Prediction of the Economic Behavior of Fishery Biotechnology Companies Based on Machine Learning-Based Deep Metacellular Automata

Fuente: arXiv
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Autores principales: Chen, Liguo, Hua, Hongyang, Luo, Xinyue, Xu, Guoli, Yan, Xu
Formato: Preprint
Publicado: 2024
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author Chen, Liguo
Hua, Hongyang
Luo, Xinyue
Xu, Guoli
Yan, Xu
author_facet Chen, Liguo
Hua, Hongyang
Luo, Xinyue
Xu, Guoli
Yan, Xu
contents Ocean warming significantly affects the fishing industry, with species like Scottish herring and mackerel migrating northwards. Our research, a fusion of artificial intelligence, data science, and operations research, addresses this crisis. Using Long Short Term Memory networks, we forecast sea surface temperatures (SST) and model fish migratory patterns with Enhanced Cellular Automata. A corrective factor within our model adjusts for human impact on SST, guiding diverse mitigation scenarios. We apply operational research to strategize responses, including the modernization of fishing vessels as a less costly alternative to relocation. Our data-driven approach, suggesting fleet modernization, strategic relocation, and product diversification, offers an effective approach to mitigating the threats to the ocean warming phenomenon.
format Preprint
id arxiv_https___arxiv_org_abs_2402_13509
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Prediction of the Economic Behavior of Fishery Biotechnology Companies Based on Machine Learning-Based Deep Metacellular Automata
Chen, Liguo
Hua, Hongyang
Luo, Xinyue
Xu, Guoli
Yan, Xu
Applications
Ocean warming significantly affects the fishing industry, with species like Scottish herring and mackerel migrating northwards. Our research, a fusion of artificial intelligence, data science, and operations research, addresses this crisis. Using Long Short Term Memory networks, we forecast sea surface temperatures (SST) and model fish migratory patterns with Enhanced Cellular Automata. A corrective factor within our model adjusts for human impact on SST, guiding diverse mitigation scenarios. We apply operational research to strategize responses, including the modernization of fishing vessels as a less costly alternative to relocation. Our data-driven approach, suggesting fleet modernization, strategic relocation, and product diversification, offers an effective approach to mitigating the threats to the ocean warming phenomenon.
title Prediction of the Economic Behavior of Fishery Biotechnology Companies Based on Machine Learning-Based Deep Metacellular Automata
topic Applications
url https://arxiv.org/abs/2402.13509