Articles tagged with Genome Sequencing
Researchers developed a portable DNA sequencing system to monitor outbreaks, generating sequencing information in under an hour and providing crucial clues to epidemiologists. This technology has vast applications, including cancer research, and can impact response efforts during epidemics.
The seagrass genome has been sequenced, revealing evolutionary changes that enabled plants to thrive in the marine environment. The findings have significant implications for food security, climate change, and marine conservation.
The bed bug's genome has been sequenced, offering insights into its unique biology and potential targets for controlling its resurgence. The study found that bed bugs have evolved multiple ways to resist insecticides, including barriers and detoxification genes.
Researchers sequenced a seagrass genome, revealing genes that enable plants to adapt to saline environments. The study provides insights into salt tolerance and could inform crop breeding to improve resilience in the face of climate change.
The San Diego Zoo Global has fully sequenced the 'Alalā, or Hawaiian crow's genome, which will help track genetic challenges in a species reduced to 20 birds. The sequencing is crucial for understanding how to reintroduce the species into prepared habitat on the island of Hawaii.
The great tit's reference genome shows epigenetic processes influencing learning and cognitive processes, with conserved patterns found in humans and other mammals. The study suggests a correlation between methylation levels and molecular evolution rate.
The GenomeSpace platform enables biologist-friendly genomic data analysis by connecting over 20 bioinformatics software packages. It provides 'recipes' - step-by-step workflows - to help non-programming researchers interpret their genomic data, including tools for gene expression and protein interaction analysis.
Researchers at the University of California, Berkeley, have made a major improvement in CRISPR-Cas9 technology, achieving an unprecedented success rate of 60% when replacing short stretches of DNA with normal sequences. This technique is especially useful for repairing genetic mutations that cause hereditary diseases.
A new algorithm has been proposed to automatically search for genes in DNA sequences, making it more efficient and accurate. The BRAKER1 algorithm combines the advantages of existing tools and has already been downloaded by over 1500 laboratories worldwide.
Researchers found that different color patches on butterfly wings are controlled by independent genetic switches, which can be mixed and matched between species to create new patterns. This phenomenon allows butterflies to share common warning signs with predators, a form of mimicry.
Researchers at Institut Pasteur in French Guiana have sequenced the complete genome of the Zika virus, showing almost complete homology with strains responsible for the 2013-2014 Pacific epidemic. The analysis provides a major starting point for understanding how the virus behaves and shedding light on its impact.
A University of Cincinnati study using RNA-sequencing analysis on a pregnant cockroach has identified 11,000 possible genes, with unique expressed genes corresponding to each developmental stage. The research holds potential for understanding how stress during pregnancy affects both mother and offspring in mammals.
Scientists at the University of Minnesota and BioNano Genomics have developed a new method to analyze DNA sequences in nanochannels, enabling more accurate genome mapping. By analyzing the probability distributions of DNA barcode label separations, researchers can identify structural oddities and improve the accuracy of genome maps.
A new open-source tool called NanoOK provides comprehensive alignment-based quality control and error profile analysis for the MinION platform. The tool is easily extensible through a Java programming interface and handles metagenomic sampling gracefully.
The African cheetah's genome sequence has revealed a lack of genetic variation and unique adaptations that contribute to its incredible speed. The study has shed light on the cheetah's past and its struggles with reproductive impairments, providing valuable lessons for conservation efforts.
Researchers used genome sequencing to trace Ebola's spread in Liberia, finding that most cases were linked to a single introduction of the virus in September 2014. The study suggests that widespread migration within Liberia contributed to the outbreak's magnitude and longevity.
The red clover genome provides a valuable tool for improving the beneficial traits of this important forage crop, including its ability to fix atmospheric nitrogen and provide protein-rich livestock feed. The genome assembly will pave the way towards genomics-assisted breeding methods for forage legumes.
Researchers induced different head shapes in flatworms by manipulating electrical synapses, shedding light on the role of bioelectrical networks in evolution. The findings could improve understanding of birth defects and regeneration.
Researchers found that tardigrades have a massive amount of foreign DNA, with around 17.5% coming from non-tardigrade sources, primarily bacteria. This challenges conventional views on how DNA is inherited and raises new questions about the connection between foreign DNA and extreme environment survival.
Researchers have sequenced the complete genetic makeup of a type of algae called haptophytes, which are abundant in oceans and account for 30-40% of photosynthesis. The study reveals new insights into how these algal species regulate their fat content, which could help improve biofuel production, nutrition and ecology.
Researchers at the University of Kansas sequenced the genomes of microscopic parasites known as myxozoans, revealing they are highly reduced cnidarians. The findings challenge traditional definitions of an animal and could have commercial implications for aquaculture.
Researchers developed a strategy to recover plastid sequences from nuclear DNA in plants. This allows for the assembly of complete chloroplast genomes, providing valuable information about evolutionary relationships and plant processes linked to environmental changes.
Researchers sequenced the complete genome of dinoflagellate S. kawagutii, revealing surprising findings about its genetic makeup and adaptability. The study suggests that this species has evolved to cope with stress imposed by climate change and pollution, potentially holding key to understanding other dinoflagellates.
Scientists have generated genome-scale sequence information for the fathead minnow, a commonly used model organism in environmental toxicology studies. The new data will enhance the understanding of complex traits and biological pathways affected by environmental toxins.
Scientists sequenced the pineapple genome to understand its unique photosynthetic pathways, such as crassulacean acid metabolism (CAM), which allows it to thrive in water-limited environments. The study also sheds light on the evolutionary history of grasses and their ability to survive drought.
Researchers have discovered highly conserved DNA sequences in non-coding regions of insect genomes, which are remarkably preserved for at least 180 million years. These findings provide new insights into the evolution of ancient animal ancestors and their influence on modern species.
A study has revealed that domesticated cattle have a more complex ancestry than previously thought, with some breeds sharing genetic similarities with ancient British aurochs. The discovery sheds new light on the evolutionary history of European cattle breeds.
Researchers have discovered two new organisms that play an unknown role in greenhouse gas emissions and consumption, belonging to a previously unexplored group called Bathyarchaeota. The discovery expands our understanding of life on Earth and suggests we are missing other organisms involved in carbon cycling and methane production.
The U.S. Department of Energy Joint Genome Institute has selected 27 new projects for the 2016 Community Science Program, which aims to advance systems and ecosystems biology. The projects focus on sustainable bioenergy production, plant microbiomes, and terrestrial biogeochemistry.
A Baylor College of Medicine team has reported the first successful genome surgery, changing how the human genome is folded inside the cell nucleus. By manipulating specific DNA motifs, the team was able to destroy, move, and create new loops in the genome.
A $6.5 million USDA grant is supporting genomic-assisted breeding efforts for cucurbits, aiming to reduce disease problems in squash and melons. Researchers will use genomics techniques to identify genetic markers for disease resistance, enabling breeders to develop more robust crop varieties.
Researchers have successfully sequenced the most complicated gene known using the MinION nanopore sequencer, demonstrating a new technology that can quickly and affordably analyze complex gene expressions.
A new study by HHMI scientists found that a single neuron in an adult human brain may have more than 1,000 genetic mutations not present in surrounding cells. These mutations mostly arise while genes are in active use after brain development is complete.
Researchers have found that snakes share similar genetic patterns with mammals and birds in their limbs and genitalia, suggesting a common ancestry. The study's findings suggest that these genetic elements may play a crucial role in phallus development and genital shape variation among species.
Researchers sequenced the complete genomes of 11 Przewalski's horses, including museum specimens, and compared them to domesticated horses. The findings show that captivity led to lower genetic diversity, increased inbreeding, and gene variants from domesticated individuals.
Researchers have sequenced the genome of Macrostomum lignano, a flatworm that can regrow its body parts, to gain insights into its regenerative abilities and advance stem cell biology. The genome's complex structure holds promise for studying developmental pathways and gene expression involved in regeneration.
Researchers have identified a genetic variant regulating bone mineral density and fracture risk, which could lead to interventions that prevent fractures in older adults. The study found that the engrailed homeobox-1 gene plays a central role in regulating bone density.
Researchers have sequenced the first complete ancient genome from the Mediterranean area, shedding light on the genetic changes of Neolithic migration in Southern Europe. The study reveals a common ancestral population among Mediterranean route farmers, who had distinct physical characteristics compared to inland route farmers.
Scientists have identified a gene variant that slows Alzheimer's disease progression by preventing eotaxin levels from increasing with age. The study found that individuals carrying this variant experienced a modest delay in disease onset, suggesting a potential protective mechanism against the disease.
A new theoretical analysis by MIT researchers demonstrates how their compression techniques can expand applications of accelerated searching in biology and other fields. The algorithms cluster similar genomic sequences, then choose one representative sequence to focus on, significantly reducing the search time.
A team of researchers has sequenced nearly two-thirds of barley's genes, revealing new insights into the grain's DNA and its applications in wheat and other food sources. The advancements will aid in precision plant breeding by identifying specific markers for traits like malting quality and stem rust resistance.
Researchers develop VirSorter to identify previously unknown microbial hosts and analyze viral-host interactions, revealing a wide range of prophage-like viruses that coexist with their host microbes.
The octopus genome contains widespread rearrangements of genes and a dramatic expansion of genes involved in neuronal development. The research also found novel genes that may be responsible for the creature's unique camouflage abilities.
Researchers from OIST, University of Chicago, and UC Berkeley sequence and analyze the first cephalopod genome, unlocking secrets of octopus's intelligent behavior and extraordinary features. The study sheds light on the evolution of cephalopods and their brain development, potentially inspiring robots that can explore the ocean floor.
Researchers found that the evolutionary loss of the worker caste in ants is not accompanied by a loss of genes. Instead, most genes are expressed in both queens and workers, but often at different points in development. Regulatory changes may have facilitated the evolution of sociality.
Researchers define the core set of genes and functions that a bacterial cell needs to sustain life, providing a foundation for new cell engineering approaches. The study identifies 356 essential genes across various microorganisms, enabling the rapid construction of genome-scale cellular growth models.
A study of ancient and modern genomes clarifies the history of Native American migration to the Americas, tracing their ancestry back to a single late Pleistocene event. Genetic analysis reveals two distinct populations: Athabascans and northern Amerindians, diverging from shared ancestors at around 23,000 years ago.
A new library construction method allows simultaneous generation of up to 12 size-selected long mate pair libraries with reduced DNA input, time, and cost. This approach improves the likelihood of achieving high-quality genome assemblies, particularly for complex genomes.
The kiwi bird's genomic changes help explain its unique characteristics, such as eliminated color vision and a highly developed sense of smell. Research identified evolutionary changes in the genome that underpin the bird's adaptations to nocturnality, with potential implications for conservation efforts.
A new diagnostic test has been developed to quickly detect enterovirus D68, a respiratory virus that caused unusually severe illness in children last year. The test is more effective than previous methods and can be completed in just a few hours, reducing the time needed to detect the virus.
Ancient and modern genetic data reveal that Native American ancestors entered the Americas as a single wave approximately 23,000 years ago. The research also shows that ancestral Native Americans split off into two branches around 13,000 years ago, coinciding with glacier melt and the opening of routes into North America's interior.
A new genomic analysis pinpoints the arrival of the first Americans to Siberia around 23,000 years ago, with subsequent migrations leading to distinct populations in North and South America. The study also reveals genetic admixture from East Asians and Australo-Melanesians, suggesting limited isolation from the Old World.
Genome researchers should disclose misattributed parentage to parents to respect their autonomy and sense of self. The issue also explores punishing health care providers for treating terrorists, highlighting the need for moral and legal clarity in such situations.
A study on White-breasted nuthatches found that environmental factors, such as temperature and rainfall, drive genetic differences between populations, rather than geographical distance. This discovery challenges the traditional view of isolation-by-distance and provides insights into species adaptation to unique habitats.
As genome-sequencing technologies improve, the amount of genomics data is projected to grow exponentially, requiring significant advancements in computing infrastructure. Genomics data will surpass even YouTube's storage capacity, highlighting the need for innovative solutions to handle the deluge of genomic information.
Researchers used genetic sequencing to trace the 2010 measles outbreak, linking it back to two visitors who brought separate genotypes of measles to Vancouver. The D8 and H1 strains spread across the province, resulting in 82 cases of measles.
Scientists have developed a new technique to genetically engineer cells by inserting large DNA sequences at specific genomic sites. This method may be useful for producing high levels of proteins in mammalian cells.
Researchers sequenced the genomes of two extinct woolly mammoths and three modern Asian elephants, identifying genetic variants associated with traits such as hair development, fat storage, and temperature sensation. The study found that these changes likely enabled the mammoths to adapt to harsh Arctic environments.
The study identifies extensive genetic changes responsible for woolly mammoths' adaptations to arctic life, including genes linked to fat metabolism, insulin signaling, and temperature sensation. Researchers resurrected a mammoth gene involved in temperature sensation and characterized its protein product in the laboratory.
Genomics holds key to understanding ecological and evolutionary processes as Next-Generation Sequencing (NGS) technique is underutilised in invasion biology. NGS can transform our understanding of why non-native species adapt and thrive in new environments.