Dominique Eeckhout

This study characterizes the structure and function of the Arabidopsis callose synthase complex, revealing its trimeric architecture and molecular mechanisms of callose synthesis.

This study determines the molecular structure of the TPLATE complex and shows its structural flexibility is essential for membrane deformation during plant endocytosis.

The paper identifies a mechanism in plants where clathrin-coated vesicles are selectively degraded via autophagy during osmotic stress to maintain membrane tension and cell integrity.

This study identifies SCAMP proteins as regulators of aquaporin abundance in Arabidopsis root cells, showing reduced PIP levels in mutants lead to improved drought response.

The paper introduces PUP-IT, a pupylation-based proximity labelling method for detecting protein interactions in plants, and identifies BEN1 as a regulator of cellulose synthesis.

This study identifies two plant-specific DREAM complex components, FLIC and FLAC, and shows their role in repressing floral transition in Arabidopsis through mutant analysis and protein interaction studies.