Erim Bora Konuk

Core Mission: Manage the entire lifecycle of piston compressor lines, bridging the gap between design and field performance. Key Impact: Lead root cause analysis (RCA) on equipment failures to drive design changes, ensuring 100% compliance with EU directives and Technical File standards.

• Developed MATLAB algorithm to calculate offshore energy farm’s accessibility • Analyzed offshore locations accessibility across Europe

• Led 20 technicians team overseeing reliability and mechanical integrity of over 1,000 equipment pieces, including turbines, compressors, cooling fans, and pumps • Identified and analyzed potential issues in rotating equipment, reducing operational costs by $2 million annually • Revamped sealing systems technology, enhancing operational conditions of 200 pumps by 20%

• Managed new production plant construction in cross-functional teams • Formulated detailed project plan tracking mechanical, electrical, and construction progress with MS Project • Implemented new layout in mechanical facilities, enhancing pipeline efficiency by approximately 15%

• Implemented new tool changeover car and analyzed setup times, reducing downtime by 16% • Initiated root cause analysis and corrective actions, eliminating defects by 6% per month

• Established a dynamic student organization at Ege University, dedicated to promoting entrepreneurship and fostering personal growth among members. • Organized and participated in various high-profile events, including the "entresting." conference, which hosted prominent figures from the entrepreneurship ecosystem and attracted over 800 attendees

• Thesis: A Technology-Informed Accessibility Metric for Site Selection of Offshore Renewable Energy Systems: A Case Study in Europe • Publication: On the Definition of a Comprehensive Technology-informed Accessibility Metric for Offshore Renewable Energy Site Selection

• Thesis: Numerical Determination of The Performance of a Non-Traditional Wind Turbine with Wings In The Archimedes Spiral Form • Publication: Numerical Determination of The Performance of a Non-Traditional Wind Turbine with Wings In The Archimedes Spiral Form