Supporting balls - Import export

Design and construction This Schulz ball caster / ball transfer units consists of a casing and a top cover as stamped parts, a bearing ball and several support balls. In common parlance, these ball casters are also called “UFO” or “Saturn” ball casters, according to their construction type. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction The Schulz ball caster „Blue-Line“ with a housing made of certified plastic and a gap-free, closed cover (without dirty edges), a plastic or stainless steel carrier ball and several support balls has been specially developed by us for use in the food industry. For this purpose they have the signal colour blue. The Schulz plastic ball castor „BlueLine“ is particularly easy to clean due to the new design with several dirt holes in the housing. Dimensions The pitch is determined by dividing the shortest edge length of the conveyed material by 3.5.

Design and construction This Schulz ball caster / ball transfer unit consists of a casing, a top cover and a bearing cap as solid turned parts, a bearing ball and several support balls. To this ball caster is another casing which serves as a body for the spring. Prevent spring loaded ball casters Damage caused by shock loads. Dimensions Die Teilung wird ermittelt, indem man die kürzeste Kantenlänge des Fördergutes durch 3,5 dividiert.

Design and construction This Schulz ball caster consists of a casing with threaded pin and a top cover as solid turned part, a bearing ball and several support balls. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction This Schulz ball caster / ball transfer unit consists of a casing, a top cover and a bearing cap as solid turned parts, a head flange, a bearing ball and several support balls. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction This Schulz ball caster consists of a casing with threaded pin and a top cover as solid turned parts, a bearing ball and several support balls. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction This Schulz ball caster / ball transfer unit consists of a casing and a top cover as solid turned parts, a bearing ball and several support balls. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction This Schulz ball caster / ball transfer unit consists of a casing and top cover as solid turned parts, a bearing ball and several support balls. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction This Schulz ball caster / ball transfer unit consists of three stamped parts, the casing, bearing shell, threaded pin, a bearing ball and several support balls. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction This Schulz ball caster / ball transfer unit consists of three stamped parts, the casing, bearing shell, 3-prong-buittin-clip and top cover, a bearing ball and several support balls. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction This Schulz ball caster / ball transfer unit consists of three stamped parts, the casing, bearing shell and top cover, a bearing ball and several support balls. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction This Schulz ball caster consists of a casing with threaded pin and a top cover as solid turned part, a bearing ball and several support balls. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction This Schulz ball caster / ball transfer unit consists of a casing, a top cover and a bearing cap as solid turned parts, a base flange, a bearing ball and several support balls. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction This Schulz ball caster / ball transfer unit consists of a casing, a top cover and a bearing cap as solid turned parts, a bearing ball and several support balls. To this ball caster is another casing which serves as a body for the spring. Prevent spring loaded ball casters Damage caused by shock loads. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction This Schulz ball caster / ball transfer unit consists of a casing, a top cover and a bearing cap as solid turned parts, a bearing ball and several support balls. To this ball caster is another casing which serves as a body for the spring. Prevent spring loaded ball casters Damage caused by shock loads. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction This Schulz ball caster / ball transfer unit consists of a casing, a top cover and a bearing cap as solid turned parts, a bearing ball and several support balls. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Design and construction This Schulz ball caster / ball transfer unit consists of a casing with threaded pin, a top cover and a bearing cap as solid turned parts, a bearing ball and several support balls. Dimensions The spacing is calculated by dividing the shortest edge length of the object to be transported by 3.5.

Double column wall mounted stand mixer/floor stand mixer Rigid stand for wall-mounting or floor stand for mixers from 100 kg. The stand consists of 2 u-shaped columns with a ball-borne support slide with a cantilever beam for the mixer. The double-column stand allows the processing of tank volumes up to 4 m3, depending on the tank dimensions. Mixer powers up to 75.0 kW and support loads up to 1,000 kg can be realized. Under these conditions, the stand can be equipped with all fast running or gear-reduced mixers and their matching agitator elements. The lift is done electrically by a lift drive and chain drive. The electric supply is guided through a laterally mounted energy chain. Customized solutions for instance a stand mixer with H foot or stand equipped with coaxial agitator type KRK are feasible.

WRW/SRW – Double column Double column wall mounted stand mixer/floor stand mixer Rigid stand for wall-mounting or floor stand for mixers from 100 kg. The stand consists of 2 u-shaped columns with a ball-borne support slide with a cantilever beam for the mixer. The double-column stand allows the processing of tank volumes up to 4 m3, depending on the tank dimensions. Mixer powers up to 75.0 kW and support loads up to 1,000 kg can be realized. Under these conditions, the stand can be equipped with all fast running or gear-reduced mixers and their matching agitator elements. The lift is done electrically by a lift drive and chain drive. The electric supply is guided through a laterally mounted energy chain. Customized solutions for instance a stand mixer with H foot or stand equipped with coaxial agitator type KRK are feasible.

KIS deep groove ball bearings are characterised by their high load carrying capacity and speed stability. Depending on the requirements of your application, they are available in different variants and in both radial and axial design. Our single row deep groove ball bearings are available in open and sealed designs. Open bearings are maintenance-free, while sealed bearings offer better corrosion protection. Single row deep groove ball bearings can support both radial and axial forces. Our double row deep groove ball bearings feature a higher radial load carrying capacity. They are used when the radial load carrying capacity of single row deep groove ball bearings is not sufficient. Axial deep groove ball bearings are suitable for supporting particularly high axial loads. They are available in both single and double direction. Single direction thrust ball bearings can only support axial forces, while double direction thrust ball bearings can support both radial and axial forces.

BSA Series for ball screw support

In rotary encoders with integral bearing and stator coupling, the graduated disk of the encoder is connected directly to the shaft to be measured. The scanning unit is guided on the shaft via ball bearings, supported by the stator coupling. During angular acceleration of the shaft, the stator coupling must absorb only that torque resulting from friction in the bearing, thereby minimizing both static and dynamic measuring error. Moreover, the coupling mounted on the stator compensates axial motion of the measured shaft. Other benefits of the stator coupling are: Simple mounting Short overall length High natural frequency of coupling Hollow-through shaft possible HEIDENHAIN ERN, ECN and EQN rotary encoders with integral bearing and mounted stator coupling are characterized by simple mounting and short overall length.

In rotary encoders with integral bearing and stator coupling, the graduated disk of the encoder is connected directly to the shaft to be measured. The scanning unit is guided on the shaft via ball bearings, supported by the stator coupling. During angular acceleration of the shaft, the stator coupling must absorb only that torque resulting from friction in the bearing, thereby minimizing both static and dynamic measuring error. Moreover, the coupling mounted on the stator compensates axial motion of the measured shaft. Other benefits of the stator coupling are: Simple mounting Short overall length High natural frequency of coupling Hollow-through shaft possible

In rotary encoders with integral bearing and stator coupling, the graduated disk of the encoder is connected directly to the shaft to be measured. The scanning unit is guided on the shaft via ball bearings, supported by the stator coupling. During angular acceleration of the shaft, the stator coupling must absorb only that torque resulting from friction in the bearing, thereby minimizing both static and dynamic measuring error. Moreover, the coupling mounted on the stator compensates axial motion of the measured shaft. Other benefits of the stator coupling are: Simple mounting Short overall length High natural frequency of coupling Hollow-through shaft possible

In rotary encoders with integral bearing and stator coupling, the graduated disk of the encoder is connected directly to the shaft to be measured. The scanning unit is guided on the shaft via ball bearings, supported by the stator coupling. During angular acceleration of the shaft, the stator coupling must absorb only that torque resulting from friction in the bearing, thereby minimizing both static and dynamic measuring error. Moreover, the coupling mounted on the stator compensates axial motion of the measured shaft. Other benefits of the stator coupling are: Simple mounting Short overall length High natural frequency of coupling Hollow-through shaft possible

In rotary encoders with integral bearing and stator coupling, the graduated disk of the encoder is connected directly to the shaft to be measured. The scanning unit is guided on the shaft via ball bearings, supported by the stator coupling. During angular acceleration of the shaft, the stator coupling must absorb only that torque resulting from friction in the bearing, thereby minimizing both static and dynamic measuring error. Moreover, the coupling mounted on the stator compensates axial motion of the measured shaft. Other benefits of the stator coupling are: Simple mounting Short overall length High natural frequency of coupling Hollow-through shaft possible HEIDENHAIN ERN, ECN and EQN rotary encoders with integral bearing and mounted stator coupling are characterized by simple mounting and short overall length.