| Automotive metal push belt | Precisely formed steel transverse elements supported by multiple thin steel bands. | Automotive continuously variable transmissions in passenger vehicles. | Element geometry, band quality, surface finish, and dimensional consistency affect smooth operation and load transfer. | Element wear, band condition, surface damage, and dimensional variation. |
| Automotive CVT chain | Articulated steel links and pins arranged to transmit power between variable-diameter pulleys. | Automotive chain-type continuously variable transmissions. | Link and pin accuracy, material strength, heat treatment, and consistent articulation are important to durability. | Wear at pin-and-link contact areas, elongation, damage, and signs of abnormal noise or vibration. |
| Scooter CVT belt | Reinforced elastomeric V-belt, commonly incorporating tensile cords and a shaped belt profile. | Automatic transmissions used in many scooters and small powersports vehicles. | Rubber compound, cord placement, belt geometry, and resistance to heat and repeated flexing influence service life. | Cracking, glazing, fraying, deformation, and wear against the specified service limits. |
| Industrial variable-speed belt | V-shaped belt designed to operate with adjustable pulley spacing or variable-groove sheaves. | Industrial drives and machinery requiring adjustable speed ratios. | Consistent cross-section, suitable reinforcement, dimensional stability, and compatibility with the drive design. | Wear, cracking, tension, alignment, and pulley-groove condition. |
| CVT pulley system | Paired variable-diameter pulleys that alter the effective running radius of a belt or chain. | Automotive, scooter, and selected industrial CVT assemblies. | Accurate pulley-face geometry, surface finish, and controlled assembly are essential for correct belt or chain tracking. | Scoring, uneven contact patterns, contamination, and wear on pulley faces. |