Dr. Owen Pornillos' lab focuses on understanding how certain proteins called TRIM5 proteins protect cells against viruses like HIV. They study the structure of these proteins and how they interact with viral components to prevent infection. Through advanced techniques, their research aims to uncover the details of how TRIM5 proteins function, which could lead to new ways to combat HIV/AIDS.

Dr. Mingnan Chen's lab focuses on understanding how specific immune cell interactions influence treatment outcomes for Type 1 Diabetes (T1D). The research investigates how a new antibody therapy can effectively target harmful immune cells while minimizing adverse effects. By exploring the immune environment surrounding T1D and developing new antibody-based treatments, the goal is to enhance the safety and effectiveness of therapies for T1D patients.

Dr. Monica Vetter's lab focuses on understanding how specific genes regulate the development of retinal cells in the eye. They study the role of a transcription factor called Foxp1 in guiding the differentiation of progenitor cells into various types of retinal neurons, such as ganglion and cone cells. This research aims to uncover potential methods to restore vision by regenerating lost retinal cell types due to disease or injury.

Dr. June Louise Round's lab focuses on understanding the interactions between the immune system and the microbiota, particularly the virome—viruses that live in and on the body. They study how bacteriophages, a type of virus, influence immune system development and explore the links between intestinal health and diseases like inflammatory bowel disease and diabetes. Their research aims to identify beneficial viral and bacterial communities that can promote health and prevent disease.

Dr. Valerie C. Pierre's lab focuses on developing innovative technologies to improve the treatment of chronic kidney disease (CKD) through wearable artificial kidneys (WAKs). The lab works to create lightweight, efficient devices that can maintain electrolyte balance in patients undergoing dialysis, which is crucial for their health and quality of life. By using advanced materials and selective receptors, the goal is to enhance patient outcomes in a more comfortable and practical manner.

Dr. Cynthia M. Furse's lab focuses on developing cutting-edge wireless antenna systems for implantable medical devices. The research aims to create miniaturized antennas that can be injected into the body, allowing for efficient communication between implants and external devices without the complications of traditional wired systems. This work is vital for the advancement of bionic devices, enabling better control and functionality in medical applications.