Literature DB >> 29193635

Inactivation of AMMECR1 is associated with growth, bone, and heart alterations.

Mariana Moysés-Oliveira1,2, Giuliana Giannuzzi2, Richard J Fish3, Jill A Rosenfeld4, Florence Petit5, Maria de Fatima Soares6, Leslie Domenici Kulikowski7, Adriana Di-Battista1, Malú Zamariolli1, Fan Xia4, Thomas Liehr8, Nadezda Kosyakova8, Gianna Carvalheira1, Michael Parker9, Eleanor G Seaby10, Sarah Ennis10, Rodney D Gilbert11, R Tanner Hagelstrom12, Maria L Cremona12, Wenhui L Li12, Alka Malhotra12, Anjana Chandrasekhar12, Denise L Perry12, Ryan J Taft12, Julie McCarrier13, Donald G Basel13, Joris Andrieux14, Taiza Stumpp15, Fernanda Antunes16, Gustavo José Pereira16, Marguerite Neerman-Arbez3, Vera Ayres Meloni1, Margaret Drummond-Borg17, Maria Isabel Melaragno1, Alexandre Reymond2.   

Abstract

We report five individuals with loss-of-function of the X-linked AMMECR1: a girl with a balanced X-autosome translocation and inactivation of the normal X-chromosome; two boys with maternally inherited and de novo nonsense variants; and two half-brothers with maternally inherited microdeletion variants. They present with short stature, cardiac and skeletal abnormalities, and hearing loss. Variants of unknown significance in AMMECR1 in four male patients from two families with partially overlapping phenotypes were previously reported. AMMECR1 is coexpressed with genes implicated in cell cycle regulation, five of which were previously associated with growth and bone alterations. Our knockdown of the zebrafish orthologous gene resulted in phenotypes reminiscent of patients' features. The increased transcript and encoded protein levels of AMMECR1L, an AMMECR1 paralog, in the t(X;9) patient's cells indicate a possible partial compensatory mechanism. AMMECR1 and AMMECR1L proteins dimerize and localize to the nucleus as suggested by their nucleic acid-binding RAGNYA folds. Our results suggest that AMMECR1 is potentially involved in cell cycle control and linked to a new syndrome with growth, bone, heart, and kidney alterations with or without elliptocytosis.
© 2017 Wiley Periodicals, Inc.

Entities:  

Keywords:  AMMECR1; X-linked disease; bone dysplasia; growth delay; heart alteration

Mesh:

Substances:

Year:  2017        PMID: 29193635     DOI: 10.1002/humu.23373

Source DB:  PubMed          Journal:  Hum Mutat        ISSN: 1059-7794            Impact factor:   4.878


  5 in total

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5.  Clinical Features in Patients with Xq23 Microdeletion: A Case Report and Literature Review

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  5 in total

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