Water Emergency Team (WET): Community-Driven Rapid Response Team to Evaluate Antibiotic-Resistant Bacteria Exposures and Household Environmental Health Risks from Sewer Overflows and Basement Flooding
Water Emergency Team (WET): Community-Driven Rapid Response Team to Evaluate Antibiotic-Resistant Bacteria Exposures and Household Environmental Health Risks from Sewer Overflows and Basement Flooding
批准号:
10686675
负责人:
Rachel E Goldstein
金额:
$134.53万
依托单位国家:
美国
项目类别:
财政年份:
2023
资助国家:
美国
项目状态:
未结题
起止时间:
2023-09-01 至 2026-06-30
关键词:
AddressAfrican AmericanAgingAreaBacterial Antibiotic ResistanceBacterial InfectionsBaltimoreBlack AmericanCessation of lifeChronicCitiesCollaborationsCommunitiesDataDiseaseEmergency SituationEnvironmental HealthEscherichia coliEventFloodsFrequenciesGovernment OfficialsHealthHealth PromotionHomeHouseholdInfrastructureInternationalInterviewLinkLocal GovernmentLow incomeMental HealthMethodsMinority GroupsPerceptionPilot ProjectsPovertyPrecipitationProtocols documentationPublic HealthReduce health disparitiesResearchResearch PriorityResourcesRiskSamplingSocial SciencesSourceStrategic PlanningSurfaceSurveysSwabTechniquesTimeTranslatingUnited States National Institutes of HealthVancomycin resistant enterococcusVancomycin-resistant S. aureusWaterclimate changecommunity organizationsempowermentexperiencehealth care settingsimprove minority healthinfection rateinfection riskinnovationinsightmembermethicillin resistant Staphylococcus aureusoutreachphysical conditioningpreventresponsesample collectionunderserved community
中文摘要
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英文摘要
Antibiotic-resistant (AR) bacterial infections are a growing threat causing approximately 35,000-48,000 U.S.
deaths per year. The AR bacteria, methicillin-resistant Staphylococcus aureus (MRSA) and vancomycin-
resistant Enterococci (VRE) are considered serious threats by CDC. Black and African American communities
experience disproportionately higher infection rates from AR bacteria, including MRSA (aRR, 2.78; 95% CI,
2.30–3.37) compared to whites. Traditionally associated with healthcare settings, several recent studies have
identified environmental sources of AR bacteria, such as wastewater. Due to aging sewer infrastructure and
increasing frequency of extreme precipitation from climate change, wastewater sometimes overflows into
homes and waterbodies untreated, called sanitary sewer overflow (SSOs). SSOs are a chronic, under-studied
public health threat that disproportionately impact low-income and minority populations in many U.S. and
international cities. AR bacterial infections have been linked to wastewater exposures, yet no studies
have evaluated the risk of these infections from SSOs nor the resultant household basement backups
(“backups”). Addressing the risk of AR bacterial infections from these events will have a major impact on
preventing disease and promoting health, an NIH research priority, and improving minority health and reducing
health disparities, a crosscutting theme in the NIH-wide 2021-2025 Strategic Plan. Our pilot study detected
MRSA and E. coli on 30% and 20% of surfaces in Baltimore homes impacted by SSOs or backups,
respectively. Yet, a major limitation to our pilot study was that our pre-planned sampling days did not align with
recent SSOs or basement backups. We propose to create a community-driven Water Emergency Team
(WET) to respond to SSOs and backups in Baltimore, MD homes as they occur. In Baltimore, 63% of
residents are Black or African American and 18.9% live in poverty. We will use innovative mixed method
approaches to: 1) Develop a rapid-response WET in collaboration with community organizations and local
leaders to collect environmental samples from SSOs and backups; 2) Analyze water and surface swab
samples for MRSA and VRE, comparing previous traditional techniques with new protocols; 3) Conduct
surveys and interviews with Baltimore residents to examine the impact of backups on their physical and mental
health, and perceptions of local government; 4) Translate research findings into innovative outreach materials
to empower community members and inform local government officials. Rapid responses and reduced time
between sample collection and results distribution will enable community members to mitigate contaminated
areas and access emergency resources more quickly. New insights on public health risks achieved from this
study can be applied widely, as ≥75,000 SSOs occur yearly across the U.S. Community-driven rapid-response
exposure assessments combined with social science data can create an effective approach to reducing AR
bacteria exposure in underserved communities facing disproportionately higher infection rates.
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