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 focuses primarily on the genetic regulation of innate immunity in animals, with a particular focus on innate immune pattern recognition proteins.
My research is in the area of nuclear physics, using the atomic nucleus as a laboratory to understand the fundamental forces of nature, the origins of the elements in the Universe, and how simple patterns emerge from complex systems.
Osteosarcoma is an aggressive bone cancer in dogs and people. My lab investigates the mechanisms that permit osteosarcoma cells to spread to new sites (metastasis) and survive exposure to chemotherapy (chemoresistance). Additionally, we are working on identifying biomarkers that can help predict outcomes and/or guide therapeutic decisions for patients with osteosarcoma.
My primary research goals are currently directed towards building AI agents for active threat hunting in Internet of Things (IoT), Industrial Internet of Things (IIoT) and Internet of Battlefield of Things (IoBT).
We are interested in structure-function relationships of enzymes and enzyme evolution. We are studying steroid degrading enzymes from the pathogen Mycobacterium tuberculosis and other related bacteria. We are also interested in enzymes that can be used to detoxify environmental pollutants.
Our research is mainly focused on studying ultrafine biopolymeric and synthetic fibres produced by electrostatic spinning techniques. These versatile materials are being exploited in our laboratory for the encapsulation and triggered release of bioactive compounds.
