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Development of coupling controlled polymerizations by adapter-ligation in mate-pair sequencing for detection of various genomic variants in one single assay

The diversity of disease presentations warrants one single assay for detection and delineation of various genomic disorders. Herein, we describe a gel-free and biotin-capture-free mate-pair method through coupling Controlled Polymerizations by Adapter-Ligation (CP-AL). We first demonstrated the feas...

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Detalles Bibliográficos
Autores principales: Dong, Zirui, Zhao, Xia, Li, Qiaoling, Yang, Zhenjun, Xi, Yang, Alexeev, Andrei, Shen, Hanjie, Wang, Ou, Ruan, Jie, Ren, Han, Wei, Hanmin, Qi, Xiaojuan, Li, Jiguang, Zhu, Xiaofan, Zhang, Yanyan, Dai, Peng, Kong, Xiangdong, Kirkconnell, Killeen, Alferov, Oleg, Giles, Shane, Yamtich, Jennifer, Kermani, Bahram G, Dong, Chao, Liu, Pengjuan, Mi, Zilan, Zhang, Wenwei, Xu, Xun, Drmanac, Radoje, Choy, Kwong Wai, Jiang, Yuan
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Oxford University Press 2019
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6704401/
https://www.ncbi.nlm.nih.gov/pubmed/31173071
http://dx.doi.org/10.1093/dnares/dsz011
Descripción
Sumario:The diversity of disease presentations warrants one single assay for detection and delineation of various genomic disorders. Herein, we describe a gel-free and biotin-capture-free mate-pair method through coupling Controlled Polymerizations by Adapter-Ligation (CP-AL). We first demonstrated the feasibility and ease-of-use in monitoring DNA nick translation and primer extension by limiting the nucleotide input. By coupling these two controlled polymerizations by a reported non-conventional adapter-ligation reaction 3′ branch ligation, we evidenced that CP-AL significantly increased DNA circularization efficiency (by 4-fold) and was applicable for different sequencing methods but at a faction of current cost. Its advantages were further demonstrated by fully elimination of small-insert-contaminated (by 39.3-fold) with a ∼50% increment of physical coverage, and producing uniform genome/exome coverage and the lowest chimeric rate. It achieved single-nucleotide variants detection with sensitivity and specificity up to 97.3 and 99.7%, respectively, compared with data from small-insert libraries. In addition, this method can provide a comprehensive delineation of structural rearrangements, evidenced by a potential diagnosis in a patient with oligo-atheno-terato-spermia. Moreover, it enables accurate mutation identification by integration of genomic variants from different aberration types. Overall, it provides a potential single-integrated solution for detecting various genomic variants, facilitating a genetic diagnosis in human diseases.