Rubber synchronous belts are widely used in applications that require high-speed, high load, and high-precision transmission, such as automobiles, textiles, machine tools, office machinery, power tools, instruments, and food packaging machinery, due to their high precision, high stability, and wear resistance. In addition to its structural and transmission characteristics, it also has good dynamic flexibility, good crack resistance, excellent ozone performance, aging resistance, heat resistance, oil resistance, wear resistance and other features. These characteristics enable rubber synchronous belts to maintain good performance even in complex environments.

The rubber synchronous belt is composed of rubber toothed belt and glass fiber reinforced material, with a skeleton material embedded inside to enhance tensile strength, and a precise tooth profile formed on the surface for meshing and transmission with the belt teeth groove. Adopting gear transmission method, power transmission is achieved through precise meshing of tooth profile and belt tooth groove, ensuring the accuracy and synchronization of transmission ratio. It has high transmission accuracy and stability, can achieve precise transmission ratio and synchronous motion, and is suitable for occasions with high requirements for transmission accuracy.

Rubber synchronous belt usually adopts high-quality imported neoprene or polyurethane rubber materials as the matrix, which have good elasticity, wear resistance, oil resistance and aging resistance. The skeleton material of rubber synchronous belts is mostly imported high-quality fiberglass rope, which enhances the tensile strength and stability of the belt body. The toothed surface is often protected with materials such as nylon 66 high elasticity cloth to improve wear resistance and service life.

Rubber synchronous belt is a circular belt that uses rubber material as the main substrate, combined with skeleton material and tooth design, to achieve efficient and precise transmission. Rubber synchronous belts achieve non slip transmission of power and motion through precise meshing between their surface teeth and the grooves of the belt teeth. This meshing method ensures the accuracy of the transmission ratio, allowing for strict synchronization between the input and output movements.