Assist. Prof. Dr. Destayehu Durressa | Mechanical Design | Editorial Board Member
Assist. Prof. Dr. Destayehu Durressa | Bahir Dar Institute of Technology | Ethiopia
Assist. Prof. Dr. Destayehu Durressa is a dedicated researcher in mechanical and materials engineering, with a strong emphasis on structural damage assessment, composite material behavior, and mechanical system reliability. His work centers on understanding how defects, cracks, and impact-induced damage influence the performance and durability of engineering components, contributing to safer and more efficient industrial applications. His early research involved analyzing the effect of cracks on spur gears in heavy-duty automotive gearboxes, providing insight into failure mechanisms and performance degradation in mechanical power-transmission systems. Building on this foundation, he has advanced his investigations into composite materials, focusing particularly on the characterization and modeling of residual elastic properties in impact-damaged glass-fiber composites. His publication in Results in Engineering (2025) demonstrates his commitment to rigorous experimental evaluation and predictive modeling, offering valuable contributions to material performance assessment and structural integrity research. Dr. Durressa’s scholarly efforts reflect a broader motivation to develop engineering solutions that enhance safety and reliability across industries, addressing challenges related to mechanical fatigue, material degradation, and system longevity. His research approach integrates practical experimentation with analytical modeling, aiming to support the development of more resilient components for automotive, aerospace, and manufacturing applications. Through his ongoing work, he continues to contribute meaningful advancements to the understanding of damage mechanics and material behavior, helping shape future innovations in mechanical engineering and composite material technologies.
Featured Publications
Durressa, D. (2025). Characterization and modeling of residual elastic properties of impact-damaged glass fiber composite. Results in Engineering.