Guillaume Lobet

UHPLC-MS/MS lipidomics of maize leaves (149 species, three genotypes, four growth stages, three leaf zones) shows genotype and leaf number explain most lipid variation.

This study quantifies intraspecific and interspecific variation in root traits of tree seedlings and finds that intraspecific variability often exceeds interspecific differences, highlighting the importance of plasticity in root traits for regeneration under climate change.

The paper models how salt stress alters root system architecture in wild tomatoes by incorporating lateral-root curvature and identifies a heritable genetic locus associated with transport efficiency.

This study shows that phenological stage has a stronger effect on root exudate metabolites in white lupin than phosphorus supply, with phosphorus effects only observed during flowering.

This study links root anatomical gradients and cultivar differences to variations in hydraulic properties in winter wheat using imaging and modeling.

This study shows that phosphorus limitation increases root exudation of carboxylates, which enhances mineral dissolution across different soil types.

The paper models how secondary growth and exodermal barriers affect root hydraulics in tomato, showing exodermal suberin has little effect with a lignin cap and secondary growth is crucial for maintaining axial conductance.

This paper develops a method to train deep-learning models for multi-species canopy segmentation using FCNNs and pseudo-labeling, achieving high accuracy with reduced human effort.

The paper introduces RAT, a low-cost root anatomical imaging system, and shows reduced vascular complexity in wheat crown roots from basal to distal regions.

This study examines how decreasing phosphorus availability affects root system architecture and conductance in Zea mays, showing reduced conductance with lower phosphorus levels.

This study examines how 100 years of wheat breeding affected root hydraulic traits, finding a decline in root number and hydraulic conductance while root diameter remained stable.

This paper reviews empirical studies on root hydraulic properties across scales, identifies factors influencing their variability, and highlights the importance of root system age and measurement conditions.

The paper introduces MECHA, a mathematical model that predicts root radial permeability by integrating cell-level hydraulic properties and anatomical data from Zea mays roots.