Engineering, Manufacturing, Software, and Teaching Portfolio

This role combines technical teaching and industrial systems thinking in a way that is directly transferable to real workplaces. I design learning paths that move from concepts to implementation, helping learners build dependable automation routines, clearer engineering logic, and stronger decision-making habits for production-grade environments.

I served as an Intermediate Methods and Mechanical Engineer overseeing the manufacturing and assembly of large-scale dust collector systems, primarily designed for steel plant environments. In this role, I worked closely with design, production, and shop-floor teams to translate engineering requirements into practical manufacturing steps, ensuring that each system met performance, reliability, and safety expectations.

In addition to large systems, I contributed to three dedicated production lines focused on high-volume manufacturing of smaller dust collection machines for workshops and lighter industrial settings. I helped optimize these lines for repeatable quality and throughput, refining assembly sequences, coordinating with technicians, and resolving day-to-day technical issues that affected production flow.

As Mechanical and Manufacturing Design Engineer, I established the company first Computational Fluid Dynamics simulation capability, filling a critical gap in their engineering design division that previously lacked advanced analysis tools for dust collection systems.

I conducted structural, mechanical, and functional analyses to ensure system performance, reliability, and safety under real-world operating conditions. By integrating CFD simulations with CAD modeling, I identified and resolved design bottlenecks early.

As Technical Lead and University Lecturer at IUT from 2012 to 2018, I delivered advanced instruction in Mechanical Engineering and Computer Science, with a focus on computational fluid dynamics, structural analysis, programming, and manufacturing processes.

I published numerous articles and technical reports across diverse fields including CFD, education methodologies, mechanical design, programming techniques, manufacturing optimization, and production workflows.

This role laid the software-engineering foundation for automation across mission-critical industrial and engineering environments, where reliability, traceability, and system uptime were non-negotiable.

Working closely with mechanical engineers, production teams, and technical managers, I translated complex engineering requirements into robust software architectures that could evolve with changing manufacturing and project constraints.