Characterization of antigenetic serotypes from the dengue virus in Venezuela by means of Grid Computing R. Isea 1, E. Montes 2, A.J. Rubio-Montero 2, J.D.

Slides:



Advertisements
Similar presentations
©2011 Elsevier, Inc. Molecular Tools and Infectious Disease Epidemiology Betsy Foxman Chapter 7 Omics Analyses in Molecular Epidemiologic Studies.
Advertisements

Development of a Panel for Dengue Virus Maria Rios, PhD CBER/FDA Blood Products Advisory Committee Meeting December 14, 2010.
Practical Session: Bayesian evolutionary analysis by sampling trees (BEAST) Rebecca R. Gray, Ph.D. Department of Pathology University of Florida.
Molecular Evolution Revised 29/12/06
Abstract: The volvocine algae (Volvox and its close relatives) represent a unique opportunity for the study of origins of multicellularity. Several major.
Molecular Evolution with an emphasis on substitution rates Gavin JD Smith State Key Laboratory of Emerging Infectious Diseases & Department of Microbiology.
Phylogenetic Shadowing Daniel L. Ong. March 9, 2005RUGS, UC Berkeley2 Abstract The human genome contains about 3 billion base pairs! Algorithms to analyze.
Materials and Methods Abstract Conclusions Introduction 1. Korber B, et al. Br Med Bull 2001; 58: Rambaut A, et al. Nat. Rev. Genet. 2004; 5:
Dengue Virus and Its Risk to the U.S. Blood Supply
Latent Tree Models Part II: Definition and Properties
Gene Trees and Species Trees: Lessons from morning glories Lauren A. Eserman & Richard E. Miller Department of Biological Sciences Southeastern Louisiana.
Laboratory Training for Field Epidemiologists Typing May 2007 Sequencing and Phylogeny.
Phylogeny Estimation: Traditional and Bayesian Approaches Molecular Evolution, 2003
HIV-1 subtype C now accounts for approximately 50% of the estimated 33 million people living with HIV/AIDS and half of the 1-2 million new infections annually.
Molecular phylogenetics
Haplotype Blocks An Overview A. Polanski Department of Statistics Rice University.
SARS: A Multidisciplinary Exploration Nitya Jacob Doug Graham Eloise Carter Manish Chakrabarti.
Statistical Tool for Identifying Sequence Variations That Correlate with Virus Phenotypic Characteristics in the Virus Pathogen Resource (ViPR) July 22,
Phylogenetics and Coalescence Lab 9 October 24, 2012.
Bioinformatics 2011 Molecular Evolution Revised 29/12/06.
Evolution and Human Health. I.Motivation Evolutionary principles can contribute to understanding of origin and treatment of human disease Evolutionary.
Chapter 8 Molecular Phylogenetics: Measuring Evolution.
Grid enabling phylogenetic inference on virus sequences using BEAST - a possibility? EUAsiaGrid Workshop 4-6 May 2010 Chanditha Hapuarachchi Environmental.
ARE THESE ALL BEARS? WHICH ONES ARE MORE CLOSELY RELATED?
Epidemiology of non-B clade forms of HIV-1 in MSM in the UK Fox J 1, Duda A 2,Green H 3, Dunn D 3, Kaye S 1, McClure M 1, Fidler S 1 Division of Medicine,
PhyloGrid: a development for a workflow in Phylogeny E. Montes 1, R. Isea 2 and R. Mayo 1 1 CIEMAT, Avda. Complutense, 22, Madrid, Spain 2 Fundación.
Patterns of selection for or against amino acid change among different CD4 T-cell count progressor groups Michael Pina, Salomon Garcia Journal Club Presentation.
Dengue fever.
Phylogeography of Leucetta chagosensis (Porifera, Calcarea) Christoph Flucke, Jens Kurz, Rasmus Liedigk, Zdenka Valenzova Fig.4: RAxML Phylogram Fig.5:
Ayesha M.Khan Spring Phylogenetic Basics 2 One central field in biology is to infer the relation between species. Do they possess a common ancestor?
Bayesian Evolutionary Analysis by Sampling Trees (BEAST) LEE KIM-SUNG Environmental Health Institute National Environment Agency.
Bioinf.cs.auckland.ac.nz Juin 2008 Uncorrelated and Autocorrelated relaxed phylogenetics Michaël Defoin-Platel and Alexei Drummond.
RESULTS Division of Arboviruses, Center for Immunology and Pathology, National Institute of Health, Korea Centers for disease control, Osong, Korea BACKGROUND.
Evolution and transmission in HIV Steve Paterson Review; Rambaut 2004 Nature Reviews Genetics 5: ‘The causes and consequences of HIV evolution’
Produced by and for the Hot Science - Cool Talks Outreach Lecture Series of the Environmental Science Institute. We request that the use of any of these.
E-science grid facility for Europe and Latin America Computational challenges on Grid Computing for workflows applied to Phylogeny R. Isea.
Investigations of HIV-1 Env Evolution Evolutionary Bioinformatics Education: A BioQUEST Curriculum Consortium Approach Grand Valley State University August.
Assess the impact of dengue and Chikungunya control measures along with Monitoring of viruses in field caught Ae. aegypti (Diptera: Culicidae) in Surat.
Patterns of HIV-1 evolution in individuals with differing rates of CD4 T cell decline Markham RB, Wang WC, Weisstein AE, Wang Z, Munoz A, Templeton A,
Molecular Evolution and Ebola
Introduction to Bioinformatics Resources for DNA Barcoding
Comparative genotypic and phenotypic characterization of
Copyright © 2017 American Academy of Pediatrics.
Molecular characterization of dengue virus 1 from autochthonous dengue fever cases in Croatia  I.C. Kurolt, L. Betica-Radić, O. Daković-Rode, L. Franco,
Supervisor : Prof. Dr. Iftikhar Hussain
Zika Virus Pathogenic Viral Infection
Methods of molecular phylogeny
Molecular Evolution and Ebola
Bioinformatics Biological Data Computer Calculations +
Molecular epidemiology suggests Venezuela as the origin of the dengue outbreak in Madeira, Portugal in 2012–2013  L. Franco, I. Pagan, N. Serre Del Cor,
Benson Otarigho 1&2 & Mofolusho O. Falade 2
E. Descloux, C. La Fuentez, Y. Roca, X. De Lamballerie 
Investigations of HIV-1 Env Evolution
West Nile virus outbreak in Israel in 2015: phylogenetic and geographic characterization in humans and mosquitoes  Y. Lustig, Z. Kaufman, B. Mannasse,
Chapter 19 Molecular Phylogenetics
Development of a real-time PCR assay for the specific detection and identification of Streptococcus pseudopneumoniae using the recA gene  V. Sistek, M.
Evolution and transmission in HIV
Molecular characterization of dengue virus 1 from autochthonous dengue fever cases in Croatia  I.C. Kurolt, L. Betica-Radić, O. Daković-Rode, L. Franco,
S. De Grazia, G.M. Giammanco, C. Colomba, A. Cascio, S. Arista 
Unit Genomic sequencing
Molecular epidemiology and genetic diversity of human astrovirus in South Korea from 2002 to 2007  A.Y. Jeong, H.S. Jeong, M.Y. Jo, S.Y. Jung, M.S. Lee,
Dengue viruses cluster antigenically but not as discrete serotypes
Isolation and Characterization of Viruses Related to the SARS Coronavirus from Animals in Southern China by Y. Guan, B. J. Zheng, Y. Q. He, X. L. Liu,
Challenges, Consideration, and Progress
Phylogenetic and convergence analyses of rpoB mutations.
Core genome phylogeny of V. anguillarum strains.
Phylogenetic analysis of K. quasipneumoniae subsp
(A) Bayesian phylogenetic tree of the H gene nucleotide alignment from tigers Pt2004 and Pt and representative CDV sequences obtained from GenBank.
Phylogenetic trees for fusion (F) and attachment (G) genes of selected HMPV isolates. Phylogenetic trees for fusion (F) and attachment (G) genes of selected.
Tree depicting the phylogenetic relationships of all strains included in this study. Tree depicting the phylogenetic relationships of all strains included.
Presentation transcript:

Characterization of antigenetic serotypes from the dengue virus in Venezuela by means of Grid Computing R. Isea 1, E. Montes 2, A.J. Rubio-Montero 2, J.D. Rosales 1,M. Rodríguez-Pascual 2 and R. Mayo 2 1 Fundación IDEA, Baruta 1080 (Venezuela) 2 CIEMAT, Madrid (Spain) Abstract This work studies the molecular epidemiology of Dengue virus in the Venezuelan region by determining how the clades are grouped by serotypes. To do so, phylogenetic calculations have been performed with the PhyloGrid application [1]. The Biological problem  Dengue virus (DENV) is a pathogen that affects the tropical and subtropical regions  50 million dengue infections worldwide every year  Special virulence in Cuba (1981) and Venezuela (1989-nowadays)  DENV is transmitted by Aedes aegypti mosquitoes  4 antigenically distinct serotypes of mosquito-borne dengue virus identified  DENV1, DENV2, DENV3 & DENV 4 (genetically different)  Several serotypes by using nucleotide sequences of the E gene [2] 3 DENV1 - 5 DENV2 - 4 DENV3 - 4 DENV4  DENV1 predominant in Venezuela [3] The Molecular Phylogenetic Calculation  By means of the PhyloGrid application  Based on Bayesian statistics (MrBayes [4])  Performed with a workflow based on Taverna [5] Number of substitution types  6 Rates  Gamma Independent MCMC analysis  4  Sampled every 500 generations  Burn-in  15%  DENV sequences recorded in GenBank® [6]  132 sequences in multi fasta format  Nucleotide substitution model was obtained with jModelTest [7]  GTR+I+G (-Lnl= ) & TIM2+I+G (-LnI= )  Grid site ce-eela.ciemat.es  185 hours on 20/2GB cores inside 5 Intel Xeon X5365 3GHz, 4 MB L2 cache per 2 cores in the quad-core processor Fig. 2. Circular Bayesian phylogenetic tree of the dengue virus E glycoprotein of the Venezuelan isolates with the four serotypes DENV-1, DENV-2, DENV-3, and DENV-4. The clades are grouped by serotypes with no mixture Fig. 1 The Taverna workflow used for calculating with MrBayes Results  Similar topology than those of DENV-2 [8] and DENV3 [9]  All specimens were assigned to the same main clades  The relationships between clades held  Further analysis with the rest of sequences of the E gene envelope in different regions  Origin and genetic recombination events for the DENV serotypes different from DENV-1  Link between “Venezuelan” and “South East Asian” DENV2 serotypes References [1] R. Isea et al. Lecture Notes in Computer Science 5518 (2009), [2] C. Klungthong et al. Journal of Virological Methods 154 (2008), [3] D. Elena et al. Salud online 12 (2009), 73 [4] F. Ronquist and J.P. Huelsenbeck. Bioinformatics 19 (2003), [5] T. Oinn et al. Concurrency and Computation 18 (2006), [6] D. A. Benson et al. Nucleic Acids Research 38 (2010), D46-D51 [7] D. Posada. Molecular Biology and Evolution 25 (2008), [8] N. Y. Uzcategui et al. Journal of General Virology 82 (2001), [9] N. Y. Uzcategui et al. Journal of General Virology 84 (2003),