Mmalloc:多核协处理器上的动态内存管理,加速存储密集型生物信息学应用

Zihao Wang, Mingzhe Zhang, Jingrong Zhang, Rui Yan, Xiaohua Wan, Zhiyong Liu, Fa Zhang, Xuefeng Cui
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引用次数: 0

摘要

在过去的几十年里,生物信息学的许多应用都通过从大量数据中提取有用的信息而取得了巨大的成功。然而,当一些存储密集型应用程序(如BWA-MEM)移植到协处理器上加速时,它们通常存在内存瓶颈,严重限制了程序性能和可伸缩性。虽然动态内存分配是CPU和GPU的重要主题之一,但在多核协处理器上的工作相对较少。Mmalloc是一种快速、高可扩展性的分配器,它可以加速多核协处理器上的存储密集型应用程序。Mmalloc是第一个考虑MIC和CPU之间不同体系结构的分配器。Mmalloc删除了全局堆,以减少片上长距离的相干和通信。Mmalloc使用二进制排序间隔树来管理内存。我们还使用逻辑结构将头信息与数据区分开,以保持处理数据的局部性。我们在BWA-MEM基准测试上的结果表明,与多核协处理器上的最先进的CPU分配器(如Hoard)相比,Mmalloc具有更好的加速和可伸缩性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Mmalloc: A Dynamic Memory Management on Many-core Coprocessor for the Acceleration of Storage-intensive Bioinformatics Application
In the past decades, many applications in bioinformatics have achieved great success by extracting useful information from huge amounts of data. However, when some storage-intensive applications like BWA-MEM ported to coprocessors to accelerate, they often have memory bottleneck that severely limits program performance and scalability. While dynamic memory allocation is one of the important topics in CPU and GPU, there has been relatively little work on many-core coprocessors. This paper introduces Mmalloc, a fast and highly scalable allocator that accelerates storage-intensive application on many-core coprocessor. Mmalloc is the first allocator to consider the different architecture between MIC and CPU. Mmalloc removes the global heap to reduce the long-distance on-chip coherent and communication. Mmalloc uses a binary sort interval tree to manage the memory. We also separate the header information from the data area using the logical structure to keep the locality of processed data. Our results on BWA-MEM benchmarks demonstrate that Mmalloc has a better speedup and scalability comparing with the state-of-the-art allocator for CPU like Hoard on the many-core coprocessor.
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