Jose Ramon Dinneny

This study identifies spatial developmental reprogramming in roots of Schrenkiella parvula under salinity, revealing distinct zones and regulatory programs that enable continued growth.

The paper develops fluorescent biosensors for cryogenic correlative light and electron microscopy to measure physiological conditions alongside structural data.

This study profiles root cells from five Brassicaceae species under stress treatments, revealing cell-type-specific gene expression divergence and stress response variation across species.

The paper develops a rhizobacterial biosensor platform, Suc-MAPP, to spatially map sucrose exudation from plant roots and identifies genetic design rules for engineered exudation.

The paper identifies CSC and REM as mechanisms mediating plant cell resilience through cell wall-plasma membrane attachments under hyperosmotic stress.

The paper identifies moisture-dependent root-branch signaling pathways in maize by analyzing genetic differences between tropical/subtropical and temperate germplasm.

This paper designs synthetic genetic circuits to control gene expression in plant roots, enabling predictable changes in root structure.

The paper systematically characterizes gene function in a photosynthetic organism by analyzing mutant phenotypes across diverse conditions and linking them to functional pathways.

The paper identifies β-cyclocitral as a root growth regulator that enhances root depth and branching in Arabidopsis, tomato, and rice, independent of auxin and other signaling pathways.