Machine learning for crop yield forecasting

Q3 Physics and Astronomy
Bolotbek Biibosunov, Baratbek Sabitov, Saltanat Biibosunova, Zhamin Sheishenov, Sharshenbek Zhusupkeldiev, Zhyldyz Mamadalieva
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引用次数: 0

Abstract

Amid the persistent rise in global population, there has been a heightened focus on food security by academia, governmental initiatives, and international endeavors. Food security serves as a critical pillar in the national security framework, contributing to a nation’s sovereignty and self-sufficiency in food supply. To fulfill global requirements for essential food items, there is an imperative need to enhance agricultural efficiency across countries. Concurrently, agricultural practices must align with contemporary quality standards and meet consumer needs, drawing upon an integrated approach to crop cultivation technologies and yield classifications. Methodologies and tools for yield augmentation, grounded in scientific advancements in predictive modeling, are of paramount importance. Investigating the plethora of variables that contribute to optimal crop development, which in turn influences yield, poses significant challenges. Comprehensive inquiries that incorporate cutting-edge scientific and technological methodologies are essential for creating precise yield forecasts. The evolving landscape of yield modeling and prediction has emerged as a technologically sophisticated domain. Advanced methods such as machine learning and deep learning offer robust platforms for addressing crop yield forecasting, particularly when coupled with extensive datasets on environmental variables. A growing body of literature suggests the promising role of computational technologies and machine learning paradigms, inclusive of various forms of remote sensing data, in fine-tuning yield models. Yield prediction models are often characterized by intricate nonlinear equations influenced by a range of factors: seed quality and diversity, soil attributes, climatic variables, fertilizer usage, and other agronomic practices. The impacts of these variables on crop yield are varied, with some exerting greater influence than others. Additionally, crop yield is susceptible to adverse environmental and climatic conditions. While there exists a rich corpus of research on yield forecasting, addressing this issue remains an exigent priority in the agricultural sector.
用于作物产量预测的机器学习
随着全球人口的持续增长,学术界、政府倡议和国际努力都更加关注粮食安全问题。粮食安全是国家安全框架的重要支柱,有助于国家主权和粮食供应的自给自足。为了满足全球对基本食品的需求,各国亟需提高农业效率。同时,农业实践必须符合当代质量标准,满足消费者的需求,并借鉴作物栽培技术和产量分类的综合方法。以预测建模的科学进步为基础的增产方法和工具至关重要。作物的最佳生长发育反过来又会影响产量,对这些变量进行研究是一项重大挑战。结合尖端科学和技术方法的全面调查对于创建精确的产量预测至关重要。不断发展的产量建模和预测已成为一个技术复杂的领域。机器学习和深度学习等先进方法为解决作物产量预测问题提供了强大的平台,尤其是在结合大量环境变量数据集的情况下。越来越多的文献表明,计算技术和机器学习范式(包括各种形式的遥感数据)在微调产量模型方面大有可为。产量预测模型的特点通常是受一系列因素影响的复杂非线性方程:种子质量和多样性、土壤属性、气候变量、肥料使用和其他农艺实践。这些变量对作物产量的影响各不相同,有些变量比其他变量影响更大。此外,作物产量还容易受到不利环境和气候条件的影响。虽然有关产量预测的研究成果丰富,但解决这一问题仍是农业部门的当务之急。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Cybernetics and Physics
Cybernetics and Physics Chemical Engineering-Fluid Flow and Transfer Processes
CiteScore
1.70
自引率
0.00%
发文量
17
审稿时长
10 weeks
期刊介绍: The scope of the journal includes: -Nonlinear dynamics and control -Complexity and self-organization -Control of oscillations -Control of chaos and bifurcations -Control in thermodynamics -Control of flows and turbulence -Information Physics -Cyber-physical systems -Modeling and identification of physical systems -Quantum information and control -Analysis and control of complex networks -Synchronization of systems and networks -Control of mechanical and micromechanical systems -Dynamics and control of plasma, beams, lasers, nanostructures -Applications of cybernetic methods in chemistry, biology, other natural sciences The papers in cybernetics with physical flavor as well as the papers in physics with cybernetic flavor are welcome. Cybernetics is assumed to include, in addition to control, such areas as estimation, filtering, optimization, identification, information theory, pattern recognition and other related areas.
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