Genome variation discovery with high-throughput sequencing data

被引:47
|
作者
Dalca, Adrian V. [2 ]
Brudno, Michael [1 ]
机构
[1] Univ Toronto, Dept Comp Sci, Toronto, ON, Canada
[2] MIT, Cambridge, MA 02139 USA
关键词
high-throughput sequencing; genome variation; personal genomics; HUMAN RESEQUENCING DATA; STRUCTURAL VARIATION; SHORT-READ; SNP DETECTION; COPY-NUMBER; LOCAL ALIGNMENT; DNA-SEQUENCE; PROGRAM; IDENTIFICATION; ALGORITHMS;
D O I
10.1093/bib/bbp058
中图分类号
Q5 [生物化学];
学科分类号
071010 ; 081704 ;
摘要
The advent of high-throughput sequencing (HTS) technologies is enabling sequencing of human genomes at a significantly lower cost. The availability of these genomes is hoped to enable novel medical diagnostics and treatment, specific to the individual, thus launching the era of personalized medicine. The data currently generated by HTS machines require extensive computational analysis in order to identify genomic variants present in the sequenced individual. In this paper, we overview HTS technologies and discuss several of the plethora of algorithms and tools designed to analyze HTS data, including algorithms for read mapping, as well as methods for identification of single-nucleotide polymorphisms, insertions/deletions and large-scale structural variants and copy-number variants from these mappings.
引用
收藏
页码:3 / 14
页数:12
相关论文
共 50 条
  • [31] Prevention, diagnosis and treatment of high-throughput sequencing data pathologies
    Zhou, Xiaofan
    Rokas, Antonis
    MOLECULAR ECOLOGY, 2014, 23 (07) : 1679 - 1700
  • [32] Detecting Alu insertions from high-throughput sequencing data
    David, Matei
    Mustafa, Harun
    Brudno, Michael
    NUCLEIC ACIDS RESEARCH, 2013, 41 (17) : e169
  • [33] nFuse: Discovery of complex genomic rearrangements in cancer using high-throughput sequencing
    McPherson, Andrew
    Wu, Chunxiao
    Wyatt, Alexander W.
    Shah, Sohrab
    Collins, Colin
    Sahinalp, S. Cenk
    GENOME RESEARCH, 2012, 22 (11) : 2250 - 2261
  • [34] High-throughput SNP discovery in the rabbit (Oryctolagus cuniculus) genome by next-generation semiconductor-based sequencing
    Bertolini, F.
    Schiavo, G.
    Scotti, E.
    Ribani, A.
    Martelli, P. L.
    Casadio, R.
    Fontanesi, L.
    ANIMAL GENETICS, 2014, 45 (02) : 304 - 307
  • [35] Detecting non-allelic homologous recombination from high-throughput sequencing data
    Parks, Matthew M.
    Lawrence, Charles E.
    Raphael, Benjamin J.
    GENOME BIOLOGY, 2015, 16
  • [36] High-throughput sequencing application in the detection and discovery of viruses associated with the regulated citrus leprosis disease complex
    Padmanabhan, Chellappan
    Nunziata, Schyler
    Leon, M. Guillermo
    Rivera, Yazmin
    Mavrodieva, Vessela A.
    Nakhla, Mark K.
    Roy, Avijit
    FRONTIERS IN PLANT SCIENCE, 2023, 13
  • [37] High-Throughput Sequencing: A Roadmap Toward Community Ecology
    Poisot, Timothee
    Pequin, Berangere
    Gravel, Dominique
    ECOLOGY AND EVOLUTION, 2013, 3 (04): : 1125 - 1139
  • [38] High-throughput sequencing in veterinary infection biology and diagnostics
    Belak, S.
    Karlsson, O. E.
    Leijon, M.
    Granberg, F.
    REVUE SCIENTIFIQUE ET TECHNIQUE-OFFICE INTERNATIONAL DES EPIZOOTIES, 2013, 32 (03): : 893 - 915
  • [39] Application Progress of High-Throughput Sequencing in Ocular Diseases
    He, Xuejun
    Zhang, Ningzhi
    Cao, Wenye
    Xing, Yiqiao
    Yang, Ning
    JOURNAL OF CLINICAL MEDICINE, 2022, 11 (12)
  • [40] High-throughput sequencing for algal systematics
    Oliveira, Mariana C.
    Repetti, Sonja I.
    Iha, Cintia
    Jackson, Christopher J.
    Diaz-Tapia, Pilar
    Lubiana, Karoline Magalhaes Ferreira
    Cassano, Valeria
    Costa, Joana F.
    Cremen, Ma Chiela M.
    Marcelino, Vanessa R.
    Verbruggen, Heroen
    EUROPEAN JOURNAL OF PHYCOLOGY, 2018, 53 (03) : 256 - 272