The DOE JGI has launched a public online microbial genome data clearinghouse, IMG, to facilitate the analysis and comparison of microbial genomes. The platform offers a comprehensive system for exploring and annotating DOE JGI-sequested genomes, enabling scientists to tap into the diversity of microbial environments.
The US Department of Energy has fulfilled its commitment to sequence the human genome, publishing data on Chromosome 16. The completed chromosome includes 880 genes linked to various diseases, such as breast and prostate cancer, Crohn's disease, and adult polycystic kidney disease.
Researchers deleted 2.3 million letters of DNA code from the mouse genome, but found no detectable changes in the resulting mice. The study suggests that the mammalian genome may not be densely encoded, challenging previous assumptions about the importance of non-coding DNA.
The diatom genome project provides insight into the vital role that diatoms play in mediating global warming by absorbing CO2 and producing oxygen. Diatoms also have a unique urea cycle to reduce their dependence on nitrogen, enabling them to thrive in changing ocean conditions.
The DOE has successfully sequenced the poplar tree's genome, providing a critical resource for developing faster-growing trees and increasing biomass conversion. Researchers aim to engineer trees that can sequester more carbon from the atmosphere, potentially helping mitigate global warming.
The completed sequence of human chromosome 5 reveals 66 known disease genes and 14 additional genes linked to diseases. The vast terrain also holds important regulatory elements and conserved noncoding regions with powerful influence on gene activity.
The JGI Community Sequencing Program (CSP) selects a diverse range of organisms, including moss, sponge, leech, and red tide algae, to advance knowledge on alternative energy production, bioremediation, and evolution. These projects will leverage JGI's powerful resources to sequence approximately 15 gigabases of genetic code.
The JGI has sequenced the genome of Phanerochaete chrysosporium, a basidiomycete fungus capable of degrading lignin and transforming xenobiotics. The availability of this genome will spur industrial and bioremediative uses for these organisms.
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.
Scientists have sequenced the genomes of four types of cyanobacteria, including Prochlorococcus and Synechococcus, which play a critical role in regulating atmospheric carbon dioxide. The completed genome sequences provide insights into how these single-celled organisms convert solar energy into living biomass.
The collaboration aims to extract DNA from diverse ecosystems and sequence it using JGI's capabilities. This will provide a vast resource of genetic material for scientists to study and develop new products, including pharmaceuticals, agricultural solutions, and energy sources.
The genome of Ciona intestinalis, a closely related sea squirt to vertebrates, is providing clues about the origins of complex biological systems in humans. The study found similarities between Ciona and human genomes, including genes involved in immune systems and heart formation.
Scientists are sequencing the genomes of two deadly Phytophthora microbe species to understand their genetic secrets. The goal is to develop effective treatments and diagnostic tools for sudden oak death syndrome and soybean root rot, causing billions of dollars in damage annually.
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.