T. M. Nolan

The paper identifies BR-responsive gene expression in Arabidopsis root cells using single-cell RNA-sequencing and reveals HAT7 and GTL1 as transcription factors regulating cell elongation.

The paper integrates multi-omics data to uncover molecular interactions between BR and TORC signaling in Arabidopsis, revealing shared regulatory mechanisms in growth and stress responses.

This study shows that brassinosteroids modulate autophagy in Arabidopsis by phosphorylating RAPTOR1B via BIN2 kinase, linking BR signaling to TOR-mediated autophagy regulation.

This study identifies crosstalk between brassinosteroid and TORC signaling in Arabidopsis through multi-omics analysis of mutants, revealing shared gene-products and a kinase signaling network.

This study integrates multi-omic data to construct a regulatory network of brassinosteroid response in Arabidopsis, identifying key phosphorylation sites and a novel transcription factor involved in cell division.

The paper constructs a single-cell atlas of Arabidopsis root development and identifies an alternative pathway for endodermal identity specification in mutants.

The paper introduces RoAD, a robotic system for automated BR and drought response experiments in Arabidopsis and maize, using imaging and machine learning to measure plant traits.