One of my main research activities addresses the development of Electronic Design Automation (EDA) tools for Application Specific Integrated Circuits (ASIC) and Field Programmable Gate Arrays (FPGAs) which are used today in all types of applications including security systems, consumer products, medical equipment, manufacturing systems, robotics to name just a few.
Multiphase flow takes place in a wide spectrum of engineering applications such as food production, power generation, water treatment, oil production, water desalination, refrigeration and air conditioning, as well as in carbon capture and sequestration systems. My lab aims at providing reliable solutions for our many industrial problems and new technologies that can make these engineering systems more efficient and sustainable.
My research uses mathematical models and computer simulation to help identify improved infectious disease prevention and control strategies in both humans and animals. Our work has a significant impact on public health and veterinary health, by strengthening planning and disease control strategies to prevent infectious disease outbreaks.
Physical processes and human activities change the landscape and increasingly these factors work in tandem on the Earth’s surface; these interactions are what inspire and drive my research.
My research program seeks to understand the underlying physiology of diseases common in horses, and how these diseases can be modified with targeted nutrition, with a focus on cartilage biology.