VIoLET:用于大规模验证物联网部署的仿真环境

IF 2 Q3 COMPUTER SCIENCE, INTERDISCIPLINARY APPLICATIONS ACM Transactions on Cyber-Physical Systems Pub Date : 2021-01-01 DOI:10.1145/3446346
Shrey Baheti, Shreyas Badiger, Yogesh L. Simmhan
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引用次数: 4

摘要

物联网(IoT)的部署越来越多样化,包括传感器、网络、边缘、雾和云资源。尽管研究人员和实践者对此非常感兴趣,但大多数人都无法获得大规模的物联网测试平台进行验证。允许分析建模的仿真环境是在实际计算环境中评估软件平台或应用程序工作负载的糟糕替代品。在这里,我们提出了一个用于大规模验证物联网的虚拟环境(VIoLET),这是一个用于定义和启动云vm内大规模物联网部署的模拟器。它允许用户使用Docker声明式地指定基于容器的计算资源,以匹配本地物联网计算设备的性能。它们可以通过复杂的拓扑相互连接,在这些拓扑上执行带宽和延迟规则。用户也可以配置合成传感器来生成数据。我们还合并了CPU资源动态模型,以及底层设备的故障和恢复模型。我们提供了虚拟和物理部署之间VIoLET的计算和网络性能的详细比较,评估了它在多达1,000个设备和4,000个设备核的部署下的可伸缩性,并验证了它对资源动态建模的能力。我们广泛的实验表明,虚拟物联网环境的性能与预期行为准确匹配,在实际物理设备中看到的偏差水平。它还可以扩展到1000台设备,每小时使用的云计算成本不到实际硬件成本的0.15%,管理工作最少。这种物联网仿真环境填补了物联网模拟器和实际部署之间的重要空白。
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VIoLET: An Emulation Environment for Validating IoT Deployments at Large Scales
Internet of Things (IoT) deployments have been growing manifold, encompassing sensors, networks, edge, fog, and cloud resources. Despite the intense interest from researchers and practitioners, most do not have access to large-scale IoT testbeds for validation. Simulation environments that allow analytical modeling are a poor substitute for evaluating software platforms or application workloads in realistic computing environments. Here, we propose a virtual environment for validating Internet of Things at large scales (VIoLET), an emulator for defining and launching large-scale IoT deployments within cloud VMs. It allows users to declaratively specify container-based compute resources that match the performance of native IoT compute devices using Docker. These can be inter-connected by complex topologies on which bandwidth and latency rules are enforced. Users can configure synthetic sensors for data generation as well. We also incorporate models for CPU resource dynamism, and for failure and recovery of the underlying devices. We offer a detailed comparison of VIoLET’s compute and network performance between the virtual and physical deployments, evaluate its scaling with deployments with up to 1,000 devices and 4, 000 device-cores, and validate its ability to model resource dynamism. Our extensive experiments show that the performance of the virtual IoT environment accurately matches the expected behavior, with deviations levels within what is seen in actual physical devices. It also scales to 1, 000s of devices and at a modest cloud computing costs of under 0.15% of the actual hardware cost, per hour of use, with minimal management effort. This IoT emulation environment fills an essential gap between IoT simulators and real deployments.
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来源期刊
ACM Transactions on Cyber-Physical Systems
ACM Transactions on Cyber-Physical Systems COMPUTER SCIENCE, INTERDISCIPLINARY APPLICATIONS-
CiteScore
5.70
自引率
4.30%
发文量
40
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