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      The cell survival pathways of the primordial RNA-DNA complex remain conserved in the extant genomes and may function as proto-oncogenes

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          Abstract

          Malignantly transformed (cancer) cells of multicellular hosts, including human cells, operate activated biochemical pathways that recognizably derived from unicellular ancestors. The descendant heat shock proteins of thermophile archaea now chaperon oncoproteins. The ABC cassettes of toxin-producer zooxantella Symbiodinia algae pump out the cytoplasmic toxin molecules; malignantly transformed cells utilize the derivatives of these cassettes to get rid of chemotherapeuticals. High mobility group helix-loop-helix proteins, protein arginine methyltransferases, proliferating cell nuclear antigens, and Ki-67 nuclear proteins, that protect and repair DNA in unicellular life forms, support oncogenes in transformed cells. The cell survival pathways of Wnt–β-catenin, Hedgehog, PI3K, MAPK–ERK, STAT, Ets, JAK, Pak, Myb, achaete scute, circadian rhythms, Bruton kinase and others, which are physiological in uni- and early multicellular eukaryotic life forms, are constitutively encoded in complex oncogenic pathways in selected single cells of advanced multicellular eukaryotic hosts. Oncogenes and oncoproteins in advanced multicellular hosts recreate selected independently living and immortalized unicellular life forms, which are similar to extinct and extant protists. These uni cellular life forms are recognized at the clinics as autologous “cancer cells”.

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          Protein typing of circulating microvesicles allows real-time monitoring of glioblastoma therapy.

          Glioblastomas shed large quantities of small, membrane-bound microvesicles into the circulation. Although these hold promise as potential biomarkers of therapeutic response, their identification and quantification remain challenging. Here, we describe a highly sensitive and rapid analytical technique for profiling circulating microvesicles directly from blood samples of patients with glioblastoma. Microvesicles, introduced onto a dedicated microfluidic chip, are labeled with target-specific magnetic nanoparticles and detected by a miniaturized nuclear magnetic resonance system. Compared with current methods, this integrated system has a much higher detection sensitivity and can differentiate glioblastoma multiforme (GBM) microvesicles from nontumor host cell-derived microvesicles. We also show that circulating GBM microvesicles can be used to analyze primary tumor mutations and as a predictive metric of treatment-induced changes. This platform could provide both an early indicator of drug efficacy and a potential molecular stratifier for human clinical trials.
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            The dependence of cell-free protein synthesis in E. coli upon naturally occurring or synthetic polyribonucleotides

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              The Genomic and Transcriptomic Landscape of a HeLa Cell Line

              HeLa is the most widely used model cell line for studying human cellular and molecular biology. To date, no genomic reference for this cell line has been released, and experiments have relied on the human reference genome. Effective design and interpretation of molecular genetic studies performed using HeLa cells require accurate genomic information. Here we present a detailed genomic and transcriptomic characterization of a HeLa cell line. We performed DNA and RNA sequencing of a HeLa Kyoto cell line and analyzed its mutational portfolio and gene expression profile. Segmentation of the genome according to copy number revealed a remarkably high level of aneuploidy and numerous large structural variants at unprecedented resolution. Some of the extensive genomic rearrangements are indicative of catastrophic chromosome shattering, known as chromothripsis. Our analysis of the HeLa gene expression profile revealed that several pathways, including cell cycle and DNA repair, exhibit significantly different expression patterns from those in normal human tissues. Our results provide the first detailed account of genomic variants in the HeLa genome, yielding insight into their impact on gene expression and cellular function as well as their origins. This study underscores the importance of accounting for the strikingly aberrant characteristics of HeLa cells when designing and interpreting experiments, and has implications for the use of HeLa as a model of human biology.
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                Author and article information

                Journal
                1886
                122234
                European Journal of Microbiology and Immunology
                Akadémiai Kiadó
                2062-509X
                2062-8633
                1 March 2015
                26 March 2015
                : 5
                : 1 ( otherID: VRG7W6904000 )
                : 25-43
                Affiliations
                [ 1 ] The University of South Florida St. Joseph’s Hospital Cancer Institute Affiliated with the H. L. Moffitt Comprehensive Cancer Center, Morsani College of Medicine, Department of Molecular Medicine 3001 Dr. Martin Luther King Jr. Blvd. Tampa FL 33607-6307 USA
                Article
                7514616622481254
                10.1556/EuJMI-D-14-00034
                55a3001e-737d-4b17-bf6b-e610f541c810
                History
                Categories
                Review Article

                Medicine,Immunology,Health & Social care,Microbiology & Virology,Infectious disease & Microbiology
                proto-oncogenes/oncogenes,exosomes,ctenophores,malignant transformation,cell survival pathways,unicellular eukaryotes,de-differentiation,Caenorhabditis,tumor immunology,Drosophila,reversed ontogenesis,early multicellular eukaryotes

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