Translational Medicine
Bridging mechanistic discovery in the lab to questions that can improve diagnosis, therapy, and patient outcomes. The strongest biomedical research changes what clinicians can measure, explain, or offer at the bedside.
My research identity is rooted in immune biology, molecular systems, and platform-oriented biomedical science. The through-line is simple: ask questions that can eventually change how disease is understood, measured, or treated.
Early work in pathology, CRO studies, and preclinical systems made that gap clear. The experience became the engine for a career built around mechanism, context, and translational relevance.
Doctoral training focused on microRNA regulation of T-cell proliferation and signaling, especially miR-15a/16 regulation of the MEK1–ERK1/2–Elk1 axis in T-cell activation.
The core interest is research that clarifies what changes inside a cell, why it matters for disease, and how that insight could improve how disease is measured, treated, or explained.
The destination is academic internal medicine with oncology and immune-mediated cancer as the primary clinical and research focus, ideally within a physician-scientist training environment.
Bridging mechanistic discovery in the lab to questions that can improve diagnosis, therapy, and patient outcomes. The strongest biomedical research changes what clinicians can measure, explain, or offer at the bedside.
Studying immune signaling, microRNA regulation, and cellular decision-making across complex disease states. Understanding how cells switch between activation, tolerance, and dysfunction reveals where intervention can matter.
Applying medical training to cancer and immune-mediated disease, targeting academic internal medicine with an oncology focus where clinical and scientific work inform each other.
Building platform thinking through diagnostics, biomaterials, organoids, and systems-based approaches to disease. Future medicine depends on tools that connect biological complexity to smarter decisions.
Tumor microenvironment, PDAC, organoids, and immune-mediated cancer.
Activation, memory, tolerance, microRNA regulation, and immune signaling.
Diagnostics, platform design, assay development, and translational measurement.
Academic internal medicine, protected research time, oncology, and physician-scientist mentorship.
Two representative papers below. The full peer-reviewed record lives on the Publications page.
Super M, Doherty E, Cartwright M, Ureña FR, et al.
Nature Biomedical Engineering
Demonstrated that immune-instructive biomaterials can capture bacterial signals in vivo and generate protection against sepsis, highlighting a path from materials engineering to clinically relevant infection control.
Ureña FR, Ma C, Hoffmann FW, et al.
Journal of Biological Chemistry
Showed that activation-driven loss of miR-15a/16 releases the MEK1-ERK-Elk1 pathway and expands T-cell proliferative capacity, clarifying a tractable lever in immune regulation.
Open to conversations about translational oncology research, academic internal medicine and PSTP residency programs, and physician-scientist mentorship.
Contact / Collaborate →