TECHNICAL PROJECTS

Engineering Projects

Hardware builds, power systems, embedded firmware, infrastructure modeling, and lab investigations — all documented with measurable outcomes and engineering rationale.

Lab simulations are conducted in controlled environments for academic and professional development. No real systems were targeted.

POWER SYSTEMS · EMBEDDED
Completed

Secure IIoT Smart Grid Edge Monitor

Real-time power monitoring node using an ESP32 to calculate RMS Voltage, Current, and Power Factor with <3% error margin. Firmware FFT algorithm detecting Total Harmonic Distortion in sub-100ms intervals. AES-128 + MQTT TLS 1.2 securing data transport for NERC CIP-compliant handling on a Proxmox-based Control Center.

Technologies & Methods:

ESP32 Firmware FFT / THD Analysis AES-128 · MQTT TLS 1.2 NERC CIP Compliance
Aug 2025 – Mar 2026
POWER DISTRIBUTION · HARDWARE DESIGN
Completed

Smart Load-Shedding & Power Distribution Controller

ESP32-based power distribution unit monitoring real-time loads with ±0.5% current sensing accuracy. PWM trip-logic preventing overcurrent while maintaining system stability within 10% of peak rated capacity. Bench-validated with digital oscilloscopes — active RC filtering reduced electrical noise (Vpp) by 35%.

Technologies & Methods:

ESP32 · PWM Control Digital Oscilloscope RC Signal Conditioning Current Sensing
Dec 2025 – Jan 2026
ELECTROMECHANICAL · ROBOTICS
Active

TARS — Electromechanical Walking System

Multi-articulated walking robot powered by a Raspberry Pi 3 and Adafruit 16-Channel PWM Servo Driver. 12V-to-6V DC-DC power regulation system designed in SOLIDWORKS Electrical to manage 11.1V 1300mAh LiPo discharge rates. Python-driven bipedal gait automation utilizing 9 metal-gear servos for high-torque motion.

Technologies & Methods:

Raspberry Pi · PWM Driver DC-DC Power Regulation SOLIDWORKS Electrical Python Gait Automation
Mar 2026 – Present
INFRASTRUCTURE · MODELING · LAB
Active

Enterprise Infrastructure Home Lab

Dell OptiPlex 5050 + Proxmox VE hypervisor running multi-tier networked environments. MATLAB load-flow simulations identifying service recovery strategies and optimizing grid restoration time by 22%. PulseGrid AI models cascading failure propagation across 7 infrastructure layers (500+ unique outage scenarios). Bash scripts reduce manual diagnostic time by 40%. Also hosts DFIR lab exercises — isolated network attack/defense environments with pfSense for firewall and inter-VLAN routing.

Technologies & Methods:

MATLAB Load-Flow Proxmox VE PulseGrid AI pfSense · VLAN Bash Automation
Feb 2026 – Present
HOMELAB · DFIR EXERCISES

Lab Investigations

Simulated DFIR exercises conducted on the isolated homelab infrastructure. Methodological documentation of network forensics and incident response workflows.

CASE-001 · NETWORK FORENSICS
Completed

After-Hours Network Activity Investigation

Simulated forensics exercise: baseline comparison, packet-level traffic analysis, persistence validation, and structured timeline reconstruction. Analyzed 7,000+ frames and 86 TCP conversations under NIST SP 800-61 methodology.

PCAP / Wireshark TCP Conversation Analysis NIST SP 800-61
View Full Write-Up
CASE-002 · LINUX FORENSICS
Planned

Linux Web Server Compromise Investigation

Planned homelab DFIR simulation: deterministic attack chain (DVWA exploit → foothold → root via misconfiguration → SSH/systemd persistence → staged exfiltration) with evidence-backed timeline reconstruction.

Apache / Auth Logs SSH + systemd Artifacts Linux Forensics
View Case Brief

Project Summary

4
Engineering Projects
2
Completed
2
Active
2
Lab Investigations