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1 roid carcinoma and intestinal aganglionosis (Hirschsprung disease).
2 d has a putative role in the pathogenesis of Hirschsprung disease.
3 g preterm infants without cystic fibrosis or Hirschsprung disease.
4 ent cause colonic aganglionosis, also called Hirschsprung disease.
5 fibrosis and 15% of colonic obstructions to Hirschsprung disease.
6 on to Ret loss-of-function disorders such as Hirschsprung disease.
7 luding intellectual disability, epilepsy and Hirschsprung disease.
8 th the intestinal motility disorder known as Hirschsprung disease.
9 that increase GLI activity in patients with Hirschsprung disease.
10 disrupts NCC differentiation and might cause Hirschsprung disease.
11 No patient had muscle contractures or Hirschsprung disease.
12 ce and may contribute to the pathogenesis of Hirschsprung disease.
13 ntribute to the etiology and pathogenesis of Hirschsprung disease.
14 e carrying the Sox10Dom mutation, a model of Hirschsprung disease.
15 verity even for a multigenic disease such as Hirschsprung disease.
16 of the c-RET gene, which is often mutated in Hirschsprung disease.
17 ations in some cases of dominantly inherited Hirschsprung disease.
18 rget sequencing of DNA from 20 patients with Hirschsprung disease (16 men, 4 women), and 20 individua
19 re is strong evidence against linkage to two Hirschsprung disease (a condition that can cosegregate w
22 fied many key players in the pathogenesis of Hirschsprung disease, a large number of cases remain gen
25 of gut neurodevelopmental disorders such as Hirschsprung disease and congenital enteric neuropathies
26 n may not be required to explain co-existing Hirschsprung disease and MEN-associated tumors, but rath
27 ions has been identified among patients with Hirschsprung disease and multiple endocrine neoplasia ty
28 low penetrance susceptibility mutations for Hirschsprung disease and the R93W was not identified in
29 their potential use in cellular therapy for Hirschsprung disease and to assess differences in the pr
32 41 (2.2%) had cystic fibrosis, 60 (3.3%) had Hirschsprung disease, and 1743 (94.5%) had neither predi
33 MRO cases per 100 000 births associated with Hirschsprung disease, and 187.3 MRO cases per 100 000 bi
34 d development abnormalities, particularly in Hirschsprung disease, and fueled by technical advances f
35 tified 3 mutations in GLI in 5 patients with Hirschsprung disease but no controls; all lead to increa
36 ered in neuroblastoma cases with CCHS and/or Hirschsprung disease, but a comprehensive survey for mut
37 g the receptor tyrosine kinase RET result in Hirschsprung disease, cancer and renal malformations.
38 l rat, a naturally occurring rodent model of Hirschsprung disease, carries a deletion in the endothel
39 syndrome, Type IV, also known as Waardenburg-Hirschsprung disease, characterized by pigmentation and
40 emia, transient myeloproliferative disorder, Hirschsprung disease, duodenal stenosis, imperforate anu
41 fish lacking an ENS due to a mutation in the Hirschsprung disease gene, sox10, develop microbiota-dep
42 regions from colon tissues of patients with Hirschsprung disease had ganglia in multiple layers and
43 ital utilization, and surgical management of Hirschsprung disease (HD) have changed over the last dec
46 , the association of neuroblastoma (NB) with Hirschsprung disease (HSCR) (aganglionosis of the termin
48 heterogeneity, 72% of pathogenic alleles for Hirschsprung disease (HSCR) arise from coding and regula
72 in congenic Sox10(Dom) mice, an established Hirschsprung disease (HSCR) model, on distinct inbred ba
77 red the most preferable treatment method for Hirschsprung disease (HSCR) since it is less invasive an
79 ts in RET and NRG1 have been associated with Hirschsprung disease (HSCR), a congenital disorder chara
80 nnervation of the gut is segmentally lost in Hirschsprung disease (HSCR), a consequence of cell-auton
83 rom homozygous Ret null embryos, a model for Hirschsprung disease (HSCR), in which the ENS is absent.
84 tal aganglionic megacolon, commonly known as Hirschsprung disease (HSCR), is the most frequent cause
90 ET loss of function (LoF) is associated with Hirschsprung disease (HSCR), which is marked by aganglio
98 vanced the use of a primary pull-through for Hirschsprung disease in the newborn, and preliminary res
101 nalyses of stem cell function, suggests that Hirschsprung disease is caused by defects in neural cres
105 nderscored by the effects of its mutation in Hirschsprung disease, leading to absence of gut innervat
106 expressivity, suggesting that some cases of Hirschsprung disease might be preventable by optimizing
107 disorders, including the congenital disease Hirschsprung disease, or various other functional gut ne
108 is a non-genetic risk factor that increases Hirschsprung disease penetrance and expressivity, sugges
109 influencing PKCzeta or GSK3beta might alter Hirschsprung disease penetrance or expressivity by affec
111 PN22), prostate cancer (DG8S737, rs1447295), Hirschsprung disease (RET), and age-related macular dege
112 ver, 80% of HSCR patients have short-segment Hirschsprung disease (S-HSCR), which has not been associ
116 ong infants with neither cystic fibrosis nor Hirschsprung disease, those with gestational ages from 2
117 egion of the RET gene cause a severe form of Hirschsprung disease (total colonic aganglionosis).
118 use developmental defects in humans, such as Hirschsprung disease, velocardiofacial syndrome and rela
120 the potential for autologous transplants in Hirschsprung disease, we observed that Endothelin recept
121 applying our method to simulated data and to Hirschsprung disease, we show that it can detect both co
124 example, leads to intestinal aganglionosis (Hirschsprung disease), whereas overactive RET can lead t
125 -function mutations in RET are implicated in Hirschsprung disease, whereas activating mutations in RE
127 well as the RET G731del mutation that causes Hirschsprung disease with total colonic aganglionosis, r