Polymorphisms in genes of respiratory control and sudden infant death syndrome
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Abstract
Sudden infant death syndrome (SIDS) is a multifactorial syndrome and assumingly, among other mechanisms, a deficit in respiratory control leads to a failure of arousal and autoresuscitation when the child is challenged by a stressful homeostatic event, e.g., hypoxia. We hypothesize that genetic polymorphisms involved in respiratory control mediated in the medulla oblongata contribute to SIDS. Therefore, a total of 366 SIDS cases and 421 controls were genotyped for 48 SNPs in 41 candidate genes. Genotyping was performed using Fluidigm nanofluidic technology. Results were obtained for 356 SIDS and 406 controls and 38 SNPs. After correction for multiple testing, one SNP retained a nominally significant association with seasonal SIDS: rs1801030 in the phenol sulfotransferase 1A1 gene (subgroup: death occurring during summer). A borderline association could be also observed for rs563649 in the opioid receptor μ1 gene in a recessive model (subgroup: death occurring during autumn). As a conclusion, although these data suggest two SNPs to be associated with different subgroups of SIDS cases, none of them can fully explain the SIDS condition, consistent with its multifactorial etiology. Given the great complexity of respiratory control and our initial findings reported here, we believe it is worthwhile to further investigate genes involved in the respiratory system.
Keywords
SIDS Respiratory control Gene association study Sulfotransferase 1A1 Opioid receptor μ1Notes
Acknowledgments
The authors would like to thank all persons who provided samples, especially Prof. K.-S. Saternus, Göttingen, as well as Doris Engmann, Claudia Schütz, and Peter Schürmann for excellent technical support. Moreover, they would like to thank K. Eagle, Katy, TX, USA, for the suggestion to include SULT1A1 into the analysis.
Supplementary material
References
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