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Research paper| Volume 44, 102204, January 2020

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Ysurnames? The patrilineal Y-chromosome and surname correlation for DNA kinship research

Published:November 09, 2019DOI:https://doi.org/10.1016/j.fsigen.2019.102204

      Highlights

      • ChrY-surname-correlation can be useful for priority listing in familial searching.
      • For a perfect genetic match, a surname match frequency (SMF) of 98% was observed.
      • Our in-house YForGen with 46 Y-STRs is the most optimal kit with the highest SMF.
      • SMF varies when encountering Y-SNPs, surname frequency and geographical distance.
      • Surname prediction model with an area under the curve of 0.9 could be developed.

      Abstract

      The Y-chromosome is a widely studied and useful small part of the genome providing different applications for interdisciplinary research. In many (Western) societies, the Y-chromosome and surnames are paternally co-inherited, suggesting a corresponding Y-haplotype for every namesake. While it has already been observed that this correlation may be disrupted by a false-paternity event, adoption, anonymous sperm donor or the co-founding of surnames, extensive information on the strength of the surname match frequency (SMF) with the Y-chromosome remains rather unknown. For the first time in Belgium and the Netherlands, we were able to study this correlation using 2,401 males genotyped for 46 Y-STRs and 183 Y-SNPs. The SMF was observed to be dependent on the number of Y-STRs analyzed, their mutation rates and the number of Y-STR differences allowed for a kinship. For a perfect match, the Yfiler® Plus and our in-house YForGen kit gave a similar high SMF of 98%, but for non-perfect matches, the latter could overall be identified as the best kit. The SMF generally increased due to less mismatches when encountering [
      • Jobling M.A.
      In the name of the father: surnames and genetics.
      ] deep Y-subhaplogroups, [
      • Kayser M.
      Forensic use of Y-chromosome DNA: a general overview.
      ] less frequently occurring surnames, and [
      • Andersen M.M.
      • Balding D.J.
      How convincing is a matching Y-chromosome profile?.
      ] small geographical distances between relatives. This novel information enabled the design of a surname prediction model based on genetic and geographical distances of a kinship. The prediction model has an area under the curve (AUC) of 0.9 and is therefore useable for DNA kinship priority listing in estimation applications like forensic familial searching.

      Keywords

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