grant

Causes and consequences of regulatory genetic variation

Organization UNIVERSITY OF MINNESOTALocation MINNEAPOLIS, UNITED STATESPosted 1 Aug 2017Deadline 31 Jul 2027
NIHUS FederalResearch GrantFY2025AddressAffectAutoimmune DiseasesBaker's YeastBiologic ModelsBiological ModelsBrewer's YeastCardiovascular DiseasesCell BodyCellsComplexComputational BiologyDNADNA SequenceDeoxyribonucleic AcidGene ExpressionGenesGeneticGenetic DiversityGenetic RiskGenetic VariationGenomeHealthHumanIndividualIndividual DifferencesKnowledgeLaboratoriesMessenger RNAMetabolic Protein DegradationModel SystemModern ManMolecularNatureNervous System DiseasesNervous System DisorderNeurologic DisordersNeurological DisordersPersonalized medical approachPhenotypeProtein TurnoverProteinsRegulatory Protein DegradationResearchRiskS cerevisiaeS. cerevisiaeSaccharomyces cerevisiaeShapesVariantVariationWorkYeastsautoimmune conditionautoimmune disorderautoimmunity diseasecardiovascular disordercomputer biologydisease riskdisorder riskfundamental researchgenetic predictorsgenome scalegenome-widegenomewidehuman diseaseimprovedindividualized approachmRNAneurological diseasepersonalized approachprecision approachprotein degradationtailored approachtrait
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Full Description

Project Summary / Abstract
Genetic variation among individuals shapes important phenotypes, including the risk for common human

diseases such as cardiovascular, autoimmune, and neurological disease. In particular, regulatory genetic

variation causes inter-individual differences in gene expression. The resulting gene expression differences

account for a substantial portion of variation in many genetically complex traits.

In spite of the critical importance of regulatory variation, many fundamental questions remain open. First,

most DNA differences in a given genome likely have no effect. The nature of the specific variants that do

have effects remains poorly understood. Second, genetic variation can specifically affect the protein

abundance of a given gene without altering the abundance of the mRNA of the same gene. The

mechanisms that are responsible for these protein-specific effects remain unclear. Third, we only have a

crude understanding of how the differences in gene expression that result from regulatory variation affect

organismal phenotypes.

Over the next five years, research in my laboratory will focus on addressing these critical gaps in

knowledge. Specifically, we seek to identify and characterize causal DNA variants, study the impact of

genetic variation on protein degradation, and examine quantitatively how the precise abundance of a given

gene can shape organismal traits. Our work combines computational biology, quantitative and statistical

genetics with experimental genome-wide approaches. We use the yeast Saccharomyces cerevisiae as a

powerful and tractable model system for regulatory variation, while pursuing related approaches in human

cells.

Our long-term vision is to improve our understanding of regulatory variation to the point at which it becomes

possible to accurately predict the consequences of the DNA variants in an individual’s genome. This ability

will be valuable for fundamental research and personalized approaches for improving human health.

Grant Number: 5R35GM124676-09
NIH Institute/Center: NIH

Principal Investigator: Frank Albert

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