Roman Pleskot

This study shows that callose-dependent coordination between cell division and growth is essential for planar morphogenesis in moss phyllids.

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 identifies unstructured regions in RBOHs that differentially regulate their activation in immune signaling and pollen tube growth.

This study identifies auxin-induced interaction between AFB1 receptor and CNGC14 calcium channel, revealing a novel mechanism for calcium influx and growth inhibition in plants.

This study shows CRK2 regulates plant development by modulating callose synthase activity, affecting symplastic transport and leading to starch accumulation and growth defects in Arabidopsis.

This study identifies MLO proteins as trimeric inward calcium channels, revealing their structural and functional mechanisms for calcium influx in plants.

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 identifies S-acylation and oligomerization as key factors controlling HIR2 plasma membrane targeting and nanodomain organization in Arabidopsis.

This study identifies a bacterial lipid that triggers membrane mechanosensing immunity in Arabidopsis by altering membrane properties and activating immune signaling pathways.

This study shows CRK2 phosphorylates and sequesters QSK1 at the plasma membrane, preventing callose deposition at plasmodesmata under normal conditions, and its dephosphorylation allows QSK1 relocalization during osmotic stress.

This study identifies 28 candidate genes involved in B chromosome elimination in Sorghum purpureosericeum embryos through transcriptomic and genomic analysis.

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.

This study identifies ARO proteins as essential activators of plant CNGC channels, revealing their role in calcium signaling through interaction with the Calmodulin-binding IQ domain.