Common Names: cultivated annual rye
The study compared the copy number of satellite repeats in Triticeae species. Different levels of variability were identified, and specific copy numbers were found in certain species. This information can be used for evolutionary and population studies of Triticeae species.
Study analyzed the bHLH transcription factor family in rye, a hardy crop plant, to understand its role in plant development and stress responses. This knowledge can be useful for improving crop resilience and yield.
Researchers analyzed the GRAS transcription factor family in rye, finding it plays important roles in plant development and stress response. This knowledge can improve our understanding of rye's potential use in agriculture and breeding programs.
Scientists used a hexaploid triticale called Yukuri to transfer valuable genes from rye into wheat, creating wheat-rye introgression lines. These lines showed resistance to diseases and improved agronomic traits, making them valuable for wheat improvement programs.
This study shows that global soil acidification is increasing aluminum availability, hindering plant growth. It identifies genes associated with stress response and detoxification in rye, suggesting that Al tolerance is linked to exclusion from leaf meristem.
Researchers identified and analyzed the HSF gene family in Rye, a plant species. Understanding these genes can help in improving plant growth and development, and in dealing with stress.
Scientists identified and studied the gene responsible for producing alkylresorcinols (ARs) in rye, which are compounds with antimicrobial, antifungal, and cytotoxic properties. Understanding this gene and its products could have positive implications for human health.
This research studied gene expression during grain germination in barley, wheat, and rye. The study found differences in gene expression levels specific to each species, providing new information for understanding the germination process in cereals.