John Benhart (CompSci, Math) and Esko Brummel (Masters in Bioethics and Science Policy) spent ten weeks analyzing current and potential scholarly collaborations within the community of Duke faculty. They worked closely with the leadership of the Scholars@Duke database.
Project Results: The team built an interactive similarity network of Duke scholars, with weighted edges derived from textual analysis of publication titles.They also created visualizations of co-authors and co-investigators, which give the user the ability to "zoom in" and understand the collaborative ecosystem around specific Duke scholars.
Click here for the Executive Summary
Project Leads: Lawrence Carin, James Moody, Julia Trimmer
Project Manager: Sayan Patra
A large and growing trove of patient, clinical, and organizational data is collected as a part of the “Help Desk” program at Durham’s Lincoln Community Health Center. Help Desk is a group of student volunteers who connect with patients over the phone and help them navigate to community resources (like food assistance programs, legal aid, or employment centers). Data-driven approaches to identifying service gaps, understanding the patient population, and uncovering unseen trends are important for improving patient health and advocating for the necessity of these resources. Disparities in food security, economic stability, education, neighborhood and physical environment, community and social context, and access to the healthcare system are crucial social determinants of health, which studies indicate account for nearly 70% of all health outcomes.
The Air Force’s F-15E Strike Eagle jets have parts that wear down and break, causing unscheduled maintenance events that take away valuable time in the air for critical missions and training. Our team, Limitless Data, is working with Seymour Johnson Air Force Base to mine manually entered maintenance data to visualize and predict aircraft failures. We created a prototype data visualization product that will enable maintainers on the flight line and help them identify and repair critical failures before they happen, keeping jets ready to fly, fight and win.
Faculty Lead: Dr. Emma Rasiel
Client Lead: Lt. Devon Burger
Project Manger: Vignesh Kumaresan
This project aims to improve the computational efficiency of signal operations, e.g., sampling and multiplying signals. We design machine learning-based signal processing modules that use an adaptive sampling strategy and interpolation to generate a good approximation of the exact output. While ensuring a low error level, improvements in computational efficiency can be expected for digital signal processing systems using the implemented self-adjusting modules.
Project Leads: Yi Feng, Vahid Tarokh
Click here to view the project team's poster
Watch the team's final presentation (on Zoom) here:
