Literature DB >> 7783169

Absence of linkage between familial neural tube defects and PAX3 gene.

S Chatkupt1, F A Hol, Y Y Shugart, M P Geurds, E S Stenroos, M R Koenigsberger, B C Hamel, W G Johnson, E C Mariman.   

Abstract

Neural tube defects (NTD) are among the most common and disabling birth defects. The aetiology of NTD is unknown and their genetics are complex. The majority of NTD cases are sporadic, isolated, nonsyndromic, and generally considered to be multifactorial in origin. Recently, PAX3 (formerly HuP2, the human homologue of mouse Pax-3), on chromosome 2q35-37, was suggested as a candidate gene for NTD because mutations of Pax-3 cause the mouse mutant Splotch (Sp), an animal model for human NTD. Mutations in PAX3 were also identified in patients with Waardenburg syndrome type 1 (WS1). At least eight patients with both WS1 and NTD have been described suggesting pleiotropy or a contiguous gene syndrome. Seventeen US families and 14 Dutch families with more than one affected person with NTD were collected and 194 people (50 affected) from both data sets were genotyped using the PAX3 polymorphic marker. The data were analysed using affecteds only linkage analysis. The lod scores were -7.30 (US), -3.74 (Dutch), and -11.04 (combined) at theta = 0.0, under the assumption of the autosomal dominant model. For the recessive model, the lod scores were -3.30 (US), -1.46 (Dutch), and -4.76 (combined) at theta = 0.0. Linkage between PAX3 and familial NTD was excluded to 9.9 cM on either side of the gene for the dominant model and to 3.63 cM on either side of the gene for the recessive model in the families studied. No evidence of heterogeneity was detected using the HOMOG program. Our data indicate that PAX3 is not a major gene for NTD.

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Year:  1995        PMID: 7783169      PMCID: PMC1050317          DOI: 10.1136/jmg.32.3.200

Source DB:  PubMed          Journal:  J Med Genet        ISSN: 0022-2593            Impact factor:   6.318


  38 in total

1.  Brief clinical report: neural tube defects as an X-linked condition.

Authors:  M Baraitser; J Burn
Journal:  Am J Med Genet       Date:  1984-01

2.  Spinal anomalies and neural tube defects.

Authors:  L E Sever
Journal:  Am J Med Genet       Date:  1983-06

3.  Report of a third kindred with X-linked anencephaly/spina bifida.

Authors:  H V Toriello
Journal:  Am J Med Genet       Date:  1984-10

4.  Spinal dysraphism: genetic relation to neural tube malformations.

Authors:  C O Carter; K A Evans; K Till
Journal:  J Med Genet       Date:  1976-10       Impact factor: 6.318

5.  Neural tube defects in France: segregation analysis.

Authors:  F Demenais; M Le Merrer; M L Briard; R C Elston
Journal:  Am J Med Genet       Date:  1982-03

6.  Possible causal heterogeneity in spina bifida cystica.

Authors:  H V Toriello; J V Higgins
Journal:  Am J Med Genet       Date:  1985-05

7.  X-linked midline defects.

Authors:  H V Toriello; J V Higgins
Journal:  Am J Med Genet       Date:  1985-05

8.  Spinal dysraphia as an autosomal dominant defect in four families.

Authors:  R M Fineman; L B Jorde; R A Martin; S J Hasstedt; S D Wing; M L Walker
Journal:  Am J Med Genet       Date:  1982-08

9.  A five-generation family with sacral agenesis and spina bifida: possible similarities with the mouse T-locus.

Authors:  M Fellous; J Boué; C Malbrunot; E Wollman; M Sasportes; N Van Cong; A Marcelli; R Rebourcet; C Hubert; F Demenais; R C Elston; K K Namboodiri; E B Kaplan; M Fellous
Journal:  Am J Med Genet       Date:  1982-08

10.  A family study of spina bifida and anencephalus in Belfast, Northern Ireland (1964 to 1968).

Authors:  N C Nevin; W P Johnston
Journal:  J Med Genet       Date:  1980-06       Impact factor: 6.318

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  5 in total

1.  Effects of methionine on the cytoplasmic distribution of actin and tubulin during neural tube closure in rat embryos.

Authors:  S R Moephuli; N W Klein; M T Baldwin; H M Krider
Journal:  Proc Natl Acad Sci U S A       Date:  1997-01-21       Impact factor: 11.205

2.  Whole genomewide linkage screen for neural tube defects reveals regions of interest on chromosomes 7 and 10.

Authors:  E Rampersaud; A G Bassuk; D S Enterline; T M George; D G Siegel; E C Melvin; J Aben; J Allen; A Aylsworth; T Brei; J Bodurtha; C Buran; L E Floyd; P Hammock; B Iskandar; J Ito; J A Kessler; N Lasarsky; P Mack; J Mackey; D McLone; E Meeropol; L Mehltretter; L E Mitchell; W J Oakes; J S Nye; C Powell; K Sawin; R Stevenson; M Walker; S G West; G Worley; J R Gilbert; M C Speer
Journal:  J Med Genet       Date:  2005-04-14       Impact factor: 6.318

3.  PAX genes and human neural tube defects: an amino acid substitution in PAX1 in a patient with spina bifida.

Authors:  F A Hol; M P Geurds; S Chatkupt; Y Y Shugart; R Balling; C T Schrander-Stumpel; W G Johnson; B C Hamel; E C Mariman
Journal:  J Med Genet       Date:  1996-08       Impact factor: 6.318

4.  Exon sequencing of PAX3 and T (brachyury) in cases with spina bifida.

Authors:  A J Agopian; Angela D Bhalla; Eric Boerwinkle; Richard H Finnell; Megan L Grove; James E Hixson; Lawrence C Shimmin; Anshuman Sewda; Colin Stuart; Yu Zhong; Huiping Zhu; Laura E Mitchell
Journal:  Birth Defects Res A Clin Mol Teratol       Date:  2013-08-02

Review 5.  Spina Bifida: Pathogenesis, Mechanisms, and Genes in Mice and Humans.

Authors:  Siti W Mohd-Zin; Ahmed I Marwan; Mohamad K Abou Chaar; Azlina Ahmad-Annuar; Noraishah M Abdul-Aziz
Journal:  Scientifica (Cairo)       Date:  2017-02-13
  5 in total

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