π₯I'm Mark Aronson (he/him), a bioengineer turned computational modeler with a passion for advancing performance and equity in the U.S. healthcare system by improving healthcare policy through an iterative design process of theory- and data-driven modeling.
ποΈ Currently, I serve as a Data Scientist at the NIH's SCHARE program, housed within the National Institute on Minority Health and Health Disparities.
π₯Ό I previously completed my Ph.D. in the Sgro Lab at Boston University's Department of Biomedical Engineering and followed the lab for a short Postdoctoral Fellowship at the Howard Hughes Medical Institute's Janelia Research Campus.
As a member of the SCHARE team, I support the platform across a few areas:
π οΈ I support the development of the SCHARE Data Repository, where public bugs are reported and tracked here.
π» I also develop tools to ease access to data for health research, including fedwrap, a Python package designed to make pulling data from federal datasets (American Communities Survey, CDC PLACES, and CDC BRFSS) easy as π₯§!
π¨βπ« I help design curricula and training materials for the data science training seminar series run by the SCHARE team, which you can view on YouTube.
π I provide data science and machine learning expertise to researchers performing health outcomes research on the cloud platform Terra.
β As a trained engineer, back-of-the-envelope calculations are a critical tool for gaining a quantitative intuition for any system. These estimates can even go so far as to be a gut check for new phenoemena, which is exactly how I used them in this paper. By deriving simple, theory-based equations, I was able to provide a quantitative validation on a novel stress fiber phenomena discovered in the Sgro Lab. You can check out the underlying calculations in this repo.
π Research reproducibility is one of the most compelling reasons for using scripted programming for data analysis in science. I streamlined the model code and reproduced all the results for an upcoming publication from the Sgro Lab which you can find in this repo.
π§« How to use engineering design principles to understand and program biology is the main reason I went to graduate school, and an idea I became further entranced by the more I studied it. I led the writing of a current opinion piece on strategies of using molecular noise as an engineering design principle for multicellular systems and contributed to a review of synthetic multicellularity with members of the Sgro Lab.
π¬ You can find me on LinkedIn here!
