Electrical Engineering for Critical Infrastructure.
I design power distribution hardware, write embedded firmware for industrial sensors, and model cascading failure in critical systems — then harden the physical layer against the threat vectors that matter. Research Assistant at USF CIBR Lab. NSBE Technical Development Chair. Targeting defense and power sector roles.
Power distribution, embedded firmware, electromechanical design, and infrastructure simulation — built from components, validated on the bench.
ESP32 firmware computing RMS Voltage, Current, and Power Factor with <3% error margin. FFT-based THD detection in sub-100ms sample intervals. AES-128 encryption + MQTT TLS 1.2 for NERC CIP-compliant telemetry pipeline.
ESP32 distribution unit with ±0.5% current sensing. PWM trip-logic preventing overcurrent and maintaining system stability within 10% of peak rated capacity. Active RC filtering reduced noise (Vpp) by 35%, bench-validated with digital oscilloscopes.
Multi-articulated walking robot on Raspberry Pi 3 + Adafruit 16-Ch PWM Servo Driver. 12V-to-6V DC-DC power regulation designed in SOLIDWORKS Electrical, managing 11.1V 1300mAh LiPo discharge profile. Python bipedal gait automation across 9 metal-gear servos.
MATLAB load-flow simulations identifying service recovery strategies and reducing grid restoration time by 22%. PulseGrid AI models cascading failure propagation across 7 infrastructure layers, covering 500+ unique outage scenarios. Proxmox + pfSense lab environment.
The physical hardware I build has to survive adversarial conditions. This is the safety layer — security knowledge applied where it matters: at the firmware and infrastructure boundary.
AES-128 encryption and MQTT TLS 1.2 implemented directly on ESP32 telemetry pipelines. NERC CIP-compliant data handling architecture validated end-to-end — not bolted on after the fact.
PulseGrid AI simulates failure propagation across 7 infrastructure dependency layers and 500+ outage scenarios. Identifying failure vectors before they propagate is an engineering discipline, not a security one.
Research Assistant at USF CIBR Lab studying AI-assisted threat interfaces and digital footprint exposure. Security+ certified. The threat model informs hardware design decisions, not the other way around.
Defense and utility infrastructure operates at the intersection of physical and digital threat surfaces. The security knowledge is a force-multiplier for the hardware work — not a parallel track. CompTIA Security+ (Jan 2026) · GNSI Tampa Summit 6 · CIBR Lab (2025–present).
EE internships in power distribution, embedded systems, and defense infrastructure. I bring hardware architecture skills with a built-in understanding of the physical threat surface. Primary window: Summer 2027. Open to conversations now.