Performance Tradeoff in DNN-based Coexisting Applications in Resource-Constrained Cyber-Physical Systems

Elijah Spicer, S. Baidya
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引用次数: 0

Abstract

Modern cyber-physical systems use deep-learning based algorithms for many applications for intelligent decision-making. Many of these systems are resource-constrained due to small form factor or finite energy budget. However, these systems often use multiple deep-learning algorithms simultaneously for a given mission or task. Due to the diverse nature of the algorithms and their performance needs, we need to allocate optimal software and hardware resources for their coexistence. To this aim, in this paper, we study and evaluate the performance tradeoff which will enable the users to choose the size and complexity of the deep learning models, the capacity of the device and also the software framework. With real-world experiments with a wide range of hardware and software, we demonstrate and evaluate the performance of the coexisting deep neural networks (DNN) based applications.
资源受限网络物理系统中基于dnn共存应用的性能权衡
现代网络物理系统在智能决策的许多应用中使用基于深度学习的算法。许多此类系统由于外形尺寸小或能量预算有限而资源受限。然而,这些系统通常同时使用多种深度学习算法来完成给定的任务或任务。由于算法的多样性及其性能需求,我们需要为它们的共存分配最佳的软件和硬件资源。为此,在本文中,我们研究和评估了性能权衡,这将使用户能够选择深度学习模型的大小和复杂性,设备的容量以及软件框架。通过各种硬件和软件的真实世界实验,我们展示并评估了共存的基于深度神经网络(DNN)的应用程序的性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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