WEBER.product-range

Drive technology

ContiTech Vibration Metal Rotafrix Friction Rings and Friction Strips

ContiTech SCHWINGMETALL®
The original rubber-metal bond from ContiTech

 

SCHWINGMETALL® and ROTAFRIX®

For over 50 years, the ContiTech SCHWINGMETALL® product range has stood for rubber-metal bonds of the highest quality. It has proven its performance many times and remains unmatched by other systems.

 

ContiTech SCHWINGMETALL®:

  • damps shocks and structure-borne sound
  • isolates machine vibrations
  • reduces accelerations
  • provides noise protection

 

ROTAFRIX® friction rings and friction wheels

Friction rings and friction wheels are components used in drive technology and mechanical engineering to transmit rotary motion – often without the use of gear teeth couplings.

Friction rings and wheels from ROTAFRIX® are the result of many years of experience in drive technology. With specially formulated elastomer materials, they offer optimal properties for high-performance rolling gear transmissions with large transmission forces. Here is a detailed explanation:

Friction Rings
  • Definition: A friction ring is a ring-shaped component mounted on a shaft or wheel that enables power transmission through friction.
  • Material: Usually made of rubber, plastic, or specialized elastomers, sometimes with a metal core.
  • Function: They serve as friction elements that establish contact between two rotating parts. Power transmission is achieved through pressure and friction, not through form-fit gearing.

 

Friction Wheels
  • Definition: A friction wheel is a wheel that also transmits torque by friction. It can act directly on a shaft or axle.
  • Material: Similar to friction rings – often rubber or plastic for good adhesion.
  • Function: Often used in friction drives where two wheels are pressed together to transmit rotary motion.

 

Vibration damping – clearly explained!

Vibrations are generated by every machine with rotating or reciprocating unbalance.
If the machine is rigidly connected to its base, the base is forced to follow these vibrations and propagate them further. These vibrations often generate disturbing noise not only in the machine room but also in distant areas. This is commonly referred to as structure-borne sound. In addition to noise, vibrations can cause serious disturbances to sensitive machines and instruments located nearby. The human body can also be adversely affected, resulting in reduced work capacity, fatigue, and headaches, especially from noise generated by high-speed machines.

These and similar harmful effects can be eliminated by the following measures:

1. Minimizing the unbalance and natural vibrations of the machine to a minimum through higher manufacturing precision, appropriate design of cutting tools, etc.

2. Vibration isolation of the machine to prevent transmission of its vibrations to the surroundings (active isolation).

3. Vibration isolation of the machine against external disturbances (passive isolation).

4. Acoustic insulation of the machine using sound-damping or sound-absorbing materials to combat airborne noise.

Manufacturing costs for machines with extremely precise balancing are high and rise disproportionately with further improvement of balance quality. These additional costs can be avoided by allowing a certain degree of machine unbalance and eliminating its harmful effects with vibration dampers.

Contact us!

Need a product quote or some advice? Contact us today!

fast, personal + online

Send us an email and we will get back to you as soon as possible.

Give us a call and our team will be happy to assist you with your inquiries.

Visit our webshops and register.

Migration of our ERP system / Restrictions from March 30th to April 7th, 2026