J. Kleine-Vehn

This study dissects intracellular calcium responses in Lotus japonicus roots to fungal signals into two phases, linking them to distinct genetic programs for symbiosis or immunity.

This study shows that pectin methylesterase activity is necessary for RALF1 peptide signaling, as it enables binding to de-methylesterified pectin for FERONIA-dependent perception.

The paper shows that ER stress affects PILS protein abundance, linking it to growth adaptation in Arabidopsis under environmental stress.

This study identifies GASP1 as a regulator of PILS6 protein abundance, showing that it modulates auxin signaling output through homeostatic feedback.

The paper shows that endocytic trafficking to the vacuole supports vacuolar enlargement during rapid plant cell expansion, ensuring coordinated cell and vacuolar growth.

This study shows that FER and LRXs regulate the nanoscale organization of FLS2 and BAK1 on the plasma membrane, modulating immune signaling in response to RALF23.

The paper shows that auxin regulates xyloglucan complexity, which affects cell wall mechanics and differential growth in plant hypocotyls.

This study shows NET4A affects vacuole compactness in Arabidopsis thaliana, impacting growth, and reveals complexity in actin-dependent vacuolar morphology regulation.

The paper identifies a crosstalk mechanism between brassinosteroid and auxin signaling in Arabidopsis thaliana, showing BR signaling regulates nuclear auxin levels via PILS protein dynamics.

This study shows cytokinin signaling in lateral roots acts as an anti-gravitropic signal, counteracting auxin's effect to promote radial root expansion in Arabidopsis.

The paper identifies PIN7 auxin carrier as a key factor in terminating the plateau phase of lateral root growth in Arabidopsis thaliana by promoting gravity-induced bending.

This study identifies PILS6 as a temperature-sensitive regulator that limits nuclear auxin availability and affects root growth in Arabidopsis thaliana under high temperature conditions.

The paper shows that LRX and FER interact to sense extracellular signals, coordinating vacuolar size and cytosol homeostasis during plant cell expansion.