J. W. Walley

This study identifies ARF27 as a key regulator of auxin-mediated root morphogenesis in maize, showing its role in root hair formation and auxin response.

This study identifies ZmPILS6 as an auxin efflux carrier in maize that regulates root morphogenesis by controlling auxin distribution and hormone signaling pathways.

This study identifies PDLP5 and PDLP6 as proteins regulating plasmodesmal function at specific cell interfaces in Arabidopsis by interacting with SUS6 and CalS7 to control callose deposition.

This study identifies auxin-responsive gene networks in maize root regions, revealing region-specific gene regulation and potential transcription factors involved in root development.

The paper identifies a novel PHYTOCHROME B allele in a T-DNA line causing a long hypocotyl phenotype, linking it to auxin and light signaling in seedling development.

This study identifies 3,178 ubiquitinated proteins in Arabidopsis roots using a diGly enrichment method, revealing novel transcription factor stability regulation.

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 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.

This study identifies phosphorylation sites on AtGPA1 by 12 RLKs and characterizes their functional relevance in Arabidopsis G protein signaling.

This paper uses transcriptome assembly and ribosome profiling to discover novel small ORFs and upstream ORFs in tomato, revealing their regulatory roles and translational landscape.

This study identifies DEK5 as a homolog of bacterial TamB required for chloroplast envelope biogenesis and metabolite transport in maize.

The paper evaluates and refines sample preparation methods for plant proteome profiling, finding that a detergent-free urea-FASP approach enables deep and robust quantification of leaf proteomes.