UTPSP3.5MBLY

The UTPSP3.5MBLY is an ultra-high precision sphere ball bearing made from a combination of Nylon, POM and stainless steel materials. This bearing is designed to operate in high pressure and ultra-low temperatures. It is also resistant to shock, corrosion and abrasion. The UTPSP3.5MBLY has an inside diameter of 3.5mm and an outside diameter of 8mm, and its load capacity is up to 1750N.

UTPSP3.5MBLY has a wide range of applications, such as mission critical aerospace and defense components, robotics, medical devices, semiconductor assembly and more. It can also be used in applications where ultra-high precision is required, such as for precision control of small servo motors. The ultra-high precision of UTPSP3.5MBLY also makes it ideal for applications in harsh environments, where shock, vibration, and extreme temperatures can cause other bearings to fail.

The working principle of the UTPSP3.5MBLY is based on the combined forces of friction, mass, and friction coefficient. Friction is generated between the rotating inner and outer races of the bearing when a load is applied to it. This friction causes the outer race to spin, and the inner race will follow in order to maintain the pre-set angular velocity. The mass of the bearing acts as an inertia for the inner race to rotate, while the friction coefficient determines the amount of friction between the two races.

The UTPSP3.5MBLY also includes a number of design features that enhance its operational performance. These include a special lubricant that provides superior lubrication to the contact point between the races and a series of grooves that reduce vibration and noise during operation. The bearing also has a unique inner race which is designed to minimize axial movement and improve the overall operation and accuracy of the bearing.

Overall, the UTPSP3.5MBLY is a highly precise, ultra-high precision bearing specifically designed to operate in extreme temperatures and harsh environments. It is designed to provide exceptional performance and long-term reliability for a wide range of critical and demanding applications.