A small number of early introductions seeded widespread transmission of SARS-CoV-2 in Québec, Canada
Background Québec was the Canadian province most impacted by COVID-19, with 401,462 cases as of September 24th, 2021, and 11,347 deaths due mostly to a very severe first pandemic wave. In April 2020, we assembled the Coronavirus Sequencing in Québec (CoVSeQ) consortium to sequence SARS-CoV-2 genomes...
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| Veröffentlicht in: | Genome medicine Jg. 13; H. 1; S. 1 - 17 |
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| Format: | Journal Article |
| Sprache: | Englisch |
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London
BioMed Central
28.10.2021
BioMed Central Ltd Springer Nature B.V BMC |
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| ISSN: | 1756-994X, 1756-994X |
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| Abstract | Background
Québec was the Canadian province most impacted by COVID-19, with 401,462 cases as of September 24th, 2021, and 11,347 deaths due mostly to a very severe first pandemic wave. In April 2020, we assembled the Coronavirus Sequencing in Québec (CoVSeQ) consortium to sequence SARS-CoV-2 genomes in Québec to track viral introduction events and transmission within the province.
Methods
Using genomic epidemiology, we investigated the arrival of SARS-CoV-2 to Québec. We report 2921 high-quality SARS-CoV-2 genomes in the context of > 12,000 publicly available genomes sampled globally over the first pandemic wave (up to June 1st, 2020). By combining phylogenetic and phylodynamic analyses with epidemiological data, we quantify the number of introduction events into Québec, identify their origins, and characterize the spatiotemporal spread of the virus.
Results
Conservatively, we estimated approximately 600 independent introduction events, the majority of which happened from spring break until 2 weeks after the Canadian border closed for non-essential travel. Subsequent mass repatriations did not generate large transmission lineages (> 50 sequenced cases), likely due to mandatory quarantine measures in place at the time. Consistent with common spring break and “snowbird” destinations, most of the introductions were inferred to have originated from Europe via the Americas. Once introduced into Québec, viral lineage sizes were overdispersed, with a few lineages giving rise to most infections. Consistent with founder effects, the earliest lineages to arrive tended to spread most successfully. Fewer than 100 viral introductions arrived during spring break, of which 7–12 led to the largest transmission lineages of the first wave (accounting for 52–75% of all sequenced infections). These successful transmission lineages dispersed widely across the province. Transmission lineage size was greatly reduced after March 11th, when a quarantine order for returning travellers was enacted. While this suggests the effectiveness of early public health measures, the biggest transmission lineages had already been ignited prior to this order.
Conclusions
Combined, our results reinforce how, in the absence of tight travel restrictions or quarantine measures, fewer than 100 viral introductions in a week can ensure the establishment of extended transmission chains. |
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| AbstractList | Background Québec was the Canadian province most impacted by COVID-19, with 401,462 cases as of September 24th, 2021, and 11,347 deaths due mostly to a very severe first pandemic wave. In April 2020, we assembled the Coronavirus Sequencing in Québec (CoVSeQ) consortium to sequence SARS-CoV-2 genomes in Québec to track viral introduction events and transmission within the province. Methods Using genomic epidemiology, we investigated the arrival of SARS-CoV-2 to Québec. We report 2921 high-quality SARS-CoV-2 genomes in the context of > 12,000 publicly available genomes sampled globally over the first pandemic wave (up to June 1st, 2020). By combining phylogenetic and phylodynamic analyses with epidemiological data, we quantify the number of introduction events into Québec, identify their origins, and characterize the spatiotemporal spread of the virus. Results Conservatively, we estimated approximately 600 independent introduction events, the majority of which happened from spring break until 2 weeks after the Canadian border closed for non-essential travel. Subsequent mass repatriations did not generate large transmission lineages (> 50 sequenced cases), likely due to mandatory quarantine measures in place at the time. Consistent with common spring break and “snowbird” destinations, most of the introductions were inferred to have originated from Europe via the Americas. Once introduced into Québec, viral lineage sizes were overdispersed, with a few lineages giving rise to most infections. Consistent with founder effects, the earliest lineages to arrive tended to spread most successfully. Fewer than 100 viral introductions arrived during spring break, of which 7–12 led to the largest transmission lineages of the first wave (accounting for 52–75% of all sequenced infections). These successful transmission lineages dispersed widely across the province. Transmission lineage size was greatly reduced after March 11th, when a quarantine order for returning travellers was enacted. While this suggests the effectiveness of early public health measures, the biggest transmission lineages had already been ignited prior to this order. Conclusions Combined, our results reinforce how, in the absence of tight travel restrictions or quarantine measures, fewer than 100 viral introductions in a week can ensure the establishment of extended transmission chains. Québec was the Canadian province most impacted by COVID-19, with 401,462 cases as of September 24th, 2021, and 11,347 deaths due mostly to a very severe first pandemic wave. In April 2020, we assembled the Coronavirus Sequencing in Québec (CoVSeQ) consortium to sequence SARS-CoV-2 genomes in Québec to track viral introduction events and transmission within the province.BACKGROUNDQuébec was the Canadian province most impacted by COVID-19, with 401,462 cases as of September 24th, 2021, and 11,347 deaths due mostly to a very severe first pandemic wave. In April 2020, we assembled the Coronavirus Sequencing in Québec (CoVSeQ) consortium to sequence SARS-CoV-2 genomes in Québec to track viral introduction events and transmission within the province.Using genomic epidemiology, we investigated the arrival of SARS-CoV-2 to Québec. We report 2921 high-quality SARS-CoV-2 genomes in the context of > 12,000 publicly available genomes sampled globally over the first pandemic wave (up to June 1st, 2020). By combining phylogenetic and phylodynamic analyses with epidemiological data, we quantify the number of introduction events into Québec, identify their origins, and characterize the spatiotemporal spread of the virus.METHODSUsing genomic epidemiology, we investigated the arrival of SARS-CoV-2 to Québec. We report 2921 high-quality SARS-CoV-2 genomes in the context of > 12,000 publicly available genomes sampled globally over the first pandemic wave (up to June 1st, 2020). By combining phylogenetic and phylodynamic analyses with epidemiological data, we quantify the number of introduction events into Québec, identify their origins, and characterize the spatiotemporal spread of the virus.Conservatively, we estimated approximately 600 independent introduction events, the majority of which happened from spring break until 2 weeks after the Canadian border closed for non-essential travel. Subsequent mass repatriations did not generate large transmission lineages (> 50 sequenced cases), likely due to mandatory quarantine measures in place at the time. Consistent with common spring break and "snowbird" destinations, most of the introductions were inferred to have originated from Europe via the Americas. Once introduced into Québec, viral lineage sizes were overdispersed, with a few lineages giving rise to most infections. Consistent with founder effects, the earliest lineages to arrive tended to spread most successfully. Fewer than 100 viral introductions arrived during spring break, of which 7-12 led to the largest transmission lineages of the first wave (accounting for 52-75% of all sequenced infections). These successful transmission lineages dispersed widely across the province. Transmission lineage size was greatly reduced after March 11th, when a quarantine order for returning travellers was enacted. While this suggests the effectiveness of early public health measures, the biggest transmission lineages had already been ignited prior to this order.RESULTSConservatively, we estimated approximately 600 independent introduction events, the majority of which happened from spring break until 2 weeks after the Canadian border closed for non-essential travel. Subsequent mass repatriations did not generate large transmission lineages (> 50 sequenced cases), likely due to mandatory quarantine measures in place at the time. Consistent with common spring break and "snowbird" destinations, most of the introductions were inferred to have originated from Europe via the Americas. Once introduced into Québec, viral lineage sizes were overdispersed, with a few lineages giving rise to most infections. Consistent with founder effects, the earliest lineages to arrive tended to spread most successfully. Fewer than 100 viral introductions arrived during spring break, of which 7-12 led to the largest transmission lineages of the first wave (accounting for 52-75% of all sequenced infections). These successful transmission lineages dispersed widely across the province. Transmission lineage size was greatly reduced after March 11th, when a quarantine order for returning travellers was enacted. While this suggests the effectiveness of early public health measures, the biggest transmission lineages had already been ignited prior to this order.Combined, our results reinforce how, in the absence of tight travel restrictions or quarantine measures, fewer than 100 viral introductions in a week can ensure the establishment of extended transmission chains.CONCLUSIONSCombined, our results reinforce how, in the absence of tight travel restrictions or quarantine measures, fewer than 100 viral introductions in a week can ensure the establishment of extended transmission chains. Québec was the Canadian province most impacted by COVID-19, with 401,462 cases as of September 24th, 2021, and 11,347 deaths due mostly to a very severe first pandemic wave. In April 2020, we assembled the Coronavirus Sequencing in Québec (CoVSeQ) consortium to sequence SARS-CoV-2 genomes in Québec to track viral introduction events and transmission within the province. Using genomic epidemiology, we investigated the arrival of SARS-CoV-2 to Québec. We report 2921 high-quality SARS-CoV-2 genomes in the context of > 12,000 publicly available genomes sampled globally over the first pandemic wave (up to June 1st, 2020). By combining phylogenetic and phylodynamic analyses with epidemiological data, we quantify the number of introduction events into Québec, identify their origins, and characterize the spatiotemporal spread of the virus. Conservatively, we estimated approximately 600 independent introduction events, the majority of which happened from spring break until 2 weeks after the Canadian border closed for non-essential travel. Subsequent mass repatriations did not generate large transmission lineages (> 50 sequenced cases), likely due to mandatory quarantine measures in place at the time. Consistent with common spring break and "snowbird" destinations, most of the introductions were inferred to have originated from Europe via the Americas. Once introduced into Québec, viral lineage sizes were overdispersed, with a few lineages giving rise to most infections. Consistent with founder effects, the earliest lineages to arrive tended to spread most successfully. Fewer than 100 viral introductions arrived during spring break, of which 7-12 led to the largest transmission lineages of the first wave (accounting for 52-75% of all sequenced infections). These successful transmission lineages dispersed widely across the province. Transmission lineage size was greatly reduced after March 11th, when a quarantine order for returning travellers was enacted. While this suggests the effectiveness of early public health measures, the biggest transmission lineages had already been ignited prior to this order. Combined, our results reinforce how, in the absence of tight travel restrictions or quarantine measures, fewer than 100 viral introductions in a week can ensure the establishment of extended transmission chains. Abstract Background Québec was the Canadian province most impacted by COVID-19, with 401,462 cases as of September 24th, 2021, and 11,347 deaths due mostly to a very severe first pandemic wave. In April 2020, we assembled the Coronavirus Sequencing in Québec (CoVSeQ) consortium to sequence SARS-CoV-2 genomes in Québec to track viral introduction events and transmission within the province. Methods Using genomic epidemiology, we investigated the arrival of SARS-CoV-2 to Québec. We report 2921 high-quality SARS-CoV-2 genomes in the context of > 12,000 publicly available genomes sampled globally over the first pandemic wave (up to June 1st, 2020). By combining phylogenetic and phylodynamic analyses with epidemiological data, we quantify the number of introduction events into Québec, identify their origins, and characterize the spatiotemporal spread of the virus. Results Conservatively, we estimated approximately 600 independent introduction events, the majority of which happened from spring break until 2 weeks after the Canadian border closed for non-essential travel. Subsequent mass repatriations did not generate large transmission lineages (> 50 sequenced cases), likely due to mandatory quarantine measures in place at the time. Consistent with common spring break and “snowbird” destinations, most of the introductions were inferred to have originated from Europe via the Americas. Once introduced into Québec, viral lineage sizes were overdispersed, with a few lineages giving rise to most infections. Consistent with founder effects, the earliest lineages to arrive tended to spread most successfully. Fewer than 100 viral introductions arrived during spring break, of which 7–12 led to the largest transmission lineages of the first wave (accounting for 52–75% of all sequenced infections). These successful transmission lineages dispersed widely across the province. Transmission lineage size was greatly reduced after March 11th, when a quarantine order for returning travellers was enacted. While this suggests the effectiveness of early public health measures, the biggest transmission lineages had already been ignited prior to this order. Conclusions Combined, our results reinforce how, in the absence of tight travel restrictions or quarantine measures, fewer than 100 viral introductions in a week can ensure the establishment of extended transmission chains. Background Québec was the Canadian province most impacted by COVID-19, with 401,462 cases as of September 24th, 2021, and 11,347 deaths due mostly to a very severe first pandemic wave. In April 2020, we assembled the Coronavirus Sequencing in Québec (CoVSeQ) consortium to sequence SARS-CoV-2 genomes in Québec to track viral introduction events and transmission within the province. Methods Using genomic epidemiology, we investigated the arrival of SARS-CoV-2 to Québec. We report 2921 high-quality SARS-CoV-2 genomes in the context of > 12,000 publicly available genomes sampled globally over the first pandemic wave (up to June 1st, 2020). By combining phylogenetic and phylodynamic analyses with epidemiological data, we quantify the number of introduction events into Québec, identify their origins, and characterize the spatiotemporal spread of the virus. Results Conservatively, we estimated approximately 600 independent introduction events, the majority of which happened from spring break until 2 weeks after the Canadian border closed for non-essential travel. Subsequent mass repatriations did not generate large transmission lineages (> 50 sequenced cases), likely due to mandatory quarantine measures in place at the time. Consistent with common spring break and “snowbird” destinations, most of the introductions were inferred to have originated from Europe via the Americas. Once introduced into Québec, viral lineage sizes were overdispersed, with a few lineages giving rise to most infections. Consistent with founder effects, the earliest lineages to arrive tended to spread most successfully. Fewer than 100 viral introductions arrived during spring break, of which 7–12 led to the largest transmission lineages of the first wave (accounting for 52–75% of all sequenced infections). These successful transmission lineages dispersed widely across the province. Transmission lineage size was greatly reduced after March 11th, when a quarantine order for returning travellers was enacted. While this suggests the effectiveness of early public health measures, the biggest transmission lineages had already been ignited prior to this order. Conclusions Combined, our results reinforce how, in the absence of tight travel restrictions or quarantine measures, fewer than 100 viral introductions in a week can ensure the establishment of extended transmission chains. |
| ArticleNumber | 169 |
| Audience | Academic |
| Author | Bujold, David Bourque, Guillaume Gregoire, Romain St-Cyr, Janick N’Guessan, Arnaud Naderi, Sana Bourgey, Mathieu Moreira, Sandrine Reiling, Sarah J. Murall, Carmen Lía Stretenowich, Paul Willet, Patrick Lathrop, Mark Charest, Hugues Shapiro, B. Jesse Galvez, Jose Hector Roy, Anne-Marie Ragoussis, Jiannis Fournier, Eric Chen, Shu-Huang Dion, Réjean Lepage, Pierre Quirion, Pierre-Olivier Roger, Michel |
| Author_xml | – sequence: 1 givenname: Carmen Lía surname: Murall fullname: Murall, Carmen Lía organization: McGill Genome Centre, Department of Microbiology and Immunology, McGill University, Département de Sciences Biologiques, Université de Montréal – sequence: 2 givenname: Eric surname: Fournier fullname: Fournier, Eric organization: Laboratoire de Santé Publique du Québec, Institut National de Santé Publique – sequence: 3 givenname: Jose Hector surname: Galvez fullname: Galvez, Jose Hector organization: McGill Genome Centre, Canadian Center for Computational Genomics – sequence: 4 givenname: Arnaud surname: N’Guessan fullname: N’Guessan, Arnaud organization: Département de Sciences Biologiques, Université de Montréal – sequence: 5 givenname: Sarah J. surname: Reiling fullname: Reiling, Sarah J. organization: McGill Genome Centre, Department of Human Genetics, McGill University – sequence: 6 givenname: Pierre-Olivier surname: Quirion fullname: Quirion, Pierre-Olivier organization: McGill Genome Centre, Canadian Center for Computational Genomics, Calcul Québec – sequence: 7 givenname: Sana surname: Naderi fullname: Naderi, Sana organization: McGill Genome Centre, Department of Microbiology and Immunology, McGill University – sequence: 8 givenname: Anne-Marie surname: Roy fullname: Roy, Anne-Marie organization: McGill Genome Centre, Department of Human Genetics, McGill University – sequence: 9 givenname: Shu-Huang surname: Chen fullname: Chen, Shu-Huang organization: McGill Genome Centre, Department of Human Genetics, McGill University – sequence: 10 givenname: Paul surname: Stretenowich fullname: Stretenowich, Paul organization: McGill Genome Centre, Canadian Center for Computational Genomics – sequence: 11 givenname: Mathieu surname: Bourgey fullname: Bourgey, Mathieu organization: McGill Genome Centre, Canadian Center for Computational Genomics – sequence: 12 givenname: David surname: Bujold fullname: Bujold, David organization: McGill Genome Centre, Canadian Center for Computational Genomics – sequence: 13 givenname: Romain surname: Gregoire fullname: Gregoire, Romain organization: McGill Genome Centre, Canadian Center for Computational Genomics – sequence: 14 givenname: Pierre surname: Lepage fullname: Lepage, Pierre organization: McGill Genome Centre – sequence: 15 givenname: Janick surname: St-Cyr fullname: St-Cyr, Janick organization: McGill Genome Centre – sequence: 16 givenname: Patrick surname: Willet fullname: Willet, Patrick organization: McGill Genome Centre – sequence: 17 givenname: Réjean surname: Dion fullname: Dion, Réjean organization: Laboratoire de Santé Publique du Québec, Institut National de Santé Publique, Ecole de santé publique, Université de Montréal – sequence: 18 givenname: Hugues surname: Charest fullname: Charest, Hugues organization: Laboratoire de Santé Publique du Québec, Institut National de Santé Publique – sequence: 19 givenname: Mark surname: Lathrop fullname: Lathrop, Mark organization: McGill Genome Centre, Department of Human Genetics, McGill University – sequence: 20 givenname: Michel surname: Roger fullname: Roger, Michel organization: Laboratoire de Santé Publique du Québec, Institut National de Santé Publique, Département de Microbiologie, infectiologie et Immunologie, Université de Montréal – sequence: 21 givenname: Guillaume surname: Bourque fullname: Bourque, Guillaume organization: McGill Genome Centre, Canadian Center for Computational Genomics, Department of Human Genetics, McGill University – sequence: 22 givenname: Jiannis surname: Ragoussis fullname: Ragoussis, Jiannis organization: McGill Genome Centre, Department of Human Genetics, McGill University, Department of Bioengineering, McGill University – sequence: 23 givenname: B. Jesse orcidid: 0000-0001-6819-8699 surname: Shapiro fullname: Shapiro, B. Jesse email: jesse.shapiro@mcgill.ca organization: McGill Genome Centre, Department of Microbiology and Immunology, McGill University, Département de Sciences Biologiques, Université de Montréal – sequence: 24 givenname: Sandrine surname: Moreira fullname: Moreira, Sandrine organization: Laboratoire de Santé Publique du Québec, Institut National de Santé Publique |
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Québec was the Canadian province most impacted by COVID-19, with 401,462 cases as of September 24th, 2021, and 11,347 deaths due mostly to a very... Background Québec was the Canadian province most impacted by COVID-19, with 401,462 cases as of September 24th, 2021, and 11,347 deaths due mostly to a very... Québec was the Canadian province most impacted by COVID-19, with 401,462 cases as of September 24th, 2021, and 11,347 deaths due mostly to a very severe first... Abstract Background Québec was the Canadian province most impacted by COVID-19, with 401,462 cases as of September 24th, 2021, and 11,347 deaths due mostly to... |
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| SubjectTerms | Analysis Bioinformatics Biomedical and Life Sciences Biomedicine Canada Cancer Research Consortia Contact tracing Coronavirus Resource Coronaviruses COVID-19 Diagnostic tests Disease transmission Epidemics Epidemiology Evolution & development Genomes Genomics Health aspects Human Genetics Laboratories Long term health care Medicine/Public Health Metabolomics Mutation Pandemics Phylogenetics Phylogeny Protocol Public health Quarantine Quebec Severe acute respiratory syndrome coronavirus 2 Systems Biology Travel Travel restrictions Travellers United Kingdom Viruses |
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| Title | A small number of early introductions seeded widespread transmission of SARS-CoV-2 in Québec, Canada |
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