Appling machine learning for estimating total suspended solids in BFT aquaculture system

IF 3.6 2区 农林科学 Q2 AGRICULTURAL ENGINEERING Aquacultural Engineering Pub Date : 2024-08-01 DOI:10.1016/j.aquaeng.2024.102439
Érico Tadao Teramoto , Wilson Wasielesky , Dariano Krummenauer , Guilherme Wolff Bueno , Danilo Cintra Proença , Carlos Augusto Prata Gaona
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Abstract

Biofloc Technology (BFT) systems are used to improve water quality and the production of aquatic organisms, and they influence dissolved oxygen, alkalinity, and pH, directly affecting the efficiency and success of this production system. Measuring total suspended solids (TSS) in water demands substantial investments and involves a time-consuming process to obtain results. This delay in obtaining results poses a significant challenge to the operations of these farms. In this study, we applied Artificial Neural Networks (ANN) and Support Vector Machine (SVM) methods based on artificial intelligence and water quality parameters (easy to measure, low cost, and quick response) to identify the most accurate method for measuring TSS. The best TSS estimate was achieved with SVM using nitrite and turbidity as predictive variables, which tended to overestimate the real value by 19 %, presenting a potential for application in estimating TSS in the BFT aquaculture system.

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应用机器学习估算 BFT 水产养殖系统中的悬浮固体总量
生物絮凝技术(BFT)系统用于改善水质,提高水生生物的产量,并影响溶解氧、碱度和 pH 值,直接影响生产系统的效率和成功与否。测量水中的总悬浮固体(TSS)需要大量投资,而且获取结果的过程非常耗时。获取结果的延迟给这些养殖场的运营带来了巨大挑战。在这项研究中,我们应用了基于人工智能和水质参数(易于测量、成本低、反应快)的人工神经网络(ANN)和支持向量机(SVM)方法,以确定最准确的 TSS 测量方法。以亚硝酸盐和浊度为预测变量的 SVM 可获得最佳的 TSS 估计值,而亚硝酸盐和浊度往往会高估实际值 19%,这为在 BFT 水产养殖系统中估计 TSS 提供了应用潜力。
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来源期刊
Aquacultural Engineering
Aquacultural Engineering 农林科学-农业工程
CiteScore
8.60
自引率
10.00%
发文量
63
审稿时长
>24 weeks
期刊介绍: Aquacultural Engineering is concerned with the design and development of effective aquacultural systems for marine and freshwater facilities. The journal aims to apply the knowledge gained from basic research which potentially can be translated into commercial operations. Problems of scale-up and application of research data involve many parameters, both physical and biological, making it difficult to anticipate the interaction between the unit processes and the cultured animals. Aquacultural Engineering aims to develop this bioengineering interface for aquaculture and welcomes contributions in the following areas: – Engineering and design of aquaculture facilities – Engineering-based research studies – Construction experience and techniques – In-service experience, commissioning, operation – Materials selection and their uses – Quantification of biological data and constraints
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