Course Description

Students in this course learn to characterize human health risk from microbial stressors and develop and evaluate engineering controls for risk management.

Course Objectives

Students will: 

  • Have an ability to identify, formulate and solve complex engineering problems by applying principles of engineering, science and mathematics. 
  • Select and compare engineering controls as risk management alternatives using decision analytics tools. 
  • Describe common, regulated and emerging health hazards, and specific characteristics of each (i.e. disease burden, infection, morbidity and mortality rates, costs of illness, etc.)
  • Establish quantitative design criteria based on health risk
  • Select an appropriate engineering solution to manage risks
  • Have an ability to identify, formulate and solve complex engineering problems by applying principles of engineering, science and mathematics. 
  • Formulate risk communication strategies for engineers, consumers, business managers, utilities policymakers, etc.
  • Utilize risk assessment within the engineering design process to develop objectives and criteria; formulate design problem statements and specification; consider alternative solutions; and address economic factors, such as safety, reliability, ethics and social impact.
  • Collaborate as a team to develop a risk assessment that incorporates knowledge across disciplinary boundaries including engineering, microbiology, physiology, statistics, mathematics and physics. 
  • Apply probabilistic risk models to characterize risks for different exposure scenarios. 
  • Effectively apply simulation techniques to solve problems with variable or uncertain parameter values. 
  • Apply basic risk assessment principles to human health-related engineering problems.
  • Describe dose-response relationships for various health effects/endpoints associated with hazard exposures in healthy and sensitive populations. 
  • Identify primary and multiple exposure/transmission routes of environmental hazards.
  • Identify exposure pathways and compute hazard quantities along such. 
  • Develop and utilize mathematical equations to describe propagation of hazards across an exposure pathway.