N-AquaRAM:一种经济高效的深度学习加速器,用于实时水培监测

IF 1.1 Q3 AGRONOMY
Ali Siddique, Muhammad Azhar Iqbal, Jingqi Sun, Xu Zhang, Mang I. Vai, Sunbal Siddique
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引用次数: 0

摘要

水培是一门新兴的农业科学领域,它以共生的方式将水产养殖和水培相结合,以提高作物产量。尽管它比传统技术有很多优势,包括无化学和无土耕作,但它的商业应用受到一些问题的困扰,比如缺乏经验丰富的人力。为了运行一个稳定的智能鱼共生系统,正确估计鱼的大小是至关重要的。在这种情况下,使用专用硬件进行实时水培监测可以极大地解决经验不足的处理人员的问题。在本文中,我们提出了一个完整的方法来训练一个深度神经网络来实时估计鱼的大小。为了达到高精度,提出了一种新的swish函数实现方法。这个新版本的硬件效率远远高于原来的版本,同时非常准确。此外,我们提出了一个深度学习加速器,可以在一秒钟内对4000万个鱼样本进行分类。专用实时系统比基于通用计算机的实时系统快1600倍左右。所提出的神经形态加速器在低端型号的Virtex 6 FPGA系列上消耗约2600个片寄存器。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
N-AquaRAM: A Cost-Efficient Deep Learning Accelerator for Real-Time Aquaponic Monitoring

Aquaponics is an emerging area of agricultural sciences that combines aquaculture and hydroponics in a symbiotic way to increase crop production. Though it offers a lot of advantages over traditional techniques, including chemical-free and soil-less farming, its commercial application suffers from some problems such as the lack of experienced manpower. To operate a stable smart aquaponic system, it is critical to estimate the fish size properly. In this context, the use of dedicated hardware for real-time aquaponic monitoring can greatly resolve the issue of inexperienced handlers. In this article, we present a complete methodology to train a deep neural network to perform fish size estimation in real time. To achieve high accuracy, a novel implementation of swish function is presented. This novel version is far more hardware efficient than the original one, while being extremely accurate. Moreover, we present a deep learning accelerator that can classify 40 million fish samples in a second. The dedicated real-time system is about 1600 times faster than the one based on general-purpose computers. The proposed neuromorphic accelerator consumes about 2600 slice registers on a low-end model of Virtex 6 FPGA series.

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来源期刊
CiteScore
3.80
自引率
0.00%
发文量
24
期刊介绍: The main objective of this initiative is to promote agricultural research and development. The journal will publish high quality original research papers and critical reviews on emerging fields and concepts for providing future directions. The publications will include both applied and basic research covering the following disciplines of agricultural sciences: Genetic resources, genetics and breeding, biotechnology, physiology, biochemistry, management of biotic and abiotic stresses, and nutrition of field crops, horticultural crops, livestock and fishes; agricultural meteorology, environmental sciences, forestry and agro forestry, agronomy, soils and soil management, microbiology, water management, agricultural engineering and technology, agricultural policy, agricultural economics, food nutrition, agricultural statistics, and extension research; impact of climate change and the emerging technologies on agriculture, and the role of agricultural research and innovation for development.
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