评估边缘到云连续体上的策略驱动适应

Daniel Balouek-Thomert, I. Rodero, M. Parashar
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引用次数: 3

摘要

开发数据驱动的应用程序需要开发人员和服务提供者跨分布式数据源和计算单元编排数据到发现的管道。实现这样的管道带来了两个主要挑战:在运行时对不可预见的事件做出反应的编程分析,以及对边缘和云之间的资源和计算路径的适应。虽然这些关注点是相互依赖的,但在应用程序的设计过程和基础设施的部署操作期间,必须将它们分开。这项工作提出了一个系统堆栈,用于适应跨计算连续体的分布式分析。我们实现这个软件栈是为了评估其持续平衡计算或数据移动成本与应用程序目标的操作价值的能力。使用灾难响应应用程序,我们观察到系统可以在管理用户定义约束、结果质量和资源利用之间的权衡时选择适当的配置。评估表明,我们的模型能够适应数据输入大小、带宽和CPU容量的变化,并且最小的期限违规(接近10%)。这构成了令人鼓舞的结果,有利于和促进为紧急科学和时间紧迫的决策建立特设计算路径。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Evaluating policy-driven adaptation on the Edge-to-Cloud Continuum
Developing data-driven applications requires developers and service providers to orchestrate data-to-discovery pipelines across distributed data sources and computing units. Realizing such pipelines poses two major challenges: programming analytics that reacts at runtime to unforeseen events, and adaptation of the resources and computing paths between the edge and the cloud. While these concerns are interdependent, they must be separated during the design process of the application and the deployment operations of the infrastructure. This work proposes a system stack for the adaptation of distributed analytics across the computing continuum. We implemented this software stack to evaluate its ability to continually balance the computation or data movement’s cost with the value of operations to the application objectives. Using a disaster response application, we observe that the system can select appropriate configurations while managing trade-offs between user-defined constraints, quality of results, and resource utilization. The evaluation shows that our model is able to adapt to variations in the data input size, bandwidth, and CPU capacities with minimal deadline violations (close to 10%). This constitutes encouraging results to benefit and facilitate the creation of ad-hoc computing paths for urgent science and time-critical decision-making.
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