Journal of Computational and Graphical Statistics · 2010 · 207 citations · 18 references
ComputingComputer ScienceHigh-performance ComputingParallel AlgorithmsParallel ComputingScientific ComputingGraphics Processing Unit ComputingGraphics Processing UnitsMarkov Chain Monte CarloMonte Carlo MethodsMonte Carlo SimulationSimulation MethodsMany-core ArchitectureMany-core ProcessorsMulticore ArchitecturesMulticore SystemsPopulation Monte CarloPower ConsumptionScientific Computing On GpusStochastic Simulation
We present a case-study on the utility of graphics cards to perform massively parallel simulation of advanced Monte Carlo methods. Graphics cards, containing multiple Graphics Processing Units (GPUs), are self-contained parallel computational devices that can be housed in conventional desktop and laptop computers and can be thought of as prototypes of the next generation of many-core processors. For certain classes of population-based Monte Carlo algorithms they offer massively parallel simulation, with the added advantage over conventional distributed multi-core processors that they are cheap, easily accessible, easy to maintain, easy to code, dedicated local devices with low power consumption. On a canonical set of stochastic simulation examples including population-based Markov chain Monte Carlo methods and Sequential Monte Carlo methods, we nd speedups from 35 to 500 fold over conventional single-threaded computer code. Our findings suggest that GPUs have the potential to facilitate the growth of statistical modelling into complex data rich domains through the availability of cheap and accessible many-core computation. We believe the speedup we observe should motivate wider use of parallelizable simulation methods and greater methodological attention to their design.
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Markov Chains for Exploring Posterior Distributions
Luke Tierney · The Annals of Statistics · 1994 · 3.5K citations · Full text
Radford M. Neal · Statistics and Computing · 2001 · 1.2K citations