Our research is divided into two broad categories:
Biomedical research projects
Our biomedical researchers are using interdisciplinary research and collaboration to explore the impacts that Superfund chemicals have on human health. We conduct research to improve the accuracy of risk assessments, reduce potential exposures to toxic chemicals, and protect human and ecological health. The biomedical research projects focus on four major classes of chemicals: chlorinated solvents, halogenated hydrocarbons, heavy metals, and polycyclic aromatic hydrocarbons (PAHs).
Our priorities are to:
- Develop biological markers that indicate when a person has been exposed to a chemical;
- Improve our ability to evaluate risk from low-dose exposures;
- Apply new tools using a systems biology framework to understand the pathways of environmental disease and how chemicals can cause changes to our DNA;
- Understand how individuals differ in their susceptibility and risk, and how our genes play a role in the development of disease;
- Identify mechanisms of genotoxicity using advanced analytical tools in collaboration with the Chemistry and Analytical Core; and,
- Evaluate gene-environment interactions using advanced statistical and bioinformatics methods with the Biostatistics Core.
Non-biomedical research projects
Through highly integrated research, our non-biomedical investigators are developing tools to assess the level of contaminants in the environment and devising new ways to cleanup contamination. The center’s non-biomedical research focuses on evaluating complex microbial communities in bioremediation systems and quantifying the chronic exposure and bioavailability of toxic compounds in environmental systems.
Leader: Damian Shea
NC State University
Researchers in Dr. Shea’s laboratory are developing a universal passive sampling device to detect hundreds of chemicals in the environment and estimate chronic exposures.
Leader: Michael Aitken
Dr. Aitken and his team are evaluating factors that can influence the toxicity of soil during and after bioremediation and are working to identify which PAH-degrading bacteria are most likely to influence the removal of PAHs and reduce toxicity.
This program is supported by a grant from the National Institute of Environmental Health Sciences (#P42ES005948).