Exploring honeycomb structures: A review of their types, general applications, and role in vibration damping and structural stability

Abstract

Honeycomb structures are increasingly used in engineering constructions subjected to dynamic stresses, including earthquakes, explosions, and strong winds to lower vibrations. Their unique geometry and mechanical properties, stiffness and low weight help them to be good at enhancing structural stability. This paper addresses several techniques for vibration reduction, including honeycomb constructions, and investigates the developments that have resulted in their acceptance. Emphasizing their broad-ranging practical uses, several forms of honeycomb structures and their mechanical characteristics are presented. Unlike previous studies that usually only partially addressed these issues, the proposed study includes a detailed investigation of the impact of honeycomb structures on vibrations and structural stability under dynamic loads. The study also looks at modern honeycomb structure forms meant to increase their performance against dynamic loads, therefore filling in knowledge gaps in the current literature. Studies reveal that honeycomb structures improve stability under dynamic loads and aid in lowering vibrations. Furthermore, the honeycomb core's negative Poisson's ratio reduces nonlinear responses and increases load distribution, hence improving dynamic performance. Moreover, by offering fresh information and insights on their potential to accomplish structural safety and stability, this study confirms the role of honeycomb structures as a fundamental element in modern engineering solutions for vibration problems.