コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 ure dilated cardiomyopathy associated with a laminopathy.
2 mouse provides a novel model of human OM and laminopathy.
3 pathological abnormalities characteristic of laminopathy.
4 restrictive dermopathy as a lethal neonatal laminopathy.
5 ciated with FXTAS may represent a functional laminopathy.
6 and a subset of the disorder can be judged a laminopathy.
7 and broadens the phenotypic spectrum of the laminopathies.
8 understanding the mechanistic basis of human laminopathies.
9 s, including NL-associated diseases, such as laminopathies.
10 LEMD2 is a new player inthe disease group of laminopathies.
11 severe human diseases collectively known as laminopathies.
12 ined the putative role of phosphorylation in laminopathies.
13 ntial therapeutic target for striated muscle laminopathies.
14 (LMNA) cause abnormal nuclear structure and laminopathies.
15 s a promising therapeutic approach for human laminopathies.
16 a major cause of mortality and morbidity in laminopathies.
17 DCM is the leading cause of death in laminopathies.
18 coding LMNA (lamin A/C), are responsible for laminopathies.
19 nsights imply a role of meshwork topology in laminopathies.
20 ons contribute to the pathogenesis of DCM in laminopathies.
21 ork and cause tissue-specific pathologies in laminopathies.
22 issue-specific disorders collectively called laminopathies.
23 se a variety of diseases collectively called laminopathies.
24 s accelerate the pathological progression of laminopathies.
25 atform for studies of the molecular basis of laminopathies.
26 ne protein SUN1 drives pathology in multiple laminopathies.
27 nstrate that miRNA expression is affected in laminopathies.
28 tissue-specific degenerative diseases termed laminopathies.
29 s of other mutations causing a wide range of laminopathies.
30 C, causes a diverse group of diseases called laminopathies.
31 an A-type lamin gene lead to diseases called laminopathies.
34 te to the disease development, especially in laminopathies affecting mechanically stressed tissue suc
36 3 axis as a responsible mechanism for DCM in laminopathies and as a potential intervention target.
37 dence that tauopathies are neurodegenerative laminopathies and identifies a new pathway mediating neu
41 nce, MASLD should be considered as a type of laminopathy and approaches to restore ZMPSTE24 expressio
42 NE) rupture and repair have been observed in laminopathy and cancer cells and result in intermittent
50 emerin in cell polarization and suggest that laminopathies are not directly associated with cells' in
58 L and hyperthick INL were features of severe laminopathy at further eccentricities into the transitio
60 al progress in our understanding of not only laminopathies, but also the biological roles of nuclear
61 ht comprise a therapeutic target for certain laminopathies by preventing damage from endogenous cellu
62 eatures of this disorder are also present in laminopathies caused by mutant LMNA encoding nuclear lam
63 s indicate that RD is an autosomal recessive laminopathy caused by inactivating ZMPSTE24 mutations th
68 s appears at all stages of disease and inner laminopathy complicates the phenotype at later stages.
69 Mutations in LMNA are associated with the laminopathies, congenital diseases affecting tissue rege
70 identified in patients with various types of laminopathy-containing diseases, which have features of
72 Fibroblasts from patients with the severe laminopathy diseases, restrictive dermopathy (RD) and Hu
73 LMNA, the gene encoding A-type lamins, cause laminopathies-diseases of striated muscle and other tiss
76 tulate the defective nuclear organization of laminopathies, featuring disruption of the actin cap.
79 A and C, cause a panoply of human diseases ("laminopathies"), including muscular dystrophy, cardiomyo
81 g nuclear envelope-associated proteins cause laminopathies, including progeria, myopathy, and dystoni
82 ions lead to degenerative disorders known as laminopathies, including the premature aging disease Hut
83 atin organization associated with cancer and laminopathies, including the premature-aging disease Hut
85 cellular consequence of lamin dysfunction in laminopathies is relaxation of heterochromatic DNA [1].
87 fects of lamin A/C mutations observed in the laminopathies may arise from varying degrees of impaired
88 intriguing possibility that fat loss seen in laminopathies may be caused, at least in part, by reduce
89 mutations seen in many clinically disparate laminopathies may similarly alter Rb function, with rega
90 hanges at the lamina in aged hepatocytes and laminopathy models lead to redistribution of lamina-asso
93 e longer in the aorta, heart, and fat, where laminopathy pathology is apparent, than in the liver and
96 ese features resemble the pathology of human laminopathies, possibly revealing some profound patholog
97 s into possible disease mechanisms for human laminopathies, ranging from muscular dystrophy to accele
98 is and that HEM dysplasia and ichthyosis are laminopathies rather than inborn errors of cholesterol s
100 ns to cellular viability can be gleaned from laminopathies, severe disorders caused by mutations in g
101 are, this risk prediction model for LTVTA in laminopathies significantly facilitated the choice of ca
102 Mutations in the lamin A/C gene (LMNA) cause laminopathies such as the premature aging Hutchinson Gil
103 PSTE24 lead to diseases of lamin processing (laminopathies), such as the premature aging disease prog
104 ns in a group of muscular dystrophies called laminopathies suggest that the shape and mechanical prop
105 1 mutant phenotypes are reminiscent of human laminopathies, suggesting that studies in Drosophila wil
108 in genes encoding LEM-D proteins cause human laminopathies that are associated with tissue-restricted
110 s referred to as "nuclear envelopathies" or "laminopathies" that affect different tissues and organ s
111 in disparate diseases, known collectively as laminopathies, that affect distinct tissues, including s
112 A-type lamins, cause several diseases called laminopathies, the most common of which is dilated cardi
113 e out links between altered pRB function and laminopathies, they fail to support such an assertion.
115 Because of the dominant family history, a laminopathy was suspected and a mutation in exon 11 of t
116 phila melanogaster models of skeletal muscle laminopathies were developed to investigate the patholog
117 o a variety of degenerative disorders termed laminopathies, whereas changes in the expression of lami
118 aetiology for the cardiac phenotype in many laminopathies, whereby lamin A/C and emerin regulate gen
119 typically diverse genetic disorders known as laminopathies, which have symptoms that range from muscu
120 A/C (LMNA) gene-encoding nuclear LMNA cause laminopathies, which include partial lipodystrophies ass
121 LMNA) cause several disorders referred to as laminopathies, which include premature aging syndromes,
122 A gene, encoding A-type lamins, give rise to laminopathies, which include several types of muscular d
123 rgeting of phosphorylation in the context of laminopathies will likely require mutant- and kinase-spe