This study investigates the durability and wear resistance of gripping element assemblies through mechanical loading and wear testing. The gripping element assembly underwent 5,000 cycles of loading and unloading, with each cycle applying a maximum load of 1800 N for 1 minute. Continuous monitoring of load, displacement, and time revealed excellent durability, with no visible signs of deformation or damage observed. Additionally, the assembly underwent wear testing, enduring 5,000 cycles of repeated contact with an abrasive surface under a constant load of 200. Minimal mass loss was measured after every 1,000 cycles, indicating outstanding resistance to abrasion and wear. The structural integrity and tread surface profile remained intact throughout the testing process, demonstrating the assembly’s ability to withstand prolonged usage without significant wear or deterioration. Furthermore, the study examines the relationship between mass loss and immersion time, revealing insights into composite material degradation in corrosive environments. The inclusion of SiC particles in the matrix results in reduced weight loss post-corrosion, highlighting the reinforcing effect of clumped SiC particles on the matrix-reinforcement bond. The observed complexities underscore the need for further investigation into particle-matrix interactions to optimize composite materials for enhanced performance and durability in corrosive conditions.

Keywords: Gripping element, SiC.