• Conducting market research on T-700 carbon fiber to identify optimal composite materials for improving chassis performance.• Using Creo to model test jig rigs for evaluating structural integrity of various composite material panels.• Collaborating with the team to assess and implement composite materials that meet both safety and performance standards for electric vehicle chassis.

• Modeling simulations in ANSYS to analyze how varying magnetic properties influence the movement and behavior of magnets in microfluidic systems.• Working with Dr. Chamorro's team to investigate magneto-mechanical systems, focusing on optimizing particle manipulation through magnetic force control.

• Researched and implemented solutions to enhance solar panel energy efficiency by capturing and leveraging excess thermal energy with thermoelectric generators, contributing to innovative renewable energy technologies.• Engineered the integration of phase change materials to optimize thermal regulation, resulting in a 23% reduction in voltage drop over 10 minutes.• Created CAD models and 3D printed custom molds for phase change materials.• Presented research at a science expo, highlighting the benefits of integrating thermoelectric generators and phase change materials into solar panel designs for enhanced energy efficiency and cost-effectiveness.

• Advised municipal leaders on sustainability initiatives, recommending measures to reduce the city’s carbon footprint.• Conducted surveys to over 500 citizens identify barriers to electric vehicle adoption, contributing to the planning of new electric vehicle charging stations.• Presented green solutions, including solar panels and electric vehicles, at community events, highlighting their cost-saving benefits through reduced energy and fuel expenses.

• Simulated rocket launches using OpenRocket to predict flight trajectories and performance, validating design parameters and identifying potential improvements. • Analyzed fluid dynamic simulations in OpenRocket to optimize fin design, enhancing aerodynamic performance. • Utilized Jupyter to analyze simulated data and visualize aerodynamic efficiency, aiding in flight stability and overall efficiency.

• Streamlined the design-to-manufacturing process by integrating Fusion and Onshape models with 3D printers and CNC mills reducing production time and costs.• Developed and assembled industrial machine components, ensuring reliability in high-stress applications.• Designed and implemented a custom gearbox for a robotics competition, optimizing motor performance and torque distribution, which improved the robot’s speed and maneuverability during matches.