Cody R
- Research Program Mentor
PhD at Illinois Institute of Technology
Expertise
Biomedical Engineering
Bio
I am a first-generation college graduate and first in my family to receive their doctorate who is passionate about engineering new medical devices and technologies. I have experience designing and implementing novel optical imaging devices for surgical oncology in a clinical setting, as well as mathematical modeling of drug delivery systems and kinetics. I have worked extensively on projects requiring tissue preservation, histology, and immunofluorescence microscopy for spatial biology analysis of the tumor microenvironment. Furthermore, I have authored multiple publications and presented at several conferences, both domestic and international. I am currently a postdoctoral research fellow at Oregon Health and Science University's Department of Biomedical Engineering. I begin an MD program at Geisel School of Medicine at Dartmouth College in July 2025 to pursue a career as a physician-scientist. Outside of my academic and research pursuits, I enjoy running, biking, and swimming - really anything that will let me stay outdoors! I frequently go on cross-country road trips, and am on a mission to see all 50 states (35 down!). I also spend free time knitting scarves and hats and am hoping to move onto something more complex soon, like a sweater or socks.Project ideas
Low-cost, hand-held surgical guidance system
I have experience developing optical imaging devices to map cancerous lesions to better allow a surgeon to resect out malignant tissue, and avoid leaving any behind in the patient. I believe these kinds of systems can be created with relatively low-cost and easy to access materials - a simple smart phone may suffice! For this project we would use low-cost optical filters and a readily available smartphone camera to put together a handheld fluorescence imaging device. Then, we would employ software to rapidly acquire images and segment the locations of interest, letting a physician know there are suspicious lesions to be investigated - potentially for use in outpatient procedures in a dermatologist's office to remove skin cancers. The primary outcome of this project would be a working prototype that could be patented and further employed in a clinical setting to help increase the odds of cutting out all of a tumor quickly. Students would learn how to design, fabricate, and prototype a novel imaging device for deployment in a clinical setting.
Cancer drug screening through kinetic modeling and simulations
I have experience developing computational models that allow for the simulation of a drug's interactions with human physiology over time. An exciting area of research is the development of models to better predict a drug's ability to treat certain cancers. In this project, the student would work to develop a simulation of cancer therapy, where different parameters of the drug can be input (i.e. drug molecular size, drug target, etc), and the simulation would output the drug's expected efficacy at treatment under certain conditions (i.e. a blood cancer, solid tumor, metastatic disease, etc). This could be directly compared with published clinical trial results to evaluate the model's predictive ability. The outcome of this project would be a model that can predict a drug's efficacy at treatment given different disease states, which could be used to increase the current drug success rates when developing new therapies.