DNA sequencing using polymerase substrate-binding kinetics

被引:12
|
作者
Previte, Michael John Robert [1 ]
Zhou, Chunhong [2 ]
Kellinger, Matthew [1 ]
Pantoja, Rigo [1 ]
Chen, Cheng-Yao [1 ]
Shi, Jin [1 ]
Wang, BeiBei [1 ]
Kia, Amirali [1 ]
Etchin, Sergey [2 ]
Vieceli, John [3 ]
Nikoomanzar, Ali [1 ]
Bomati, Erin [1 ]
Gloeckner, Christian [1 ]
Ronaghi, Mostafa [1 ]
He, Molly Min [1 ]
机构
[1] Illumina Inc, Prot Engn, San Diego, CA 92122 USA
[2] Illumina Inc, Engn, San Diego, CA 92122 USA
[3] Illumina Inc, Bioinformat, San Diego, CA 92122 USA
来源
NATURE COMMUNICATIONS | 2015年 / 6卷
关键词
LABEL-FREE DETECTION; SINGLE-MOLECULE; PROTEIN; EVOLUTION; EXPANSION; REPEATS; MODE;
D O I
10.1038/ncomms6936
中图分类号
O [数理科学和化学]; P [天文学、地球科学]; Q [生物科学]; N [自然科学总论];
学科分类号
07 ; 0710 ; 09 ;
摘要
Next-generation sequencing (NGS) has transformed genomic research by decreasing the cost of sequencing. However, whole-genome sequencing is still costly and complex for diagnostics purposes. In the clinical space, targeted sequencing has the advantage of allowing researchers to focus on specific genes of interest. Routine clinical use of targeted NGS mandates inexpensive instruments, fast turnaround time and an integrated and robust workflow. Here we demonstrate a version of the Sequencing by Synthesis (SBS) chemistry that potentially can become a preferred targeted sequencing method in the clinical space. This sequencing chemistry uses natural nucleotides and is based on real-time recording of the differential polymerase/DNA-binding kinetics in the presence of correct or mismatch nucleotides. This ensemble SBS chemistry has been implemented on an existing Illumina sequencing platform with integrated cluster amplification. We discuss the advantages of this sequencing chemistry for targeted sequencing as well as its limitations for other applications.
引用
收藏
页数:12
相关论文
共 50 条
  • [41] Canvasing the Substrate-Binding Pockets of the Wax Ester Synthase
    Mancipe, Natalia Calixto
    Mulliner, Kalene M.
    Plunkett, Mary H.
    Barney, Brett M.
    BIOCHEMISTRY, 2022, 61 (10) : 922 - 932
  • [42] A new structure for the substrate-binding antibiotic ramoplanin [24]
    Lo, M.-C.
    Helm, J.S.
    Sarngadharan, G.
    Pelczer, I.
    Walker, S.
    1600, American Chemical Society (123):
  • [43] RENAL TREHALASE - 2 SUBSITES AT THE SUBSTRATE-BINDING SITE
    NAKANO, M
    SACKTOR, B
    BIOCHIMICA ET BIOPHYSICA ACTA, 1984, 791 (01) : 45 - 49
  • [44] Movements of the Substrate-Binding Clamp of Cypemycin Decarboxylase CypD
    Liu, Lei
    Chan, Stephen
    Mo, Tianlu
    Ding, Wei
    Yu, Shaoning
    Zhang, Qi
    Yuan, Shuguang
    JOURNAL OF CHEMICAL INFORMATION AND MODELING, 2019, 59 (06) : 2924 - 2929
  • [45] BINDING OF DNA TO DNA POLYMERASE
    KELLY, RB
    ENGLUND, PT
    KORNBERG, A
    BIOPHYSICAL JOURNAL, 1969, 9 : A85 - &
  • [46] ELECTROSTATIC COMPLEMENTARITY WITHIN THE SUBSTRATE-BINDING POCKET OF TRYPSIN
    GRAF, L
    JANCSO, A
    SZILAGYI, L
    HEGYI, G
    PINTER, K
    NARAYSZABO, G
    HEPP, J
    MEDZIHRADSZKY, K
    RUTTER, WJ
    PROCEEDINGS OF THE NATIONAL ACADEMY OF SCIENCES OF THE UNITED STATES OF AMERICA, 1988, 85 (14) : 4961 - 4965
  • [47] Caught in a TRAP: substrate-binding proteins in secondary transport
    Fischer, Marcus
    Zhang, Qian Yi
    Hubbard, Roderick E.
    Thomas, Gavin H.
    TRENDS IN MICROBIOLOGY, 2010, 18 (10) : 471 - 478
  • [48] EVOLUTIONARY CONSERVATION OF THE SUBSTRATE-BINDING CLEFT OF PHOSPHOGLYCERATE KINASES
    MORI, N
    SINGERSAM, J
    RIGGS, AD
    FEBS LETTERS, 1986, 204 (02) : 313 - 317
  • [49] Prokaryotic Substrate-Binding Proteins as Targets for Antimicrobial Therapies
    Counago, Rafael M.
    McDevitt, Christopher A.
    Ween, Miranda P.
    Kobe, Bostjan
    CURRENT DRUG TARGETS, 2012, 13 (11) : 1400 - 1410
  • [50] PROTEIN SOLVATION CHANGES THAT ACCOMPANY SUBSTRATE-BINDING AND TURNOVER
    RAND, RP
    FULLER, NL
    REID, C
    BIOPHYSICAL JOURNAL, 1994, 66 (02) : A393 - A393