Cincinnati, Ohio, United States
I am currently a student at the University of Cincinnati, pursuing a Bachelor of Science in Chemical Engineering. My current expected graduation will be in Spring of 2027. I have completed three co-op rotations solid-state battery research and development with a strong focus electric vehicle (EVs) and humanoid robot applications. In 2021, I co-founded ScheckelDorr Jewelers, where I apply an analytical approach to small-business management. I oversaw the development of our supply chain and implemented data-driven inventory management to optimize our operations. This entrepreneurial experience has taught me how to translate complex problems into actionable business solutions, a mindset I carry into my chemical engineering research and co-op rotations. I’ve also held leadership roles within University of Cincinnati’s American Institute of Chemical Engineers (AIChE) organization, serving as their Treasurer (2025-2026) and Vice President (2026-Present).
As one of the Co-Founders at Scheckeldorr, I serve as the Chief Operating Officer. I am responsible for day-to-day functions such as material procurement, website hosting, sales, and order fulfillment. I strive to efficiently integrate our in-house design team, production expertise, and distribution processes to ensure both product excellence and consistency.
Key Accomplishments Process Engineering & Materials Preparation: Streamlined the manufacturing of solid-state battery components by assisting in the sieving, mixing, and coating of specialized additives for materials testing. Standardization & Quality Control: Developed and implemented standardized operating procedures (SOPs) for the electrode calendaring process, ensuring consistent thickness and density across all production batches. Thermal & Chemical Analysis: Conducted comprehensive materials characterization using Thermogravimetric Analysis (TGA) and Differential Scanning Calorimetry (DSC) to build a proprietary database of rubber properties and chemical compositions. Precision Manufacturing: Optimized laser/ultrasonic welding parameters for joining thin, dissimilar metal sheets, significantly enhancing structural integrity and reducing battery failure rates. Facility & Asset Management: Spearheaded a maintenance initiative to identify and seal glovebox leaks, protecting moisture-sensitive materials and saving the department thousands of dollars in annual material loss. Skills Technical: Thermogravimetric Analysis (TGA), Differential Scanning Calorimetry (DSC), Electrode Calendaring, Materials Coating, Glovebox Operations. Manufacturing: Dissimilar Metal Welding, Process Optimization, SOP Development, Slurry Mixing. Analysis: Quantitative Materials Characterization, Failure Reduction, Cost-Benefit Analysis.
Key Accomplishments R&D & Failure Analysis: Spearheaded the development of advanced postmortem analysis techniques specifically for solid-state batteries. Utilized precision ion-milling to create high-quality electrode cross-sections, enabling high-resolution SEM imaging and structural characterization. Process Optimization: Systematically identified ideal assembly methods and operating parameters, directly contributing to a measurable reduction in battery failure rates. Operational Efficiency: Established new workflow procedures for the engineering team that streamlined daily operations, resulting in a gain of 1,100+ hours of annual productivity. Community Engagement: Designed and led an interactive outreach program to demonstrate in-house battery manufacturing and analysis processes to high school students, fostering interest in STEM. Professional Development: Earned Lean Six Sigma Yellow Belt certification, applying continuous improvement methodologies to laboratory and manufacturing workflows. Skills Technical: Solid-State Batteries, Postmortem Analysis, Scanning Electron Microscopy (SEM), Ion Milling, Battery Assembly. Methodology: Lean Six Sigma, Process Optimization, Operational Efficiency. Soft Skills: Technical Training, Community Outreach, Cross-functional Leadership.
Key Accomplishments Battery Performance & Formation: Planned and executed specialized formation cycle test profiles for solid-state batteries. Conducted rigorous longitudinal testing to quantify the impact of initial cycles on long-term battery lifespan and discharge performance. Electrochemical Analysis: Leveraged Electrochemical Impedance Spectroscopy (EIS) and systematic experimentation to identify critical factors influencing the ionic conductivity of polymer electrolytes. Materials R&D: Evaluated the efficacy of various chemical additives, analyzing their specific impact on electrolyte stability and overall cell performance. Mechanical Design: Utilized Creo Parametric to design custom battery test fixtures and specialized laboratory tools, significantly increasing throughput and testing precision. Leadership & Outreach: Spearheaded a large-scale STEM community outreach initiative, managing an event for over 550 middle school students. Brand Promotion: Developed a custom, interactive "weight balancing" engineering activity to represent Schaeffler and engage the local community in core mechanical principles. Skills Technical: Electrochemical Impedance Spectroscopy (EIS), Formation Cycling, Solid-State Batteries, Polymer Electrolytes. Software: Creo Parametric (CAD), Data Analysis. Leadership: STEM Education, Project Planning, Public Speaking, Community Relations.