Computer engineering portfolio
I design digital hardware from low-level logic to complete systems—RTL, computer architecture, embedded platforms, PCB design, and experimental instrumentation.
A growing record of board design, RTL, computer architecture, and research. Use the filters to focus the work.
Designed an end-to-end keyboard around the ATmega32U4, including a 5×15 key matrix, per-key diodes, USB-C protection and power circuitry, clocking, reset, and programming access.
Delivered a clean KiCad design with manufacturer-ready Gerbers, BOM, placement data, and a matching case workflow.
Designing a processor from the ground up with an ALU, registers, program counter, instruction decoder, control logic, memory interface, and a compact custom instruction set.
Building and testing the datapath module by module before integrating a full fetch–decode–execute system.
Built a Verilog control system for an Intel MAX 10 target that combines temperature regulation, ambient-light response, and an armed motion-detection mode.
Mapped sensor inputs to deterministic fan, heater, LED, buzzer, and alarm behaviors in a compact modular RTL design.
Supporting research on erbium-doped crystal spin systems for potential microwave quantum-memory applications, with emphasis on electrical instrumentation and measurement systems.
Contributing to RF/microwave characterization, sensors, data collection, signal processing, automation, and background-noise analysis.
The complete KiCad source includes the electrical schematic, project configuration, and routed PCB layout shown here.
592 KB ZIP · KiCad project, schematic, layout, and readme
I’m a Computer Engineering student focused on the layers where software becomes physical: digital logic, processors, embedded systems, boards, signals, and semiconductor design.
I like projects that force me to understand the whole stack, from a datasheet and schematic to verification, manufacturing, and the behavior of a finished system.
Quantum-materials and EPR research involving RF/microwave characterization, low-temperature measurements, sensors, automation, and signal analysis.
Researched healthcare technology, innovation, and competitive strategy, then presented technical and business recommendations to leadership.
Developed C# programming, technical collaboration, and problem-solving experience that now complements hands-on hardware work.
Verilog, RTL, FPGA, PCB design, embedded systems, digital logic, computer architecture
Python, C, C++, C#, SQL, Git, Linux, APIs, CI/CD
KiCad, LTspice, MATLAB, Onshape, Docker, lab instrumentation
Current work stays honest about its status; future work moves here first, then into the main project grid when it is ready.
Finish integration, document the ISA, publish waveforms, and demonstrate programs running through the full datapath.
Move from a compact custom CPU to an RV32I subset, then explore pipelining, forwarding, hazards, and FPGA synthesis.
Add timing, utilization, verification coverage, performance, diagrams, and design decisions to every future project.
I’m interested in computer architecture, RTL/ASIC/SoC design, FPGA and embedded systems, semiconductor engineering, and research where strong measurement meets thoughtful design.