Solving Decommissioning & Integrity Challenges Through Data-Driven Solutions
It's been over 30 years since I started my offshore well engineering career across the North Sea, Middle East, Asia-Pacific, and West Africa. I witnessed the end of telex machines and the arrival of computers on the rig floor—and I believe AI represents the next fundamental transformation in how we work. Through decades of P&A campaigns, integrity challenges on aging wells, and debugging intervention plans at 3 AM when everything rode on the next decision, I've learned that the tools we use shape the decisions we make.
In 2020, I made a deliberate pivot—away from the rig floor and into AI, data science, and digital well engineering. I immersed myself in Python, machine learning, and modern web development, building tools that solve the problems I used to face: disconnected data, opaque decision-making, and the constant friction between field operations and desk-based planning.
Today, I'm focused on remote roles in well engineering, data analysis, and decommissioning planning—positions where I can bring offshore context to digital tools, turn messy datasets into actionable insights, and help teams make better decisions faster. I'm comfortable working across time zones, leading technical projects independently, and translating complex engineering problems into scalable solutions.
This portfolio showcases the technical projects I've built to demonstrate those skills—not as products for sale, but as proof that I can architect, code, and ship real tools that address real problems in our industry.
A unique blend of deep offshore experience and modern technical capabilities
Technical demonstrations showcasing full-stack development, AI integration, and domain expertise
AI-Powered Well Intervention Planner
Full-stack web application demonstrating how AI and structured data can improve well intervention planning. Built to solve real problems I encountered during 25+ years offshore: disconnected workflows, manual data wrangling, and opaque risk assessment.
Note: Built with synthetic well data for demonstration purposes. Showcases technical architecture, problem-solving approach, and domain expertise.
AI-Assisted Content Generation Experiment
Experimental project exploring AI capabilities in generating technical training content. Built as a sandbox to test how effectively LLMs could structure complex well engineering concepts into interactive learning modules and procedural documentation.
Transparency: This was an exploratory sandbox to test AI's capability in generating technical content, not production training delivered to end users.
Demonstrates: AI/LLM integration skills, ability to architect content structures, interactive UI development, and exploration of emerging AI applications in technical domains.
Web3 & Smart Contracts Analysis
Technical analysis exploring blockchain applications in drilling operations. Examines automated smart contracts for performance-based payments, immutable well integrity records, JV cost reconciliation, and supply chain transparency.
Demonstrates: Strategic thinking about emerging technologies, ability to identify industry applications for Web3, and technical communication skills for complex concepts.
Interactive 3D Graphics Engine
Integrated 3D visualization suite for well intervention planning. Combines wellbore architecture visualization with toolstring assembly rendering to provide engineers with complete visual understanding of downhole operations before deployment.
Demonstrates: Advanced 3D graphics programming, systems-level thinking by integrating complementary visualization tools, and ability to design complete technical solutions addressing real engineering workflows.
Original design intent, casing programs, as-built vs as-designed.
Current downhole configuration, equipment inventory, modifications.
Primary and secondary barrier status, SCSSV depth, integrity verification.
Historical flow rates, pressure trends, decline analysis.
Previous workover history, fishing operations, lessons learned.
Live monitoring of pressures, temperatures, flow parameters.
Personnel competency, fatigue management, crew rotation impact.
NLP analysis of daily reports, emails, handover notes.
HFE constraints, safety protocol validation, barrier verification.
NPT cost analysis, AFE tracking, ROI optimization.
Go/No-Go decision support synthesizing all pillars.
A routine $1.5M bridge plug retrieval became a $75M catastrophe. Multiple failure modes combined into the perfect storm—stuck tools, barrier failures, and escalating fishing operations.
This case study drove the core architecture decisions. It revealed that disconnected data sources, manual clash checking, and opaque risk assessment created systemic blind spots. The challenge became: how do you build a system that unifies well data and automates conflict detection?
Designed automated clash detection and barrier validation to prevent similar failures.
AI-powered computer vision prototype exploring automated verification of rig floor operations. Demonstrates integration of Google Vertex Vision AI for real-time visual analysis and quality assurance.
I'm actively seeking remote roles in Well Engineering, Data Analysis, and Decommissioning Planning. If you're building a team that values offshore experience combined with modern technical capabilities, let's connect.