使用边缘人工智能和增量机器学习来处理机载仪器数据

N. Parkyn
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引用次数: 0

摘要

新兴的异构计算、边缘计算、机器学习和边缘人工智能技术推动了近乎实时地处理和分析机载仪器数据的方法和技术。作者使用边缘计算和神经网络结合高性能异构计算平台来加速AI工作负载。使用的异构计算硬件很容易获得,成本低,提供令人印象深刻的人工智能性能,并且可以并行运行多个神经网络。由于数据量大、数据过滤、数据存储和持续学习的复杂性,从机载仪器中近实时地收集、处理和机器学习数据并不是一个简单的问题。关于持续机器学习的研究很少,持续机器学习旨在通过为人工智能提供从非平稳和永无止境的数据流中学习的能力,从而达到更高水平的机器智能。作者将持续学习的概念应用于构建一个系统,该系统可以从实际船舶性能中不断学习,并改进以前使用静态VPP数据完成的预测。使用的神经网络最初使用传统VPP软件的输出进行训练,并继续从实际航行条件下收集的实际数据中学习。作者将介绍系统设计、人工智能和边缘计算技术,以及他研究的增量训练方法,以实现持续学习。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Using AI at the Edge and Incremental Machine Learning to Process Onboard Instrument Data
Emerging heterogeneous computing, computing at the edge, machine learning and AI at the edge technology drives approaches and techniques for processing and analysing onboard instrument data in near real-time. The author has used edge computing and neural networks combined with high performance heterogeneous computing platforms to accelerate AI workloads. Heterogeneous computing hardware used is readily available, low cost, delivers impressive AI performance and can run multiple neural networks in parallel. Collecting, processing and machine learning from onboard instruments data in near real-time is not a trivial problem due to data volumes, complexities of data filtering, data storage and continual learning. Little research has been done on continual machine learning which aims at a higher level of machine intelligence through providing the artificial agents with the ability to learn from a non-stationary and never-ending stream of data. The author has applied the concept of continual learning to building a system that continually learns from actual boat performance and refines predictions previously done using static VPP data. The neural networks used are initially trained using the output from traditional VPP software and continue to learn from actual data collected under real sailing conditions. The author will present the system design, AI, and edge computing techniques used and the approaches he has researched for incremental training to realise continual learning.
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