A SNP panel and online tool for checking genotype concordance through comparing QR codes.

In the current precision medicine era, more and more samples get genotyped and sequenced. Both researchers and commercial companies expend significant time and resources to reduce the error rate. However, it has been reported that there is a sample mix-up rate of between 0.1% and 1%, not to mention...

Full description

Bibliographic Details
Main Authors: Yonghong Du, Joshua S Martin, John McGee, Yuchen Yang, Eric Yi Liu, Yingrui Sun, Matthias Geihs, Xuejun Kong, Eric Lingfeng Zhou, Yun Li, Jie Huang
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2017-01-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC5604942?pdf=render
_version_ 1811197305892634624
author Yonghong Du
Joshua S Martin
John McGee
Yuchen Yang
Eric Yi Liu
Yingrui Sun
Matthias Geihs
Xuejun Kong
Eric Lingfeng Zhou
Yun Li
Jie Huang
author_facet Yonghong Du
Joshua S Martin
John McGee
Yuchen Yang
Eric Yi Liu
Yingrui Sun
Matthias Geihs
Xuejun Kong
Eric Lingfeng Zhou
Yun Li
Jie Huang
author_sort Yonghong Du
collection DOAJ
description In the current precision medicine era, more and more samples get genotyped and sequenced. Both researchers and commercial companies expend significant time and resources to reduce the error rate. However, it has been reported that there is a sample mix-up rate of between 0.1% and 1%, not to mention the possibly higher mix-up rate during the down-stream genetic reporting processes. Even on the low end of this estimate, this translates to a significant number of mislabeled samples, especially over the projected one billion people that will be sequenced within the next decade. Here, we first describe a method to identify a small set of Single nucleotide polymorphisms (SNPs) that can uniquely identify a personal genome, which utilizes allele frequencies of five major continental populations reported in the 1000 genomes project and the ExAC Consortium. To make this panel more informative, we added four SNPs that are commonly used to predict ABO blood type, and another two SNPs that are capable of predicting sex. We then implement a web interface (http://qrcme.tech), nicknamed QRC (for QR code based Concordance check), which is capable of extracting the relevant ID SNPs from a raw genetic data, coding its genotype as a quick response (QR) code, and comparing QR codes to report the concordance of underlying genetic datasets. The resulting 80 fingerprinting SNPs represent a significant decrease in complexity and the number of markers used for genetic data labelling and tracking. Our method and web tool is easily accessible to both researchers and the general public who consider the accuracy of complex genetic data as a prerequisite towards precision medicine.
first_indexed 2024-04-12T01:12:59Z
format Article
id doaj.art-196507326ecc4165b9b929a34b3cd295
institution Directory Open Access Journal
issn 1932-6203
language English
last_indexed 2024-04-12T01:12:59Z
publishDate 2017-01-01
publisher Public Library of Science (PLoS)
record_format Article
series PLoS ONE
spelling doaj.art-196507326ecc4165b9b929a34b3cd2952022-12-22T03:54:03ZengPublic Library of Science (PLoS)PLoS ONE1932-62032017-01-01129e018243810.1371/journal.pone.0182438A SNP panel and online tool for checking genotype concordance through comparing QR codes.Yonghong DuJoshua S MartinJohn McGeeYuchen YangEric Yi LiuYingrui SunMatthias GeihsXuejun KongEric Lingfeng ZhouYun LiJie HuangIn the current precision medicine era, more and more samples get genotyped and sequenced. Both researchers and commercial companies expend significant time and resources to reduce the error rate. However, it has been reported that there is a sample mix-up rate of between 0.1% and 1%, not to mention the possibly higher mix-up rate during the down-stream genetic reporting processes. Even on the low end of this estimate, this translates to a significant number of mislabeled samples, especially over the projected one billion people that will be sequenced within the next decade. Here, we first describe a method to identify a small set of Single nucleotide polymorphisms (SNPs) that can uniquely identify a personal genome, which utilizes allele frequencies of five major continental populations reported in the 1000 genomes project and the ExAC Consortium. To make this panel more informative, we added four SNPs that are commonly used to predict ABO blood type, and another two SNPs that are capable of predicting sex. We then implement a web interface (http://qrcme.tech), nicknamed QRC (for QR code based Concordance check), which is capable of extracting the relevant ID SNPs from a raw genetic data, coding its genotype as a quick response (QR) code, and comparing QR codes to report the concordance of underlying genetic datasets. The resulting 80 fingerprinting SNPs represent a significant decrease in complexity and the number of markers used for genetic data labelling and tracking. Our method and web tool is easily accessible to both researchers and the general public who consider the accuracy of complex genetic data as a prerequisite towards precision medicine.http://europepmc.org/articles/PMC5604942?pdf=render
spellingShingle Yonghong Du
Joshua S Martin
John McGee
Yuchen Yang
Eric Yi Liu
Yingrui Sun
Matthias Geihs
Xuejun Kong
Eric Lingfeng Zhou
Yun Li
Jie Huang
A SNP panel and online tool for checking genotype concordance through comparing QR codes.
PLoS ONE
title A SNP panel and online tool for checking genotype concordance through comparing QR codes.
title_full A SNP panel and online tool for checking genotype concordance through comparing QR codes.
title_fullStr A SNP panel and online tool for checking genotype concordance through comparing QR codes.
title_full_unstemmed A SNP panel and online tool for checking genotype concordance through comparing QR codes.
title_short A SNP panel and online tool for checking genotype concordance through comparing QR codes.
title_sort snp panel and online tool for checking genotype concordance through comparing qr codes
url http://europepmc.org/articles/PMC5604942?pdf=render
work_keys_str_mv AT yonghongdu asnppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT joshuasmartin asnppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT johnmcgee asnppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT yuchenyang asnppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT ericyiliu asnppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT yingruisun asnppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT matthiasgeihs asnppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT xuejunkong asnppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT ericlingfengzhou asnppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT yunli asnppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT jiehuang asnppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT yonghongdu snppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT joshuasmartin snppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT johnmcgee snppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT yuchenyang snppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT ericyiliu snppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT yingruisun snppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT matthiasgeihs snppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT xuejunkong snppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT ericlingfengzhou snppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT yunli snppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes
AT jiehuang snppanelandonlinetoolforcheckinggenotypeconcordancethroughcomparingqrcodes