Sharon I. Greenblum

The paper investigates how transcription factor binding site position and chromatin context influence gene regulation in plants, revealing distinct regulatory roles for different genomic locations.

This study uses genomic data from Drosophila melanogaster to show how fitness trade-offs manifest under fluctuating selection, identifying genomic regions linked to reproduction and stress tolerance.

The paper identifies dopamine biosynthesis pathway in plants using metabolite-based genome-wide association studies and demonstrates its role in tissue browning and stress tolerance.

This study shows ecological stoichiometry and life history theory predict phenotypic adaptation in Drosophila, while genomic data fail to predict the SNPs and genes involved.

The paper shows that beneficial reversal of dominance at the Ace locus in Drosophila melanogaster allows resistant alleles to persist under fluctuating insecticide selection.

The paper identifies single-cell transcriptional responses to drought in Sorghum bicolor and highlights shared regulatory mechanisms across cell types.

The paper presents a scalable TFBS assay to create an atlas of 3,000 genome-wide binding site maps for 360 TFs across 10 flowering plant species, revealing conservation and rewiring of regulatory elements.

This study shows that Drosophila melanogaster pigmentation adapts rapidly and deterministically to environmental gradients across multiple timescales through distinct genetic components.