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handle: 20.500.14243/451967
Increasing the ability to investigate plant functions and structure through non-invasive methods with high accuracy has become a major target in plant breeding and precision agriculture. Emerging approaches in plant phenotyping play a key role in unraveling quantitative traits responsible for growth, production, quality, and resistance to various stresses. Beyond fully automatic phenotyping systems, several promising technologies can help accurately characterize a wide range of plant traits at affordable costs and with high-throughput. In this review, we revisit the principles of proximal and remote sensing, describing the application of non-invasive devices for precision phenotyping applied to the protected horticulture. Potentiality and constraints of big data management and integration with “omics” disciplines will also be discussed.
optical sensors, digital imaging, advanced crop management, Greenhouse horticulture, Fluorescence, Plant breeding, Vegetation indices, Automation, genomics, plant breeding, Advanced crop management, Phenomics, greenhouse horticulture, automation, S, phenomics, Agriculture, Genomics, Digital imaging, Optical sensors, vegetation indices, fluorescence
optical sensors, digital imaging, advanced crop management, Greenhouse horticulture, Fluorescence, Plant breeding, Vegetation indices, Automation, genomics, plant breeding, Advanced crop management, Phenomics, greenhouse horticulture, automation, S, phenomics, Agriculture, Genomics, Digital imaging, Optical sensors, vegetation indices, fluorescence
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