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I am currently studying Aerospace Engineering at the Georgia Institute of Technology in Atlanta, Georgia. Upon graduation in Fall 2021, I hope to be able to make an impact in the aerospace industry. I have been fascinated with aircraft since a very young age, and I always knew that I would want to help solve problems that will advance humanity in safe and efficient transportation on earth as well as beyond. My primary areas of interest within aerospace engineering include design and analysis of fixed wind aircraft, both civilian transport and fighter jets, including structures, safety, control systems, and propulsion. Additionally, I am very interested in web design and computer programming and its growing role in industries such as engineering.
Download ResumeI Have played drums for multiple bands at venues all around the southeast, as well as created multiple full length albums, EPs, and singles
I help run a home recording studio, recording audio tracks and producing professional videos for bands and solo artists from all around the metro Atlanta area.
Prepared Amazon orders for shipment and pickup while communicating with customers to resolve order issues and ensure timely delivery
Experience working with highschool and college-level students in subjects such as math and physics, as well as standardized test prep
(Jan-May 2021)
Aircraft Design, Performance AnalysisGoals: Design unmanned air-to-air fighter aircraft to perform given combat mission requirement while being a cheaper alternative and supplement to Gen 5 fighters. Challenges: Simultaneously integrating and iterating across multiple design parameters while being limited to initial cost, performance, and sizing constraints. Results: Developed unmanned aircraft for which 3.3 units can be purchased per single F-22 and achieved 9.75 flight hours per F-22 hour.
(Aug-Dec 2020)
Systems Engineering, Research Based
Goals: Develop marketable program for the growing Urban Air Mobility industry from CONOPS to program timelinewhile adhering to Uber Air vehicle requirements. Challenges: Utilizing optimization methods to select ideal vehicle configuration, functions, and high-to-low level requirements across large range of design space. Results: Final vehicle mission and configuration allowed for transportation of over 150 passengers per vehicle-day. Program timeline demonstrated functionality in major US cities by 2024.
(May-Aug 2021)
Flight Condition Simulation, MATLAB Programming
Goals: Create interactive program where user can input details of hypersonic vehicle and quickly obtain downstream conditions, aerodynamic forces, and heating. Challenges: Hypersonic downstream shock conditions required iterative programming solution. Heating values heavily dependent on varying vehicle geometry. Results: Program rapidly provides downstream conditions and vehicle heat flux within 4 percent of exact equilibrium code solution.
(Jan-May 2020)
Physical Design and Assembly, SolidWorks
Goals: Design 3D CAD model and assembly for functional Mars terraforming vehicle, including structure, mobility system, engine, and components for assembly. Challenges: Ensuring individually produced parts are consistent with desired dimensions for final assembly, creative solutions required for 150+ interlocking parts. Results: Conceptualized, designed, assembled, and rendered final terraforiming vehicle prototype consisting of parts made by each team member.
(Sep-Dec 2019)
Physical Deisgn and Testing, Flight Simulation
Goals: Given desired apogee height for launch, select model rocket configuration and motor to perform given task, using simulation to verify performance. Challenges: Modification of initial rocket kit required use of 3D printing custom parts to store payload and motor, simulation of custom modifications and parts. Results: Rocket launch test achieved apogee of 98 feet, producing only a 2% error from performance requirement and simulation expectations.
(Sep-Dec 2020)
Orbital Mechanics Analysis, MATLAB Programming
Goals: Given position and velocity vectors of ISS taken from known radar location, obtain orbital elements and knew position and velocity vectors after certain time. Challenges: Utilization of multiple coordinate systems needed for effective computation, creation of user-friendly program for variable time and vector inputs. Results: MATLAB program that quickly computes all 6 primary orbital elements and initial + final vectors for object's position and velocity.
(May-Aug 2021)
Market Study, Sytems Engineering, Project Planning
Goals: Verify feasibility of large-scale wind farm in region of interest, design turbine and compare performance results with economic and environmental goals. Challenges: Turbine blade and tower design required multiple iteration before performance results could demonstrate the economic feasibility of the proposed farm. Results: Final farm could produce energy at a cost of roughly 8 cents per kilowatt-hour, able to outcompete natural gas and coal energy providers in the region.
(Aug-Oct 2021)
Systems Safety, Accident Causation, Research Based
Goals: Identify the FAA's role in the treatment of safety-critical systems in commercial aviation using case studies on 4 NTSB transport aircraft accident reports. Challenges: Uncovering underlying themes regarding regulatory and certification issues based on unrelated accidents that each presented a unique mode of failure. Results: Discovered multiple common process improvements for the regulatory and certification of transport aircraft.