Jefferey L Burgess

Jefferey L Burgess

Professor, Public Health
Adjunct Professor, Mining and Geological Engineering
Professor, BIO5 Institute
Member of the General Faculty
Member of the Graduate Faculty
Primary Department
Contact
(520) 626-4918

Research Interest

Jefferey L. Burgess, MD, MS, MPH is a Professor and Division Director of Community, Environment and Policy within the University of Arizona Mel and Enid Zuckerman College of Public Health. Dr. Burgess’ research focuses on improving occupational health and safety, with a special focus on firefighters, other public safety personnel and miners. Areas of current and past research include: reduction of occupational exposures, illnesses and injuries; respiratory toxicology; environmental arsenic exposure; and hazardous materials exposures including methamphetamine laboratories. In addition to multiple research grants, Dr. Burgess is the Principal Investigator (PI) for the Centers for Disease Control and Prevention-funded Mountain West Preparedness and Emergency Response Learning Center and a joint PI for the National Institute for Occupational Safety and Health-funded Western Mining Safety and Health Resource Center. Dr. Burgess is internationally recognized for his research evaluating the health effects of firefighting and methods for reducing firefighter exposures and other hazards, including but not limited to improved respiratory protection and injury prevention. He is also internationally known for his work on mining health and safety, and is a co-PI on a large Science Foundation Arizona grant supporting mining risk management, exposure assessment and control and economic analysis of health and safety systems. A separate ongoing grant is focused on comparing exposures and health effects associated with the use of diesel and biodiesel blend fuels in underground mining. He also has carried out multiple research projects on the adverse effects of low-level arsenic exposure in drinking water and more recently has begun to evaluate exposures from dietary arsenic sources.

Publications

Griffin, S., Regan, T. L., Harber, P. I., Lutz, E. A., Hu, C., & Burgess, J. L. (2016). Evaluation of a fitness intervention for new firefighters: injury reduction and economic benefits. Inj Prev, 22(3), 181-8.
BIO5 Collaborators
Jefferey L Burgess, Chengcheng Hu
Jones, L., Burgess, J. L., Evans, H., & Lutz, E. A. (2016). Respiratory protection for firefighters-Evaluation of CBRN canisters for use during overhaul II: In mask analyte sampling with integrated dynamic breathing machine. Journal of occupational and environmental hygiene, 13(3), 177-84.

According to the National Fire Protection Association there were 487,500 structural fires in the U.S. in 2013. After visible flames are extinguished firefighters begin the overhaul stage where remaining hot spots are identified and further extinguished. During overhaul, a significant amount of potentially hazardous chemicals can remain in the ambient environment. Previous research suggests that the use of air purifying respirators fitted with chemical, biological, radiological, and nuclear (CBRN) canisters may reduce occupational exposure. This study used large scale burns of representative structural materials to perform side-by-side, filtering, and service-life evaluations of commercially available CBRN filters using two head forms fitted with full-face respirators and a dynamic breathing machine. Three types of CBRN canisters and one non-CBRN cartridge were challenged in repetitive post-fire environments. Tests were conducted with two different breathing volumes and rates for two sampling durations (0-15 min and 0-60 min). Fifty-five different chemicals were selected for evaluation and results indicate that 10 of the 55 chemicals were present in the post-fire overhaul ambient environment. Acetaldehyde and formaldehyde were found to be the only two chemicals detected post filter but were effectively filtered to below ACGIH TLVs. Counter to our prior published work using continuous flow filter evaluation, this study indicates that, regardless of brand, CBRN filters were effective at reducing concentrations of post-fire ambient chemicals to below occupational exposure limits. However, caution should be applied when using CBRN filters as the ambient formaldehyde level in the current study was 8.9 times lower than during the previous work.

Maria M. Meza-Montenegro, ., Michael J. Kopplin, ., Jefferey L. Burgess, ., & A. Jay Gandolfi, . (2008). Urinary arsenic methylation profile in children exposed to low arsenic levels through drinking water. Toxicological and Environmental Chemistry, 90(5), 957-970.
Poplin, G. S., Pollack, K. M., Griffin, S., Day-Nash, V., Peate, W. F., Nied, E., Gulotta, J., & Burgess, J. L. (2015). Establishing a proactive safety and health risk management system in the fire service. BMC public health, 15, 407.

Formalized risk management (RM) is an internationally accepted process for reducing hazards in the workplace, with defined steps including hazard scoping, risk assessment, and implementation of controls, all within an iterative process. While required for all industry in the European Union and widely used elsewhere, the United States maintains a compliance-based regulatory structure, rather than one based on systematic, risk-based methodologies. Firefighting is a hazardous profession, with high injury, illness, and fatality rates compared with other occupations, and implementation of RM programs has the potential to greatly improve firefighter safety and health; however, no descriptions of RM implementation are in the peer-reviewed literature for the North American fire service.

Hysong, T. A., Burgess, J. L., Cebrián Garcia, M. E., & O'Rourke, M. K. (2003). House dust and inorganic urinary arsenic in two Arizona mining towns. Journal of Exposure Analysis and Environmental Epidemiology, 13(3), 211-218.