The community engagement core aims to reduce health risks of residents in Maine who rely on domestic wells for water supply and who are exposed to arsenic, and other contaminants (Rn, U and Mn). The population relying on domestic wells in New England is subject to lifetime risks for lung and bladder cancers at a staggering 125 in 1 million, ranked second only to that of western states at 152 in 1 million. This risk is likely an underestimate because newer and more data from Maine and New Hampshire have found both higher As concentrations and a higher percentage of wells tested. In 17 towns of central Maine, the Columbia team has found that the percentage of domestic wells exceeding EPA MCL levels for As, Rn, U and Mn are 31%, 29%, 4% and 4%, respectively. Eight percent of well waters have As and Rn both exceeding MCLs. Arsenic testing and treatment will be promoted in this central Maine community before up scaling iin the state of Maine. Our goal is to establish a community engagement working model applicable for risk reduction of domestic well users in New England region, with the following specific aims:
Aim 1. Identify and engage community stakeholders. In year one, a community advisory committee will be formed to guide implementation.
Aim 2. Determine and reduce barriers for testing. By year five, the percentage of residents with private wells in central Maine who have their well water tested for arsenic will double compared to baseline.
Aim 3. Determine whether dissemination of well water As test results has influenced the homeowner's decision to treat for As and determine and reduce barriers for treatment. By year five. The percentage of residents with private wells in central Maine who treat their well water for arsenic will double Aim 4. Raise awareness in the communities of other hazards in their well water: Rn, U and Man. Deliverable: Innovative community participatory tools for delivering outreach to change the behavior of residents of Maine (and beyond) at risk from arsenic exposure will be developed, tested, implemented and evaluated.

Public Health Relevance

The community participatory tools will likely go beyond risk communication to include social norms. They are easily adaptable for use by other Northeastern states with similar arsenic issues, and is also partly translatable to other well water contaminants (e.g. radon, uranium and manganese) that are naturally occurring.

Agency
National Institute of Health (NIH)
Institute
National Institute of Environmental Health Sciences (NIEHS)
Type
Hazardous Substances Basic Research Grants Program (NIEHS) (P42)
Project #
5P42ES010349-12
Application #
8461594
Study Section
Special Emphasis Panel (ZES1-JAB-J)
Project Start
Project End
Budget Start
2013-04-01
Budget End
2014-03-31
Support Year
12
Fiscal Year
2013
Total Cost
$88,968
Indirect Cost
$14,406
Name
Columbia University (N.Y.)
Department
Type
DUNS #
621889815
City
New York
State
NY
Country
United States
Zip Code
10032
Niedzwiecki, Megan M; Liu, Xinhua; Zhu, Huiping et al. (2018) Serum homocysteine, arsenic methylation, and arsenic-induced skin lesion incidence in Bangladesh: A one-carbon metabolism candidate gene study. Environ Int 113:133-142
Shoenfelt, Elizabeth M; Winckler, Gisela; Lamy, Frank et al. (2018) Highly bioavailable dust-borne iron delivered to the Southern Ocean during glacial periods. Proc Natl Acad Sci U S A 115:11180-11185
Haque, Ezazul; Mailloux, Brian J; de Wolff, Daisy et al. (2018) Quantitative drinking water arsenic concentrations in field environments using mobile phone photometry of field kits. Sci Total Environ 618:579-585
Wasserman, Gail A; Liu, Xinhua; Parvez, Faruque et al. (2018) A cross-sectional study of water arsenic exposure and intellectual function in adolescence in Araihazar, Bangladesh. Environ Int 118:304-313
Sun, Jing; Mailloux, Brian J; Chillrud, Steven N et al. (2018) Simultaneously Quantifying Ferrihydrite and Goethite in Natural Sediments Using the Method of Standard Additions with X-ray Absorption Spectroscopy. Chem Geol 476:248-259
Argos, Maria; Tong, Lin; Roy, Shantanu et al. (2018) Screening for gene-environment (G×E) interaction using omics data from exposed individuals: an application to gene-arsenic interaction. Mamm Genome 29:101-111
Wu, Fen; Chi, Liang; Ru, Hongyu et al. (2018) Arsenic Exposure from Drinking Water and Urinary Metabolomics: Associations and Long-Term Reproducibility in Bangladesh Adults. Environ Health Perspect 126:017005
Sanchez, Tiffany R; Powers, Martha; Perzanowski, Matthew et al. (2018) A Meta-analysis of Arsenic Exposure and Lung Function: Is There Evidence of Restrictive or Obstructive Lung Disease? Curr Environ Health Rep 5:244-254
Farzan, Shohreh F; Howe, Caitlin G; Chen, Yu et al. (2018) Prenatal lead exposure and elevated blood pressure in children. Environ Int 121:1289-1296
Sanchez, Tiffany R; Slavkovich, Vesna; LoIacono, Nancy et al. (2018) Urinary metals and metal mixtures in Bangladesh: Exploring environmental sources in the Health Effects of Arsenic Longitudinal Study (HEALS). Environ Int 121:852-860

Showing the most recent 10 out of 333 publications