I completed my Master's in Artificial Intelligence in 2026 and I'm now actively looking for my next full-time role in AI/ML. In the meantime, I'm volunteering as a Computer Vision & Intelligence Systems Engineer at Q's Ministry, leading the architecture for an offline, on-premise vision-and-agentic-AI assistant — from camera pipeline to on-device reasoning.
Developed security policies, standards, and procedures documentation aligned to NIST risk management frameworks for organizations across the chemical, AI, and healthcare sectors.
Complete implementation of RNN and Transformer architectures built from scratch in Python. Includes attention mechanisms, positional encoding, and multi-head attention — pure NumPy implementations for deep understanding of modern NLP architectures.
Ground-up implementation of Convolutional Neural Networks without deep learning frameworks. Built convolution layers, pooling, backpropagation, and optimization algorithms to understand the mathematical foundations of computer vision models.
Foundational neural network implementation from first principles. Custom gradient descent, activation functions, forward/backward propagation, and loss functions — all built without ML libraries to master the core mechanics of deep learning.
Distributed AI-driven framework for defect pattern mining and cross-plant rule discovery in manufacturing. Multi-agent architecture enabling collaborative model learning and real-time defect detection across simulated manufacturing networks.
Exploring the future of computing beyond Earth — energy, infrastructure, and the intersection with AI demand.
Read on Medium →A comprehensive approach to neural network architecture, from choosing the right structure to optimizing performance.
Read on Medium →The roadmap I wish I had when starting out — distilled from trial, error, and eventually finding what actually works.
Read on Medium →Cognitive Fairness-Aware Techniques for Human-Machine Interface. ISBN-13: 9781032767093 — co-authored research on graph-based anomaly detection and GNN-driven modeling.
View Publication →ATMAE Annual Conference 2025 — research paper on AI-driven automation, cybersecurity, and industrial data monopolies.
View Proceedings →17th Annual ASQ UCM Quality Management Conference — poster on federated learning and cross-plant rule discovery.
View Conference →In my final semester of college (2020), I launched a second startup that merged my passion for farming with artificial intelligence to revolutionize food production. We developed an AI-powered vertical hydroponics and aquaponics system capable of producing 1 acre's yield in just 1/10th the space, using no soil, minimal water, and fully stacked indoor farming.
Our system used AI models trained on real-time environmental and nutrient data to optimize crop cycles, predict growth stages, and dynamically adjust lighting, water flow, and nutrient mixes for each plant type. Crops included spinach, iceberg, and romaine lettuce, grown under customized indoor grow lights.
On the aquaponics side, we raised korameenu (murrel fish), creating a closed-loop system where fish waste enriched the crops. The result: a fully automated, AI + IoT-driven smart farming platform that maximized efficiency, minimized waste, and brought sustainability into the future — all prototyped while still in college.
Back in 2018, while I was still in college, I started a hustle that turned into a full-blown mobility startup. We built a super cool electric add-on for wheelchairs — basically a single-wheel attachment powered by a 36V/48V lithium-ion battery and hub motor that could hit speeds of up to 25 km/h.
Just clamp it onto a regular wheelchair and boom — you've got a detachable 3-wheeled electric ride. No need to buy a bulky electric wheelchair. I led the whole product build from scratch: design, prototyping, testing, and getting real feedback from users.
The goal was simple: make mobility smarter, more affordable, and way more fun for people who need it. It was my first real taste of building something that could actually change lives.