Literature DB >> 23443412

Next-generation sequencing for disorders of low and high bone mineral density.

G Sule1, P M Campeau, V W Zhang, S C S Nagamani, B C Dawson, M Grover, C A Bacino, V R Sutton, N Brunetti-Pierri, J T Lu, E Lemire, R A Gibbs, D H Cohn, H Cui, L-J Wong, B H Lee.   

Abstract

UNLABELLED: To achieve an efficient molecular diagnosis of osteogenesis imperfecta (OI), Ehlers-Danlos syndrome (EDS), and osteopetrosis (OPT), we designed a next-generation sequencing (NGS) platform to sequence 34 genes. We validated this platform on known cases and have successfully identified the causative mutation in most patients without a prior molecular diagnosis.
INTRODUCTION: Osteogenesis imperfecta, Ehlers-Danlos syndrome, and osteopetrosis are collectively common inherited skeletal diseases. Evaluation of subjects with these conditions often includes molecular testing which has important counseling and therapeutic and sometimes legal implications. Since several different genes have been implicated in these conditions, Sanger sequencing of each gene can be a prohibitively expensive and time-consuming way to reach a molecular diagnosis.
METHODS: In order to circumvent these problems, we have designed and tested a NGS platform that would allow simultaneous sequencing on a single diagnostic platform of different genes implicated in OI, OPT, EDS, and other inherited conditions, leading to low or high bone mineral density. We used a liquid-phase probe library that captures 602 exons (~100 kb) of 34 selected genes and have applied it to test clinical samples from patients with bone disorders.
RESULTS: NGS of the captured exons by Illumina HiSeq 2000 resulted in an average coverage of over 900X. The platform was successfully validated by identifying mutations in six patients with known mutations. Moreover, in four patients with OI or OPT without a prior molecular diagnosis, the assay was able to detect the causative mutations.
CONCLUSIONS: In conclusion, our NGS panel provides a fast and accurate method to arrive at a molecular diagnosis in most patients with inherited high or low bone mineral density disorders.

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Mesh:

Year:  2013        PMID: 23443412      PMCID: PMC3709009          DOI: 10.1007/s00198-013-2290-0

Source DB:  PubMed          Journal:  Osteoporos Int        ISSN: 0937-941X            Impact factor:   4.507


  24 in total

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3.  Assessment of target enrichment platforms using massively parallel sequencing for the mutation detection for congenital muscular dystrophy.

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Journal:  J Mol Diagn       Date:  2012-03-16       Impact factor: 5.568

4.  Mutations in the gene encoding the RER protein FKBP65 cause autosomal-recessive osteogenesis imperfecta.

Authors:  Yasemin Alanay; Hrispima Avaygan; Natalia Camacho; G Eda Utine; Koray Boduroglu; Dilek Aktas; Mehmet Alikasifoglu; Ergul Tuncbilek; Diclehan Orhan; Filiz Tiker Bakar; Bernard Zabel; Andrea Superti-Furga; Leena Bruckner-Tuderman; Cindy J R Curry; Shawna Pyott; Peter H Byers; David R Eyre; Dustin Baldridge; Brendan Lee; Amy E Merrill; Elaine C Davis; Daniel H Cohn; Nurten Akarsu; Deborah Krakow
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5.  Dysosteosclerosis.

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6.  CRTAP is required for prolyl 3- hydroxylation and mutations cause recessive osteogenesis imperfecta.

Authors:  Roy Morello; Terry K Bertin; Yuqing Chen; John Hicks; Laura Tonachini; Massimiliano Monticone; Patrizio Castagnola; Frank Rauch; Francis H Glorieux; Janice Vranka; Hans Peter Bächinger; James M Pace; Ulrike Schwarze; Peter H Byers; MaryAnn Weis; Russell J Fernandes; David R Eyre; Zhenqiang Yao; Brendan F Boyce; Brendan Lee
Journal:  Cell       Date:  2006-10-20       Impact factor: 41.582

7.  Whole-exome sequencing identifies mutations in the nucleoside transporter gene SLC29A3 in dysosteosclerosis, a form of osteopetrosis.

Authors:  Philippe M Campeau; James T Lu; Gautam Sule; Ming-Ming Jiang; Yangjin Bae; Simran Madan; Wolfgang Högler; Nicholas J Shaw; Steven Mumm; Richard A Gibbs; Michael P Whyte; Brendan H Lee
Journal:  Hum Mol Genet       Date:  2012-08-08       Impact factor: 6.150

8.  Mutations in FKBP10 cause recessive osteogenesis imperfecta and Bruck syndrome.

Authors:  Brian P Kelley; Fransiska Malfait; Luisa Bonafe; Dustin Baldridge; Erica Homan; Sofie Symoens; Andy Willaert; Nursel Elcioglu; Lionel Van Maldergem; Christine Verellen-Dumoulin; Yves Gillerot; Dobrawa Napierala; Deborah Krakow; Peter Beighton; Andrea Superti-Furga; Anne De Paepe; Brendan Lee
Journal:  J Bone Miner Res       Date:  2011-03       Impact factor: 6.741

9.  Comparison of solution-based exome capture methods for next generation sequencing.

Authors:  Anna-Maija Sulonen; Pekka Ellonen; Henrikki Almusa; Maija Lepistö; Samuli Eldfors; Sari Hannula; Timo Miettinen; Henna Tyynismaa; Perttu Salo; Caroline Heckman; Heikki Joensuu; Taneli Raivio; Anu Suomalainen; Janna Saarela
Journal:  Genome Biol       Date:  2011-09-28       Impact factor: 13.583

10.  Comprehensive comparison of three commercial human whole-exome capture platforms.

Authors:  Yu Xu; Hui Jiang; Chris Tyler-Smith; Yali Xue; Tao Jiang; Jiawei Wang; Mingzhi Wu; Xiao Liu; Geng Tian; Jun Wang; Jian Wang; Huangming Yang; Xiuqing Zhang
Journal:  Genome Biol       Date:  2011-09-28       Impact factor: 13.583

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  22 in total

1.  Two novel mutations in TMEM38B result in rare autosomal recessive osteogenesis imperfecta.

Authors:  Fang Lv; Xiao-Jie Xu; Jian-Yi Wang; Yi Liu; Jia-Wei Wang; Li-Jie Song; Yu-Wen Song; Yan Jiang; Ou Wang; Wei-Bo Xia; Xiao-Ping Xing; Mei Li
Journal:  J Hum Genet       Date:  2016-02-25       Impact factor: 3.172

Review 2.  Osteogenesis imperfecta in children and adolescents-new developments in diagnosis and treatment.

Authors:  P Trejo; F Rauch
Journal:  Osteoporos Int       Date:  2016-08-05       Impact factor: 4.507

3.  Rapid skeletal turnover in a radiographic mimic of osteopetrosis.

Authors:  Michael P Whyte; Katherine L Madson; Steven Mumm; William H McAlister; Deborah V Novack; Jo C Blair; Timothy R Helliwell; Marina Stolina; Laurence J Abernethy; Nicholas J Shaw
Journal:  J Bone Miner Res       Date:  2014-12       Impact factor: 6.741

4.  Lessons from next-generation sequencing in genetic skeletal disorders.

Authors:  Maria L Brandi
Journal:  Bonekey Rep       Date:  2014-05-14

Review 5.  Next-generation sequencing: a frameshift in skeletal dysplasia gene discovery.

Authors:  S Lazarus; A Zankl; E L Duncan
Journal:  Osteoporos Int       Date:  2013-08-01       Impact factor: 4.507

6.  Novel mutations in FKBP10 in Chinese patients with osteogenesis imperfecta and their treatment with zoledronic acid.

Authors:  Xiao-Jie Xu; Fang Lv; Yi Liu; Jian-Yi Wang; Dou-Dou Ma; Jia-Wei Wang; Li-Jie Song; Yan Jiang; Ou Wang; Wei-Bo Xia; Xiao-Ping Xing; Mei Li
Journal:  J Hum Genet       Date:  2016-08-25       Impact factor: 3.172

Review 7.  Osteogenesis imperfecta and therapeutics.

Authors:  Roy Morello
Journal:  Matrix Biol       Date:  2018-03-11       Impact factor: 11.583

8.  Phenotypic heterogeneity in monogenic diabetes: the clinical and diagnostic utility of a gene panel-based next-generation sequencing approach.

Authors:  G Alkorta-Aranburu; D Carmody; Y W Cheng; V Nelakuditi; L Ma; Jazzmyne T Dickens; S Das; S A W Greeley; D Del Gaudio
Journal:  Mol Genet Metab       Date:  2014-09-28       Impact factor: 4.797

9.  Comprehensive genetic exploration of skeletal dysplasia using targeted exome sequencing.

Authors:  Jun-Seok Bae; Nayoung K D Kim; Chung Lee; Sang Cheol Kim; Hey Ran Lee; Hae-Ryong Song; Kun Bo Park; Hyun Woo Kim; Soon Hyuck Lee; Ha Yong Kim; Soon Chul Lee; Changhoon Jeong; Moon Seok Park; Won Joon Yoo; Chin Youb Chung; In Ho Choi; Ok-Hwa Kim; Woong-Yang Park; Tae-Joon Cho
Journal:  Genet Med       Date:  2015-09-24       Impact factor: 8.822

10.  Use of Targeted Exome Sequencing for Molecular Diagnosis of Skeletal Disorders.

Authors:  Daniel L Polla; Maria T O Cardoso; Mayara C B Silva; Isabela C C Cardoso; Cristina T N Medina; Rosenelle Araujo; Camila C Fernandes; Alessandra M M Reis; Rosangela V de Andrade; Rinaldo W Pereira; Robert Pogue
Journal:  PLoS One       Date:  2015-09-18       Impact factor: 3.240

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