Published Paper Details:

This review paper presents a comprehensive examination of hybrid damping systems that integrate viscoelastic materials (VEMs), Acoustic Black Hole (ABH) techniques, and honeycomb sandwich panels to address the persistent challenge of vibration mitigation in engineering structures. By exploring the theoretical principles, experimental validations, and numerical models underlying these advanced damping mechanisms, the study elucidates how the synergistic combination of VEMs, with their frequency and temperature-dependent energy dissipation, ABH's innovative wave-trapping geometries, and the exceptional stiffness-to-weight benefits of honeycomb structures can significantly enhance vibration attenuation. Applications across aerospace, automotive, and industrial domains are discussed, highlighting the potential for improved structural performance and extended service life. The review also identifies critical research gaps, such as the challenges in manufacturing and temperature sensitivity, and proposes future directions including adaptive damping strategies and optimization through machine learning. Overall, this work aims to provide a foundational framework for the development of next-generation hybrid damping solutions in complex engineering systems