-Assessed and reported telemetry data from Mars 2020 Perseverance rover using Jupyter Notebooks to evaluate thermal health-Developed MATLAB / Python tools to improve rover preheat predictions, reduce energy consumption, streamline processes• Constructed a thermal model of ISRU Pilot Excavator camera for heat transfer design and analysis using Thermal Desktop-Prepared and led procedures to build spare flight stator assemblies for Europa Clipper Heat Redistribution System pumps-Conducted test cases varying several factors of thermal model to reduce temperature of Psyche spacecraft solar panels-Supported thermal vacuum chamber testing for Farside Seismic Suite, Europa Clipper, MAIA, and CADRE missions-Presented coding tools to thermal engineering team, presented on engineering experience to inspire high school students

-Assess and report recent and long-term thermal data from Mars 2020 rover and helicopter in tactical downlink meetings-Develop and implement MATLAB / Python coding tools for thermal data analysis to improve rover preheat predictions -Evaluate long-term data to develop strategic solutions to improve thermal performance and energy consumption-Model the ISRU Pilot Excavator camera for heat transfer analysis with Thermal Desktop (Autodesk) / SINDA/FLUINT-Presented coding tools to thermal engineering team and as community outreach to inspire high school students-Support thermal vacuum chamber testing for Farside Seismic Suite, Europa Clipper, and MAIA

-Led a team of 9 to design a shoebox-sized car powered using an internal combustion engine powered by biodiesel-Presented workshops teaching coding syntax in Arduino (C/C++) with an emphasis on the iodine clock reaction-Researched various chemical reactions and determine which reaction is optimal to be used as a stopping mechanism -Presented to alumni donors on operating the designed car to achieve a specified distance with a specified payload-Design a shoebox-sized car powered on chemical reactions using Arduino with a team of 9 -Research the chemical reaction of luminol oxidation as a stopping mechanism-Update Standard Operating Procedures for chemicals used in the iodine clock reaction for the stopping mechanism -Prepare a presentation detailing how to operate the designed car to achieve a specified distance carrying a specified payload

-Complete CAD assignments using the 3D modeling software Autodesk Fusion 360 -Simulate rocket designs and launches using the software Open Rocket with a team of 5-Research the optimization of flow rate for an engine injector of a hybrid rocket

-Conduct research concerning the variety of physical factors that affect saccadic eye movement -Investigate the differences in the reaction times to different colors and numbers of LED lights at varying angles-Operate Arduino (C/C++) for data generation and operate Python and MATLAB for data analysis-Collaborate in writing a research paper compiling the results of the experiments to be published

-Taught problems regarding oscillations, waves, and electric and magnetic fields to a group of 10 students on a weekly basis-Hosted office hours and content reviews for students to prepare for the midterms and the final-Guided students to understanding conceptual and technical questions through Campuswire and email

-Designed a coffee machine to be created from scratch with a team of 8-Presented a proposal of the design within a $100 budget to a panel-Assess the optimal components for cost-effectiveness and resilience against predetermined complications-Operate Arduino (C/C++) for the temperature sensor and Autodesk Fusion 360 for 3D printed components

-Constructed simulations of chemical processes on ProII software with a team of 4-Successfully simulated the production of ammonia from natural gas, air, water, and MDEA-Assessed how profitable ammonia production would be for commercial use with the chemical process created-Evaluated different apparatuses, temperatures, and pressures for cost-effectiveness and efficiency