Sariel Hübner

This study uses high-throughput genomics to identify wild sunflower relatives as sources of broomrape resistance genes.

This study examines how wheat domestication altered transposable element abundance and distribution, linking climate-driven genomic changes to key domestication traits.

The paper investigates genome size variation in two Hordeum species, finding that drought drives genome expansion through transposable element accumulation, with TE silencing as the key regulatory mechanism.

This paper applies environmental genomic selection to barley landraces to identify key parents for breeding adapted to specific environments.

The study shows that shared selection and genetic architecture lead to repeatable evolution in hybrid sunflower populations over 14 years.

The paper identifies adaptive haplotype blocks in wild barley linked to drought and heat response genes, enriched for transposable elements, and predicts maladaptive risk due to climate change.

The paper assesses the sufficiency of genetic diversity in sorghum germplasm repositories for climate adaptation by evaluating geographic distribution and genomic resilience scores.

This study analyzes the genomic and phenotypic impacts of wild introgressions in sunflower, finding that while some traits improve, most introgressions negatively affect yield and quality.

GWANN uses deep learning to improve GWAS by detecting genetic associations with higher sensitivity and speed than traditional methods.

The paper uses image analysis and genome-wide association studies to identify genetic loci affecting seed-coat characteristics in sunflower.