    title = {Multiresolution green’s function methods for interactive simulation of large-scale elastostatic objects},
    journal = {ACM Trans. Graph},
    year = {2003},
    pages = {47--82}
}

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Abstract

This thesis presents a framework for low-latency interactive simulation of linear elastostatic models and other systems associated with linear elliptic partial differention equations. This approach makes it feasible to interactively simulate large-scale physical models. Linearity is exploited by formulating the boundary value problem (BVP) solution in terms of Green’s functions (GFs) which may be precomputed to provide speed and cheap lookup operations. Runtime BVPs are solved using a collection of Capacitance Matrix Algorithms (CMAs) based on the Sherman-Morrison-Woodbury formula. Temporal coherence is exploited by caching and reusing, as well as sequentially updating, previous capacitance matrix inverses. Multiresolution enhancements make it practical to simulate and store very large models. Efficient compressed representations of precomputed GFs are obtained using secondgeneration wavelets defined on surfaces. Fast inverse wavelet transforms allow fast summation methods to be used to accelerate runtime BVP solution. Wavelet GF compression factors are directly related to interactive simulation speedup, and examples are provided with

Keyphrases

multiresolution green function method    interactive simulation    large-scale elastostatic object    interactive simulation speedup    capacitance matrix algorithm    runtime bvp solution    boundary value problem    multiresolution enhancement    linear elliptic partial differention equation    runtime bvps    low-latency interactive simulation    secondgeneration wavelet    fast summation method    wavelet gf compression factor    previous capacitance matrix inverse    fast inverse wavelet transforms    green function    large model    precomputed gfs    large-scale physical model    linear elastostatic model    sherman-morrison-woodbury formula    cheap lookup operation    temporal coherence   

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