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Plant Phenomics


Revolutionizing plant phenotyping: deep learning and 3D point cloud technology in overcoming reconstruction challenges

This study utilizes neural network-based point cloud completion to reconstruct 3D models of flowering Chinese Cabbage leaves, achieving full reconstruction with moderate consistency. The results show that the PF-Net algorithm improves the completeness of leaf point clouds under natural occlusion conditions, but struggles with larger mi...

SourcePlant Phenomics·JournalPlant Phenomics·TypeExperimental study·DateJan 17, 2024

Revolutionizing grapevine phenotyping: harnessing LiDAR for enhanced growth assessment and genetic insights

A study published in Plant Phenomics explores the use of LiDAR technology to characterize grapevine growth and detect associated genetic loci. The research found strong correlations between LiDAR-derived volumes and traditional methods, with stable heritability and powerful QTL detection confirming their efficacy.

SourcePlant Phenomics·JournalPlant Phenomics·TypeExperimental study·DateJan 17, 2024

IAA-miR164a-NAC100L1 mediates graft incompatible

Researchers found that the IAA-miR164a-NAC100L1 module induces callose deposition to mediate graft incompatible cucumber/pumpkin seedlings. The module regulates callose synthase activity and interacts with NAC100L1 to enhance symbiotic incompatibility.

SourcePlant Phenomics·JournalHorticulture Research·TypeExperimental study·DateJan 16, 2024

An international research group led by Prof. Haiping Wang at IVF-CAAS sheds light on the molecular mechanisms of Ca2+ sensor BraCBL1.2 in clubroot resistance in Chinese cabbage

A study led by Prof. Haiping Wang at IVF-CAAS identified a plasma membrane-localized Ca2+ sensor BraCBL1.2 that functions downstream of BraCRa upon Plasmodiophora brassicae infection, enhancing clubroot resistance in Chinese cabbage.

SourcePlant Phenomics·JournalHorticulture Research·TypeExperimental study·DateJan 15, 2024

Unlocking the secrets of grapevine immunity: Novel study reveals how Eutypa lata metabolites activate plant defense mechanisms

Researchers discovered that eutypine activates plant defense mechanisms, primarily due to its phenolic moiety, which triggers a rapid calcium influx and increases the expression of defense-related genes. The study also found that different chemical groups in these compounds play varying roles in plant defense mechanisms.

SourcePlant Phenomics·JournalPlant Phenomics·TypeExperimental study·DateDec 19, 2023