Cell Culture: Cultured and maintained non-primary tumor cells to perform a series of experiments regarding drug synergy.
Microscopic Imaging: Utilized advanced microscopy techniques to capture and analyze detailed images of cultured cells.
Molecular Identification: Investigated and identified molecules associated with therapy resistance. Analyzed changing levels of proteins in significant pathways.
Mouse Surgery: Shadowed surgical procedures on mice, including organ extraction, that were used to create and study models that replicate human cancer conditions.
Computational Analysis: Conducted comprehensive analysis of raw data using statistical methods and bioinformatics tools to draw meaningful conclusions.
Data Visualization: Developed visual representations of experimental data for effective communication of findings within the research team and in academic presentations.
project-res: Combining ONC 201 and Olanzapine to Treat Glioblastoma

Under the guidance of Dr. Sunkara at the University of Louisville, I am conducting research experiments aimed at enabling the transdermal detection of dopamine. My research focuses on the utilization of boron-doped diamond electrodes, which hold significant potential in advancing diagnostic methods for Parkinson's disease. This innovative approach could offer a non-invasive alternative for detecting dopamine levels in patients, addressing the current lack of effective detection methods for this neurochemical marker.

I am conducting a research project-res in my high school's biomedical lab to investigate how varying concentrations of carcinogens—benzene, wood dust, and asbestos—affect mutagenesis and tumor formation in Drosophila melanogaster. Under the guidance of my Biomed teacher, Carol Anderson, and my mentor, Jessica McAnulty from the University of Michigan, the study aims to understand the impact of these carcinogens on genetic and molecular processes using fruit flies as a model organism.

Engaged in an innovative research project-res at Miami University, working under the guidance of my Organic Chemistry professor Dr. Gung. The focus of this project-res is to create a comprehensive database of peptide-catalyzed reactions, which will be utilized for AI-driven applications. This database aims to enhance the efficiency and accuracy of AI models in predicting and designing peptide-catalyzed reactions, potentially revolutionizing various fields within organic chemistry and beyond.

I am working on a research project-res with miRcore, guided by Dr. Inhan Lee at the University of Michigan. The project-res investigates genes associated with multiple sclerosis (MS) and their potential for treatment. My focus is on how IL-17 and Muramyl Dipeptide (MDP) pathways relate to the development of Relapsing-Remitting Multiple Sclerosis (RRMS). MS involves CD4+ helper T cells attacking the central nervous system's myelin sheath, causing various symptoms. My research aims to shed light on the molecular mechanisms of RRMS to enhance diagnostic and therapeutic approaches for this condition.