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1 ere forms of the Marfan syndrome ("neonatal" Marfan syndrome).
2 iated with thoracic aortic aneurysm (TAA) in Marfan syndrome.
3 mal bone growth activity in a mouse model of Marfan syndrome.
4 not previously reported as causing classical Marfan syndrome.
5 ration and regurgitation in a mouse model of Marfan syndrome.
6 nd long-term clinical outcomes in women with Marfan syndrome.
7 with tricuspid valves unassociated with the Marfan syndrome.
8 tions lead to clinical features unrelated to Marfan syndrome.
9 atients) had physical features suggestive of Marfan syndrome.
10 lt in the dominant connective tissue disease Marfan syndrome.
11 stress contributes to the disease, including Marfan syndrome.
12 ad to alternative therapeutic strategies for Marfan syndrome.
13 , which recapitulate the most severe form of Marfan syndrome.
14 ecapitulates the pulmonary features of human Marfan syndrome.
15 tic wall of a mouse model of neonatal lethal Marfan syndrome.
16 ted individuals meets the Ghent criteria for Marfan syndrome.
17 families with familial TAAD who did not have Marfan syndrome.
18 erlying connective tissue disorders like the Marfan syndrome.
19 ween age groups were not entirely related to Marfan syndrome.
20 Fifty patients had Marfan syndrome.
21 ficient in fibrillin-1, an accepted model of Marfan syndrome.
22 ortic dilatation in children and adults with Marfan syndrome.
23 rs evaluated met the diagnostic criteria for Marfan syndrome.
24 l density has been reported in patients with Marfan syndrome.
25 ey shifted inferiorly with gaze elevation in Marfan syndrome.
26 nts in the genetic and orthopedic aspects of Marfan syndrome.
27 sponsible for the clinical manifestations of Marfan syndrome.
28 ndings in elastic vessels from patients with Marfan syndrome.
29 om fibrillin-1, the defective protein in the Marfan syndrome.
30 ; and physical stigmata or family history of Marfan syndrome.
31 f outcome of this operation in patients with Marfan syndrome.
32 cellular matrix protein that is defective in Marfan syndrome.
33 isrupted in all three zones in patients with Marfan syndrome.
34 rt rhythm, peripheral pulses, or stigmata of Marfan syndrome.
35 lly similar to but genetically distinct from Marfan syndrome.
36 sorder that is phenotypically related to the Marfan syndrome.
37 dissections in patients who do not have the Marfan syndrome.
38 ic aneurysms in patients who do not have the Marfan syndrome.
39 oracic aortic aneurysms who did not have the Marfan syndrome.
40 drives the development of aortic aneurysm in Marfan syndrome.
41 cular, ocular, and skeletal abnormalities in Marfan syndrome.
42 ase, and arrhythmias) following diagnosis of Marfan syndrome.
43 ent occurred in 4 eyes (10%), 3 of which had Marfan syndrome.
44 was used to identify patients diagnosed with Marfan syndrome.
45 re more prevalent in adults than children in Marfan syndrome.
46 d tested 248 probands with aortic disease or Marfan syndrome.
47 ential for noninvasive clinical diagnosis of Marfan syndrome.
48 Recurrent AD is strongly associated with Marfan syndrome.
49 ved ORA variables successfully discriminated Marfan syndrome.
50 ervation was accentuated among patients with Marfan syndrome.
51 ic valve-sparing operations in patients with Marfan syndrome.
52 re a major clinical problem in patients with Marfan syndrome.
53 ly different from that seen in patients with Marfan syndrome.
54 ct type B aortic dissection in patients with Marfan syndrome.
55 risk for type B dissection in patients with Marfan syndrome.
56 n reduces aortic dilatation in patients with Marfan syndrome.
57 e arterial tree and phenotypically resembles Marfan syndrome.
58 dissection in multiple disorders, including Marfan syndrome.
59 hypertension, bicuspid aortic valve, and the Marfan syndrome.
60 lerated aneurysm growth in a murine model of Marfan syndrome.
61 tection of aortic expansion in patients with Marfan syndrome.
62 calculated in a subgroup of 22 patients with Marfan syndrome.
63 fter previous aortic repair in patients with Marfan syndrome.
65 diagnosed in late follow-up in patients with Marfan syndrome (10.8 +/- 4.4%) compared with those with
66 es type I and II (12q13.1-q13.3 and 6p21.3), Marfan syndrome (15q21.1), and juvenile glaucoma (chromo
67 ry or idiopathic ectopia lentis, 5 (29%) had Marfan syndrome, 2 (12%) were aphakic after pars plana v
68 s with recurrent AD were more likely to have Marfan syndrome (21.5% versus 3.1%; P<0.001) but not bic
69 st lone disease predictor was Concavity Min (Marfan syndrome 47.5 +/- 20, control 69 +/- 14, P = .003
70 on was significantly higher in patients with Marfan syndrome (5.5 +/- 2.7%) compared with those with
71 ients with aortic dissection type A, 74 with Marfan syndrome (58% men; median age, 37 years [first an
72 t has been known for more than a decade that Marfan syndrome - a dominantly inherited connective tiss
73 of the known mutations in fibrillin-1 cause Marfan syndrome, a number of other mutations lead to cli
74 ession of aortic aneurysm in mouse models of Marfan syndrome, a systemic disorder of the connective t
77 ations in the FBN1 gene are the cause of the Marfan syndrome, an autosomal dominant disorder with ske
78 2.8% (35 patients) had genetically confirmed Marfan syndrome and an additional 17.8% (232 patients) h
81 rtic dissection remains low in patients with Marfan syndrome and aortic diameter between 45 and 49 mm
82 fibrils, cause pleiotropic manifestations in Marfan syndrome and congenital contractural arachnodacty
83 implying distinct mechanisms of bone loss in Marfan syndrome and congenital contractural arachnodacty
85 dilatation in children and young adults with Marfan syndrome and could reduce the incidence of aortic
86 risk has not been evaluated in patients with Marfan syndrome and documented pathogenic variants in th
88 Patients undergoing AVS had higher rates of Marfan syndrome and lower rates of bicuspid aortic valve
92 opi infection in a patient with a history of Marfan syndrome and recreational feral swine hunting.
93 tations in the fibrillin-1 gene (FBN1) cause Marfan syndrome and related connective tissue disorders
95 w discusses mutant-fibrillin mouse models of Marfan syndrome and SSc (Tsk mice), and studies suggesti
97 ortic valves should not be extrapolated from Marfan syndrome and support discrete treatment algorithm
98 ated with aneurysm and dissection, including Marfan syndrome and the role of transforming growth fact
99 outcomes in a series of young patients with Marfan syndrome and to define the prevalence of ventricu
101 (2,079 with bicuspid aortic valves, 73 with Marfan syndrome, and 11,053 control patients with acquir
102 rs-Danlos syndrome, osteogenesis imperfecta, Marfan syndrome, and Larsen syndrome, are characterized
104 ces of osteoporosis and a single instance of Marfan syndrome are also the result of mutations at thes
107 tegies to block TGF-beta, used in those with Marfan syndrome, are unlikely to be beneficial and could
110 treat aortic root aneurysm in patients with Marfan syndrome, based on relatively short-term outcomes
111 luding timing of surgery, remains debated in Marfan syndrome because of a lack of data on aortic risk
112 eness of familial aortic disease such as the Marfan syndrome, bicuspid aortic valve disease, and here
113 r, younger patients were more likely to have Marfan syndrome, bicuspid aortic valve, and prior aortic
114 an also be subject to abnormalities (such as Marfan syndrome, bicuspid aortic valve, inflammatory vas
115 nts have unique risk factors for dissection: Marfan syndrome, bicuspid aortic valves, and larger aort
116 AD) occur as part of known syndromes such as Marfan syndrome but can also be inherited in families in
117 identified relevant trials of patients with Marfan syndrome by systematically searching MEDLINE, Emb
118 s of constituents such as fibrillin-1, as in Marfan syndrome, can compromise both elastic fiber integ
120 s of intact fibrillin-1, the consequences of Marfan syndrome causing mutations, and the ultrastructur
122 neal resistance factor (CRF) were decreased (Marfan syndrome CH 9.45 +/- 1.62, control CH 11.24 +/- 1
123 mes 12q13.1-q13.3 and 6p21.3, respectively), Marfan syndrome (chromosome 15q21.1), and juvenile glauc
125 ications after AVR observed in patients with Marfan syndrome compared with those with bicuspid aortic
126 /- 1.62, control CH 11.24 +/- 1.21, P = .01; Marfan syndrome CRF 9.77 +/- 1.65, control CRF 11.03 +/-
127 (defective in coagulation factor IX) and the Marfan syndrome (defective in the connective tissue prot
128 as Klippel-Feil, familial dysautonomia, and Marfan syndrome demonstrate high rates of scoliotic defo
129 Mutations in fibrillin-1 (FBN1) result in Marfan syndrome, demonstrating a critical requirement fo
130 d has been extrapolated from experience with Marfan syndrome, despite the absence of comparative long
132 os syndrome, but arterial events are rare in Marfan syndrome due to PVs in FBN1, and poorly character
133 idia, albinism, anterior segment dysgenesis, Marfan syndrome, ectopia lentis, neurofibromatosis, reti
134 rs for Stickler syndrome types 1, 2, and 2B; Marfan syndrome; Ehlers-Danlos syndrome type 4; and juve
135 e the most severe phenotypes associated with Marfan syndrome (fibrillin-1) and congenital contractura
136 f echocardiograms, changing drug therapy for Marfan syndrome, follow-up of infant with complex corona
137 ckers (CCBs) are prescribed to patients with Marfan syndrome for prophylaxis against aortic aneurysm
138 ay underlie one of the major features of the Marfan syndrome: fragmentation of aortic elastic lamella
144 New insights regarding the pathogenesis of Marfan syndrome have developed from investigation of mur
145 A distinct subgroup of individuals with Marfan syndrome have distal airspace enlargement, histor
146 s of age and sex with phenotypic features of Marfan syndrome have not been systematically examined in
149 ents with a history of ectopia lentis due to Marfan syndrome, idiopathic causes, or hereditary causes
152 ving or preventing several manifestations of Marfan syndrome in these mice, including aortic aneurysm
155 features of corneal deformation responses in Marfan syndrome, including increased deformation, decrea
156 In multivariate analysis, the diagnosis of Marfan syndrome independently predicted recurrent AD (ha
157 observed in aneurysms forming in those with Marfan syndrome, inhibition of TGF-beta would worsen inf
158 predictors of late death (P< or =0.005), and Marfan syndrome, initial valve-preserving aortic root re
166 rgery for type A dissection in patients with Marfan syndrome is associated with low in-hospital morta
168 ept of pharmaceutical aorta stabilization in Marfan syndrome is supported by a wealth of promising st
169 and corneas were flatter in Marfan syndrome (Marfan syndrome Kmean 41.25 +/- 2.09 diopter, control Km
170 lysis of 90 patients </=50 years of age with Marfan syndrome, LDS, Ehlers-Danlos syndrome, or nonspec
173 - 1.72, P = .01) and corneas were flatter in Marfan syndrome (Marfan syndrome Kmean 41.25 +/- 2.09 di
174 ess of the clinical features associated with Marfan syndrome may facilitate earlier diagnosis and opt
175 ic dissections occurred in 600 patients with Marfan syndrome (mean age 36 +/- 14 years, 52% male).
177 er were assessed for discriminative value in Marfan syndrome, measuring right eyes of 24 control and
179 aortic valve (BAV) with aneurysm (n = 879), Marfan syndrome (MFS) (n = 861), nonsyndromic heritable
181 NS-TAA) are incompletely defined compared to Marfan syndrome (MFS) and bicuspid aortic valve (BAV).
182 the autosomal dominant microfibrillopathies Marfan syndrome (MFS) and congenital contractural arachn
183 FBN1 gene, which encodes fibrillin-1, cause Marfan syndrome (MFS) and have been associated with a wi
184 presentations of aortic aneurysm, including Marfan syndrome (MFS) and Loeys-Dietz syndrome (LDS).
186 ons in the fibrillin-1 (FBN1) gene cause the Marfan syndrome (MFS) and related connective tissue diso
188 issecting aortic aneurysm is the hallmark of Marfan syndrome (MFS) and the result of mutations in fib
189 ctor (TGF)-beta bioavailability/signaling in Marfan syndrome (MFS) changed the view of the extracellu
190 educed quality of life (QOL) for people with Marfan syndrome (MFS) compared with those without MFS.
209 egnancy-associated vascular complications in Marfan syndrome (MFS) is uncertain because of ascertainm
210 mutation in the fibrillin-1 (FBN1) gene of a Marfan syndrome (MFS) patient induces in-frame exon skip
211 ice with reduced Fbn1 gene expression and of Marfan syndrome (MFS) patients with heterozygous fibrill
213 ometric findings of adults and children with Marfan syndrome (MFS) recruited from 2 annual National M
215 the human fibrillin-1 gene, FBN1, result in Marfan syndrome (MFS), a common connective tissue disord
216 tations in the FBN1 gene are associated with Marfan syndrome (MFS), a common developmental disorder.
217 tations in the FBN1 gene are responsible for Marfan syndrome (MFS), a common systemic disorder of the
218 neurysm and dissection are manifestations of Marfan syndrome (MFS), a disorder caused by mutations in
219 rmalities that are similar to those found in Marfan syndrome (MFS), a heritable connective tissue dis
221 stature is the most evident manifestation in Marfan syndrome (MFS), a multisystem condition caused by
222 pediatric and adult patients afflicted with Marfan syndrome (MFS), a multisystem disorder caused by
224 in the human fibrillin-1 (FBN-1) gene cause Marfan syndrome (MFS), an autosomal dominant disease of
226 rmalities with many clinical features of the Marfan syndrome (MFS), an autosomal dominant disorder of
227 the context of genetic syndromes, including Marfan syndrome (MFS), an autosomal-dominant connective
228 progression in multiple disorders, including Marfan syndrome (MFS), and therapies that inhibit this s
229 ithin these proteins have been linked to the Marfan syndrome (MFS), CADASIL, protein S deficiency, ha
231 aneurysms and dissections (TAAD), including Marfan syndrome (MFS), currently lack a cure, and causat
233 as recently exemplified through the study of Marfan syndrome (MFS), including aortic aneurysm and ske
235 onnective tissue disorders (CTDs), including Marfan syndrome (MFS), systemic sclerosis (SSc) and Tigh
236 , telmisartan was able to inhibit aging- and Marfan syndrome (MFS)-associated aortic root widening in
246 not included in the diagnostic criteria for Marfan syndrome (MFS); however, their prevalence and eve
247 lective angiotensin-1 receptor inhibitor, in Marfan syndrome might reduce aortic dilatation, which is
248 in the gene for fibrillin 1 (FBN1) underlie Marfan syndrome (MS), a disorder characterized by lens d
251 action, and five capsules from patients with Marfan syndrome obtained at intracapsular lens extractio
252 a large and diverse cohort of patients with Marfan syndrome, ocular manifestations of the disorder a
255 ng aorta: dissection, 28 patients (19%); the Marfan syndrome or its forme fruste variety, 15 patients
256 diseases such as polycystic kidney disease, Marfan syndrome, or Ehlers-Danlos syndrome; body mass in
258 nce (MR) images obtained in 48 patients with Marfan syndrome over a period of 2.3-9.4 years (mean, 5.
260 Retrospective analysis of 86 consecutive Marfan syndrome patients fulfilling Ghent criteria that
262 , aortic valve function, and aortic shape in Marfan syndrome patients with and without BAV and report
264 omplications are rare in young patients with Marfan syndrome receiving medical therapy and close clin
268 subluxated lenses in Egyptian patients with Marfan Syndrome, resulting in improved visual acuity wit
271 ression in the lens capsule of patients with Marfan syndrome supported a causal relationship to lens
273 e was significantly greater in patients with Marfan syndrome than in control subjects (104 mL/m(2); 9
274 a may be more relevant in the development of Marfan syndrome than mechanisms previously proposed in a
275 es of many of the genetic syndromes, such as Marfan syndrome, that predispose persons to thoracic aor
276 c aneurysms and aortic root stabilization in Marfan syndrome, these claims are not consistently confi
277 perations are feasible in most patients with Marfan syndrome; they are applicable to patients with bo
278 variants do not meet diagnostic criteria for Marfan syndrome, though variants are associated with tal
279 blockers are widely used in the treatment of Marfan syndrome to try to reduce the rate of progressive
280 t data exist describing MVP in patients with Marfan syndrome undergoing aortic root replacement.
281 979, 82 patients (73.2% of all patients with Marfan syndrome undergoing resection of aneurysm of the
282 yndromes, including Birt-Hogg-Dube syndrome, Marfan syndrome, vascular (type IV) Ehlers-Danlos syndro
283 sudden death is a well-recognized outcome in Marfan syndrome, ventricular arrhythmias are not well de
286 ic valve-sparing operations in patients with Marfan syndrome were associated with low rates of valve-
289 sports, family history of heart disease, or Marfan syndrome were included in 0% to 56% of the state
291 cause autosomal dominant disorders including Marfan Syndrome, which is characterized by disrupted TGF
292 nd long-term clinical outcomes in women with Marfan syndrome who are followed prospectively during pr
296 g of the pathogenesis of vascular disease in Marfan syndrome will facilitate the development of thera
297 tution is reported to be pathogenic, causing Marfan syndrome with a dominant mode of inheritance, of
298 to describe aortic risk in a population with Marfan syndrome with pathogenic variants in the FBN1 gen