Principal Investigator: Jeffrey Moran, Ph.D.
Mechanical Engineering, George Mason University
Ph.D., Mechanical Engineering, University of Washington, 2013
B.S.E., Mechanical Engineering, Arizona State University, 2007
Self-description in 10 words or less: I’m fascinated by fluid flows driven by invisible forces.
Research Interests: My research is broadly focused on better understanding the interplay between unique microscale phenomena (e.g. self-propelled microparticles, electrically-induced pore formation in cell membranes) and the nanoscale interfacial transport that drives these phenomena. I’m especially interested in self-propelled particles, or active colloids, which propel themselves in liquids without any moving parts. These particles can move in predetermined patterns and deliver cargo to targeted locations. We develop novel designs for these fascinating particles, and study how they affect their surrounding environment and, reciprocally, how changes in their environment affect their behavior. A better understanding of these effects will enable new applications in heat transfer enhancement, water remediation, and even cancer treatment.
Something you won’t find on my CV: Outside of work, I am a jazz bassist.
Current Lab Members
Ph.D. student, Bioengineering, George Mason University
M.S., Biomedical Engineering, University of Bridgeport, 2017
B.E., Biotechnology, Ramaiah Institute of Technology, 2015
Self-description in 10 words or less: A well-fed science enthusiast and researcher in the making.
Research Interests: I have always been interested in learning about problems in cancer biology and I would ponder on them for days to come up with a solution. In my undergraduate, my senior design project involved silver nanoparticles synthesis to tackle tooth decay. Since then, I have been fascinated by materials and the various ways in which we can tailor them for our specific applications. As I pursued my Masters, I realized that my interests can be combined effectively to potentially solve some problems in therapeutic cancer biology and that's what I hope to continue working in. I also have a deep-set interest in biophysics specifically studying interactions between different signalling proteins.
Something you won’t find on my CV: When I am not in the lab, I am often singing some bad Bollywood number while writing my crazy fictional stories! Or I might be making pretty pictures of different proteins (yes, I can do that!).
B.S., George Mason University, 2019 (expected)
Self-description in 10 words or less: Passionate about learning new things.
Research Interests: I have always had a keen interest in cancer biology and I truly enjoy learning about different topics in it. I have worked on different research projects on breast cancer and ovarian cancer during my high school and undergraduate, which further fueled my interest. I’m fascinated by how Bioengineers could play a crucial role in developing materials and devices which aid in cancer research; hence I am now pursuing a minor in Bioengineering. Working with Dr. Moran’s team has helped me to discover the aspects of engineering in cancer biology and shown me a way to integrate my Biology knowledge into Bioengineering research.
Something you won’t find on my CV: When I am not in the lab, I am often reading books or trying out a new restaurant or coffee shop.
I will be an incoming freshman at The University of Chicago; I will be studying Economics and Astrophysics. My research background resides in Soft Robotics. Xavier M. Segel, co-Founder of Haverford School’s soft robotic team, and I lead in the creation of a patented, biocompatible, edible, and biodegradable soft robotic material. The product was submitted to Harvard’s International Soft Robotic Toolkit Competition and was awarded First Place.
Currently, Xavi and I are working on ferrofluidically actuating silicone soft mini-grippers into a spherical shape to capture an object. From this position, the actuator will be tetherlessly controlled using a neodymium magnet. Using this mechanism, we are able to ‘capture and cordlessly control’ any object. This project acts as a proof-of-concept for drug delivery or biocompatible medical device removal.
Outside of research, you can find me in the gym lifting weights or playing basketball.
I am currently undertaking a gap year, but will be an incoming freshman at Williams College in the Fall of 2019, where I will be studying Molecular Biology. I have a research background in Physiology and Soft Robotics. I have worked extensively in the Department of Physiology at the University of Pennsylvania, where I looked to overturn existing models of subunit composition within mitochondrial calcium ion channels. In the field of soft robotics, I worked with Matthew N. Baumholtz to developed a new biocompatible, edible, and biodegradable soft material. In 2017, the product was submitted to Harvard’s International Soft Robotic Toolkit Competition and was awarded First Place. It was granted a utility patent and Best Poster Award at the 2018 MRS Spring Conference, Phoenix.
Within Dr. Moran's lab, Matt and I work generally with soft robotics. At the moment we are attempting to merge magnetism into soft robots to achieve a new type of autonomous actuation.
Outside of research, I am hard to find. I frequently rock climb, backpack, and go mountaineering. I will be somewhere in Nepal for the Fall of 2018 and somewhere in Patagonia for the Spring of 2019.