Articles tagged with Human Genome Sequencing
A computer scientist at Washington University in St. Louis has developed a novel technique to extract more DNA from a single sequence reaction, reducing both cost and time of the sequencing process. The approach uses software that sorts through genetic information and finds predicted sequences, with 59% of predicted genes verified as e...
Researchers have identified critical stretches of ultra-conserved DNA sequences in the human genome, found near well-studied genes and involved in regulating transcription. These elements were also conserved across multiple species, including rats, mice, chickens, and even ancient genomes like those of sea squirts and roundworms.
Researchers from UC San Diego have generated and analyzed the rat genome, paving the way for comparisons with human and mouse genomes. The study reveals that around 40% of the modern mammalian genome derives from a common ancestor, with the rat data showing similarities to human and mouse genomes.
The completed human Chromosome 19 sequence offers significant revelations about the complex interplay between human health and the environment. The sequence contains critical regulatory networks of genes that control DNA damage repair, detoxification, and excreting chemicals foreign to the body.
Researchers have completed a high-quality draft sequence of the laboratory rat genome, which will facilitate studies on cardiovascular diseases, psychiatric disorders, and cancer. The comparison of the rat genome with that of humans and mice will provide insight into biological differences and evolution.
The Rat Genome Sequencing Project Consortium has completed the genome sequence of the common laboratory brown rat, sharing approximately 825 non-repetitive DNA sequences with humans and mice. The study reveals unique genetic differences between rodents and humans, shedding light on evolutionary processes.
Researchers at Washington University School of Medicine have successfully assembled the chicken genome, providing a comprehensive resource for scientists worldwide. The draft assembly is based on seven-fold sequence coverage and has been deposited into public databases for free access.
The BioMEMS 768 Sequencer can sequence the entire human genome in just one year, outpacing its nearest rival by seven times. The machine's new technology also reduces material costs and minimizes DNA sample requirements.
The NHGRI Large-Scale Sequencing Research Network will sequence a strategic set of animal genomes totaling 54 billion base pairs. The centers aim to produce high-quality assembled genome sequences that researchers can use to address human biology and human health.
Two UCSD scientists, Bing Ren and Xiang-Dong Fu, receive NIH funding to investigate the human genome. Their projects aim to develop new technologies for mapping transcriptional regulatory elements and identifying functional DNA elements.
The ENCODE project aims to build a comprehensive 'parts list' of the human genome by identifying and precisely locating all functional elements. Researchers will use high-throughput methods to analyze large-scale DNA target regions, leading to a deeper understanding of human biology and new strategies for preventing and treating disease.
The Institute for Genomic Research has released sequence data for the Trichomonas vaginalis parasite, which causes trichomoniasis and is linked to increased HIV transmission. The larger-than-expected genome holds promise for finding new treatments and prevention strategies.
Researchers at TIGR and TCAG published the first partial shotgun-genome sequence of the dog genome, revealing similarities with human and mouse genomes. The study identified 974,400 SNPs in dogs and found that the canine lineage diverged from the common ancestor of humans, mice, and other species.
Researchers compared genomic regions in 13 vertebrate species, including humans and zebrafish, to identify conserved non-coding sequences with biological roles. The study provides insights into the understanding of our own genome and highlights the importance of sequencing multiple species' genomes.
Researchers sequenced 99.4% of gene-containing regions on chromosome 7 with high accuracy, revealing duplicated segments that may contribute to genetic diseases. The analysis also identified approximately 1,150 protein-coding genes, shedding light on the genetic basis of human disease.
Scientists have developed a powerful new technique called phylogenetic shadowing, enabling them to study biological traits unique to the primate family. This allows for better understanding of humans by comparing with apes and monkeys.
The new mouse genome sequence comparison offers a consensus view of the mouse genome, helping researchers understand human genes and their role in diseases. The study's findings have significant implications for improving diagnostic tests and treatments for human diseases.
Researchers at UCSD estimate that many evolutionary genome rearrangements accounted for differences between human and mouse genomes. The study found over 245 major and 3,170 micro-rearrangements, revealing significant evolutionary distance between the two species.
The completed mouse genome provides a powerful research tool to extract meaning from the human genome sequence. It allows scientists to recognize functionally important regions in the human genome by virtue of their conservation through evolution.
The new guide aims to overcome barriers for researchers to access and effectively use the wealth of freely available human genomic data. The NHGRI team provides practical instructions for searching and analyzing genomic data using major genome portals, such as Map Viewer, Genome Browser, and Ensembl.
The Institute for Genomic Research has published a paper analyzing the genome of Plasmodium falciparum, a malaria parasite. The analysis identified about 200 genes producing proteins involved in immune evasion and revealed metabolic pathways, including enzymes that could be targeted by chemotherapy.
The National Human Genome Research Institute (NHGRI) has upgraded the priority of cow, dog, Oxytricha trifallax, and Trichoplax genomes to high or moderate based on medical and biological opportunities. The genome sequences are expected to speed up studies of these agriculturally important animals and have medical benefits for dogs.
The study found numerous differences among isolates of S. agalactiae, suggesting the pathogen's ability to adapt and emerge as a major human pathogen. The researchers identified genes unique to S. agalactiae that likely play a role in colonization or disease.
The primer series provides a historical background of genetics and the sequencing of the human genome, as well as principles and methods in molecular biology. The authors highlight the potential benefits of the genomic revolution in understanding diseases such as cancer, heart disease, and Alzheimer's disease.
Comparing the pufferfish genome to the human genome revealed nearly 1,000 previously unidentified human genes, shedding light on gene regulation and function in the human body. The study highlights similarities and differences between vertebrates and finned fish, providing insights into the evolution of human biology.
Researchers at University of Georgia have developed a new method to sequence genomes, called Cot-based Cloning and Sequencing (CBCS), which reduces the number of clones required from 119 million to 15 million, saving $354 million in funding.
Researchers at University of Houston develop new direct molecular sensing technology for rapid genetic information sequencing, potentially saving lives in bioterrorism attacks. The technology could also enable personalized medicine by tailoring treatments to an individual's unique genetic makeup.
The Fugu genome project has sequenced the entire genome of pufferfish using a whole-genome shotgun strategy, revealing approximately 365 million bases of genetic material. This will aid in identifying genes and regulatory sequences in the human genome, offering new insights into its structure.
The University of Washington has received grants for two genomic research centers, led by Deirdre Meldrum and Maynard Olson, respectively. These centers aim to develop new research tools and approaches to understand the human genome, with potential applications in disease diagnosis and treatment.
The first public human genome sequence was successfully assembled using GigAssembler, a computer program developed by James Kent and David Haussler. The program utilized a greedy algorithm to assemble nearly 400,000 DNA sequence pieces, resulting in an 88% complete draft.
Case Western Reserve University has received a $2.2 million grant from the Charles B. Wang Foundation to establish the Center for Computational Genomics. The center will tackle cutting-edge problems in genomics and bioinformatics, focusing on genomic analysis and disease prevention.
The decoded genetic information contains an estimated 10-15,000 genes linked to diseases such as kidney disease, cancer, and hypertension. Researchers can now mine this data for advances in basic understanding of life and applications like diagnosing and treating diseases.
Scientists are using bioinformatics to analyze the vast amounts of data from the Human Genome Project, identifying genes and understanding their functions. The development of effective computational techniques is crucial for tackling this complex task.
The genomic sequence of the major histocompatibility complex (MHC) has been completed, providing a vital tool for improved diagnosis and treatment of diseases. This information will enable researchers to understand the origin of many common diseases and identify positions of genes on this important segment of the human genome.
The international consortium has successfully completed the pilot phase and is now accelerating the large-scale effort to sequence the human genome. The goal is to produce a working draft covering at least 90 percent of human genome sequence within one year, with completion expected by 2003.
The Joint Genome Institute has exceeded its goal of sequencing 20 million base pairs for fiscal year 1998 and is on track to complete the entire human genome project in five years. The JGI's advanced technologies have enabled it to reach rates of over 2.5 million base pairs per month.