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Volume 12, Number 10—October 2006

Dispatch

Fourth Human Parechovirus Serotype

Kimberley S.M. Benschop*Comments to Author , Janke Schinkel*, Manon E. Luken†, Peter J.M. van den Broek†, Matthias F.C. Beersma‡, Negassi Menelik§, Hetty W.M. van Eijk*, Hans L. Zaaijer*, Christina M.J.E. VandenBroucke-Grauls*, Marcel G.H.M. Beld*, and Katja C. Wolthers*
Author affiliations: *Academic Medical Center, Amsterdam, the Netherlands; †Primagen, Amsterdam, the Netherlands; ‡Leiden University Medical Center, Leiden, the Netherlands; §BovenIJ Ziekenhuis, Amsterdam, the Netherlands

Main Article

Figure 1

Unrooted phylogenetic trees showing the relationship between K251176-02 (DQ315670) and the prototype strains human parechovirus serotype 1 (HPeV1) Harris (S45208), HPeV2 Williamson (AJ005695), HPeV2 CT86-6760 (AF055846), HPeV3 A308-99 (AB084913), and Can82853-01 (AJ889918) based on nucleotide Jukes and Cantor substitution model for the capsid region (A) and the nonstructural region (B). The tree was constructed by the neighbor-joining method as implemented in MEGA version 3.1. Gaps introduced fo

Figure 1. Unrooted phylogenetic trees showing the relationship between K251176-02 (DQ315670) and the prototype strains human parechovirus serotype 1 (HPeV1) Harris (S45208), HPeV2 Williamson (AJ005695), HPeV2 CT86-6760 (AF055846), HPeV3 A308-99 (AB084913), and Can82853-01 (AJ889918) based on nucleotide Jukes and Cantor substitution model for the capsid region (A) and the nonstructural region (B). The tree was constructed by the neighbor-joining method as implemented in MEGA version 3.1. Gaps introduced for optimal alignment were not considered informative and were excluded from the analyses by complete deletion. Numbers represent the frequency of occurrence of nodes in 1,000 bootstrap replicas. The use of other evolution models did not influence the tree topology.

Main Article

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