Kulla-RIV:针对高效可靠数据处理服务的带完整性验证的组合模型

Hugo G. Reyes‐Anastacio, Jose L. Gonzalez‐Compeán, Victor J. Sosa‐Sosa, Ricardo Marcelín‐Jiménez, Miguel Morales‐Sandoval
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引用次数: 0

摘要

本文介绍了一种基于可靠计算虚拟容器的模型的设计与实现,该模型具有数据处理策略的完整性验证功能,被命名为可靠性与完整性验证(RIV)方案。它已被集成到系统构建模型以及现有的工作流引擎(如 Kulla 和 Makeflow)中,用于构建内存系统。在 RIV 方案中,可靠性(R)组件负责为数据处理系统中的数据采集和存储过程提供隐式容错机制。完整性验证(IV)组件负责确保在两个处理阶段之间传输/接收的数据是正确的,并且在传输过程中没有被修改。为了证明使用 RIV 方案的可行性,我们使用不同的分布式并行系统创建了实际应用,以解决卫星和医学图像处理的用例问题。评估结果令人鼓舞,因为一些承担了使用 RIV 方案的成本(开销)的解决方案(如 Kulla(Kulla-RIV 解决方案))比其他不使用 RIV 方案的解决方案(如 Makeflow)获得了更好的响应时间,而后者仍然面临着缺乏 RIV 策略所带来的风险。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Kulla‐RIV: A composing model with integrity verification for efficient and reliable data processing services
This article presents the design and implementation of a reliable computing virtual container‐based model with integrity verification for data processing strategies named the reliability and integrity verification (RIV) scheme. It has been integrated into a system construction model as well as existing workflow engines (e.g., Kulla and Makeflow) for composing in‐memory systems. In the RIV scheme, the reliability (R) component is in charge of providing an implicit fault tolerance mechanism for the processes of data acquisition and storage that take place in a data processing system. The integrity verification (IV) component is in charge of ensuring that data transmitted/received between two processing stages are correct and are not modified during the transmission process. To show the feasibility of using the RIV scheme, real‐world applications were created by using different distributed and parallel systems to solve use cases of satellite and medical imagery processing. This evaluation revealed encouraging results as some solutions that assumed the cost (overhead) of using the RIV scheme, for example, Kulla (the Kulla‐RIV solution), achieve better response times than others without the RIV scheme (e.g., Makeflow) that remain exposed to the risks caused by to the lack of RIV strategies.
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