01 / Introduction
I investigate nucleic acid structure, biomolecular condensates, phase transitions, mechanochemical regulation, and molecular interactions using single-molecule and ensemble biophysical approaches.
02 / About
My research asks how the sequence, structure, mechanics, and local environment of biomolecules determine what they do—and what they become.
I completed my PhD in Chemistry at Kent State University, where my work focused on nucleic acid structural dynamics, intermolecular interactions, liquid–liquid phase separation, and single-molecule biophysics. My postdoctoral research expands these questions toward mechanochemical regulation, telomeric nucleic acids, protein interactions, and disease- relevant molecular assemblies.
Beyond research, I care deeply about teaching, mentoring, scientific rigor, equitable access to research opportunities, and communicating complex ideas without oversimplifying them.
Read my scientific journey →03 / Research
My work focuses on how biomolecular structures form, reorganize, interact, and respond to physical or chemical perturbation.
Nucleic acids are not merely negatively charged polymers. Their sequence, secondary structure, valency, topology, and binding partners can influence whether a condensate remains liquid-like, matures, becomes multiphasic, forms a gel, or transitions toward a solid-like state.
Read the perspective overview →Resolving molecular heterogeneity, folding pathways, intermolecular interactions, and force-dependent behavior one molecule at a time.
Investigating G-quadruplexes, telomeric DNA, structural switching, ligand interactions, and sequence-dependent molecular behavior.
Examining the molecular features that govern condensation, material states, maturation, and pathological aggregation.
Using physical forces—including ultrasound-driven mechanical effects—to perturb and control biomolecular structures and assemblies.
04 / Scientific Journey
A path shaped by interdisciplinary training, experimental curiosity, teaching, and a growing interest in molecular mechanisms.
Foundation
Advanced Training
Dissertation Focus
Postdoctoral Research
05 / Scholarship
Research spanning G-quadruplex mechanics, nucleic acid–nanoparticle interfaces, intermolecular assembly, DNA chaperone activity, and biomolecular phase behavior.
View research profile →Mechanochemistry
DNA Nanointerfaces
G-Quadruplex Biophysics
Condensate Biology
06 / Teaching & Mentoring
My teaching experience includes serving as Instructor of Record for Analytical Chemistry and as a graduate teaching assistant in General and Analytical Chemistry laboratories. I have also mentored high-school, undergraduate, and graduate researchers.
I aim to help students connect measurements to physical meaning, distinguish evidence from interpretation, and become comfortable asking precise questions.
07 / Scholarly & Public Service
Scientific progress depends on careful review, responsible communication, mentorship, and expanding access to opportunity.
Contributing to a Frontiers in Genetics research topic focused on mechanochemical regulation, genomic assays, nucleic acid structure, and function.
Reviewing manuscripts with emphasis on experimental design, analytical validity, reproducibility, mechanistic interpretation, and evidence-based claims.
Supporting registration waivers and presentation awards so talented students can attend an international scientific conference, present their work, and build professional connections.
Learn about the initiative →08 / Scientific Principle
A strong scientific claim should be no stronger than the evidence that supports it.
Rigor requires curiosity, but also restraint: careful experimental design, transparent limitations, reproducible methods, and conclusions that do not outrun the data.
09 / Contact
Reach out regarding research collaboration, scientific writing, peer review, teaching, invited talks, or interdisciplinary discussions.