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Scherer, Nora ; Fässler, Daniel ; Borisov, Oleg ; Cheng, Yurong ; Schlosser, Pascal ; Wuttke, Matthias ; Haug, Stefan ; Li, Yong ; Telkämper, Fabian ; Patil, Suraj ; Meiselbach, Heike ; Wong, Casper ; Berger, Urs ; Sekula, Peggy ; Hoppmann, Anselm ; Schultheiss, Ulla T ; Mozaffari, Sahar ; Xi, Yannan ; Graham, Robert ; Schmidts, Miriam ; Köttgen, Michael ; Oefner, Peter J. ; Knauf, Felix ; Eckardt, Kai-Uwe ; Grünert, Sarah C ; Estrada, Karol ; Thiele, Ines ; Hertel, Johannes ; Köttgen, Anna

Coupling metabolomics and exome sequencing reveals graded effects of rare damaging heterozygous variants on gene function and human traits.

Scherer, Nora, Fässler, Daniel, Borisov, Oleg, Cheng, Yurong, Schlosser, Pascal, Wuttke, Matthias, Haug, Stefan, Li, Yong, Telkämper, Fabian, Patil, Suraj, Meiselbach, Heike, Wong, Casper, Berger, Urs, Sekula, Peggy, Hoppmann, Anselm, Schultheiss, Ulla T, Mozaffari, Sahar, Xi, Yannan, Graham, Robert, Schmidts, Miriam, Köttgen, Michael, Oefner, Peter J. , Knauf, Felix, Eckardt, Kai-Uwe, Grünert, Sarah C, Estrada, Karol, Thiele, Ines, Hertel, Johannes and Köttgen, Anna (2025) Coupling metabolomics and exome sequencing reveals graded effects of rare damaging heterozygous variants on gene function and human traits. Nature genetics 57, pp. 193-205.

Date of publication of this fulltext: 14 Apr 2025 06:05
Article
DOI to cite this document: 10.5283/epub.76564


Abstract

Genetic studies of the metabolome can uncover enzymatic and transport processes shaping human metabolism. Using rare variant aggregation testing based on whole-exome sequencing data to detect genes associated with levels of 1,294 plasma and 1,396 urine metabolites, we discovered 235 gene-metabolite associations, many previously unreported. Complementary approaches (genetic, computational (in ...

Genetic studies of the metabolome can uncover enzymatic and transport processes shaping human metabolism. Using rare variant aggregation testing based on whole-exome sequencing data to detect genes associated with levels of 1,294 plasma and 1,396 urine metabolites, we discovered 235 gene-metabolite associations, many previously unreported. Complementary approaches (genetic, computational (in silico gene knockouts in whole-body models of human metabolism) and one experimental proof of principle) provided orthogonal evidence that studies of rare, damaging variants in the heterozygous state permit inferences concordant with those from inborn errors of metabolism. Allelic series of functional variants in transporters responsible for transcellular sulfate reabsorption (SLC13A1, SLC26A1) exhibited graded effects on plasma sulfate and human height and pinpointed alleles associated with increased odds of diverse musculoskeletal traits and diseases in the population. This integrative approach can identify new players in incompletely characterized human metabolic reactions and reveal metabolic readouts informative of human traits and diseases.



Involved Institutions


Details

Item typeArticle
Journal or Publication TitleNature genetics
Publisher:Springer Nature
Volume:57
Page Range:pp. 193-205
Date2 January 2025
InstitutionsMedicine > Institut für Funktionelle Genomik > Lehrstuhl für Funktionelle Genomik (Prof. Oefner)
Identification Number
ValueType
10.1038/s41588-024-01965-7DOI
39747595PubMed ID
Classification
NotationType
HumansMESH
Metabolomics/methodsMESH
Exome SequencingMESH
HeterozygoteMESH
Exome/geneticsMESH
Metabolome/geneticsMESH
MaleMESH
FemaleMESH
Genetic VariationMESH
Sulfate Transporters/geneticsMESH
PhenotypeMESH
Metabolism, Inborn Errors/geneticsMESH
KeywordsEpidemiology, Genetic association study, Genetics research, Metabolomics, Population genetics
Dewey Decimal Classification600 Technology > 610 Medical sciences Medicine
StatusPublished
RefereedYes, this version has been refereed
Created at the University of RegensburgPartially
URN of the UB Regensburgurn:nbn:de:bvb:355-epub-765640
Item ID76564

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