grant

Dissecting the cellular interplays of adipose tissue remodeling in the regulation of insulin sensitivity

Organization UNIVERSITY OF CALIFORNIA, SAN FRANCISCOLocation SAN FRANCISCO, UNITED STATESPosted 1 Aug 2022Deadline 31 Jul 2027
NIHUS FederalResearch GrantFY2025Activities of Daily LivingActivities of everyday lifeAddressAdipocytesAdipose CellAdipose tissueAdult-Onset Diabetes MellitusAutomobile DrivingBEN geneBEN proteinBMIBMI percentileBMI z-scoreBasic ResearchBasic ScienceBiologyBody WeightBody fatBody mass indexBone-Derived Transforming Growth FactorCD81CD81 geneCareer Development AwardsCareer Development Awards and ProgramsCareer Development Programs K-SeriesCell CountCell NumberCell surfaceClinicalComplementComplement ProteinsComputational BiologyCoupledD-GlucoseDNA Molecular BiologyDataDedicationsDeteriorationDextroseDiabetes MellitusDiseaseDisorderDysfunctionEast AsianEndocrine Gland SecretionEnergy ExpenditureEnergy MetabolismEnsureEnvironmentEquilibriumEthnic GroupEthnic OriginEthnic PeopleEthnic PopulationEthnic individualEthnicityEthnicity PeopleEthnicity PopulationExpression SignatureFacultyFat CellsFatsFatty TissueFatty acid glycerol estersFibrosisFrequenciesFunctional disorderFundingGTF2I Repeat Domain-Containing Protein 1GTF2IRD1GTF2IRD1 geneGTF3GWA studyGWASGenderGene Expression ProfileGene TranscriptionGeneral Transcription Factor II-I Repeat Domain-Containing Protein 1General Transcription Factor IIIGeneralized GrowthGenesGeneticGenetic DiversityGenetic ModelsGenetic TranscriptionGenetic VariationGlucoseGoalsGrowthHealthHeat ProductionHormonesHumanHyperplasiaHyperplasticHypertrophyImpairmentInbred MouseInbred Strains MiceIndividualInflammationInsulin ResistanceIntra-abdominalInvestigatorsK-AwardsK-Series Research Career ProgramsKetosis-Resistant Diabetes MellitusKnowledgeLearningLinkLipocytesMUSTRD1Mature LipocyteMature fat cellMaturity-Onset Diabetes MellitusMediatorMentorsMetabolicMiceMice MammalsMilk Growth FactorModelingModern ManMolecularMolecular BiologyMolecular ProbesMorbidityMorbidity - disease rateMurineMusMuscle TFII-I Repeat Domain-Containing Protein 1NIDDMNon-Insulin Dependent DiabetesNon-Insulin-Dependent Diabetes MellitusNoninsulin Dependent DiabetesNoninsulin Dependent Diabetes MellitusNutritionObesityParticipantPathway interactionsPatternPersonalized medical approachPersonsPhenotypePhysiciansPhysiopathologyPlatelet Transforming Growth FactorPopulationProcessProductionProgenitor CellsQuetelet indexRNA ExpressionRaceRacesRacial GroupRecombinantsResearchResearch Career ProgramResearch PersonnelResearch ResourcesResearchersResourcesRisk MarkerRoleScientistSeriesSlow-Onset Diabetes MellitusStable Diabetes MellitusSystemT2 DMT2DT2DMTAPA-1TAPA1TGF BTGF-betaTGF-βTGFbetaTGFβTSPAN28Therapeutic HormoneThermogenesisTimeTissue BanksTissue CollectionTissue ExpansionTissue GrowthTissue repositoryTrainingTranscriptionTranscriptional ControlTranscriptional RegulationTransforming Growth Factor betaTransforming Growth Factor-Beta Family GeneTranslational ResearchTranslational ScienceTranslationsType 2 Diabetes MellitusType 2 diabetesType II Diabetes MellitusType II diabetesVisceralVisceral fatVulnerable PopulationsWBSCR11Workadipogenesisadiposeadiposityadult onset diabetesbalancebalance functionbinding Factor For Early Enhancerbio-informatics toolbioinformatics toolblood glucose regulationcareercareer developmentcell typeclinical relevanceclinically relevantco-morbidco-morbiditycofactorcohortcomorbiditycomplementationcomputer biologycorpulencedaily living functiondaily living functionalitydesigndesigningdiabetesdiabetes pathogenesisdiabetes riskdrivingethnic subgroupethnicity groupfallsfunctional abilityfunctional capacitygene expression patterngene expression signaturegenome wide associationgenome wide association scangenome wide association studygenomewide association scangenomewide association studyglobal gene expressionglobal transcription profileglucose controlglucose homeostasisglucose regulationhigh risk grouphigh risk individualhigh risk peoplehigh risk populationindividualized approachinnovateinnovationinnovativeinsulin regulationinsulin resistantinsulin sensitivityinsulin toleranceinterestketosis resistant diabeteslipid biosynthesislipogenesismaturity onset diabetesmembermetabolic phenotypemetabotypemortalitymouse modelmulti-ethnicmultiethnicmultiomicsmultiple omicsmurine modelold ageontogenypanomicspathophysiologypathwaypersonalized approachprecision approachprogenitor cell differentiationprogenitor differentiationracialracial backgroundracial diversityracial originracial populationracial subgroupracially diverserisk predictorrisk predictorsskillssocial rolestem and progenitor differentiationstem cell differentiationstem cellssubcutaneoussubdermaltailored approachtooltranscriptional profiletranscriptional signaturetranscriptometranslationtranslation researchtranslational investigationtype 2 DMtype II DMtype two diabetesvulnerable groupvulnerable individualvulnerable peoplewhite adipose tissuewhole genome association analysiswhole genome association studyyellow adipose tissue
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Full Description

PROJECT SUMMARY/ABSTRACT
This proposed career development award will provide Dr. Diana Alba MD with targeted mentored training

to ensure she develops into an independent researcher utilizing both experimental approaches and models, and

“omics” coupled with bioinformatic tools, to probe the mechanisms linking obesity to adipose tissue dysfunction

and diabetes. In certain individuals, adipose tissue is dysregulated in obesity, and this is an early mediator of

diabetes pathogenesis. However, precisely what underlies this dysfunction is not well-defined. Subcutaneous

white adipose tissue (sWAT) fibrosis is associated with insulin resistance, whereas the abundance of heat-

generating brown-like adipocytes in sWAT (“beiging”) is linked to metabolic health. The proposed research plan

aims to close key knowledge gaps regarding the reciprocal influences of sWAT fibrosis and beiging on insulin

sensitivity. To do so, the PI will take advantage of an innovative human cohort containing individuals with widely

divergent levels of both sWAT fibrosis and insulin sensitivity and use this resource to comprehensively probe

key cellular constituents and molecular pathways that shift sWAT away from being influenced by beige

adipocytes to developing fibrosis and insulin resistance. The PI aims to 1) identify transcriptional signatures

across cell types in the sWAT that coordinately modulate WAT fibrosis, body fat distribution, and glucose

homeostasis, 2) probe reciprocal influences of sWAT beige activity and fibrosis on insulin sensitivity via

transcriptional regulation, 3 ) use the BXD panel of recombinant inbred mice as an orthogonal genetic reference

to model divergent patterns of fat distribution and validate the mechanistic relevance of pathways and cell types

identified in the humans studies.

The proposed 5-year career development and training plan incorporates strategically designed didactic

learning, mentored practical training, and career advising to complement the PI’s expertise in ways that are critical

to completion of her research and career goals. The specific career development goals outlined in this

application include developing mechanistic expertise in 1) adipose tissue biology through hands-on molecular

and computational biology training; 2) metabolic assessment of mouse models; 3) the human translation of

adipose tissue biology including multi-omics and metabolic phenotyping. She will be training at UCSF, a world-

class center for basic and translational research and an excellent environment for physician-scientist training

with experts in all aspects of the proposed training. She will be closely mentored by Dr. Suneil Koliwad, an expert

in inflammation, nutrition, and glucose/energy metabolism, and Dr. Shingo Kajimura, an expert in adipogenesis

and beige fat. The long-term goal is to provide Dr. Alba with the skills required to become an independent, R01-

funded faculty member working to identify adipose tissue disease-relevant mechanisms and risk markers for

diabetes, particularly in high-risk populations, and elucidate targets to specifically mitigate insulin resistance.

Grant Number: 5K08DK124679-04
NIH Institute/Center: NIH

Principal Investigator: Diana Alba

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