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1.
J Pediatr ; 183: 170-177.e1, 2017 04.
Artigo em Inglês | MEDLINE | ID: mdl-28139241

RESUMO

OBJECTIVE: To describe the clinical, biochemical, and genetic features of patients with congenital disorders of glycosylation (CDG) identified in Spain during the last 20 years. STUDY DESIGN: Patients were selected among those presenting with multisystem disease of unknown etiology. The isoforms of transferrin and of ApoC3 and dolichols were analyzed in serum; phosphomannomutase and mannosephosphate isomerase activities were measured in fibroblasts. Conventional or massive parallel sequencing (customized panel or Illumina Clinical-Exome Sequencing TruSight One Gene Panel) was used to identify genes and mutations. RESULTS: Ninety-seven patients were diagnosed with 18 different CDG. Eighty-nine patients had a type 1 transferrin profile; 8 patients had a type 2 transferrin profile, with 6 of them showing an alteration in the ApoC3 isoform profile. A total of 75% of the patients had PMM2-CDG presenting with a heterogeneous mutational spectrum. The remaining patients showed mutations in any of the following genes: MPI, PGM1, GFPT1, SRD5A3, DOLK, DPGAT1, ALG1, ALG6, RFT1, SSR4, B4GALT1, DPM1, COG6, COG7, COG8, ATP6V0A2, and CCDC115. CONCLUSION: Based on literature and on this population-based study of CDG, a comprehensive scheme including reported clinical signs of CDG is offered, which will hopefully reduce the timeframe from clinical suspicion to genetic confirmation. The different defects of CDG identified in Spain have contributed to expand the knowledge of CDG worldwide. A predominance of PMM2 deficiency was detected, with 5 novel PMM2 mutations being described.


Assuntos
Acetiltransferases/metabolismo , Apolipoproteínas C/metabolismo , Defeitos Congênitos da Glicosilação/diagnóstico , Defeitos Congênitos da Glicosilação/epidemiologia , Acetiltransferases/genética , Apolipoproteínas C/genética , Estudos de Coortes , Bases de Dados Factuais , Feminino , Marcadores Genéticos , Predisposição Genética para Doença , Testes Genéticos/métodos , Humanos , Incidência , Recém-Nascido , Masculino , Mutação , Estudos Retrospectivos , Medição de Risco , Espanha/epidemiologia
2.
J. inborn errors metab. screen ; 5: e160063, 2017. graf
Artigo em Inglês | LILACS-Express | LILACS | ID: biblio-1090938

RESUMO

Abstract Currently, there is a paucity of available treatment strategies for oxidative phosphorylation disorders. Coenzyme Q10 (CoQ10) and related synthetic quinones are the only agents to date that have proven to be beneficial in the treatment of these heterogeneous disorders. The therapeutic efficacy of CoQ10 is not restricted to patients with an underlying CoQ10 deficiency and is thought to result from its ability to restore electron flow in the mitochondrial respiratory chain (MRC) as well as to increase the cellular antioxidant capacity. At present, however, there is no consensus on the appropriate dosage or therapeutic plasma level of CoQ10, and this information will be required before CoQ10 can be utilized effectively in the treatment of mitochondrial disease. The following review will outline our current knowledge on the use of CoQ10 in the treatment of MRC disorders and primary CoQ10 deficiencies.

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