Jessica Pérez‐Sancho

This study shows that SYT1 and SYT3 are essential for maintaining endocytosis during cold stress in Arabidopsis by preserving membrane composition and TPC subunit association.

The paper integrates proteomic and interactomic data to identify SYT1-associated proteins at ER-PM contact sites and links them to lignin deposition.

This study identifies a phosphorylation-dependent mechanism by which BIK1 regulates TTL3 to control cellulose biosynthesis under salt stress.

This study shows that plant vesicle trafficking genes have dual roles in geminiviral infection, with some promoting and others restricting systemic spread.

The paper shows that LBD genes restrict intercellular communication to enable root regeneration in plants.

The paper identifies DGK1 and DGK2 as forming a module with SYT1 at ER-PM contact sites in Arabidopsis, enhancing PI cycle efficiency through DAG transport and phosphorylation during stress.

The paper shows the ER stabilizes plasmodesmata during incomplete cytokinesis in plants by preventing fenestrae fusion and forming communication bridges between daughter cells.

This study identifies distinct biological roles of plant synaptotagmins, showing SYT1 and SYT3 are involved in abiotic stress resistance while SYT5 is linked to pathogen resistance.

The paper shows plasmodesmata function as ER-PM tubular membrane contact sites that regulate intercellular molecular exchange in plants through PI4P and MCTP proteins.

The paper shows that synaptotagmins maintain diacylglycerol homeostasis at ER-PM contact sites during abiotic stress by preventing its detrimental accumulation at the plasma membrane.

This study identifies TTL proteins as scaffolds for BR signaling components in Arabidopsis, enhancing signal transduction by localizing these components at the plasma membrane upon BR treatment.