Many U.S. industrial facilities operate advanced equipment but lack the integrated engineering approach that connects energy systems, automation, and operational behavior. As a result, energy losses, inefficiencies, and performance instability remain unaddressed.
The U.S. industrial sector accounts for approximately 30% of total U.S. greenhouse gas emissions (EPA). The opportunity to identify and implement cross-system improvements is large — and the methodology to capture it has been proven.
Start a conversation →Huseyin Cevik specializes in industrial energy systems, automation integration, and execution-focused operational performance improvement in large-scale manufacturing environments. His work focuses on identifying operational inefficiencies in active production facilities and converting engineering analysis into measurable energy and cost reductions.
His experience is based on direct work within complex industrial operations where energy consumption, equipment performance, and production continuity are closely interconnected — high-load systems such as furnaces, compressed air networks, electrical infrastructure, motor-driven equipment, and cooling systems operating under continuous production conditions.
A significant portion of his experience was developed through energy-efficiency and system-optimization projects at large-scale aluminum production facilities — energy-intensive operations with annual consumption exceeding 20,000 TEP.
The methodology is not theoretical — it has been refined across two large-scale aluminum production facilities and is structured to be repeatable across U.S. manufacturing operations.
Project-based engagements, industry collaborations, and operational roles. Flexible structure, measurable outputs.