气象雷达算法高效图像分割训练的性能评估

Joseph McDonald, J. Kurdzo, P. Stepanian, M. Veillette, David Bestor, Michael Jones, V. Gadepally, S. Samsi
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引用次数: 0

摘要

深度学习对计算资源的需求急剧增加,为各种应用开发、探索和测试模型架构所需的能量也相应增加。网络的参数调整通常涉及在参数选择的网格上随机或彻底地训练多个模型,并且应用复杂搜索方法来识别候选模型体系结构的策略需要对模型空间中采样的每个可能的体系结构进行大量计算。然而,在能源效率和最小化计算对环境的影响越来越重要的时候,这些广泛训练许多单个模型以便为未来的推理选择一个性能最佳的模型的方法似乎是不必要的浪费。减少计算预算的技术或算法在众多选项中识别和训练准确的深度网络是非常需要的。这项工作考虑了最近提出的一种方法,训练速度估计,以及用于常见水流星分类问题的深度学习方法,通过语义图像分割进行冰雹预测。我们将该方法应用于各种分割模型的训练,并评估其作为能量感知神经网络应用的性能跟踪方法的有效性。这种方法,连同提前停止,提供了一个直接的策略,以尽量减少能量消耗。通过测量消耗和估计节能水平,我们能够将该策略描述为最小化深度学习的能源和碳影响的实用方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Performance Estimation for Efficient Image Segmentation Training of Weather Radar Algorithms
Deep Learning has a dramatically increasing demand for compute resources and a corresponding increase in the energy required to develop, explore, and test model architectures for various applications. Parameter tuning for networks customarily involves training multiple models in a search over a grid of parameter choices either randomly or exhaustively, and strategies applying complex search methods to identify candidate model architectures require significant computation for each possible architecture sampled in the model spaces. However, these approaches of extensively training many individual models in order to choose a single best performing model for future inference can seem unnecessarily wasteful at a time when energy efficiency and minimizing computing's environmental impact are increasingly important. Techniques or algorithms that reduce the computational budget to identify and train accurate deep networks among many options are of great need. This work considers one recently proposed approach, Training Speed Estimation, alongside deep learning approaches for a common hydrometeor classification problem, hail prediction through semantic image segmentation. We apply this method to the training of a variety of segmentation models and evaluate its effectiveness as a performance tracking approach for energy-aware neural network applications. This approach, together with early-stopping, offers a straightforward strategy for minimizing energy expenditure. By measuring consumption and estimating the level of energy savings, we are able to characterize this strategy as a practical method for minimizing deep learning's energy and carbon impact.
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