Todd III Robert Tranquillo Jeffrey Travers Richard Traystman Stephen Tsang Budd Tucker Leo Twiggs Luca Valenti Frank GDC-0980 price Van Buuren Brian Van Tine Nosratola Vaziri Juan Carlos Velez Joseph Verbalis Manilo Vinciguerra Jill Waalen Paul Wade Daniel Wallace Yingqun Wang Xiaosong Wang CR Wang Joel M. Weinberg Neal L. Weintraub Scott Weiss Daniel Weiss Babette B. Weksler Christof Westenfelder Abby R Whittington Trisha
Wise-Draper Julie Wright-Nunes Xiulong Xu Suowen Xu Bruce Yacyshyn Hongna Yang Jerome Yates Sarvari Yellapragada Naoyuki Yokoyama Osamu Yoshino Tomokazu Yoshizaki Xiaojun Yu Lynn Zechiedrich Yingze Zhang Wei-zhen Zhang Jun Zhang Hong Zhang Dan Zhang Weibin Zhou JINXIA ZHU Mike Zile “
“The viral component of the human microbiome is referred to as the “human virome.” The human virome (also referred to as the “viral metagenome”) is the
collection of all viruses that are found in or on humans, including viruses causing acute, persistent, or latent infection, and viruses integrated into the human genome, such as endogenous retroviruses. The human virome includes both eukaryotic and prokaryotic viruses (bacteriophages). Eukaryotic viruses clearly have important effects on human health. Viral infections of humans include acute, self-limited infections; Dasatinib fulminant, uncontrolled acute infections; and chronic infections that may be asymptomatic or associated with serious, even fatal diseases, such as acquired immunodeficiency syndrome.1 Furthermore, many diseases of unknown cause are thought to be of viral origin.2 Human endogenous retroviruses comprise greater than 8% of the human genome.3 They are transcribed ubiquitously Oxymatrine in normal tissues.4 There has been preliminary evidence of their association with diseases, including amyotrophic lateral sclerosis, multiple
sclerosis, and rheumatoid arthritis;5, 6 and 7 however, the association has not been shown to be causal. Bacteriophages may also affect human health because they can influence bacterial population structure or virulence.8 Advances in high-throughput, deep sequencing technology make it possible to characterize virome richness and stability, gene functions, and association with disease phenotypes.9 Thus, we are poised to begin to understand the richness of the virome and the role viruses play within complex microbial communities (Fig 1). The study of the virome is challenging for several reasons. First, viruses do not contain a conserved genomic region that can be used to identify the viruses in a microbial community, such as the 16S rRNA gene that is used to classify bacteria. Instead, the entire viral community must be sampled and viral genomic sequences compared with known viral reference sequences.