In terms of strength research, the experimental research by Koyama Tobuo and others is more prominent. They study the load distribution between belt teeth, the pitch difference between the timing belt and the timing pulley, the fatigue strength and fracture characteristics of the timing belt, and the Various experiments such as the influence of incomplete meshing have analyzed the strength of the timing belt, and many research papers have been published.
In addition, Soviet scholars such as Goljevic and others have done in-depth research on the life and reliability of timing belts, and may regard the strengthening ribs of timing belts as an important breakthrough point.
The load distribution between the teeth of the synchronous belt.
Because the uneven load distribution of each meshing belt tooth when the timing belt is working has a great impact on the life of the belt, it has attracted the attention of scholars from all over the world.
In addition, Soviet scholars Gorevich, Vrobiev and others have conducted in-depth research on the failure mode and calculation method of the timing belt pulley standard, and proposed the wear resistance, shear strength and transmission of the timing belt. Various calculation methods such as efficiency, and the finite element method are used to calculate the stress distribution of the synchronous belt teeth during operation.
Synchronous belts are currently widely used in the field of automation equipment. Synchronous belt drives have the widest range of use. It combines the advantages of all belt drives. Whether it is the light industry in the Pearl River Delta of Guangdong or the heavy industry in the north, it can be selected and synchronized. With tens of thousands of specifications, timing belts are widely used in food processing machinery, glass machinery, ceramic machinery, CNC machinery, agricultural machinery and other fields.
