Scientists sequenced the genome of a polerovirus isolated from wild oat in Australia. It has 87% nucleotide identity with cereal yellow dwarf virus. This information can help understand and combat plant diseases.
This study shows that gene family expansions, particularly in glycosyde hydrolases (GHs) and cytochrome P450 proteins, played a crucial role in the adaptation of a phytopathogenic fungus to woody plants. Understanding this process can aid in making decisions for your lab's research on plant-pathogen interactions.
Scientists sequenced the genome of a bacteria called RTGN2 found in root nodules. The genome is 9.5 million base pairs long, composed of 187 contigs, and has a high GC content of 71.2%. This information may be relevant for studying bacterial ecology and symbiotic interactions in plants.
This study identified and analyzed WOX genes in ramie, a plant used in textile production. The genes play a role in promoting stem cell identity and transitioning vegetative organs to embryos. Understanding their functions can aid in research on ramie rooting and further studies.
This study analyzed the gene family of WRKY transcription factors in a legume forage grass. They identified 59 genes and classified them into three groups. They found that some genes are induced by different abiotic stresses like drought, low temperature, MeJA, and ABA. These findings contribute to understanding stress resistance mechanisms in .
Scientists analyzed the AP2/ERF gene family in Zanthoxylum armatum leaves. Four genes were identified as potentially involved in terpenoid biosynthesis. Methyl jasmonate treatment led to increased terpenoid content. This research provides insights for understanding and manipulating terpenoid production in Z. armatum.
Researchers conducted an analysis of GDSL esterase/lipase genes in cotton, revealing their crucial roles in plant growth, development, and response to stress. Understanding these genes can help improve cotton cultivation and disease resistance.