Generation of heterozygous fibrillin-1 mutant cloned pigs from genome-edited foetal fibroblasts

被引:0
作者
Kazuhiro Umeyama
Kota Watanabe
Masahito Watanabe
Keisuke Horiuchi
Kazuaki Nakano
Masateru Kitashiro
Hitomi Matsunari
Tokuhiro Kimura
Yoshimi Arima
Oltea Sampetrean
Masaki Nagaya
Masahiro Saito
Hideyuki Saya
Kenjiro Kosaki
Hiroshi Nagashima
Morio Matsumoto
机构
[1] Meiji University International Institute for Bio-Resource Research,Department of Life Sciences
[2] Laboratory of Developmental Engineering,Department of Orthopaedic Surgery
[3] School of Agriculture,Department of Pathology
[4] Meiji University,Division of Gene Regulation
[5] Keio University School of Medicine,Division of Operative Dentistry, Department of Restorative Dentistry
[6] Anti-aging Orthopaedic Research,undefined
[7] Keio University School of Medicine,undefined
[8] Keio University School of Medicine,undefined
[9] Institute for Advanced Medical Research,undefined
[10] Keio University School of Medicine,undefined
[11] Tohoku University Graduate School of Dentistry,undefined
[12] Center for Medical Genetics,undefined
[13] Keio University School of Medicine,undefined
[14] Present address: Department of Pathology,undefined
[15] Yamaguchi University Graduate School of Medicine,undefined
[16] Ube-shi,undefined
[17] 755-8505,undefined
[18] Japan.,undefined
来源
Scientific Reports | / 6卷
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摘要
Marfan syndrome (MFS) is an autosomal dominant genetic disease caused by abnormal formation of the extracellular matrix with an incidence of 1 in 3, 000 to 5, 000. Patients with Marfan syndrome experience poor quality of life caused by skeletal disorders such as scoliosis, and they are at high risk of sudden death from cardiovascular impairment. Suitable animal models of MFS are essential for conquering this intractable disease. In particular, studies employing pig models will likely provide valuable information that can be extrapolated to humans because of the physiological and anatomical similarities between the two species. Here we describe the generation of heterozygous fibrillin-1 (FBN1) mutant cloned pigs (+/Glu433AsnfsX98) using genome editing and somatic cell nuclear transfer technologies. The FBN1 mutant pigs exhibited phenotypes resembling those of humans with MFS, such as scoliosis, pectus excavatum, delayed mineralization of the epiphysis and disrupted structure of elastic fibres of the aortic medial tissue. These findings indicate the value of FBN1 mutant pigs as a model for understanding the pathogenesis of MFS and for developing treatments.
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