Articles tagged with Arabidopsis Genomes
A study by John Innes Centre researchers reveals that inner tissues play a crucial role in shaping plant organs, contradicting the widespread assumption that external layers control growth. By analyzing cell division orientation and gene editing techniques, they discovered genes affecting stem thickness in Arabidopsis.
A groundbreaking experiment tracked plant evolution in response to climate change across 30 sites worldwide, revealing gene variants associated with successful adaptation and tipping points beyond which plants can't adapt. The study provides quantitative data to understand rapid adaptation and predict where risks lie.
Salk Institute scientists created a high-resolution atlas showing how droughts affect plant cells. They identified a gene, Ferric Reduction Oxidase 6 (FRO6), that could be targeted to create more resilient crops. FRO6 expression in mesophyll cells partially maintained leaf growth under drought stress.
Scientists at the Salk Institute have discovered a new mode of epigenetic targeting in plant cells, where specific DNA sequences guide DNA methylation patterns. This finding has major implications for understanding epigenetic regulation and could inform future strategies for epigenetic engineering.
Joseph Ecker, a Salk Institute professor, has received the Barbara McClintock Prize for his groundbreaking work in plant genetics and genomics. His research explores the epigenome, revealing critical details about plant immunity, drought recovery, and modern photosynthesis.
Researchers at the University of Lausanne discovered that plant roots release complex compounds called root exudates to recruit beneficial bacteria. These bacteria are attracted to glutamine, an amino acid that acts as a signal allowing them to colonize precise leakage sites on the root surface.
Researchers discovered that plants rapidly activate a coordinated immune response during drought recovery, prioritizing immunity over growth. This finding highlights the importance of studying the post-drought period and points to new strategies for engineering crops that can rebound more effectively after environmental stress.
Researchers create first genetic atlas to span entire Arabidopsis life cycle, capturing gene expression patterns of 400,000 cells in multiple developmental stages. The atlas provides comprehensive insights into plant biology, enabling future studies on different cell types and developmental stages.
Researchers at Salk Institute used CRISPR-Cas9 to delete large duplicated regions in Arabidopsis thaliana genomes, revealing minimal off-target effects. The study shows that it's possible to obtain viable plants with streamlined, minimal plant genomes, challenging assumptions about essential DNA blocks.
A team of researchers at the University of Toronto has identified a protein, Shikimate kinase-like 1 (SKL1), that enables land plants to convert light into energy through photosynthesis. This discovery holds promise for improved herbicides and increased efficiency of photosynthesis in food crops.
Researchers have charted how plant metabolism responds to genetic changes that increase oil production, finding simultaneous increases in both oil and protein content. The study's findings will provide scientists with clues for optimizing biofuel production in plants such as camelina and pennycress.
New York University researchers developed a novel process using machine learning to reveal groups of genes governing nitrogen use efficiency in plants like corn. The study aims to help farmers improve crop yields and minimize fertilizer costs.
Researchers from Chiba University identified a previously unreported gene, LIRI1, which plays a crucial role in regulating the balance between starch and lipid storage in plant leaves. The study suggests that LIRI1 promotes carbon allocation by activating starch production and inhibiting starch degradation.
Researchers have debuted the first comprehensive gene expression atlas of the plant periderm at the single-cell level, providing new insights into phellem cells and their role in carbon storage. The atlas could be used to stimulate growth of the protective periderm in plants facing environmental stress due to climate change.
Researchers at Salk Institute discovered plant cells enter an immune state to fight pathogens, using Primary IMmunE Responder (PRIMER) cells as hubs for the immune response. These cells are surrounded by bystander cells that enable long-distance cell-to-cell communication.
A new study by Salk scientists reveals a key gene that enhances plants' zinc tolerance, allowing them to thrive in toxic conditions. The discovery enables the development of crops more resilient to soil contamination, a major goal of Salk's Harnessing Plants Initiative.
Researchers at Washington State University have discovered a new way for plants to change the fatty acid composition in their seed oil after it's already made. This process could lead to improved production of valuable oils used in various industries, including food and biofuels.
A team of researchers from Nara Institute of Science and Technology discovered a phytohormone-mediated switch controlling autophagy, leading to terminal cell differentiation for petal abscission. They found that jasmonic acid promotes petal abscission by activating autophagy at the base of petals.
X- and y-type thioredoxins play a crucial role in maintaining the redox balance of photosynthesis during fluctuating light conditions. The study found that these proteins facilitate electron transport through the electron transport chain, preventing photoinhibition and promoting plant growth.
A new technology called PHYTOMap allows researchers to study dozens of genes simultaneously without genetic manipulation, providing insights into plant responses to climate change. The method has the potential to improve crop resiliency and inform agriculture optimization.
Researchers at the University of Nebraska-Lincoln have identified new genes that regulate the surge protector in plants, which can help increase photosynthesis efficiency and boost corn yields. The discovery could lead to breeding plants better equipped to capitalize on yield-boosting sunlight.
Researchers at Boyce Thompson Institute have created the first comprehensive annotation of long intergenic non-coding RNAs (lincRNAs) in four mustard species. The study identifies locations across all four genomes that encoded lincRNAs, proposed functions for them, and confirmed the function of some lincRNAs involved in germination. Th...
Researchers at RIKEN CSRS have developed a non-transgenic method to modify plant genes using a bioactive molecule spray, which can be used to improve crop yield and resistance to pests. The technique has shown promising results in improving economically desirable quality traits in crops.
A new study explores how plants respond differently to useful and harmful microbes, revealing that accessory chromosomes from fungal strains dictate these responses. Most plant genes are expressed similarly in response to both beneficial and pathogenic fungi, but with key differences occurring just 12 hours after interaction.
Researchers have sequenced the Arabidopsis genome at unprecedented detail, shedding light on centromere evolution and revealing genetic and epigenetic topography. The findings provide insights into the genomic equivalent of black holes, a region that has long been challenging to analyze.
Researchers at GMI discovered that Arabidopsis's Decreased DNA Methylation I (DDM1) gene product silences undesirable genetic elements and transposable elements, preventing genome instability. This mechanism dominates other known TE silencing mechanisms.
Scientists found that plant genome duplication enables herbaceous plants to regenerate and become more fertile after being damaged. The study showed that increased genome duplication leads to an increase in cell growth and production of key proteins.
Researchers from Kansas State University collaborated with international teams to analyze genomic data of Arabidopsis thaliana, a small flowering plant model species. The study aimed to understand the genetic variation and gene expression patterns in different plant tissues.
The 1001 Genomes Project reveals a vast number of variations in the Arabidopsis genome, including hundreds of genes missing or present in different strains. This flexibility is believed to contribute to the plant's adaptability to various environmental conditions.
A study published in Nature has decoded the genetic variation of Arabidopsis thaliana, a model plant used in research. By analyzing 19 strains of this plant, scientists have gained insight into its ability to adapt to different environments and climates.
Joseph R. Ecker, a renowned plant biologist, has been selected as an HHMI-GBMF Investigator for his pioneering work on Arabidopsis thaliana genome sequencing and genomic methylation patterns. His research aims to explore epigenetic mechanisms in plants and their relevance to human health and disease.
Researchers have decoded the entire genome of lyre-leaved rock cress, a close relative of the thale cress, revealing that its genome is significantly larger. The study found that considerable elements were lost from the thale cress genome, with hundreds of thousands of small deletions accounting for most of the differences in size.
A team at the University of Southern California used a genome-wide association method to locate genes behind important plant traits such as flowering time and disease resistance in Arabidopsis thaliana. The study identified dozens of genes linked to these traits, with potential applications in agriculture and biofuels.
A US-German team studied genetic changes in Arabidopsis thaliana over 30 generations, finding that new mutations occur frequently, with an average of one per genome per generation. The study also reveals that not all parts of the genome are equally affected and provides new estimates for when species split up.
Researchers have successfully sequenced the papaya genome, revealing a complex evolutionary history and providing valuable insights into fruit tree biology. The study also identified genetic mechanisms underlying arboreal development and seed dispersal, with potential implications for other crops in the Brassicales order.
Researchers found nearly four percent of Arabidopsis genes are variable and some are non-functional, revealing a highly adaptable plant with a streamlined genome. The study suggests that environmental conditions drive gene variation, enabling plants to adapt to different climates.
Researchers developed a method to catalog genetic variations in Arabidopsis thaliana, revealing regions targeted by natural selection. The study found that one out of 10 genes is very different and many gene families were shaped by evolution. The data have been placed in a publicly accessible database.
The poplar's genome has been cracked, revealing potential genes specific to trees that could aid in combating global warming. By comparing the genomes of Populus and Arabidopsis, researchers hope to identify tree-specific genes that can be used to modify trees for better energy production and wood quality.
A Virginia Tech researcher has been awarded $1.8 million to investigate the Arabidopsis genome, a key plant model organism. The project aims to understand the function of SABATH faculty of methyltransferase genes in plants, which could lead to breakthroughs in plant physiology and reproduction.
A recent study published in Science has identified nearly 6,000 protein-encoding genes in the tiny mustard weed Arabidopsis, revolutionizing plant genetics research. This breakthrough allows researchers to quickly identify and modify desirable traits in other plants using these genes.
Scientists have inactivated almost three-quarters of all genes in the genome of Arabidopsis thaliana, creating a public database of genome-wide gene mutations. The study provides significant new information on the function of individual and groups of genes.
Researchers can now study specific gene function in Arabidopsis by quickly searching for and ordering genetically modified plants with knocked-out genes. Over 21,700 genes were identified as having been turned off using insertional mutagenesis, representing a significant advancement in understanding plant genome functions.
The international Arabidopsis Genome Initiative has successfully completed the sequencing of the entire genome of Arabidopsis thaliana, a powerful tool in plant molecular biology. The study reveals vast chromosomal regions have been duplicated in the genome, and approximately 70% of genes can be functionally predicted.
A team of scientists has successfully completed the sequencing of the Arabidopsis thaliana genome, paving the way for accelerated research in plant biology. The comprehensive analysis provides valuable insights into gene annotation, functional categories, chromosomal architecture, and transposable elements.
The team sequenced the genome of Arabidopsis thaliana, a flowering mustard, enabling scientists to study genes controlling basic plant functions. The knowledge gained will aid in improving crops like wheat, corn, and soybeans, as well as identifying genes in the human sequence.
The complete genome sequence of Arabidopsis thaliana reveals clues to genetic behavior in plants and animals, with potential applications for agriculture and medicine. The public domain genome catalog provides a resource for scientists worldwide.