• Plastic encoder coupling

      Shaft encoders must be protected against excessive mechanical stresses, which occur whenever there are angular, axial, or radial misalignments between the machine and shaft encoder shafts. Our flexible couplings can compensate for this within limits.

      Hole Ø, mm:
      5 … 6
      Max. speed (rpm):
      10 000
      Torque max (N cm):
      20
      Moment of inertia (gcm2):
      1.1
      Torsional spring constant (Nm/rad):
      12
      Max. angular misalignment:
      ±2.5°
      Max. shaft misalignment radial, mm:
      ±0.3
      Max. shaft misalignment axial, mm:
      ±0.2
      Max tightening torque of screws (N cm):
      70
      Material:
      polyamide 6.6 glass-fibre reinforced
    • Helical encoder coupling 19/28

      Shaft encoders must be connected to operated shaft and protected against excessive mechanical stresses, which occur whenever there are angular, axial, or radial misalignments between the machine and encoder shafts. At the same time the coupling needs to compensate for displacements without any big forces and positioning loss affecting the components of the encoder. Our flexible couplings can compensate for this within limits.

      Hole Ø, mm:
      5 … 6,35
      Max. speed (rpm):
      6 000
      Torque max (N cm):
      80
      Moment of inertia (gcm2):
      8.7
      Torsional spring constant (Nm/rad):
      14
      Max. angular misalignment:
      ±4°
      Max. shaft misalignment radial, mm:
      ±0.25
      Max. shaft misalignment axial, mm:
      ±0.4
      Max tightening torque of screws (N cm):
      80
      Material:
      AICuMgPb, chromed
    • Helical encoder coupling 25/32

      Shaft encoders must be connected to operated shaft and protected against excessive mechanical stresses, which occur whenever there are angular, axial, or radial misalignments between the machine and encoder shafts. At the same time the coupling needs to compensate for displacements without any big forces and positioning loss affecting the components of the encoder. Our flexible couplings can compensate for this within limits.

      Hole Ø, mm:
      6 … 10
      Max. speed (rpm):
      6 000
      Torque max (N cm):
      80
      Moment of inertia (gcm2):
      8.7
      Torsional spring constant (Nm/rad):
      14
      Max. angular misalignment:
      ±4°
      Max. shaft misalignment radial, mm:
      ±0.25
      Max. shaft misalignment axial, mm:
      ±0.4
      Max tightening torque of screws (N cm):
      80
      Material:
      AICuMgPb, chromed
    • Disc encoder coupling

      Shaft encoders must be connected to operated shaft and protected against excessive mechanical stresses, which occur whenever there are angular, axial, or radial misalignments between the machine and encoder shafts. At the same time the coupling needs to compensate for displacements without any big forces and positioning loss affecting the components of the encoder. Our flexible couplings can compensate for this within limits. Disc coupling usually affects less position loss.

      Hole Ø, mm:
      6
      Max. speed (rpm):
      12 000
      Torque max (N cm):
      80
      Moment of inertia (gcm2):
      19
      Torsional spring constant (Nm/rad):
      150
      Max. angular misalignment:
      ±3°
      Max. shaft misalignment radial, mm:
      ±0.4
      Max. shaft misalignment axial, mm:
      ±0.4
      Max tightening torque of screws (N cm):
      80
      Material:
      AICuMgPb, anodized, stainless steel
    • Isolated disc encoder coupling

      Shaft encoders must be connected to operated shaft and protected against excessive mechanical stresses, which occur whenever there are angular, axial, or radial misalignments between the machine and encoder shafts. At the same time the coupling needs to compensate for displacements without any big forces and positioning loss affecting the components of the encoder. Our flexible couplings can compensate for this within limits.

      Hole Ø, mm:
      5 … 10
      Max. speed (rpm):
      12 000
      Torque max (N cm):
      60
      Moment of inertia (gcm2):
      19
      Torsional spring constant (Nm/rad):
      30
      Max. angular misalignment:
      ±2,5°
      Max. shaft misalignment radial, mm:
      ±0.3
      Max. shaft misalignment axial, mm:
      ±0.4
      Material:
      aluminium, anodized, plastic, glass-fibre reinforced
    • Disc encoder coupling LIR-800

      Shaft encoders must be connected to operated shaft and protected against excessive mechanical stresses, which occur whenever there are angular, axial, or radial misalignments between the machine and encoder shafts. At the same time the coupling needs to compensate for displacements without any big forces and positioning loss affecting the components of the encoder. Our flexible couplings can compensate for this within limits. Disc coupling usually affects less position loss.

      Hole Ø, mm:
      3 … 4
      Max. speed (rpm):
      10 000
      Torque max (N cm):
      4
      Moment of inertia (gcm2):
      1,9
      Torsional spring constant (Nm/rad):
      50
      Max. angular misalignment:
      ±0,5°
      Max. shaft misalignment radial, mm:
      ±0.2
      Max. shaft misalignment axial, mm:
      ±0.2
    • Disc encoder coupling LIR-801

      Shaft encoders must be connected to operated shaft and protected against excessive mechanical stresses, which occur whenever there are angular, axial, or radial misalignments between the machine and encoder shafts. At the same time the coupling needs to compensate for displacements without any big forces and positioning loss affecting the components of the encoder. Our flexible couplings can compensate for this within limits. Disc coupling usually affects less position loss. LIR-801 suitable for most industrial encoders with solid shaft diameters 3 to 10 mm.

      Hole Ø, mm:
      3 … 10
      Max. speed (rpm):
      10 000
      Torque max (N cm):
      10
      Moment of inertia (gcm2):
      30
      Torsional spring constant (Nm/rad):
      150
      Max. angular misalignment:
      ±1°
      Max. shaft misalignment radial, mm:
      ±0.2
      Max. shaft misalignment axial, mm:
      ±0.2
    • Bellows encoder coupling

      Shaft encoders must be connected to operated shaft and protected against excessive mechanical stresses, which occur whenever there are angular, axial, or radial misalignments between the machine and encoder shafts. At the same time the coupling needs to compensate for displacements without any big forces and positioning loss affecting the components of the encoder. Our flexible couplings can compensate for this within limits. Bellows coupling usually compensate higher misalignment.

      Hole Ø, mm:
      6 … 12
      Max. speed (rpm):
      8 000
      Torque max (N cm):
      80
      Moment of inertia (gcm2):
      9
      Torsional spring constant (Nm/rad):
      140
      Max. angular misalignment:
      ±4°
      Max. shaft misalignment radial, mm:
      ±0.3
      Max. shaft misalignment axial, mm:
      ±0.5
      Max tightening torque of screws (N cm):
      150
      Material:
      aluminium, stainless steel
    • Bellows encoder coupling LIR-814

      Shaft encoders must be connected to operated shaft and protected against excessive mechanical stresses, which occur whenever there are angular, axial, or radial misalignments between the machine and encoder shafts. At the same time the coupling needs to compensate for displacements without any big forces and positioning loss affecting the components of the encoder. Our flexible couplings can compensate for this within limits. Bellows coupling usually compensate higher misalignment.

      Hole Ø, mm:
      3 … 6
      Max. speed (rpm):
      12 000
      Torque max (N cm):
      10
      Moment of inertia (gcm2):
      2,5
      Torsional spring constant (Nm/rad):
      40
      Max. angular misalignment:
      ±1°
      Max. shaft misalignment radial, mm:
      ±0.2
      Max. shaft misalignment axial, mm:
      ±0.5
    • Bellows encoder coupling LIR-825

      Shaft encoders must be connected to operated shaft and protected against excessive mechanical stresses, which occur whenever there are angular, axial, or radial misalignments between the machine and encoder shafts. At the same time the coupling needs to compensate for displacements without any big forces and positioning loss affecting the components of the encoder. Our flexible couplings can compensate for this within limits. Bellows couplings usually compensate bigger shaft misalignment. LIR-825 suitable for most industrial encoders with solid shaft diameters 4 to 12 mm.

      Hole Ø, mm:
      4 … 12
      Max. speed (rpm):
      12 000
      Torque max (N cm):
      10
      Moment of inertia (gcm2):
      18
      Torsional spring constant (Nm/rad):
      130
      Max. angular misalignment:
      ±1°
      Max. shaft misalignment radial, mm:
      ±0.2
      Max. shaft misalignment axial, mm:
      ±1
    • High precision encoder coupling LIR-803

      Shaft encoders must be connected to operated shaft and protected against excessive mechanical stresses, which occur whenever there are angular, axial, or radial misalignments between the machine and encoder shafts. At the same time the coupling needs to compensate for displacements without any big forces and positioning loss affecting the components of the encoder. Our precision couplings provide minimal position loss.

      Hole Ø, mm:
      10; 14
      Max. speed (rpm):
      3000
      Torque max (N cm):
      50
      Moment of inertia (gcm2):
      200
      Torsional spring constant (Nm/rad):
      4000
      Max. angular misalignment:
      ±0,5°
      Max. shaft misalignment radial, mm:
      ±0.3
      Max. shaft misalignment axial, mm:
      ±0.2
    • High precision encoder coupling LIR-805

      Shaft encoders must be connected to operated shaft and protected against excessive mechanical stresses, which occur whenever there are angular, axial, or radial misalignments between the machine and encoder shafts. At the same time the coupling needs to compensate for displacements without any big forces and positioning loss affecting the components of the encoder. Our precision couplings provide minimal position loss.

      Hole Ø, mm:
      14
      Max. speed (rpm):
      1000
      Torque max (N cm):
      100
      Moment of inertia (gcm2):
      200
      Torsional spring constant (Nm/rad):
      6000
      Max. angular misalignment:
      ±1°
      Max. shaft misalignment radial, mm:
      ±0.3
      Max. shaft misalignment axial, mm:
      ±0.1
    • Measuring wheels

      Measuring wheels in combination with rotary encoder allows to measure direct linear motion. Diameter (Circumference) and tread depending on application. In order to prevent the result being distorted when the shaft encoder is driven by a measuring wheel make sure that the slip is as small as possible. When selecting the tread (surface), take into account the structure, stretchability, thickness, and resistance to being carried along of the material being measured. The slip is also affected by the width of the measuring wheel, the contact pressure, the tension in the material being measured, and the arc of contact. The arc of contact should be as large as possible. The wheel bodies are made of cast aluminium or plastic (as marked). The position of the measuring wheel should be chosen so that the direction of movement of the material is away from the shaft encoder’s bearing point.

      Diameter, mm:
      5,73 … 15,92
      Circumference, mm:
      182,88 … 500
      Bore ø, mm:
      4 … 12
      Material:
      Aluminium / Plastic
      Width of surface, mm:
      4 … 25
      Tread 1:
      with rim and fine crosshatched knurl Material: aluminium
      Tread 2A:
      soft specially clinging rubber surface (red)
      Tread 2B:
      low-wear rubber surface with good grip (white)
      Tread 3:
      vulcanized rubber surface with parallel knurl
      Tread 4:
      aluminium with parallel knurl
      Tread 5:
      with rim, aluminium with parallel knurl
      Tread 6:
      plastic surface