University of Pennsylvania
BSE, Electrical Engineering and Computer Science
Accelerated MSE candidate, Electrical Engineering
3.99/4.00 GPA. HKN Honor Society, Wharton Hedge Fund Club (Quant), IEEE@Penn, and Engineering Deans’ Advisory Board Lead.
I build reliable hardware and the software and quantitative tools around it. My work spans digital design, embedded systems, PCB development, instrumentation, and statistical modeling. Currently, I’m a Hardware Reliability Engineering Intern at SpaceX and am exploring Summer 2027 opportunities in FPGA, hardware, and quantitative engineering.
BSE, Electrical Engineering and Computer Science
Accelerated MSE candidate, Electrical Engineering
3.99/4.00 GPA. HKN Honor Society, Wharton Hedge Fund Club (Quant), IEEE@Penn, and Engineering Deans’ Advisory Board Lead.
Built a self-improving chess-engine system at the 2026 Point72 Cubist Systematic Strategies Hackathon, placing second. Each generation proposes multiple improvements, creates candidate engines in parallel, rejects invalid variants, and runs a round-robin tournament to select the next champion; a live dashboard streams games, brackets, and Elo updates.
Designed and verified a pipelined RV32IM processor in SystemVerilog. Implemented forwarding, hazard stalls, branch flushing, an eight-stage pipelined divider, and AXI4-Lite memory interfaces, then tested it with cocotb, Verilator, RISC-V ISA tests, and waveform debugging before deploying it to a Lattice ECP5 FPGA.
Built a precision experimental platform to study thermotaxis in silicon microrobots. Custom PCB interfaces, real-time monitoring, and Python control of Keithley and PicoScope instruments enabled more than 300 hours of reproducible trials; Markov-chain and Monte Carlo models matched observed trajectories with over 80% agreement.
Designed a four-layer telemetry and dashboard PCB for Penn Electric Racing, integrating CAN, SPI, and I²C communication. Took the board through schematic capture, layout, DFM review, mixed-signal simulation, firmware bring-up, and hardware validation alongside work on the BSPD, charger electronics, LTE integration, and board-level power systems.
Developed portable data-acquisition hardware and an analysis pipeline for graphene-FET biosensors in the Charlie Johnson Group, making sensor experiments easier to run and analyze outside a conventional bench setup.
Built an automated statistical reliability system around live hardware test data. The pipeline groups tests by serial number, handles censored observations and retests, fits Weibull failure models, and evaluates whether screening durations can be shortened without sacrificing failure-detection coverage.
Hardware Reliability Engineering Intern
Root-cause PCBA and system-level failures in mission-critical satellite hardware using schematic review, telemetry, oscilloscope measurements, and bench experiments. I also built a SQL and Python reliability system that fits Weibull models to live test data to evaluate environmental-screening duration and failure-detection coverage.
Microrobotics Researcher
Design experimental hardware, automate long-duration instrumented trials, and model stochastic motion for sub-millimeter silicon robots. Supported by a Penn Undergraduate Research Mentoring fellowship.
Teaching Assistant, Engineering Electromagnetics
Lead weekly recitations for more than 120 students and develop instructional material covering Maxwell’s equations, wave propagation, vector calculus, and structured engineering problem solving.
Electrical Hardware Design Engineer
Design and validate embedded, analog, and mixed-signal electronics for Penn’s Formula SAE electric race car, with an emphasis on telemetry, power, sensing, and reliable board bring-up.
Full-Stack Engineering Intern
Owned product development for the startup’s first hardware MVP for elder-care occupancy monitoring. Connected mmWave sensors and embedded edge hardware to the backend, cloud, and client layers needed to stream and access live device data.
Nanotechnology Researcher
Developed portable data-acquisition electronics and analysis software for graphene field-effect transistor biosensors, supporting more accessible and repeatable biosensing experiments.