As an NSF GRFP fellow, my doctoral work focused on the adaptation and expansion of proteomic profiling techniques to identify endogenous reactive electrophilic species (RES) sensors in C. elegans. By utilizing novel methods to uncover native RES sensors in a well-characterized whole-organism model, this work seeks to establish a new avenue for deepening our comprehension of RES-mediated signaling pathways with relevance to human biology and covalent drug development.• Adapted a novel toolset for interrogating redox-sensing functionality of target proteins (T-REX) for in vivo utilization in C. elegans (ACS Biochemistry 2018; Current Protocols in Chemical Biology 2018) • Worked to expand the REX toolset in C. elegans into a platform for interrogating the redox-sensing cysteinome (Methods in Enzymology 2019; +1 manuscript in preparation) • Characterized redox modification and signaling functionality in newly identified RES-sensor proteins (ACS Chemical Biology 2018; +1 manuscript in preparation)

Directed practical laboratory sessions, graded reports and exams, and held office hour discussions for undergraduate students.• Fall 2016: Chemical Biology – Proctor and grader for problem sets and exams of a class of ~20 students.• Spring 2016: Organic Chemistry Lab – Conducted 2 weekly lab sections, held office hours, and proctored/graded lab practicals and written exams.• Fall 2015: General Chemistry Lab – Conducted 2 weekly lab sections, held office hours, and graded exams/assignments.

Continued graduate work with Prof. Yimon Aye as a visiting researcher in Lausanne, Switzerland, during the Aye Lab's transition from Cornell to EPFL. • Facilitated transfer of our group's C. elegans material and associated laboratory setup, as well as our fluorescent stereomicroscopy equipment, as part of the Aye Lab's overseas relocation. • Collaborated with several EPFL-affiliated groups while re-establishing and refining our group's C. elegans research program. • Mentored an MS-level EPFL student in C. elegans handling and experimental techniques, as well as associated chemical biology protocols, culminating in essential contributions to a current manuscript in preparation

Assisted a blind graduate student in the Merz computational biochemistry group (affiliated with the UF Quantum Theory Project) in various roles, including document reading/writing, molecular visualization, and clerical work. During this time, I gained experience with basic bioinformatics methodology and computational biology principles.

Under the direction of Professor Steven Bruner, I conducted structural analysis of novel proteins through fusion protein engineering, site-specific mutagenesis, diffusion crystallography, and computational structural prediction.