grant

Project 1 - Cardiometabolic Injury due to VOCs

Organization UNIVERSITY OF LOUISVILLELocation LOUISVILLE, UNITED STATESPosted 1 Sept 2017Deadline 30 Jun 2027
NIHUS FederalResearch GrantFY20252-PropenalASCVDAccelerationAcraldehydeAcroleinAcrylaldehydeAcrylic AldehydeAffectAirAllyl AldehydeAnimalsAreaAtherosclerosisAtherosclerotic Cardiovascular DiseaseBenzeneBenzolBenzoleBile AcidsBiological MarkersBlood PlasmaBlood PlateletsBlood PressureBlood SerumBlood VesselsBlood monocyteButadieneCancer Causing AgentsCarcinogensCardiometabolic DiseaseCardiometabolic DisorderCardiovascularCardiovascular Body SystemCardiovascular DiseasesCardiovascular Organ SystemCardiovascular systemCessation of lifeChemicalsChronicCollaborationsCommunitiesCountyCyclohexatrieneDataData Management and Analysis CoreData Management and Statistical Analysis CoreData Management and Statistical CoreDeathDevelopmentDiabetes MellitusDisease ProgressionDoseDysfunctionEnvironmental ExposureEnzyme GeneEnzymesEthinyl TrichlorideEthylene AldehydeEventExposure toFarmFormaldehydeFormic AldehydeFunctional disorderGoalsHazardous ChemicalsHealthHeart VascularHepaticHepatic CellsHepatic DisorderHepatic Parenchymal CellHepatocyteHepatotoxic effectHepatotoxicityHospital AdmissionHospital MortalityHospitalizationHumanHydrogen OxideIn-house MortalitiesIndividualInhospital MortalityInjuryInsulin ResistanceIntermediary MetabolismKentuckyKeratinLipidsLiquid substanceLiverLiver CellsLiver ToxicityLiver diseasesLiver lesion biopsyLocationMarrow monocyteMarrow plateletMeasurementMeasuresMetabolic DiseasesMetabolic DisorderMetabolic ProcessesMetabolismMethyl AldehydeMicroRNAsModelingModern ManMonitorNeighborhoodsOncogensOxomethaneParticipantPhysiopathologyPlasmaPlasma SerumPlateletsPopulationProcessProgenitor CellsReticuloendothelial System, Serum, PlasmaRiskSerologySerumSteatohepatitisSuperfundTarget PopulationsTestingThesaurismosisThrombocytesTolueneToxic effect on liver cellsTrichloroetheneTrichloroethyleneVariantVariationVascular DiseasesVascular DisorderWaterWorkXyleneacryaldehydearterial stiffeningarterial stiffnessartery stiffeningartery stiffnessatheromatosisatherosclerotic diseaseatherosclerotic vascular diseaseattributable riskbio-markersbiologic markerbiomarkerblood glucose regulationblood pressure elevationblood vessel disordercarcinogenicitycardiometaboliccardiometabolic riskcardiometabolismcardiovascular disease riskcardiovascular disordercardiovascular disorder riskcirculating biomarkerscirculating markerscirculatory systemcohortdevelopmentaldiabetesdiabetes riskdisease riskdisorder riskelevated blood pressureexposed human populationfatty liver diseasefluidglucose controlglucose homeostasisglucose regulationhepatic body systemhepatic diseasehepatic organ systemhepatic toxicityhepatopathyhepatoxicityhuman exposureincrease in blood pressureincreased blood pressureindexinginjuriesinjury to the vasculatureinsulin resistantinsulin toleranceland uselandfillliquidliver biopsyliver disordermetabolism disordermethyl-benzenemiRNAmonocytemortalityoncogenic agentparticlepathophysiologyprimary end pointprimary endpointresponsestem cellssuperfund sitetoxicanttrichloro-etheneurinaryvascularvascular dysfunctionvascular injuryvasculopathyvolatile organic chemicalvolatile organic compoundwaste water based monitoringwaste water monitoringwastewater based monitoringwastewater monitoring
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Full Description

PROJECT SUMMARY
The overall goal of this project is to assess the impact of exposure to Superfund-relevant volatile

organic compounds (VOCs) on cardiometabolic disease, the underlying conditions that

contributes to diabetes, cardiovascular and liver diseases. VOCs such as trichloroethylene,

benzene, acrolein, formaldehyde, xylene and butadiene are major chemicals of concern at most

Superfund sites and extensive previous work suggests the exposure to VOC could have a variety

of adverse health effects. Nevertheless, whether exposure to VOCs at levels relevant to

neighborhood adjacent to Superfund sites could adversely affect cardiometabolic health remains

unknown. Our extensive studies with animal exposed to different VOCs suggest that chronic

exposure to low dose VOCs could increase blood pressure, inflict vascular injury, accelerate

atherosclerosis, and induce liver disease. Nevertheless, the cardiometabolic risk of VOCs has

not been evaluated and longitudinal data to interrogate exposure-response relationships are

missing. Hence, to assess CMD risk imposed by VOCs, we will test the hypothesis that exposure

to VOCs exacerbates/induces vascular and hepatic dysfunction leading to a cascade of events

that increase CMD risk. To assess the impact of VOC exposures, we will examine 1200 residents

of Jefferson County, including those who live in areas adjacent to Superfund sites such as Lee’s

Lane and Distiller Farm, as well as high VOC emission, such as the Rubbertown neighborhood.

In each participant, we will assess CMD risk by measuring arterial stiffness, marker of hepatocyte

death, as well as suite of biomarkers indicative of risk for diabetes, cardiovascular and liver

diseases. To determine population-level VOC exposure and its relationship with CMD-related

hospital admissions and mortality, we will establish a network of VOC monitors to measure VOC

levels throughout Jefferson County and monitor domestic wastewater for urinary VOC

metabolites. We will monitor wastewater every other month for 3 years, and assess the extent to

which population-level exposure estimates reflect ambient air VOC levels and individual-level

exposure (Aim 1), and how these estimates relate to population-level and individual-level CMD

risk. To obtain longitudinal data, we will examine CMD progression and determine the

association between individual-level and community-level VOC exposures with vascular and

hepatic function and other indices of cardiometabolic risk. This will help us in assessing how VOC

exposure and/or residential proximity to Superfund sites affects the risk of CMD and this

excessive risk differs from that imposed by background VOC exposures in urban neighborhood.

We expect that completion of this project will lead to the development of quantitative risk models

and rigorous estimates of the additional CMD risk attributable to residential VOC exposures.

Grant Number: 4P42ES023716-09
NIH Institute/Center: NIH

Principal Investigator: Aruni Bhatnagar

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