Yang Zhi-Yu, Xia Wan-Ke, Chu Hao-Qi, Su Wen-Hao, Wang Rui-Feng, Wang Haihua
College of Information and Electrical Engineering, China Agricultural University, 17 Qinghua East Road, Haidian, Beijing 100083, China.
College of Land Science and Technology, China Agricultural University, 17 Qinghua East Road, Haidian, Beijing 100083, China.
Plants (Basel). 2025 May 15;14(10):1481. doi: 10.3390/plants14101481.
Cotton is a vital economic crop in global agriculture and the textile industry, contributing significantly to food security, industrial competitiveness, and sustainable development. Traditional technologies such as spectral imaging and machine learning improved cotton cultivation and processing, yet their performance often falls short in complex agricultural environments. Deep learning (DL), with its superior capabilities in data analysis, pattern recognition, and autonomous decision-making, offers transformative potential across the cotton value chain. This review highlights DL applications in seed quality assessment, pest and disease detection, intelligent irrigation, autonomous harvesting, and fiber classification et al. DL enhances accuracy, efficiency, and adaptability, promoting the modernization of cotton production and precision agriculture. However, challenges remain, including limited model generalization, high computational demands, environmental adaptability issues, and costly data annotation. Future research should prioritize lightweight, robust models, standardized multi-source datasets, and real-time performance optimization. Integrating multi-modal data-such as remote sensing, weather, and soil information-can further boost decision-making. Addressing these challenges will enable DL to play a central role in driving intelligent, automated, and sustainable transformation in the cotton industry.
棉花是全球农业和纺织工业中至关重要的经济作物,对粮食安全、产业竞争力和可持续发展做出了重大贡献。光谱成像和机器学习等传统技术改善了棉花种植和加工,但在复杂的农业环境中其性能往往不尽人意。深度学习(DL)在数据分析、模式识别和自主决策方面具有卓越能力,为整个棉花价值链带来了变革潜力。本综述重点介绍了深度学习在种子质量评估、病虫害检测、智能灌溉、自主收获和纤维分类等方面的应用。深度学习提高了准确性、效率和适应性,推动了棉花生产和精准农业的现代化。然而,挑战依然存在,包括模型泛化能力有限、计算需求高、环境适应性问题以及数据标注成本高昂。未来的研究应优先考虑轻量级、稳健的模型、标准化的多源数据集以及实时性能优化。整合多模态数据,如遥感、天气和土壤信息,可以进一步提升决策能力。应对这些挑战将使深度学习在推动棉花产业的智能化、自动化和可持续转型中发挥核心作用。