Precision nutrient management utilizing UAV multispectral imaging and artificial intelligence

被引:1
|
作者
Ampatzidis, Y. [1 ]
Costa, L.
Albrecht, U.
机构
[1] Univ Florida, IFAS, Southwest Florida Res & Educ Ctr, Agr & Biol Engn Dept, 2685 SR 29 North, Immokalee, FL 34142 USA
来源
XXXI INTERNATIONAL HORTICULTURAL CONGRESS, IHC2022: III INTERNATIONAL SYMPOSIUM ON MECHANIZATION, PRECISION HORTICULTURE, AND ROBOTICS: PRECISION AND DIGITAL HORTICULTURE IN FIELD ENVIRONMENTS | 2023年 / 1360卷
关键词
machine learning; gradient boosting regression tree; remote sensing; UAV; VEGETATION INDEXES; DISEASE;
D O I
10.17660/ActaHortic.2023.1360.39
中图分类号
TP39 [计算机的应用];
学科分类号
081203 ; 0835 ;
摘要
Nutrient management is critical in specialty crop production as it directly influences crop health and productivity. To determine the nutrient status of a plant and correct potential deficiencies, regular analysis of leaf nutrient concentrations may be necessary to assess plant responses to environmental factors and management practices accurately. Plant nutrient analysis requires the chemical analysis of leaf samples in a specialized laboratory, which is expensive and prone to human error resulting from inconsistencies and bias during leaf sampling and during the analysis process. To overcome these limitations, a novel methodology to determine leaf nutrient concentrations of citrus trees by using unmanned aerial vehicle (UAV) multispectral imagery and artificial intelligence (AI) was developed. A study was conducted in four different citrus field trials in Florida, USA, to develop and evaluate the AI model. Each trial contained either 'Hamlin' or 'Valencia' sweet orange scion grafted on more than 30 different rootstocks. Leaves were collected and analyzed in the laboratory to determine macro- and micronutrient concentrations using traditional chemical methods. A UAV equipped with a multispectral camera was utilized to collect spectral data from tree canopies in five different bands (red, green, blue, red edge, and near-infrared). A gradient boosting regression tree model was trained to determine plant nutrient concentrations from the collected spectral data. The developed AI model was able to determine macronutrients (nitrogen, phosphorus, potassium, magnesium, calcium, and sulfur) with high precision (less than 9 and 17% average error for the ' Hamlin' and 'Valencia' trials, respectively) and micro-nutrients with moderate precision (less than 16 and 30% average error for ' Hamlin' and 'Valencia' trials, respectively). This novel method can help overcome some of the limitations of the traditional method of leaf nutrient analysis or complement it. A similar technique can be applied to other crops and production systems.
引用
收藏
页码:321 / 329
页数:9
相关论文
共 50 条
  • [21] Precision medicine in the era of artificial intelligence: implications in chronic disease management
    Subramanian, Murugan
    Wojtusciszyn, Anne
    Favre, Lucie
    Boughorbel, Sabri
    Shan, Jingxuan
    Letaief, Khaled B.
    Pitteloud, Nelly
    Chouchane, Lotfi
    JOURNAL OF TRANSLATIONAL MEDICINE, 2020, 18 (01)
  • [22] Precision medicine in the era of artificial intelligence: implications in chronic disease management
    Murugan Subramanian
    Anne Wojtusciszyn
    Lucie Favre
    Sabri Boughorbel
    Jingxuan Shan
    Khaled B. Letaief
    Nelly Pitteloud
    Lotfi Chouchane
    Journal of Translational Medicine, 18
  • [23] Utilizing Artificial Intelligence for Head and Neck Cancer Outcomes Prediction From Imaging
    Chinnery, Tricia
    Arifin, Andrew
    Tay, Keng Yeow
    Leung, Andrew
    Nichols, Anthony C.
    Palma, David A.
    Mattonen, Sarah A.
    Lang, Pencilla
    CANADIAN ASSOCIATION OF RADIOLOGISTS JOURNAL-JOURNAL DE L ASSOCIATION CANADIENNE DES RADIOLOGISTES, 2021, 72 (01): : 73 - 85
  • [24] Artificial Intelligence-Driven Biomedical Imaging Systems for Precision Diagnostic Applications
    Kumar, Vijay
    Singh, Amit Kumar
    Damasevicius, Robertas
    IEEE JOURNAL OF BIOMEDICAL AND HEALTH INFORMATICS, 2024, 28 (03) : 1158 - 1160
  • [25] Illuminating the future of precision cancer surgery with fluorescence imaging and artificial intelligence convergence
    Cheng, Han
    Xu, Hongtao
    Peng, Boyang
    Huang, Xiaojuan
    Hu, Yongjie
    Zheng, Chongyang
    Zhang, Zhiyuan
    NPJ PRECISION ONCOLOGY, 2024, 8 (01)
  • [26] Artificial intelligence in medical imaging: A radiomic guide to precision phenotyping of cardiovascular disease
    Oikonomou, Evangelos K.
    Siddique, Musib
    Antoniades, Charalambos
    CARDIOVASCULAR RESEARCH, 2020, 116 (13) : 2040 - 2054
  • [27] From Diagnosis to Precision Surgery: The Transformative Role of Artificial Intelligence in Urologic Imaging
    Khizir, Labeeqa
    Bhandari, Vineet
    Kaloth, Srivarsha
    Pfail, John
    Lichtbroun, Benjamin
    Yanamala, Naveena
    Elsamra, Sammy E.
    JOURNAL OF ENDOUROLOGY, 2024, 38 (08) : 824 - 835
  • [28] Mapping of insect pest infestation for precision agriculture: A UAV-based multispectral imaging and deep learning techniques
    Amarasingam, Narmilan
    Powell, Kevin
    Sandino, Juan
    Bratanov, Dmitry
    Salgadoe, Arachchige Surantha Ashan
    Gonzalez, Felipe
    INTERNATIONAL JOURNAL OF APPLIED EARTH OBSERVATION AND GEOINFORMATION, 2025, 137
  • [29] Trends in Telemedicine Utilizing Artificial Intelligence
    Pacis, Danica Mitch M.
    Subido, Edwin D. C., Jr.
    Bugtai, Nilo T.
    2ND BIOMEDICAL ENGINEERINGS RECENT PROGRESS IN BIOMATERIALS, DRUGS DEVELOPMENT, AND MEDICAL DEVICES, 2018, 1933
  • [30] Exploring Artificial Intelligence Utilizing BioArt
    Simou, Panagiota
    Tiligadis, Konstantinos
    Alexiou, Athanasios
    ARTIFICIAL INTELLIGENCE APPLICATIONS AND INNOVATIONS, AIAI 2013, 2013, 412 : 687 - 692