LIFTINGSAFETY
Yale "TPM" Permanent Lifting Magnet - Range from 100kg to 3000kg

Yale "TPM" Permanent Lifting Magnet - Range from 100kg to 3000kg

Yale permanent lifting magnets for round or flat materials handling.

Model: 

Yale TPM / PLM-1011

Yale "TPM" Permanent Lifting Magnet - Range from 100kg to 3000kg

Yale TPM Permanent Lifting Magnet Range 100kg To 2000kg Yale TPM Permanent Lifting Magnet

The Yale TPM series of load lifting magnets are available in the following capacities; 100kg, 300kg, 500kg, 800kg, 1000kg & 2000kg.

Yale TPM load lifting magnets are ideal tools for easy, quick and thus economical transport of heavy objects made from ferro-magnetic material.

Capacities and Reductions

The selection of the appropriate magnet model should be made under consideration of the varying conditions of the contact surface, kind of material alloy and plate thickness (see below and 'Capacity Reductions' Tab above).

Note: In order to achieve a maximum capacity, the contact surface should be bright and free from dirt, oil, grease, scale, corrosion, paint etc.

Magnet Features

  • Typical operating areas are workshops and warehouses, loading and unloading of machines as well as construction of jigs and fixtures.
  • Small dimensions of the units provide a wide number of additional applications.
  • The load is not affected mechanically which allows lifting of flat as well as round material.
  • The efficient magnet body provides strong lifting capacity at low dead weight.
  • The permanent magnets do not require electric energy and will present only minor residual magnetism after switching off.
  • Switching ON and OFF operations are easily accomplished by turning a locking lever.
  • In activated condition the hand lever will be safely locked and thus prevent unintended demagnetising.

Dimensions & Specifications

Model Flat Material Round Materials Test Load (kg) Dimensions (mm) Weight (kg)
Capacity Max ** Thickness min. (mm) Length max. (mm) Capacity Max ** dia. (mm) Length max. (mm) A B C D
TPM 0.1 100 14 2000 50 40-300 2000 300 122 69 185 160 6.3
TPM 0.3 300 20 2500 150 60-300 2500 900 192 95 225 250 13.5
TPM 0.5 500 24 3000 250 60-400 3000 1500 232 120 270 250 27.5
TPM 0.8 800 34 3500 400 60-400 3500 2400 302 154 320 450 52
TPM 1.0 1000 40 3500 500 80-400 3500 3000 332 154 320 450 57
TPM 2.0 2000 55 3500 1000 100-400 3500 6000 392 196 420 450 125
TPM 3.0 3000 65 3500 1500 200-500 3500 9000 497 220 453 600 195
Magnet Diagram

**Maximum lifting capacity is achieved by using mild steels with the noted minimum thickness.
Mild steel st37 - Fe 360 to BS EN 10 025 1990 (DIN 17100).

Capacity Reductions

Reduction of Capacity % of Capacity
Temperature ≤ 60°C 100 %
Humidity ≤ 80% 100 %
St 52 95 %
Alloy Steel 80 %
High Carbon Steel 70 %
Cast Iron 45 %
Nickel 45 %
Austenitic, Stainless Steel 0 %
Brass 0 %
Aluminium 0 %

Working Load Limit / Air Gap Working Load Limit / Material Thickness

Factors that reduce the magnetic clamping force:

Air gap: High magnetic forces created by the TPM allow the magnet to clamp components through the air gap. However, air gaps will reduce the magnetic performance as they provide a barrier between the contact surfaces. Air gaps occur in a number of different ways, such as paint, dust, and heavy mill scale. Poorly machined surfaces also constitute an air gap. Please down rate the magnet capacity in accordance with the adhesive force/air gap diagram below.

Material thickness: If the TPM is used to lift plates thinner than the recommended minimum thickness, the clamping forces will be significantly reduced. Performance curves can be identified in conjunction with the adhesive force/flat thickness diagram below.

Contact area: Full lifting capacity can only be achieved when the magnet has full contact area with the component being lifted. If the contact surface has holes in or is uneven, then the performance will be affected accordingly. Always carry out a trial lift in these circumstances to establish correct lifting before transporting the load.

Material type: Certain materials have different abilities to carry magnetism. For materials other than mild steel, a reduction factor must be applied in order to calculate the effective clamping force.

Typical values:
Ferrous alloy steels 0.8
High carbon steels 0.7
Cast iron 0.55

Examples of reduced SWL:
Mild steel 500g
Cast iron 500kg x 0.55 = 275kgs

Yale tpm lifting magnets in use

Pricing

Unit Price

£217.23

The Yale TPM series of load lifting magnets are available in the following capacities; 100kg, 300kg, 500kg, 800kg, 1000kg & 2000kg.

Yale TPM load lifting magnets are ideal tools for easy, quick and thus economical transport of heavy objects made from ferro-magnetic material.

Capacities and Reductions

The selection of the appropriate magnet model should be made under consideration of the varying conditions of the contact surface, kind of material alloy and plate thickness (see below and 'Capacity Reductions' Tab above).

Note: In order to achieve a maximum capacity, the contact surface should be bright and free from dirt, oil, grease, scale, corrosion, paint etc.

Magnet Features

  • Typical operating areas are workshops and warehouses, loading and unloading of machines as well as construction of jigs and fixtures.
  • Small dimensions of the units provide a wide number of additional applications.
  • The load is not affected mechanically which allows lifting of flat as well as round material.
  • The efficient magnet body provides strong lifting capacity at low dead weight.
  • The permanent magnets do not require electric energy and will present only minor residual magnetism after switching off.
  • Switching ON and OFF operations are easily accomplished by turning a locking lever.
  • In activated condition the hand lever will be safely locked and thus prevent unintended demagnetising.

Dimensions & Specifications

Model Flat Material Round Materials Test Load (kg) Dimensions (mm) Weight (kg)
Capacity Max ** Thickness min. (mm) Length max. (mm) Capacity Max ** dia. (mm) Length max. (mm) A B C D
TPM 0.1 100 14 2000 50 40-300 2000 300 122 69 185 160 6.3
TPM 0.3 300 20 2500 150 60-300 2500 900 192 95 225 250 13.5
TPM 0.5 500 24 3000 250 60-400 3000 1500 232 120 270 250 27.5
TPM 0.8 800 34 3500 400 60-400 3500 2400 302 154 320 450 52
TPM 1.0 1000 40 3500 500 80-400 3500 3000 332 154 320 450 57
TPM 2.0 2000 55 3500 1000 100-400 3500 6000 392 196 420 450 125
TPM 3.0 3000 65 3500 1500 200-500 3500 9000 497 220 453 600 195
Magnet Diagram

**Maximum lifting capacity is achieved by using mild steels with the noted minimum thickness.
Mild steel st37 - Fe 360 to BS EN 10 025 1990 (DIN 17100).

Capacity Reductions

Reduction of Capacity % of Capacity
Temperature ≤ 60°C 100 %
Humidity ≤ 80% 100 %
St 52 95 %
Alloy Steel 80 %
High Carbon Steel 70 %
Cast Iron 45 %
Nickel 45 %
Austenitic, Stainless Steel 0 %
Brass 0 %
Aluminium 0 %

Working Load Limit / Air Gap Working Load Limit / Material Thickness

Factors that reduce the magnetic clamping force:

Air gap: High magnetic forces created by the TPM allow the magnet to clamp components through the air gap. However, air gaps will reduce the magnetic performance as they provide a barrier between the contact surfaces. Air gaps occur in a number of different ways, such as paint, dust, and heavy mill scale. Poorly machined surfaces also constitute an air gap. Please down rate the magnet capacity in accordance with the adhesive force/air gap diagram below.

Material thickness: If the TPM is used to lift plates thinner than the recommended minimum thickness, the clamping forces will be significantly reduced. Performance curves can be identified in conjunction with the adhesive force/flat thickness diagram below.

Contact area: Full lifting capacity can only be achieved when the magnet has full contact area with the component being lifted. If the contact surface has holes in or is uneven, then the performance will be affected accordingly. Always carry out a trial lift in these circumstances to establish correct lifting before transporting the load.

Material type: Certain materials have different abilities to carry magnetism. For materials other than mild steel, a reduction factor must be applied in order to calculate the effective clamping force.

Typical values:
Ferrous alloy steels 0.8
High carbon steels 0.7
Cast iron 0.55

Examples of reduced SWL:
Mild steel 500g
Cast iron 500kg x 0.55 = 275kgs

Yale tpm lifting magnets in use


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