High‐throughput virtual molecular docking with AutoDockCloud

Virtual molecular docking is a computational method used in computer‐aided drug discovery that calculates the binding affinity of a small molecule drug candidate to a target protein. High‐throughput virtual screenings calculate the binding affinities for a large number of molecules at once and ranks potential drug candidates to greatly reduces the time and cost of suggesting new potential pharmaceuticals. This high‐throughput screening is a task parallel process and therefore well‐suited for distributed computing. In this study, we use the open source Hadoop framework implementing the MapReduce paradigm for distributed computing on a cloud platform and the widely used molecular docking program, AutoDock. The initial implementation of AutoDockCloud showed a speed‐up of 450 on Kandinsky, a cloud computer located at Oak Ridge National Laboratory. Further modifications show promise for a greater speed‐up of large chemical library screenings and also incorporates and distributes the pre‐docking procedures. Copyright © 2012 John Wiley & Sons, Ltd.

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