Pau Formosa-Jordan

The paper shows time-dependent bistability in Arabidopsis floral transition, leading to critical slowing down and ghost attractor dynamics.

This study identifies lateral inhibition as an ancestral mechanism for oil body cell patterning in liverworts, supported by fossil and extant species analyses.

The paper investigates how stomatal and giant cell patterning interact in Arabidopsis leaf epidermis, showing that endoreduplication and tissue context influence stomatal number and spatial distribution.

The paper introduces iSPy, an unsupervised learning pipeline for spatial ploidy inference from intact tissue images, demonstrating its use in Arabidopsis, Drosophila, and human tissues.

The paper shows a common genetic pathway controls giant cell formation in both sepal and leaf epidermis, leading to non-random spatial patterns through stochastic gene expression and tissue growth.

This study identifies MYB68 as a regulator of pole-specific endodermal differentiation and suberin patterning in Arabidopsis roots, revealing insights into passage cell function and radial endodermal organization.

The paper investigates how nutrient availability affects the plasticity and invariance of inflorescence and floral meristems in Arabidopsis, showing differences in their response to nutrient changes.

This study identifies ALE2 as a receptor-like kinase that promotes giant cell formation in Arabidopsis sepals by modulating ATML1 activity rather than expression.

The paper shows reciprocal repression between AP2 and SOC1 transcription factors couples floral transition to changes in shoot apical meristem morphology in Arabidopsis.

The paper shows that high ATML1 concentrations induce VLCFA synthesis, which maintains giant cell identity by promoting auto-activation through lipid ligand binding.