Deep whole genome sequencing identifies recurrent genomic alterations in commonly used breast cancer cell lines and patient-derived xenograft models.
Deep whole genome sequencing identifies recurrent genomic alterations in commonly used breast cancer cell lines and patient-derived xenograft models.
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DOI:
10.1186/s13058-022-01540-0
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发表时间:
2022-09-24
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影响因子:
--
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中科院分区:
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--
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Breast cancer cell lines (BCCLs) and patient-derived xenografts (PDXs) are the most frequently used models in breast cancer research. Despite their widespread usage, genome sequencing of these models is incomplete, with previous studies only focusing on targeted gene panels, whole exome or shallow whole genome sequencing. Deep whole genome sequencing is the most sensitive and accurate method to detect single nucleotide variants and indels, gene copy number and structural events such as gene fusions. Here we describe deep whole genome sequencing (WGS) of commonly used BCCL and PDX models using the Illumina X10 platform with an average ~ 60 × coverage. We identify novel genomic alterations, including point mutations and genomic rearrangements at base-pair resolution, compared to previously available sequencing data. Through integrative analysis with publicly available functional screening data, we annotate new genomic features likely to be of biological significance. CSMD1, previously identified as a tumor suppressor gene in various cancer types, including head and neck, lung and breast cancers, has been identified with deletion in 50% of our PDX models, suggesting an important role in aggressive breast cancers. Our WGS data provides a comprehensive genome sequencing resource of these models. The online version contains supplementary material available at 10.1186/s13058-022-01540-0.
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影响因子:
64.8
作者:
Nik-Zainal S;Davies H;Staaf J;Ramakrishna M;Glodzik D;Zou X;Martincorena I;Alexandrov LB;Martin S;Wedge DC;Van Loo P;Ju YS;Smid M;Brinkman AB;Morganella S;Aure MR;Lingjærde OC;Langerød A;Ringnér M;Ahn SM;Boyault S;Brock JE;Broeks A;Butler A;Desmedt C;Dirix L;Dronov S;Fatima A;Foekens JA;Gerstung M;Hooijer GK;Jang SJ;Jones DR;Kim HY;King TA;Krishnamurthy S;Lee HJ;Lee JY;Li Y;McLaren S;Menzies A;Mustonen V;O'Meara S;Pauporté I;Pivot X;Purdie CA;Raine K;Ramakrishnan K;Rodríguez-González FG;Romieu G;Sieuwerts AM;Simpson PT;Shepherd R;Stebbings L;Stefansson OA;Teague J;Tommasi S;Treilleux I;Van den Eynden GG;Vermeulen P;Vincent-Salomon A;Yates L;Caldas C;van't Veer L;Tutt A;Knappskog S;Tan BK;Jonkers J;Borg Å;Ueno NT;Sotiriou C;Viari A;Futreal PA;Campbell PJ;Span PN;Van Laere S;Lakhani SR;Eyfjord JE;Thompson AM;Birney E;Stunnenberg HG;van de Vijver MJ;Martens JW;Børresen-Dale AL;Richardson AL;Kong G;Thomas G;Stratton MR
通讯作者:
Stratton MR
影响因子:
14.9
作者:
Gao Y;Shang S;Guo S;Li X;Zhou H;Liu H;Sun Y;Wang J;Wang P;Zhi H;Li X;Ning S;Zhang Y
通讯作者:
Zhang Y
影响因子:
64.8
作者:
Yu, Mamie;Selvaraj, Suresh K.;Neve, Richard M.
通讯作者:
Neve, Richard M.
影响因子:
50.3
作者:
Neve, Richard M.;Chin, Koei;Gray, Joe W.
通讯作者:
Gray, Joe W.
影响因子:
14.9
作者:
Quek XC;Thomson DW;Maag JL;Bartonicek N;Signal B;Clark MB;Gloss BS;Dinger ME
通讯作者:
Dinger ME