A Parallel Plasma Membrane Simulation

P. Burrage, Kevin Burrage, K. Kurowski, Michal T. Lorenc, Dan V. Nicolau, M. Swain, M. Ragan
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引用次数: 2

Abstract

The plasma membrane protects a cell and even though it is only about 10nm thick it is an incredibly complex and crowded environment, with ensembles of channels, membrane and trans-membrane proteins and microdomains. Hence modelling transport and dynamical processes on the plasma membrane is computationally demanding and in order for a simulation to model an entire cell membrane for several real-time seconds, a high-performance computing implementation is essential. Here we describe the domain decomposition of a plasma membrane simulation in a grid-computing environment. We discuss the issues that arise in balancing the communication requirements with the computational complexity, in both a master-slave and a slave-slave communication model.We also discuss performance and fidelity limitations arising through the necessity of frequent inter-process communication. This parallel implementation will allow systems biology researchers to analyse computationally the complex dynamical processes taking place on an entire cell membrane over a non-trivial time scale.
平行质膜模拟
质膜保护着细胞,尽管它只有大约10nm厚,但它是一个非常复杂和拥挤的环境,有通道、膜和跨膜蛋白质和微域的集合。因此,对质膜上的传输和动态过程进行建模是计算要求很高的,为了对整个细胞膜进行几秒钟的实时模拟,高性能的计算实现是必不可少的。本文描述了网格计算环境下质膜模拟的域分解。我们讨论了在主从通信模型和从从通信模型中平衡通信需求和计算复杂性时出现的问题。我们还讨论了由于需要频繁的进程间通信而引起的性能和保真度限制。这种并行实现将允许系统生物学研究人员在非平凡的时间尺度上计算分析发生在整个细胞膜上的复杂动态过程。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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