小即是美:空间深度学习工作负载的分布式编排

Daniel Rammer, Kevin Bruhwiler, Paahuni Khandelwal, Samuel Armstrong, S. Pallickara, S. Pallickara
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引用次数: 2

摘要

农业、城市可持续性和气象学等几个领域需要处理卫星图像以进行建模和决策。在这项研究中,我们描述了我们在卫星图像集合上训练深度学习模型的新方法。深度学习模型在计算和资源上都很昂贵。随着数据集大小的增加,训练模型所需的CPU、GPU、磁盘和网络I/O需求也相应增加。我们的方法利用卫星数据固有的空间特征来划分、分散和编排模型训练工作负载。而不是训练一个单一的,包罗万象的模型,我们更容易产生一个模型的集合-每个模型都调整到一个特定的空间范围。我们支持基于查询的检索卫星图像的目标部分,包括那些满足云遮挡相关属性的部分,我们通过支持深度学习模型进行多空间分析来验证我们方法的适用性。我们的方法与底层深度学习库无关。我们广泛的经验基准证明了我们的方法的适用性,不仅可以保持准确性,还可以将完成时间缩短13.9倍,同时将数据移动成本降低4个数量级,并确保节约资源利用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Small is Beautiful: Distributed Orchestration of Spatial Deep Learning Workloads
Several domains such as agriculture, urban sustainability, and meteorology entail processing satellite imagery for modeling and decision-making. In this study, we describe our novel methodology to train deep learning models over collections of satellite imagery. Deep learning models are computationally and resource expensive. As dataset sizes increase, there is a corresponding increase in the CPU, GPU, disk, and network I/O requirements to train models. Our methodology exploits spatial characteristics inherent in satellite data to partition, disperse, and orchestrate model training workloads. Rather than train a single, all-encompassing model we facilitate producing an ensemble of models - each tuned to a particular spatial extent. We support query-based retrieval of targeted portions of satellite imagery including those that satisfy properties relating to cloud occlusion, We validate the suitability of our methodology by supporting deep learning models for multiple spatial analyses. Our approach is agnostic of the underlying deep learning library. Our extensive empirical benchmark demonstrates the suitability of our methodology to not just preserve accuracy, but reduce completion times by 13.9x while reducing data movement costs by 4 orders of magnitude and ensuring frugal resource utilization.
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