TY - JOUR
T1 - Imputation approach for deducing a complete mitogenome sequence from low-depth-coverage next-generation sequencing data
T2 - Application to ancient remains from the Moon Pyramid, Mexico
AU - Mizuno, Fuzuki
AU - Kumagai, Masahiko
AU - Kurosaki, Kunihiko
AU - Hayashi, Michiko
AU - Sugiyama, Saburo
AU - Ueda, Shintaroh
AU - Wang, Li
N1 - Publisher Copyright:
© 2017 The Japan Society of Human Genetics.
PY - 2017/6/1
Y1 - 2017/6/1
N2 - It is considered that more than 15 depths of coverage are necessary for next-generation sequencing (NGS) data to obtain reliable complete nucleotide sequences of the mitogenome. However, it is difficult to satisfy this requirement for all nucleotide positions because of problems obtaining a uniform depth of coverage for poorly preserved materials. Thus, we propose an imputation approach that allows a complete mitogenome sequence to be deduced from low-depth-coverage NGS data. We used different types of mitogenome data files as panels for imputation: A worldwide panel comprising all the major haplogroups, a worldwide panel comprising sequences belonging to the estimated haplogroup alone, a panel comprising sequences from the population most closely related to an individual under investigation, and a panel comprising sequences belonging to the estimated haplogroup from the population most closely related to an individual under investigation. The number of missing nucleotides was drastically reduced in all the panels, but the contents obtained by imputation were quite different among the panels. The efficiency of the imputation method differed according to the panels used. The missing nucleotides were most credibly imputed using sequences of the estimated haplogroup from the population most closely related to the individual under investigation as a panel.
AB - It is considered that more than 15 depths of coverage are necessary for next-generation sequencing (NGS) data to obtain reliable complete nucleotide sequences of the mitogenome. However, it is difficult to satisfy this requirement for all nucleotide positions because of problems obtaining a uniform depth of coverage for poorly preserved materials. Thus, we propose an imputation approach that allows a complete mitogenome sequence to be deduced from low-depth-coverage NGS data. We used different types of mitogenome data files as panels for imputation: A worldwide panel comprising all the major haplogroups, a worldwide panel comprising sequences belonging to the estimated haplogroup alone, a panel comprising sequences from the population most closely related to an individual under investigation, and a panel comprising sequences belonging to the estimated haplogroup from the population most closely related to an individual under investigation. The number of missing nucleotides was drastically reduced in all the panels, but the contents obtained by imputation were quite different among the panels. The efficiency of the imputation method differed according to the panels used. The missing nucleotides were most credibly imputed using sequences of the estimated haplogroup from the population most closely related to the individual under investigation as a panel.
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U2 - 10.1038/jhg.2017.14
DO - 10.1038/jhg.2017.14
M3 - Article
C2 - 28202952
AN - SCOPUS:85019655996
SN - 1434-5161
VL - 62
SP - 631
EP - 635
JO - Jinrui idengaku zasshi. The Japanese journal of human genetics
JF - Jinrui idengaku zasshi. The Japanese journal of human genetics
IS - 6
ER -