Literature DB >> 19300444

Complex pathogenesis of Hirschsprung's disease in a patient with hydrocephalus, vesico-ureteral reflux and a balanced translocation t(3;17)(p12;q11).

Paola Griseri1, Yvonne Vos, Roberto Giorda, Stefania Gimelli, Silvana Beri, Giuseppe Santamaria, Guendalina Mognato, Robert M W Hofstra, Giorgio Gimelli, Isabella Ceccherini.   

Abstract

Hirschsprung's disease (HSCR), a congenital complex disorder of intestinal innervation, is often associated with other inherited syndromes. Identifying genes involved in syndromic HSCR cases will not only help understanding the specific underlying diseases, but it will also give an insight into the development of the most frequent isolated HSCR. The association between hydrocephalus and HSCR is not surprising as a large number of patients have been reported to show the same clinical association, most of them showing mutations in the L1CAM gene, encoding a neural adhesion molecule often involved in isolated X-linked hydrocephalus. L1 defects are believed to be necessary but not sufficient for the occurrence of the intestinal phenotype in syndromic cases. In this paper, we have carried out the molecular characterization of a patient affected with Hirschsprung's disease and X-linked hydrocephalus, with a de novo reciprocal balanced translocation t(3;17)(p12;q21). In particular, we have taken advantage of this chromosomal defect to gain access to the predisposing background possibly leading to Hirschsprung's disease. Detailed analysis of the RET and L1CAM genes, and molecular characterization of MYO18A and TIAF1, the genes involved in the balanced translocation, allowed us to identify, besides the L1 mutation c.2265delC, different additional factors related to RET-dependent and -independent pathways which may have contributed to the genesis of enteric phenotype in the present patient.

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Year:  2008        PMID: 19300444      PMCID: PMC2986215          DOI: 10.1038/ejhg.2008.191

Source DB:  PubMed          Journal:  Eur J Hum Genet        ISSN: 1018-4813            Impact factor:   4.246


  24 in total

1.  Expression profiling the developing mammalian enteric nervous system identifies marker and candidate Hirschsprung disease genes.

Authors:  Tiffany A Heanue; Vassilis Pachnis
Journal:  Proc Natl Acad Sci U S A       Date:  2006-04-21       Impact factor: 11.205

2.  Identification of the surfactant protein A receptor 210 as the unconventional myosin 18A.

Authors:  Ching-Hui Yang; Jacek Szeliga; Jeremy Jordan; Shawn Faske; Zvjezdana Sever-Chroneos; Bre Dorsett; Robert E Christian; Robert E Settlage; Jeffrey Shabanowitz; Donald F Hunt; Jeffrey A Whitsett; Zissis C Chroneos
Journal:  J Biol Chem       Date:  2005-08-08       Impact factor: 5.157

Review 3.  Molecular mechanisms of RET-induced Hirschsprung pathogenesis.

Authors:  Francesca Lantieri; Paola Griseri; Isabella Ceccherini
Journal:  Ann Med       Date:  2006       Impact factor: 4.709

4.  Homozygous nonsense mutations in KIAA1279 are associated with malformations of the central and enteric nervous systems.

Authors:  Alice S Brooks; Aida M Bertoli-Avella; Grzegorz M Burzynski; Guido J Breedveld; Jan Osinga; Ludolf G Boven; Jane A Hurst; Grazia M S Mancini; Maarten H Lequin; Rene F de Coo; Ivana Matera; Esther de Graaff; Carel Meijers; Patrick J Willems; Dick Tibboel; Ben A Oostra; Robert M W Hofstra
Journal:  Am J Hum Genet       Date:  2005-05-09       Impact factor: 11.025

5.  Critical and distinct roles for key RET tyrosine docking sites in renal development.

Authors:  Sanjay Jain; Mario Encinas; Eugene M Johnson; Jeffrey Milbrandt
Journal:  Genes Dev       Date:  2006-02-01       Impact factor: 11.361

6.  The cell adhesion molecule l1 is required for chain migration of neural crest cells in the developing mouse gut.

Authors:  Richard B Anderson; Kirsty N Turner; Alexander G Nikonenko; John Hemperly; Melitta Schachner; Heather M Young
Journal:  Gastroenterology       Date:  2006-04       Impact factor: 22.682

7.  Genetic control of VEGF and TGF-beta1 gene polymorphisms in childhood urinary tract infection and vesicoureteral reflux.

Authors:  Hyung Eun Yim; In Sun Bae; Kee Hwan Yoo; Young Sook Hong; Joo Won Lee
Journal:  Pediatr Res       Date:  2007-08       Impact factor: 3.756

Review 8.  The contribution of associated congenital anomalies in understanding Hirschsprung's disease.

Authors:  S W Moore
Journal:  Pediatr Surg Int       Date:  2006-03-04       Impact factor: 1.827

9.  Haplotypes of the human RET proto-oncogene associated with Hirschsprung disease in the Italian population derive from a single ancestral combination of alleles.

Authors:  F Lantieri; P Griseri; F Puppo; R Campus; G Martucciello; R Ravazzolo; M Devoto; I Ceccherini
Journal:  Ann Hum Genet       Date:  2006-01       Impact factor: 1.670

10.  Epistatic interactions with a common hypomorphic RET allele in syndromic Hirschsprung disease.

Authors:  L de Pontual; A Pelet; M Clement-Ziza; D Trochet; S E Antonarakis; T Attie-Bitach; P L Beales; J-L Blouin; F Dastot-Le Moal; H Dollfus; M Goossens; N Katsanis; R Touraine; J Feingold; A Munnich; S Lyonnet; J Amiel
Journal:  Hum Mutat       Date:  2007-08       Impact factor: 4.878

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  6 in total

Review 1.  L1CAM malfunction in the nervous system and human carcinomas.

Authors:  Michael K E Schäfer; Peter Altevogt
Journal:  Cell Mol Life Sci       Date:  2010-03-17       Impact factor: 9.261

2.  TGF-β induces TIAF1 self-aggregation via type II receptor-independent signaling that leads to generation of amyloid β plaques in Alzheimer's disease.

Authors:  M-H Lee; S-R Lin; J-Y Chang; L Schultz; J Heath; L-J Hsu; Y-M Kuo; Q Hong; M-F Chiang; C-X Gong; C-I Sze; N-S Chang
Journal:  Cell Death Dis       Date:  2010-12-23       Impact factor: 8.469

3.  Novel association of severe neonatal encephalopathy and Hirschsprung disease in a male with a duplication at the Xq28 region.

Authors:  Raquel M Fernández; Rocío Núñez-Torres; Antonio González-Meneses; Guillermo Antiñolo; Salud Borrego
Journal:  BMC Med Genet       Date:  2010-09-22       Impact factor: 2.103

Review 4.  Hirschsprung's disease: clinical dysmorphology, genes, micro-RNAs, and future perspectives.

Authors:  Consolato Maria Sergi; Oana Caluseriu; Hunter McColl; David D Eisenstat
Journal:  Pediatr Res       Date:  2016-09-28       Impact factor: 3.756

5.  TIAF1 self-aggregation in peritumor capsule formation, spontaneous activation of SMAD-responsive promoter in p53-deficient environment, and cell death.

Authors:  J-Y Chang; M-F Chiang; S-R Lin; M-H Lee; H He; P-Y Chou; S-J Chen; Y-A Chen; L-Y Yang; F-J Lai; C-C Hsieh; T-H Hsieh; H-M Sheu; C-I Sze; N-S Chang
Journal:  Cell Death Dis       Date:  2012-04-26       Impact factor: 8.469

6.  Self-aggregating TIAF1 in lung cancer progression.

Authors:  Qunying Hong; Li-Jin Hsu; Pei-Yi Chou; Ying-Tsen Chou; Chen-Yu Lu; Yu-An Chen; Nan-Shan Chang
Journal:  Transl Respir Med       Date:  2013-02-28
  6 in total

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