多核分而治之并行模式实现

M. Danelutto, T. D. Matteis, G. Mencagli, M. Torquati
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引用次数: 11

摘要

分而治之(DaC)是一种顺序编程范式,它对实际应用中使用的大量算法进行建模。虽然适合以直接的方式提取并行性,但DaC算法的并行实现仍然需要程序员在并行编程工具方面的一些专业知识。在本文中,我们的目标是为非专业程序员提供一个高水平的解决方案,以最小的编程工作量在多核上快速原型化并行DaC程序。遵循并行设计模式方法论的基本原理,我们设计了一个兼容c++ 11的模板接口,用于开发并行DaC程序。该接口使用不同的后端框架(即OpenMP、Intel TBB和FastFlow)实现,支持源代码重用和一定程度的性能可移植性。在24核英特尔服务器上的实验表明了我们的方法的有效性:通过减少编程工作量,程序员可以轻松地原型化并行版本,其性能与手工并行相当。
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A divide-and-conquer parallel pattern implementation for multicores
Divide-and-Conquer (DaC) is a sequential programming paradigm which models a large class of algorithms used in real-life applications. Although suitable to extract parallelism in a straightforward way, the parallel implementation of DaC algorithms still requires some expertise in parallel programming tools by the programmer. In this paper we aim at providing to non-expert programmers a high-level solution for fast prototyping parallel DaC programs on multicores with minimal programming effort. Following the rationale of parallel design pattern methodology, we design a C++11-compliant template interface for developing parallel DaC programs. The interface is implemented using different back-end frameworks (i.e. OpenMP, Intel TBB and FastFlow) supporting source code reuse and a certain amount of performance portability. Experiments on a 24-core Intel server show the effectiveness of our approach: with a reduced programming effort the programmer easily prototypes parallel versions with performance comparable with hand-made parallelizations.
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Reducing parallelizing compilation time by removing redundant analysis Parallel evaluation of a DSP algorithm using julia Exhaustive analysis of thread-level speculation A divide-and-conquer parallel pattern implementation for multicores Proceedings of the 3rd International Workshop on Software Engineering for Parallel Systems
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