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description Publicationkeyboard_double_arrow_right Article 2017 United Kingdom, FrancePublisher:Springer Science and Business Media LLC Funded by:EC | PATHPHYLODYN, NIH | Southeastern Regional CoE..., NIH | Scripps Translational Sci... +8 projectsEC| PATHPHYLODYN ,NIH| Southeastern Regional CoE in Vector-Borne Diseases: The Gateway Program ,NIH| Scripps Translational Science Institute ,NIH| Immunology Training Grant ,EC| COMPARE ,EC| VIRALPHYLOGEOGRAPHY ,NIH| Computational Models of Infectious Disease Threats ,EC| PREDEMICS ,WT| Real-time genetic cartography of viral epidemics ,NIH| Design of a human monoclonal antibody-informed dengue vaccine ,NIH| Real-time tracking of virus evolution for vaccine strain selection and epidemiological investigationNathan D. Grubaugh; Jason T. Ladner; Moritz U. G. Kraemer; Gytis Dudas; Amanda L Tan; Karthik Gangavarapu; Michael R. Wiley; Stephen White; Julien Thézé; Diogo M. Magnani; Karla Prieto; Daniel Reyes; Andrea M. Bingham; Lauren M. Paul; Refugio Robles-Sikisaka; Glenn Oliveira; Darryl Pronty; Carolyn M. Barcellona; Hayden C. Metsky; Mary Lynn Baniecki; Kayla G. Barnes; Bridget Chak; Catherine A. Freije; Adrianne Gladden-Young; Andreas Gnirke; Cynthia Y. Luo; Bronwyn MacInnis; Christian B. Matranga; Daniel J. Park; James Qu; Stephen F. Schaffner; Christopher Tomkins-Tinch; Kendra West; Sarah M. Winnicki; Shirlee Wohl; Nathan L. Yozwiak; Joshua Quick; Joseph R. Fauver; Kamran Khan; Shannon E Brent; Robert C. Reiner; Paola Lichtenberger; Michael J. Ricciardi; Varian K. Bailey; David I. Watkins; Marshall R. Cone; Edgar W. Kopp; Kelly N. Hogan; Andrew C. Cannons; Reynald Jean; Andrew J. Monaghan; Robert F. Garry; Nicholas J. Loman; Nuno R. Faria; Mario C. Porcelli; Chalmers Vasquez; Elyse R. Nagle; Derek A. T. Cummings; Danielle Stanek; Andrew Rambaut; Mariano Sanchez-Lockhart; Pardis C. Sabeti; Leah D Gillis; Scott F. Michael; Trevor Bedford; Oliver G. Pybus; Sharon Isern; Gustavo Palacios; Kristian G. Andersen;doi: 10.1038/nature22400
pmc: PMC5536180
Genome sequencing of Zika virus samples from infected patients and Aedes aegypti mosquitoes in Florida shows that the virus was probably introduced into the United States on multiple occasions, and that the Caribbean is the most likely source. Three papers in this issue present a wealth of new Zika virus (ZIKV) genome sequences and further insights into the genetic epidemiology of ZIKV. Nathan Grubaugh et al. provide 39 new ZIKV genome sequences from infected patients and Aedes aegypti mosquitoes in Florida. Phylogenetic analysis suggests that the virus has been introduced on multiple separate occasions, probably linked to travel from the Caribbean. They find a low probability of long-term persistence of ZIKV transmission chains within Florida, suggesting that the potential for future ZIKV outbreaks there will depend on transmission dynamics in the Americas. Nuno Faria et al. and Hayden Metsky et al. reconstruct the spread of ZIKV in Brazil and the Americas. Faria et al. provide 54 new ZIKV genomes, several sequenced in real time in a mobile genomics laboratory. They trace the spatial origins and spread of ZIKV in Brazil and the Americas and date the timing of the international spread of ZIKV from Brazil. They find that northeast Brazil had a crucial role in the establishment of the epidemic and the spread of the virus within Brazil and the Americas. Metsky et al. generate 110 ZIKV genomes from clinical and mosquito samples from ten regions. They also see rapid expansion of the epidemic within Brazil and multiple introductions to other geographic areas. In agreement with Faria et al., they find that ZIKV circulated unobserved for many months before transmission was detected. Metsky et al. additionally describe ZIKV evolution and discuss how the accumulation of mutations might affect the performance of diagnostic tests in the future. Zika virus (ZIKV) is causing an unprecedented epidemic linked to severe congenital abnormalities1,2. In July 2016, mosquito-borne ZIKV transmission was reported in the continental United States; since then, hundreds of locally acquired infections have been reported in Florida3,4. To gain insights into the timing, source, and likely route(s) of ZIKV introduction, we tracked the virus from its first detection in Florida by sequencing ZIKV genomes from infected patients and Aedes aegypti mosquitoes. We show that at least 4 introductions, but potentially as many as 40, contributed to the outbreak in Florida and that local transmission is likely to have started in the spring of 2016—several months before its initial detection. By analysing surveillance and genetic data, we show that ZIKV moved among transmission zones in Miami. Our analyses show that most introductions were linked to the Caribbean, a finding corroborated by the high incidence rates and traffic volumes from the region into the Miami area. Our study provides an understanding of how ZIKV initiates transmission in new regions.
Nature arrow_drop_down NatureArticle . 2017Full-Text: http://europepmc.org/articles/PMC5536180Data sources: PubMed CentralNature; Oxford University Research ArchiveOther literature type . Article . 2017 . Peer-reviewedLicense: Springer TDMadd ClaimPlease grant OpenAIRE to access and update your ORCID works.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.This Research product is the result of merged Research products in OpenAIRE.
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For further information contact us at helpdesk@openaire.euAccess RoutesGreen bronze more_vert Nature arrow_drop_down NatureArticle . 2017Full-Text: http://europepmc.org/articles/PMC5536180Data sources: PubMed CentralNature; Oxford University Research ArchiveOther literature type . Article . 2017 . Peer-reviewedLicense: Springer TDMadd ClaimPlease grant OpenAIRE to access and update your ORCID works.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.All Research productsarrow_drop_down <script type="text/javascript"> <!-- document.write('<div id="oa_widget"></div>'); document.write('<script type="text/javascript" src="https://www.openaire.eu/index.php?option=com_openaire&view=widget&format=raw&projectId=10.1038/nature22400&type=result"></script>'); --> </script>
For further information contact us at helpdesk@openaire.eudescription Publicationkeyboard_double_arrow_right Preprint 2017Publisher:Cold Spring Harbor Laboratory Funded by:EC | COMPARE, WT | Genomic Medicine and Stat..., NHMRC | Australia Fellowship +7 projectsEC| COMPARE ,WT| Genomic Medicine and Statistics ,NHMRC| Australia Fellowship ,EC| PATHPHYLODYN ,EC| PREDEMICS ,WT| Real-time genetic cartography of viral epidemics ,NSF| Graduate Research Fellowship Program (GRFP) ,NIH| Broad Detection of Infectious Agents in Blood by Microarrays and Deep Sequencing ,EC| ZIKAlliance ,NIH| Real-time tracking of virus evolution for vaccine strain selection and epidemiological investigationFaria, N. R.; Quick, J.; Morales, I.; Thézé, J.; Jesus, J.G.; Giovanetti, M.; Kraemer, M. U. G.; Hill, S. C.; Black, A.; da Costa, A. C.; Franco, L.C.; Silva, S. P.; Wu, C.-H.; Raghwani, J.; Cauchemez, S.; du Plessis, L.; Verotti, M. P.; de Oliveira, W. K.; Carmo, E. H.; Coelho, G. E.; Santelli, A. C. F. S.; Vinhal, L. C.; Henriques, C. M.; Simpson, J. T.; Loose, M.; Andersen, K. G.; Grubaugh, N. D.; Somasekar, S.; Chiu, C. Y.; Muñoz-Medina, J. E.; Gonzalez-Bonilla, C. R.; Arias, C. F.; Lewis-Ximenez, L. L.; Baylis, S.A.; Chieppe, A. O.; Aguiar, S. F.; Fernandes, C. A.; Lemos, P. S.; Nascimento, B. L. S.; Monteiro, H. A. O.; Siqueira, I. C.; de Queiroz, M. G.; de Souza, T. R.; Bezerra, J. F.; Lemos, M. R.; Pereira, G. F.; Loudal, D.; Moura, L. C.; Dhalia, R.; França, R. F.; Magalhães, T.; Marques Jr., E. T.; Jaenisch, T.; Wallau, G. L.; de Lima, M. C.; Nascimento, V.; de Cerqueira, E. M.; de Lima, M. M.; Mascarenhas, D. L.; Moura Neto, J. P.; Levin, A. S.; Tozetto-Mendoza, T. R.; Fonseca, S. N.; Mendes-Correa, M. C.; Milagres, F.P.; Segurado, A.; Holmes, E. C.; Rambaut, A.; Bedford, T.; Nunes, M. R. T.; Sabino, E. C.; Alcantara, L. C. J.; Loman, N.; Pybus, O. G.;doi: 10.1101/105171
Zika virus (ZIKV) transmission in the Americas was first confirmed in May 2015 in Northeast Brazil1. Brazil has the highest number of reported ZIKV cases worldwide (>200,000 by 24 Dec 20162) as well as the greatest number of cases associated with microcephaly and other birth defects (2,366 confirmed cases by 31 Dec 20162). Following the initial detection of ZIKV in Brazil, 47 countries and territories in the Americas have reported local ZIKV transmission, with 24 of these reporting ZIKV-associated severe disease3. Yet the origin and epidemic history of ZIKV in Brazil and the Americas remain poorly understood, despite the value of such information for interpreting past and future trends in reported microcephaly. To address this we generated 54 complete or partial ZIKV genomes, mostly from Brazil, and report data generated by the ZiBRA project – a mobile genomics lab that travelled across Northeast (NE) Brazil in 2016. One sequence represents the earliest confirmed ZIKV infection in Brazil. Joint analyses of viral genomes with ecological and epidemiological data estimate that ZIKV epidemic was present in NE Brazil by March 2014 and likely disseminated from there, both nationally and internationally, before the first detection of ZIKV in the Americas. Estimated dates of the international spread of ZIKV from Brazil indicate the duration of pre-detection cryptic transmission in recipient regions. NE Brazil’s role in the establishment of ZIKV in the Americas is further supported by geographic analysis of ZIKV transmission potential and by estimates of the virus’ basic reproduction number.One Sentence SummaryVirus genomes reveal the establishment of Zika virus in Brazil and the Americas, and provide an appropriate timeframe for baseline (pre-Zika) microcephaly in different regions.
add ClaimPlease grant OpenAIRE to access and update your ORCID works.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.This Research product is the result of merged Research products in OpenAIRE.
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For further information contact us at helpdesk@openaire.eu10 citations 10 popularity Top 10% influence Top 10% impulse Top 10% Powered by BIP!more_vert add ClaimPlease grant OpenAIRE to access and update your ORCID works.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.All Research productsarrow_drop_down <script type="text/javascript"> <!-- document.write('<div id="oa_widget"></div>'); document.write('<script type="text/javascript" src="https://www.openaire.eu/index.php?option=com_openaire&view=widget&format=raw&projectId=10.1101/105171&type=result"></script>'); --> </script>
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description Publicationkeyboard_double_arrow_right Article 2017 United Kingdom, FrancePublisher:Springer Science and Business Media LLC Funded by:EC | PATHPHYLODYN, NIH | Southeastern Regional CoE..., NIH | Scripps Translational Sci... +8 projectsEC| PATHPHYLODYN ,NIH| Southeastern Regional CoE in Vector-Borne Diseases: The Gateway Program ,NIH| Scripps Translational Science Institute ,NIH| Immunology Training Grant ,EC| COMPARE ,EC| VIRALPHYLOGEOGRAPHY ,NIH| Computational Models of Infectious Disease Threats ,EC| PREDEMICS ,WT| Real-time genetic cartography of viral epidemics ,NIH| Design of a human monoclonal antibody-informed dengue vaccine ,NIH| Real-time tracking of virus evolution for vaccine strain selection and epidemiological investigationNathan D. Grubaugh; Jason T. Ladner; Moritz U. G. Kraemer; Gytis Dudas; Amanda L Tan; Karthik Gangavarapu; Michael R. Wiley; Stephen White; Julien Thézé; Diogo M. Magnani; Karla Prieto; Daniel Reyes; Andrea M. Bingham; Lauren M. Paul; Refugio Robles-Sikisaka; Glenn Oliveira; Darryl Pronty; Carolyn M. Barcellona; Hayden C. Metsky; Mary Lynn Baniecki; Kayla G. Barnes; Bridget Chak; Catherine A. Freije; Adrianne Gladden-Young; Andreas Gnirke; Cynthia Y. Luo; Bronwyn MacInnis; Christian B. Matranga; Daniel J. Park; James Qu; Stephen F. Schaffner; Christopher Tomkins-Tinch; Kendra West; Sarah M. Winnicki; Shirlee Wohl; Nathan L. Yozwiak; Joshua Quick; Joseph R. Fauver; Kamran Khan; Shannon E Brent; Robert C. Reiner; Paola Lichtenberger; Michael J. Ricciardi; Varian K. Bailey; David I. Watkins; Marshall R. Cone; Edgar W. Kopp; Kelly N. Hogan; Andrew C. Cannons; Reynald Jean; Andrew J. Monaghan; Robert F. Garry; Nicholas J. Loman; Nuno R. Faria; Mario C. Porcelli; Chalmers Vasquez; Elyse R. Nagle; Derek A. T. Cummings; Danielle Stanek; Andrew Rambaut; Mariano Sanchez-Lockhart; Pardis C. Sabeti; Leah D Gillis; Scott F. Michael; Trevor Bedford; Oliver G. Pybus; Sharon Isern; Gustavo Palacios; Kristian G. Andersen;doi: 10.1038/nature22400
pmc: PMC5536180
Genome sequencing of Zika virus samples from infected patients and Aedes aegypti mosquitoes in Florida shows that the virus was probably introduced into the United States on multiple occasions, and that the Caribbean is the most likely source. Three papers in this issue present a wealth of new Zika virus (ZIKV) genome sequences and further insights into the genetic epidemiology of ZIKV. Nathan Grubaugh et al. provide 39 new ZIKV genome sequences from infected patients and Aedes aegypti mosquitoes in Florida. Phylogenetic analysis suggests that the virus has been introduced on multiple separate occasions, probably linked to travel from the Caribbean. They find a low probability of long-term persistence of ZIKV transmission chains within Florida, suggesting that the potential for future ZIKV outbreaks there will depend on transmission dynamics in the Americas. Nuno Faria et al. and Hayden Metsky et al. reconstruct the spread of ZIKV in Brazil and the Americas. Faria et al. provide 54 new ZIKV genomes, several sequenced in real time in a mobile genomics laboratory. They trace the spatial origins and spread of ZIKV in Brazil and the Americas and date the timing of the international spread of ZIKV from Brazil. They find that northeast Brazil had a crucial role in the establishment of the epidemic and the spread of the virus within Brazil and the Americas. Metsky et al. generate 110 ZIKV genomes from clinical and mosquito samples from ten regions. They also see rapid expansion of the epidemic within Brazil and multiple introductions to other geographic areas. In agreement with Faria et al., they find that ZIKV circulated unobserved for many months before transmission was detected. Metsky et al. additionally describe ZIKV evolution and discuss how the accumulation of mutations might affect the performance of diagnostic tests in the future. Zika virus (ZIKV) is causing an unprecedented epidemic linked to severe congenital abnormalities1,2. In July 2016, mosquito-borne ZIKV transmission was reported in the continental United States; since then, hundreds of locally acquired infections have been reported in Florida3,4. To gain insights into the timing, source, and likely route(s) of ZIKV introduction, we tracked the virus from its first detection in Florida by sequencing ZIKV genomes from infected patients and Aedes aegypti mosquitoes. We show that at least 4 introductions, but potentially as many as 40, contributed to the outbreak in Florida and that local transmission is likely to have started in the spring of 2016—several months before its initial detection. By analysing surveillance and genetic data, we show that ZIKV moved among transmission zones in Miami. Our analyses show that most introductions were linked to the Caribbean, a finding corroborated by the high incidence rates and traffic volumes from the region into the Miami area. Our study provides an understanding of how ZIKV initiates transmission in new regions.
Nature arrow_drop_down NatureArticle . 2017Full-Text: http://europepmc.org/articles/PMC5536180Data sources: PubMed CentralNature; Oxford University Research ArchiveOther literature type . Article . 2017 . Peer-reviewedLicense: Springer TDMadd ClaimPlease grant OpenAIRE to access and update your ORCID works.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.All Research productsarrow_drop_down <script type="text/javascript"> <!-- document.write('<div id="oa_widget"></div>'); document.write('<script type="text/javascript" src="https://www.openaire.eu/index.php?option=com_openaire&view=widget&format=raw&projectId=10.1038/nature22400&type=result"></script>'); --> </script>
For further information contact us at helpdesk@openaire.euAccess RoutesGreen bronze more_vert Nature arrow_drop_down NatureArticle . 2017Full-Text: http://europepmc.org/articles/PMC5536180Data sources: PubMed CentralNature; Oxford University Research ArchiveOther literature type . Article . 2017 . Peer-reviewedLicense: Springer TDMadd ClaimPlease grant OpenAIRE to access and update your ORCID works.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.All Research productsarrow_drop_down <script type="text/javascript"> <!-- document.write('<div id="oa_widget"></div>'); document.write('<script type="text/javascript" src="https://www.openaire.eu/index.php?option=com_openaire&view=widget&format=raw&projectId=10.1038/nature22400&type=result"></script>'); --> </script>
For further information contact us at helpdesk@openaire.eudescription Publicationkeyboard_double_arrow_right Preprint 2017Publisher:Cold Spring Harbor Laboratory Funded by:EC | COMPARE, WT | Genomic Medicine and Stat..., NHMRC | Australia Fellowship +7 projectsEC| COMPARE ,WT| Genomic Medicine and Statistics ,NHMRC| Australia Fellowship ,EC| PATHPHYLODYN ,EC| PREDEMICS ,WT| Real-time genetic cartography of viral epidemics ,NSF| Graduate Research Fellowship Program (GRFP) ,NIH| Broad Detection of Infectious Agents in Blood by Microarrays and Deep Sequencing ,EC| ZIKAlliance ,NIH| Real-time tracking of virus evolution for vaccine strain selection and epidemiological investigationFaria, N. R.; Quick, J.; Morales, I.; Thézé, J.; Jesus, J.G.; Giovanetti, M.; Kraemer, M. U. G.; Hill, S. C.; Black, A.; da Costa, A. C.; Franco, L.C.; Silva, S. P.; Wu, C.-H.; Raghwani, J.; Cauchemez, S.; du Plessis, L.; Verotti, M. P.; de Oliveira, W. K.; Carmo, E. H.; Coelho, G. E.; Santelli, A. C. F. S.; Vinhal, L. C.; Henriques, C. M.; Simpson, J. T.; Loose, M.; Andersen, K. G.; Grubaugh, N. D.; Somasekar, S.; Chiu, C. Y.; Muñoz-Medina, J. E.; Gonzalez-Bonilla, C. R.; Arias, C. F.; Lewis-Ximenez, L. L.; Baylis, S.A.; Chieppe, A. O.; Aguiar, S. F.; Fernandes, C. A.; Lemos, P. S.; Nascimento, B. L. S.; Monteiro, H. A. O.; Siqueira, I. C.; de Queiroz, M. G.; de Souza, T. R.; Bezerra, J. F.; Lemos, M. R.; Pereira, G. F.; Loudal, D.; Moura, L. C.; Dhalia, R.; França, R. F.; Magalhães, T.; Marques Jr., E. T.; Jaenisch, T.; Wallau, G. L.; de Lima, M. C.; Nascimento, V.; de Cerqueira, E. M.; de Lima, M. M.; Mascarenhas, D. L.; Moura Neto, J. P.; Levin, A. S.; Tozetto-Mendoza, T. R.; Fonseca, S. N.; Mendes-Correa, M. C.; Milagres, F.P.; Segurado, A.; Holmes, E. C.; Rambaut, A.; Bedford, T.; Nunes, M. R. T.; Sabino, E. C.; Alcantara, L. C. J.; Loman, N.; Pybus, O. G.;doi: 10.1101/105171
Zika virus (ZIKV) transmission in the Americas was first confirmed in May 2015 in Northeast Brazil1. Brazil has the highest number of reported ZIKV cases worldwide (>200,000 by 24 Dec 20162) as well as the greatest number of cases associated with microcephaly and other birth defects (2,366 confirmed cases by 31 Dec 20162). Following the initial detection of ZIKV in Brazil, 47 countries and territories in the Americas have reported local ZIKV transmission, with 24 of these reporting ZIKV-associated severe disease3. Yet the origin and epidemic history of ZIKV in Brazil and the Americas remain poorly understood, despite the value of such information for interpreting past and future trends in reported microcephaly. To address this we generated 54 complete or partial ZIKV genomes, mostly from Brazil, and report data generated by the ZiBRA project – a mobile genomics lab that travelled across Northeast (NE) Brazil in 2016. One sequence represents the earliest confirmed ZIKV infection in Brazil. Joint analyses of viral genomes with ecological and epidemiological data estimate that ZIKV epidemic was present in NE Brazil by March 2014 and likely disseminated from there, both nationally and internationally, before the first detection of ZIKV in the Americas. Estimated dates of the international spread of ZIKV from Brazil indicate the duration of pre-detection cryptic transmission in recipient regions. NE Brazil’s role in the establishment of ZIKV in the Americas is further supported by geographic analysis of ZIKV transmission potential and by estimates of the virus’ basic reproduction number.One Sentence SummaryVirus genomes reveal the establishment of Zika virus in Brazil and the Americas, and provide an appropriate timeframe for baseline (pre-Zika) microcephaly in different regions.
add ClaimPlease grant OpenAIRE to access and update your ORCID works.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.All Research productsarrow_drop_down <script type="text/javascript"> <!-- document.write('<div id="oa_widget"></div>'); document.write('<script type="text/javascript" src="https://www.openaire.eu/index.php?option=com_openaire&view=widget&format=raw&projectId=10.1101/105171&type=result"></script>'); --> </script>
For further information contact us at helpdesk@openaire.eu10 citations 10 popularity Top 10% influence Top 10% impulse Top 10% Powered by BIP!more_vert add ClaimPlease grant OpenAIRE to access and update your ORCID works.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.All Research productsarrow_drop_down <script type="text/javascript"> <!-- document.write('<div id="oa_widget"></div>'); document.write('<script type="text/javascript" src="https://www.openaire.eu/index.php?option=com_openaire&view=widget&format=raw&projectId=10.1101/105171&type=result"></script>'); --> </script>
For further information contact us at helpdesk@openaire.eu