Description : External pole magnets - continuous automatic cleaning
SBP-Automatic
SKU: SBP_dummy
Product inlet size: 400 -1200 mm
External pole magnets are a good solution for applications with large amounts of ferrous contamination and where operator access is hard.Automatic cleaning during production, no production stop required.

Automatic cleaning (continuous)
Capacity up to 150 m³/h
With neodymium plate magnets

Product inlet/outlet size : #360 mm
SBP-3636-F-F1B-B-B
SKU: SBPF360001
Stock: 1
Max. capacity: 200 m³/h
No of magnets: 2
Weight: 305 kg
For filtering ferrous contaminants from coarse, free-falling, high-capacity pipelines.The magnet plates are placed outside the product channel to secure an unobstructed product flow.Cleaning is quick and easy, by means of a hinged extractor plate (quick-cleaning).

Quick cleaning through use of extractor plates
Capacity up to 200 m³/h
With neodymium or ferrite plate magnets
Installation height 400 to 760 mm
Capture Fe particles from 0.5 mm

Application

Free-fall pipes for powders & granulates

External pole magnets filter ferromagnetic (Fe) impurities – such as iron and steel – from 0.5 to 50 mm out of powders and granulates in free-fall lines. They are used in the bulk, animal feed, plastics, ceramic and recycling industries, among others.
 
External pole magnets are very robust and are able to process high capacities. The magnets are located outside the product channel, so the product can fall through freely.
 
If fine ferrous particles must be separated from powder flows, we recommend our Cleanflow magnets.

Design

Construction & materials data

Click on a product variant to find the data sheet, drawings and other downloadable product information.
 
Description
Two magnetic plates are located opposite each other, outside the product chute. They have a deeply reaching, powerful holding field, which is strengthened through clever construction of the magnets. This enables them to 'capture' Fe particles from the product stream.
 
The magnets are fitted with hinged extractor plates for quick and easy cleaning. The magnets attract the ferrous contaminants, and clamp them against the extractor plate. Ridges on the extractor plate provide extra 'shelter' and extra clamping force for the captured ferrous parts. As a result, the product flow cannot "drag them along" again.
 
Summary of important specifications

Magnet quality ferrite or neodymium
Materials housing and materials in contact with product: stainless steel
Finishing: grit blasted / magnets painted
Material gaskets neodymium version: Silicone acc. EC1935 / FDA
Material gaskets ferrite version: sponge rubber / silicone


Options

Available versions, options & accessories

Click on a product variant to find the online available accessories & spare parts.
 
Options

Magnet quality: ferrite or neodymium
Basic type: standard execution, grit blasted

Round or square in-/outlet
Food/pharma type: hygienic execution, polished

Only square in-/outlet


Working principle / video

Filtering & discharging of ferrous contaminants

How does the magnetic filtering work?
The 2 magnetic plates are placed on the outside of the product channel. Therefore a guide profile is placed in the center of the inlet flange, to force the product flow towards the magnets. The product contaminated with ferrous particles passes the magnets while flowing through the separator.
The magnets attract the ferrous particles, which are then held against the extractor plate. Ridges on the extractor plates provide extra 'shelter' and extra clamping force for the captured ferrous particles, so that the product flow cannot 'drag' them along again.
 
How does the cleaning / iron discharging work?
For these quick-cleaning type external pole magnets, you need to interrupt the product flow in order to be able to clean the magnets.
 
Swing the magnets with extractor plates completely outwards. Then turn the hinged extractor plates away from the magnets. As soon as the captured ferrous particles are out of the magnetic field reach, they will automatically fall off.
 
Cleaning / iron discharging sequence

Stop the product flow
Loosen the quick-release clamps
Swing the complete magnet unit as far away from the housing as possible
Swing the extractor plate away from the magnet
The ferrous particles now fall from the extractor plates; collect and dispose of them
Clean all parts with a soft, clean cloth and - if necessary - a suitable cleaning liquid
Swing the extractor plate back against the magnet
Swing the complete magnet unit back against the housing
Retighten the quick-release clamps
Restart the product flow

Product inlet/outlet size : #350 mm
SBP-3535-N-F1E-B-B
SKU: SBPN353500
Stock *: 0
Max. capacity: 190 m³/h
No of magnets: 2
Weight: 153 kg
For filtering ferrous contaminants from coarse, free-falling, high-capacity pipelines.The magnet plates are placed outside the product channel to secure an unobstructed product flow.Cleaning is quick and easy, by means of a hinged extractor plate (quick-cleaning).

Quick cleaning through use of extractor plates
Capacity up to 200 m³/h
With neodymium or ferrite plate magnets
Installation height 400 to 760 mm
Capture Fe particles from 0.5 mm

Application

Free-fall pipes for powders & granulates

External pole magnets filter ferromagnetic (Fe) impurities – such as iron and steel – from 0.5 to 50 mm out of powders and granulates in free-fall lines. They are used in the bulk, animal feed, plastics, ceramic and recycling industries, among others.
 
External pole magnets are very robust and are able to process high capacities. The magnets are located outside the product channel, so the product can fall through freely.
 
If fine ferrous particles must be separated from powder flows, we recommend our Cleanflow magnets.

Design

Construction & materials data

Click on a product variant to find the data sheet, drawings and other downloadable product information.
 
Description
Two magnetic plates are located opposite each other, outside the product chute. They have a deeply reaching, powerful holding field, which is strengthened through clever construction of the magnets. This enables them to 'capture' Fe particles from the product stream.
 
The magnets are fitted with hinged extractor plates for quick and easy cleaning. The magnets attract the ferrous contaminants, and clamp them against the extractor plate. Ridges on the extractor plate provide extra 'shelter' and extra clamping force for the captured ferrous parts. As a result, the product flow cannot "drag them along" again.
 
Summary of important specifications

Magnet quality ferrite or neodymium
Materials housing and materials in contact with product: stainless steel
Finishing: grit blasted / magnets painted
Material gaskets neodymium version: Silicone acc. EC1935 / FDA
Material gaskets ferrite version: sponge rubber / silicone


Options

Available versions, options & accessories

Click on a product variant to find the online available accessories & spare parts.
 
Options

Magnet quality: ferrite or neodymium
Basic type: standard execution, grit blasted

Round or square in-/outlet
Food/pharma type: hygienic execution, polished

Only square in-/outlet


Working principle / video

Filtering & discharging of ferrous contaminants

How does the magnetic filtering work?
The 2 magnetic plates are placed on the outside of the product channel. Therefore a guide profile is placed in the center of the inlet flange, to force the product flow towards the magnets. The product contaminated with ferrous particles passes the magnets while flowing through the separator.
The magnets attract the ferrous particles, which are then held against the extractor plate. Ridges on the extractor plates provide extra 'shelter' and extra clamping force for the captured ferrous particles, so that the product flow cannot 'drag' them along again.
 
How does the cleaning / iron discharging work?
For these quick-cleaning type external pole magnets, you need to interrupt the product flow in order to be able to clean the magnets.
 
Swing the magnets with extractor plates completely outwards. Then turn the hinged extractor plates away from the magnets. As soon as the captured ferrous particles are out of the magnetic field reach, they will automatically fall off.
 
Cleaning / iron discharging sequence

Stop the product flow
Loosen the quick-release clamps
Swing the complete magnet unit as far away from the housing as possible
Swing the extractor plate away from the magnet
The ferrous particles now fall from the extractor plates; collect and dispose of them
Clean all parts with a soft, clean cloth and - if necessary - a suitable cleaning liquid
Swing the extractor plate back against the magnet
Swing the complete magnet unit back against the housing
Retighten the quick-release clamps
Restart the product flow

Product inlet/outlet size : #300 mm
SBP-3030-N-F1E-B-B
SKU: SBPN303000
Stock *: 0
Max. capacity: 140 m³/h
No of magnets: 2
Weight: 104 kg
For filtering ferrous contaminants from coarse, free-falling, high-capacity pipelines.The magnet plates are placed outside the product channel to secure an unobstructed product flow.Cleaning is quick and easy, by means of a hinged extractor plate (quick-cleaning).

Quick cleaning through use of extractor plates
Capacity up to 200 m³/h
With neodymium or ferrite plate magnets
Installation height 400 to 760 mm
Capture Fe particles from 0.5 mm

Application

Free-fall pipes for powders & granulates

External pole magnets filter ferromagnetic (Fe) impurities – such as iron and steel – from 0.5 to 50 mm out of powders and granulates in free-fall lines. They are used in the bulk, animal feed, plastics, ceramic and recycling industries, among others.
 
External pole magnets are very robust and are able to process high capacities. The magnets are located outside the product channel, so the product can fall through freely.
 
If fine ferrous particles must be separated from powder flows, we recommend our Cleanflow magnets.

Design

Construction & materials data

Click on a product variant to find the data sheet, drawings and other downloadable product information.
 
Description
Two magnetic plates are located opposite each other, outside the product chute. They have a deeply reaching, powerful holding field, which is strengthened through clever construction of the magnets. This enables them to 'capture' Fe particles from the product stream.
 
The magnets are fitted with hinged extractor plates for quick and easy cleaning. The magnets attract the ferrous contaminants, and clamp them against the extractor plate. Ridges on the extractor plate provide extra 'shelter' and extra clamping force for the captured ferrous parts. As a result, the product flow cannot "drag them along" again.
 
Summary of important specifications

Magnet quality ferrite or neodymium
Materials housing and materials in contact with product: stainless steel
Finishing: grit blasted / magnets painted
Material gaskets neodymium version: Silicone acc. EC1935 / FDA
Material gaskets ferrite version: sponge rubber / silicone


Options

Available versions, options & accessories

Click on a product variant to find the online available accessories & spare parts.
 
Options

Magnet quality: ferrite or neodymium
Basic type: standard execution, grit blasted

Round or square in-/outlet
Food/pharma type: hygienic execution, polished

Only square in-/outlet


Working principle / video

Filtering & discharging of ferrous contaminants

How does the magnetic filtering work?
The 2 magnetic plates are placed on the outside of the product channel. Therefore a guide profile is placed in the center of the inlet flange, to force the product flow towards the magnets. The product contaminated with ferrous particles passes the magnets while flowing through the separator.
The magnets attract the ferrous particles, which are then held against the extractor plate. Ridges on the extractor plates provide extra 'shelter' and extra clamping force for the captured ferrous particles, so that the product flow cannot 'drag' them along again.
 
How does the cleaning / iron discharging work?
For these quick-cleaning type external pole magnets, you need to interrupt the product flow in order to be able to clean the magnets.
 
Swing the magnets with extractor plates completely outwards. Then turn the hinged extractor plates away from the magnets. As soon as the captured ferrous particles are out of the magnetic field reach, they will automatically fall off.
 
Cleaning / iron discharging sequence

Stop the product flow
Loosen the quick-release clamps
Swing the complete magnet unit as far away from the housing as possible
Swing the extractor plate away from the magnet
The ferrous particles now fall from the extractor plates; collect and dispose of them
Clean all parts with a soft, clean cloth and - if necessary - a suitable cleaning liquid
Swing the extractor plate back against the magnet
Swing the complete magnet unit back against the housing
Retighten the quick-release clamps
Restart the product flow

Product inlet/outlet size : #260 mm
SBP-2626-F-F1B-B-B
SKU: SBPF260001
Stock *: 0
Max. capacity: 100 m³/h
No of magnets: 2
Weight: 225 kg
For filtering ferrous contaminants from coarse, free-falling, high-capacity pipelines.The magnet plates are placed outside the product channel to secure an unobstructed product flow.Cleaning is quick and easy, by means of a hinged extractor plate (quick-cleaning).

Quick cleaning through use of extractor plates
Capacity up to 200 m³/h
With neodymium or ferrite plate magnets
Installation height 400 to 760 mm
Capture Fe particles from 0.5 mm

Application

Free-fall pipes for powders & granulates

External pole magnets filter ferromagnetic (Fe) impurities – such as iron and steel – from 0.5 to 50 mm out of powders and granulates in free-fall lines. They are used in the bulk, animal feed, plastics, ceramic and recycling industries, among others.
 
External pole magnets are very robust and are able to process high capacities. The magnets are located outside the product channel, so the product can fall through freely.
 
If fine ferrous particles must be separated from powder flows, we recommend our Cleanflow magnets.

Design

Construction & materials data

Click on a product variant to find the data sheet, drawings and other downloadable product information.
 
Description
Two magnetic plates are located opposite each other, outside the product chute. They have a deeply reaching, powerful holding field, which is strengthened through clever construction of the magnets. This enables them to 'capture' Fe particles from the product stream.
 
The magnets are fitted with hinged extractor plates for quick and easy cleaning. The magnets attract the ferrous contaminants, and clamp them against the extractor plate. Ridges on the extractor plate provide extra 'shelter' and extra clamping force for the captured ferrous parts. As a result, the product flow cannot "drag them along" again.
 
Summary of important specifications

Magnet quality ferrite or neodymium
Materials housing and materials in contact with product: stainless steel
Finishing: grit blasted / magnets painted
Material gaskets neodymium version: Silicone acc. EC1935 / FDA
Material gaskets ferrite version: sponge rubber / silicone


Options

Available versions, options & accessories

Click on a product variant to find the online available accessories & spare parts.
 
Options

Magnet quality: ferrite or neodymium
Basic type: standard execution, grit blasted

Round or square in-/outlet
Food/pharma type: hygienic execution, polished

Only square in-/outlet


Working principle / video

Filtering & discharging of ferrous contaminants

How does the magnetic filtering work?
The 2 magnetic plates are placed on the outside of the product channel. Therefore a guide profile is placed in the center of the inlet flange, to force the product flow towards the magnets. The product contaminated with ferrous particles passes the magnets while flowing through the separator.
The magnets attract the ferrous particles, which are then held against the extractor plate. Ridges on the extractor plates provide extra 'shelter' and extra clamping force for the captured ferrous particles, so that the product flow cannot 'drag' them along again.
 
How does the cleaning / iron discharging work?
For these quick-cleaning type external pole magnets, you need to interrupt the product flow in order to be able to clean the magnets.
 
Swing the magnets with extractor plates completely outwards. Then turn the hinged extractor plates away from the magnets. As soon as the captured ferrous particles are out of the magnetic field reach, they will automatically fall off.
 
Cleaning / iron discharging sequence

Stop the product flow
Loosen the quick-release clamps
Swing the complete magnet unit as far away from the housing as possible
Swing the extractor plate away from the magnet
The ferrous particles now fall from the extractor plates; collect and dispose of them
Clean all parts with a soft, clean cloth and - if necessary - a suitable cleaning liquid
Swing the extractor plate back against the magnet
Swing the complete magnet unit back against the housing
Retighten the quick-release clamps
Restart the product flow

Product inlet/outlet size : #250 mm
SBP-2525-N-F1E-B-B
SKU: SBPN252500
Stock *: 0
Max. capacity: 100 m³/h
No of magnets: 2
Weight: 90 kg
For filtering ferrous contaminants from coarse, free-falling, high-capacity pipelines.The magnet plates are placed outside the product channel to secure an unobstructed product flow.Cleaning is quick and easy, by means of a hinged extractor plate (quick-cleaning).

Quick cleaning through use of extractor plates
Capacity up to 200 m³/h
With neodymium or ferrite plate magnets
Installation height 400 to 760 mm
Capture Fe particles from 0.5 mm

Application

Free-fall pipes for powders & granulates

External pole magnets filter ferromagnetic (Fe) impurities – such as iron and steel – from 0.5 to 50 mm out of powders and granulates in free-fall lines. They are used in the bulk, animal feed, plastics, ceramic and recycling industries, among others.
 
External pole magnets are very robust and are able to process high capacities. The magnets are located outside the product channel, so the product can fall through freely.
 
If fine ferrous particles must be separated from powder flows, we recommend our Cleanflow magnets.

Design

Construction & materials data

Click on a product variant to find the data sheet, drawings and other downloadable product information.
 
Description
Two magnetic plates are located opposite each other, outside the product chute. They have a deeply reaching, powerful holding field, which is strengthened through clever construction of the magnets. This enables them to 'capture' Fe particles from the product stream.
 
The magnets are fitted with hinged extractor plates for quick and easy cleaning. The magnets attract the ferrous contaminants, and clamp them against the extractor plate. Ridges on the extractor plate provide extra 'shelter' and extra clamping force for the captured ferrous parts. As a result, the product flow cannot "drag them along" again.
 
Summary of important specifications

Magnet quality ferrite or neodymium
Materials housing and materials in contact with product: stainless steel
Finishing: grit blasted / magnets painted
Material gaskets neodymium version: Silicone acc. EC1935 / FDA
Material gaskets ferrite version: sponge rubber / silicone


Options

Available versions, options & accessories

Click on a product variant to find the online available accessories & spare parts.
 
Options

Magnet quality: ferrite or neodymium
Basic type: standard execution, grit blasted

Round or square in-/outlet
Food/pharma type: hygienic execution, polished

Only square in-/outlet


Working principle / video

Filtering & discharging of ferrous contaminants

How does the magnetic filtering work?
The 2 magnetic plates are placed on the outside of the product channel. Therefore a guide profile is placed in the center of the inlet flange, to force the product flow towards the magnets. The product contaminated with ferrous particles passes the magnets while flowing through the separator.
The magnets attract the ferrous particles, which are then held against the extractor plate. Ridges on the extractor plates provide extra 'shelter' and extra clamping force for the captured ferrous particles, so that the product flow cannot 'drag' them along again.
 
How does the cleaning / iron discharging work?
For these quick-cleaning type external pole magnets, you need to interrupt the product flow in order to be able to clean the magnets.
 
Swing the magnets with extractor plates completely outwards. Then turn the hinged extractor plates away from the magnets. As soon as the captured ferrous particles are out of the magnetic field reach, they will automatically fall off.
 
Cleaning / iron discharging sequence

Stop the product flow
Loosen the quick-release clamps
Swing the complete magnet unit as far away from the housing as possible
Swing the extractor plate away from the magnet
The ferrous particles now fall from the extractor plates; collect and dispose of them
Clean all parts with a soft, clean cloth and - if necessary - a suitable cleaning liquid
Swing the extractor plate back against the magnet
Swing the complete magnet unit back against the housing
Retighten the quick-release clamps
Restart the product flow

Product inlet/outlet size : #200 mm
SBP-2020-N-F1E-B-B
SKU: SBPN202000
Stock: 1
Max. capacity: 75 m³/h
No of magnets: 2
Weight: 78 kg
For filtering ferrous contaminants from coarse, free-falling, high-capacity pipelines.The magnet plates are placed outside the product channel to secure an unobstructed product flow.Cleaning is quick and easy, by means of a hinged extractor plate (quick-cleaning).

Quick cleaning through use of extractor plates
Capacity up to 200 m³/h
With neodymium or ferrite plate magnets
Installation height 400 to 760 mm
Capture Fe particles from 0.5 mm

Application

Free-fall pipes for powders & granulates

External pole magnets filter ferromagnetic (Fe) impurities – such as iron and steel – from 0.5 to 50 mm out of powders and granulates in free-fall lines. They are used in the bulk, animal feed, plastics, ceramic and recycling industries, among others.
 
External pole magnets are very robust and are able to process high capacities. The magnets are located outside the product channel, so the product can fall through freely.
 
If fine ferrous particles must be separated from powder flows, we recommend our Cleanflow magnets.

Design

Construction & materials data

Click on a product variant to find the data sheet, drawings and other downloadable product information.
 
Description
Two magnetic plates are located opposite each other, outside the product chute. They have a deeply reaching, powerful holding field, which is strengthened through clever construction of the magnets. This enables them to 'capture' Fe particles from the product stream.
 
The magnets are fitted with hinged extractor plates for quick and easy cleaning. The magnets attract the ferrous contaminants, and clamp them against the extractor plate. Ridges on the extractor plate provide extra 'shelter' and extra clamping force for the captured ferrous parts. As a result, the product flow cannot "drag them along" again.
 
Summary of important specifications

Magnet quality ferrite or neodymium
Materials housing and materials in contact with product: stainless steel
Finishing: grit blasted / magnets painted
Material gaskets neodymium version: Silicone acc. EC1935 / FDA
Material gaskets ferrite version: sponge rubber / silicone


Options

Available versions, options & accessories

Click on a product variant to find the online available accessories & spare parts.
 
Options

Magnet quality: ferrite or neodymium
Basic type: standard execution, grit blasted

Round or square in-/outlet
Food/pharma type: hygienic execution, polished

Only square in-/outlet


Working principle / video

Filtering & discharging of ferrous contaminants

How does the magnetic filtering work?
The 2 magnetic plates are placed on the outside of the product channel. Therefore a guide profile is placed in the center of the inlet flange, to force the product flow towards the magnets. The product contaminated with ferrous particles passes the magnets while flowing through the separator.
The magnets attract the ferrous particles, which are then held against the extractor plate. Ridges on the extractor plates provide extra 'shelter' and extra clamping force for the captured ferrous particles, so that the product flow cannot 'drag' them along again.
 
How does the cleaning / iron discharging work?
For these quick-cleaning type external pole magnets, you need to interrupt the product flow in order to be able to clean the magnets.
 
Swing the magnets with extractor plates completely outwards. Then turn the hinged extractor plates away from the magnets. As soon as the captured ferrous particles are out of the magnetic field reach, they will automatically fall off.
 
Cleaning / iron discharging sequence

Stop the product flow
Loosen the quick-release clamps
Swing the complete magnet unit as far away from the housing as possible
Swing the extractor plate away from the magnet
The ferrous particles now fall from the extractor plates; collect and dispose of them
Clean all parts with a soft, clean cloth and - if necessary - a suitable cleaning liquid
Swing the extractor plate back against the magnet
Swing the complete magnet unit back against the housing
Retighten the quick-release clamps
Restart the product flow

Product inlet/outlet size : #180 mm
SBP-1818-F-F1B-B-B
SKU: SBPF180001
Stock *: 0
Max. capacity: 50 m³/h
No of magnets: 2
Weight: 85 kg
For filtering ferrous contaminants from coarse, free-falling, high-capacity pipelines.The magnet plates are placed outside the product channel to secure an unobstructed product flow.Cleaning is quick and easy, by means of a hinged extractor plate (quick-cleaning).

Quick cleaning through use of extractor plates
Capacity up to 200 m³/h
With neodymium or ferrite plate magnets
Installation height 400 to 760 mm
Capture Fe particles from 0.5 mm

Application

Free-fall pipes for powders & granulates

External pole magnets filter ferromagnetic (Fe) impurities – such as iron and steel – from 0.5 to 50 mm out of powders and granulates in free-fall lines. They are used in the bulk, animal feed, plastics, ceramic and recycling industries, among others.
 
External pole magnets are very robust and are able to process high capacities. The magnets are located outside the product channel, so the product can fall through freely.
 
If fine ferrous particles must be separated from powder flows, we recommend our Cleanflow magnets.

Design

Construction & materials data

Click on a product variant to find the data sheet, drawings and other downloadable product information.
 
Description
Two magnetic plates are located opposite each other, outside the product chute. They have a deeply reaching, powerful holding field, which is strengthened through clever construction of the magnets. This enables them to 'capture' Fe particles from the product stream.
 
The magnets are fitted with hinged extractor plates for quick and easy cleaning. The magnets attract the ferrous contaminants, and clamp them against the extractor plate. Ridges on the extractor plate provide extra 'shelter' and extra clamping force for the captured ferrous parts. As a result, the product flow cannot "drag them along" again.
 
Summary of important specifications

Magnet quality ferrite or neodymium
Materials housing and materials in contact with product: stainless steel
Finishing: grit blasted / magnets painted
Material gaskets neodymium version: Silicone acc. EC1935 / FDA
Material gaskets ferrite version: sponge rubber / silicone


Options

Available versions, options & accessories

Click on a product variant to find the online available accessories & spare parts.
 
Options

Magnet quality: ferrite or neodymium
Basic type: standard execution, grit blasted

Round or square in-/outlet
Food/pharma type: hygienic execution, polished

Only square in-/outlet


Working principle / video

Filtering & discharging of ferrous contaminants

How does the magnetic filtering work?
The 2 magnetic plates are placed on the outside of the product channel. Therefore a guide profile is placed in the center of the inlet flange, to force the product flow towards the magnets. The product contaminated with ferrous particles passes the magnets while flowing through the separator.
The magnets attract the ferrous particles, which are then held against the extractor plate. Ridges on the extractor plates provide extra 'shelter' and extra clamping force for the captured ferrous particles, so that the product flow cannot 'drag' them along again.
 
How does the cleaning / iron discharging work?
For these quick-cleaning type external pole magnets, you need to interrupt the product flow in order to be able to clean the magnets.
 
Swing the magnets with extractor plates completely outwards. Then turn the hinged extractor plates away from the magnets. As soon as the captured ferrous particles are out of the magnetic field reach, they will automatically fall off.
 
Cleaning / iron discharging sequence

Stop the product flow
Loosen the quick-release clamps
Swing the complete magnet unit as far away from the housing as possible
Swing the extractor plate away from the magnet
The ferrous particles now fall from the extractor plates; collect and dispose of them
Clean all parts with a soft, clean cloth and - if necessary - a suitable cleaning liquid
Swing the extractor plate back against the magnet
Swing the complete magnet unit back against the housing
Retighten the quick-release clamps
Restart the product flow

Belt type : Rubber, with cleats (EP400/3 4+2mm)
RUBBER BELT EP400/3-4+2
SKU: 45.3050003
Stock *: 0
Suitable for belt width: 600 mm
Spare conveyor belts, to replace worn or damaged conveyor belts of Goudsmit eddy current, overband or high gradient magnetic head pulleys.

Fast delivery
Quick and efficient
Long service lifespan
High quality components
Prevents production downtime

Suitable for belt width : 1200 mm
ROP-N3-C-120-W-H-L-B-B-B-NA
SKU: RONC120530
Stock *: 0
Weight: 680 kg
Lightweight, compact and powerful. Suitable for fine fractions in small layer thickness, can also separate weakly magnetic parts. No control box required and available with hydro-motor. Often used in mobile installations.

Lightweight and compact
Stainless steel body
Electro or Hydro drive
Non-switchable (permanent magnet)
Capture Fe particles from 1 mm

Application

Application

These magnets are often used on mobile shredders or sieves because they are compact and lightweight. The magnetic separators are made of stainless steel so that they do not rust due to weather influences, such as rain. You can choose between electric or hydro motor for the drive roller. The magnet with hydro drive can be integrated to the existing hydraulic system of the mobile installation. So that no additional power supply is required.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1200 mm
ROP-N3-C-120-W-G-L-B-B-B-NA
SKU: RONC120330
Stock: 1
Weight: 690 kg
Lightweight, compact and powerful. Suitable for fine fractions in small layer thickness, can also separate weakly magnetic parts. No control box required and available with hydro-motor. Often used in mobile installations.

Lightweight and compact
Stainless steel body
Electro or Hydro drive
Non-switchable (permanent magnet)
Capture Fe particles from 1 mm

Application

Application

These magnets are often used on mobile shredders or sieves because they are compact and lightweight. The magnetic separators are made of stainless steel so that they do not rust due to weather influences, such as rain. You can choose between electric or hydro motor for the drive roller. The magnet with hydro drive can be integrated to the existing hydraulic system of the mobile installation. So that no additional power supply is required.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1000 mm
ROP-N3-C-100-W-H-L-B-B-B-NA
SKU: RONC100530
Stock *: 0
Weight: 595 kg
Lightweight, compact and powerful. Suitable for fine fractions in small layer thickness, can also separate weakly magnetic parts. No control box required and available with hydro-motor. Often used in mobile installations.

Lightweight and compact
Stainless steel body
Electro or Hydro drive
Non-switchable (permanent magnet)
Capture Fe particles from 1 mm

Application

Application

These magnets are often used on mobile shredders or sieves because they are compact and lightweight. The magnetic separators are made of stainless steel so that they do not rust due to weather influences, such as rain. You can choose between electric or hydro motor for the drive roller. The magnet with hydro drive can be integrated to the existing hydraulic system of the mobile installation. So that no additional power supply is required.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1000 mm
ROP-N3-C-100-W-G-L-B-B-B-NA
SKU: RONC100330
Stock *: 0
Weight: 605 kg
Lightweight, compact and powerful. Suitable for fine fractions in small layer thickness, can also separate weakly magnetic parts. No control box required and available with hydro-motor. Often used in mobile installations.

Lightweight and compact
Stainless steel body
Electro or Hydro drive
Non-switchable (permanent magnet)
Capture Fe particles from 1 mm

Application

Application

These magnets are often used on mobile shredders or sieves because they are compact and lightweight. The magnetic separators are made of stainless steel so that they do not rust due to weather influences, such as rain. You can choose between electric or hydro motor for the drive roller. The magnet with hydro drive can be integrated to the existing hydraulic system of the mobile installation. So that no additional power supply is required.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 800 mm
ROP-N3-C-080-W-H-L-B-B-B-NA
SKU: RONC080530
Stock *: 0
Weight: 510 kg
Lightweight, compact and powerful. Suitable for fine fractions in small layer thickness, can also separate weakly magnetic parts. No control box required and available with hydro-motor. Often used in mobile installations.

Lightweight and compact
Stainless steel body
Electro or Hydro drive
Non-switchable (permanent magnet)
Capture Fe particles from 1 mm

Application

Application

These magnets are often used on mobile shredders or sieves because they are compact and lightweight. The magnetic separators are made of stainless steel so that they do not rust due to weather influences, such as rain. You can choose between electric or hydro motor for the drive roller. The magnet with hydro drive can be integrated to the existing hydraulic system of the mobile installation. So that no additional power supply is required.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 800 mm
ROP-N3-C-080-W-G-L-B-B-B-NA
SKU: RONC080330
Stock *: 0
Weight: 520 kg
Lightweight, compact and powerful. Suitable for fine fractions in small layer thickness, can also separate weakly magnetic parts. No control box required and available with hydro-motor. Often used in mobile installations.

Lightweight and compact
Stainless steel body
Electro or Hydro drive
Non-switchable (permanent magnet)
Capture Fe particles from 1 mm

Application

Application

These magnets are often used on mobile shredders or sieves because they are compact and lightweight. The magnetic separators are made of stainless steel so that they do not rust due to weather influences, such as rain. You can choose between electric or hydro motor for the drive roller. The magnet with hydro drive can be integrated to the existing hydraulic system of the mobile installation. So that no additional power supply is required.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 650 mm
ROP-N3-C-065-W-H-L-B-B-B-NA
SKU: RONC065530
Stock *: 0
Weight: 455 kg
Lightweight, compact and powerful. Suitable for fine fractions in small layer thickness, can also separate weakly magnetic parts. No control box required and available with hydro-motor. Often used in mobile installations.

Lightweight and compact
Stainless steel body
Electro or Hydro drive
Non-switchable (permanent magnet)
Capture Fe particles from 1 mm

Application

Application

These magnets are often used on mobile shredders or sieves because they are compact and lightweight. The magnetic separators are made of stainless steel so that they do not rust due to weather influences, such as rain. You can choose between electric or hydro motor for the drive roller. The magnet with hydro drive can be integrated to the existing hydraulic system of the mobile installation. So that no additional power supply is required.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 650 mm
ROP-N3-C-065-W-G-L-B-B-B-NA
SKU: RONC065330
Stock *: 0
Weight: 465 kg
Lightweight, compact and powerful. Suitable for fine fractions in small layer thickness, can also separate weakly magnetic parts. No control box required and available with hydro-motor. Often used in mobile installations.

Lightweight and compact
Stainless steel body
Electro or Hydro drive
Non-switchable (permanent magnet)
Capture Fe particles from 1 mm

Application

Application

These magnets are often used on mobile shredders or sieves because they are compact and lightweight. The magnetic separators are made of stainless steel so that they do not rust due to weather influences, such as rain. You can choose between electric or hydro motor for the drive roller. The magnet with hydro drive can be integrated to the existing hydraulic system of the mobile installation. So that no additional power supply is required.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1600 mm
ROP-F6-I-160-W-G-L-B-B-B-NA
SKU: ROFI160360
Stock *: 0
Advised max. installation height: 450 mm
Suitable for: Inline mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1400 mm
ROP-F6-I-140-W-G-L-B-B-B-NA
SKU: ROFI140360
Stock *: 0
Advised max. installation height: 450 mm
Suitable for: Inline mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1600 mm
ROP-F6-C-160-W-G-L-B-B-B-NA
SKU: ROFC160360
Stock *: 0
Advised max. installation height: 450 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1400 mm
ROP-F6-C-140-W-G-L-B-B-B-NA
SKU: ROFC140360
Stock *: 0
Advised max. installation height: 450 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1200 mm
ROP-F6-C-120-W-G-L-B-B-B-NA
SKU: ROFC120360
Stock *: 0
Advised max. installation height: 450 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1000 mm
ROP-F6-C-100-W-G-L-B-B-B-NA
SKU: ROFC100360
Stock *: 0
Advised max. installation height: 450 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1400 mm
ROP-F5-I-140-W-G-L-B-B-B-NA
SKU: ROFI140350
Stock *: 0
Advised max. installation height: 400 mm
Suitable for: Inline mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1200 mm
ROP-F5-I-120-W-G-L-B-B-B-NA
SKU: ROFI120350
Stock *: 0
Advised max. installation height: 400 mm
Suitable for: Inline mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1600 mm
ROP-F5-C-160-W-G-L-B-B-B-NA
SKU: ROFC160350
Stock *: 0
Advised max. installation height: 400 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1400 mm
ROP-F5-C-140-W-G-L-B-B-B-NA
SKU: ROFC140350
Stock: 1
Advised max. installation height: 400 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1200 mm
ROP-F5-C-120-W-G-L-B-B-B-NA
SKU: ROFC120350
Stock *: 0
Advised max. installation height: 400 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1000 mm
ROP-F5-C-100-W-G-L-B-B-B-NA
SKU: ROFC100350
Stock *: 0
Advised max. installation height: 400 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 800 mm
ROP-F5-C-080-W-G-L-B-B-B-NA
SKU: ROFC080350
Stock *: 0
Advised max. installation height: 400 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1200 mm
ROP-F4-I-120-W-G-L-B-B-B-NA
SKU: ROFI120340
Stock *: 0
Advised max. installation height: 320 mm
Suitable for: Inline mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1000 mm
ROP-F4-I-100-W-G-L-B-B-B-NA
SKU: ROFI100340
Stock *: 0
Advised max. installation height: 320 mm
Suitable for: Inline mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1600 mm
ROP-F4-C-160-W-G-L-B-B-B-NA
SKU: ROFC160340
Stock *: 0
Advised max. installation height: 320 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1400 mm
ROP-F4-C-140-W-G-L-B-B-B-NA
SKU: ROFC140340
Stock *: 0
Advised max. installation height: 320 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1200 mm
ROP-F4-C-120-W-G-L-B-B-B-NA
SKU: ROFC120340
Stock *: 0
Advised max. installation height: 320 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1000 mm
ROP-F4-C-100-W-G-L-B-B-B-NA
SKU: ROFC100340
Stock *: 0
Advised max. installation height: 320 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 800 mm
ROP-F4-C-080-W-G-L-B-B-B-NA
SKU: ROFC080340
Stock *: 0
Advised max. installation height: 320 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 650 mm
ROP-F4-C-065-W-G-L-B-B-B-NA
SKU: ROFC065340
Stock *: 0
Advised max. installation height: 320 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1000 mm
ROP-F3-I-100-W-G-L-B-B-B-NA
SKU: ROFI100330
Stock *: 0
Advised max. installation height: 280 mm
Suitable for: Inline mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 800 mm
ROP-F3-I-080-W-G-L-B-B-B-NA
SKU: ROFI080330
Stock *: 0
Advised max. installation height: 280 mm
Suitable for: Inline mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1200 mm
ROP-F3-C-120-W-G-L-B-B-B-NA
SKU: ROFC120330
Stock *: 0
Advised max. installation height: 280 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1000 mm
ROP-F3-C-100-W-G-L-B-B-B-NA
SKU: ROFC100330
Stock *: 0
Advised max. installation height: 280 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 800 mm
ROP-F3-C-080-W-G-L-B-B-B-NA
SKU: ROFC080330
Stock *: 0
Advised max. installation height: 280 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 650 mm
ROP-F3-C-065-W-G-L-B-B-B-NA
SKU: ROFC065330
Stock *: 0
Advised max. installation height: 280 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1400 mm
ROP-F1-C-140-M-D-L-B-B-B-NA
SKU: SAPB140520
Stock *: 0
Advised max. installation height: 230 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1200 mm
ROP-F1-C-120-M-D-L-B-B-B-NA
SKU: SAPB120520
Stock *: 0
Advised max. installation height: 230 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 1000 mm
ROP-F1-C-100-M-D-L-B-B-B-NA
SKU: SAPB100520
Stock *: 0
Advised max. installation height: 230 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 800 mm
ROP-F1-C-080-M-D-L-B-B-B-NA
SKU: SAPB080520
Stock: 5
Advised max. installation height: 230 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Suitable for belt width : 600 mm
ROP-F1-C-060-M-D-L-B-B-B-NA
SKU: SAPB060520
Stock: 3
Advised max. installation height: 230 mm
Suitable for: Cross mounting
Cost effective solution. Suitable for thin to thick layers and do not require a control box. Very reliable and available in many belt widths. Available in transverse or in-line versions for installation above your conveyor belt or end pulley.

Cross or inline version
For belt width 400-1600 mm
Easy to install
Permanent magnet
Max. installation height 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates (ferromagnetic) Fe parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overband magnetic separators are suitable for both the recovery (recycling) of ferrous parts and the removal/elimination of impurities (iron contaminants).
These magnets are mainly suitable for coarser fractions with pieces larger than 10 mm. Thanks to the robust, reliable technology, these magnets have applications in many industries. Putting a permanent overbelt magnet in service requires nothing more than four suspension points, sufficient space and power to drive the conveyor belt.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid-air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Belt width : 1600 mm
ROEZ-09-C-160-W-G-L-B-B-B-B-NA
SKU: SZEB160004
Stock *: 0
Advised max. installation height: 600 mm
Magnet power cold/warm: 16 200 / 11 900 W
Heavy, robust and very powerful. Electromagnetic overband magnets have a deeply penetrating magnetic field and are therefore suitable for very thick layers. A control box is required. The magnet can be turned off for service or cleaning purposes.

Electrical power supply required
Max. installation height 600 mm
For belt width 800-1600 mm
Switchable (electromagnet)
Max. layer thickness 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates Ferrous parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overbelt magnetic separators are suitable for both the recovery of ferrous parts and the removal of iron impurities.
 
The electro overband magnet has the deepest holding field and is therefore the most suitable of all the overband magnets for the removal of steel particles from material streams with thick layers. Disadvantages are the higher power consumption and higher weight relative to the permanent overband magnets.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Overband placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Belt width : 1400 mm
ROE-08-C-140-W-G-R-B-R-B-B-NA
SKU: SEEB140023
Stock *: 0
Advised max. installation height: 520 mm
Magnet power cold/warm: 10 400 / 7600 W
Heavy, robust and very powerful. Electromagnetic overband magnets have a deeply penetrating magnetic field and are therefore suitable for very thick layers. A control box is required. The magnet can be turned off for service or cleaning purposes.

Electrical power supply required
Max. installation height 600 mm
For belt width 800-1600 mm
Switchable (electromagnet)
Max. layer thickness 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates Ferrous parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overbelt magnetic separators are suitable for both the recovery of ferrous parts and the removal of iron impurities.
 
The electro overband magnet has the deepest holding field and is therefore the most suitable of all the overband magnets for the removal of steel particles from material streams with thick layers. Disadvantages are the higher power consumption and higher weight relative to the permanent overband magnets.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Overband placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Belt width : 1200 mm
ROE-06-C-120-W-G-R-B-R-B-B-NA
SKU: SEEB120023
Stock *: 0
Advised max. installation height: 450 mm
Magnet power cold/warm: 7600 / 5600 W
Heavy, robust and very powerful. Electromagnetic overband magnets have a deeply penetrating magnetic field and are therefore suitable for very thick layers. A control box is required. The magnet can be turned off for service or cleaning purposes.

Electrical power supply required
Max. installation height 600 mm
For belt width 800-1600 mm
Switchable (electromagnet)
Max. layer thickness 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates Ferrous parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overbelt magnetic separators are suitable for both the recovery of ferrous parts and the removal of iron impurities.
 
The electro overband magnet has the deepest holding field and is therefore the most suitable of all the overband magnets for the removal of steel particles from material streams with thick layers. Disadvantages are the higher power consumption and higher weight relative to the permanent overband magnets.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Overband placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Belt width : 800 - 1000 mm
ROE-05-C-100-W-G-R-B-R-B-B-NA
SKU: SEEB100023
Stock *: 0
Advised max. installation height: 360 mm
Magnet power cold/warm: 5800 / 4300 W
Heavy, robust and very powerful. Electromagnetic overband magnets have a deeply penetrating magnetic field and are therefore suitable for very thick layers. A control box is required. The magnet can be turned off for service or cleaning purposes.

Electrical power supply required
Max. installation height 600 mm
For belt width 800-1600 mm
Switchable (electromagnet)
Max. layer thickness 450 mm

Application

Application

An overbelt magnet is suitable for removal or separation of high volumes of iron or steel and hangs above a flat- or trough-shaped conveyor. This type of magnet is self-cleaning and continuously separates Ferrous parts from material streams. The iron removal efficiency of overband magnets ranges from 70 to 90%. This depends on magnet design, product flow and placement. Automatic self-cleaning overbelt magnetic separators are suitable for both the recovery of ferrous parts and the removal of iron impurities.
 
The electro overband magnet has the deepest holding field and is therefore the most suitable of all the overband magnets for the removal of steel particles from material streams with thick layers. Disadvantages are the higher power consumption and higher weight relative to the permanent overband magnets.

Operation

Operation

Conveyor belt speed:
to remove ferrous or iron parts from a material flow, they must remain in a magnetic field for between approximately 0.3 and 0.5 seconds, where they are magnetized. To achieve maximum separation, it is important to optimally match the size of the magnet block (main pole) and the belt speed. This means that with a narrow overband magnet the conveyor belt beneath it must run at lower capacity (m/s) than with a wider magnet at the same suspension height. The following formula provides an indication of the maximum conveyor belt speed:
 
Maximum conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)
 
Recommended conveyor belt speed (b) = block magnet width (a) / 0.3 (sec.)

Placement

Overband placement

The distance between a magnet and the conveyor belt must be as small as possible. The magnetic force decreases exponentially with increasing distance. There is, however, a minimum distance required so the rubber cleats safely remove all the ferrous parts from the material flow. There are two methods for use/placement of overband magnets: transverse and in-line. Goudsmit has a specific, optimum magnet configuration for both mounting options.
 
Transverse ('Cross')
In practice, transverse placement is most common, because it is easier to install in an existing line. An additional advantage is a ferrous discharge to the side, which from the logistical perspective is easier to process.
 
'In-line'
If you have the option to place your overband magnet in line with the conveyor belt, this is always preferred. The advantage of this is that the transported material ‘breaks open’ at the end of the belt (head roller) and is therefore suspended in mid air for several milliseconds. As a result, the magnet can easily pull the ferrous metal out of the product flow.

Non magnetic zone

Non magnetic zone

When positioning the magnet, the construction below the magnet such as the frame, bearing rollers and end rollers must be made of non-magnetic material. This is because steel parts will become magnetized, which will adversely affect the separation performance of the overband magnet.
 
For more information and the rule of thumb, see: Non-magnetic-zone

Summary : Electro scrap drum
RMD-XX-XXX-RS-E-UR-xxxx
SKU: ExxxESCRAPDRUM
Stock: 0
These robust, switchable, electro drum magnets are used for processing large volumes, containing large or sharp pieces, such as: scrap, metal mix or steel slag.If an overband magnet is unsuitable due to high belt wear, this drum magnet is the solution. It is used as an overband but has a wear resistant shell.This magnetic drum can also be used in pre-separation processes for separating large ferrous metals > 100 mm. Due to the large drum diameter, the ferrous parts have an optimum contact surface with the magnet.

Switchable (electromagnet)
For belt width 1000-2000 mm
Capture ferrous particles from 1 to 250 mm
Suitable for sharp or abrasive particles
Automatic cleaning (continuous)

Summary : Scrap drum
RMD-XX-XXX-RS-B-XX-XXXX
SKU: ExxxPSCRAPDRUM
Stock: 0
These robust permanent drum magnets are used for processing large volumes, containing large or sharp pieces, such as: scrap, metal mix or steel slag.If an overband magnet is unsuitable due to high belt wear, this drum magnet is the solution. It is used as an overband but has a wear resistant shell.This magnetic drum can also be used in pre-separation processes for separating large ferrous metals > 100 mm. Due to the large drum diameter, the ferrous parts have an optimum contact surface with the magnet.

Suitable for sharp or abrasive particles
Non-switchable (permanent magnet)
Automatic cleaning (continuous)
Capture ferrous particles from 1 to 250 mm
For belt width 1000-2000 mm

Working width : 2000 mm
RMD-20-32-RS-P-OR-30S2
SKU: E0062133
Stock *: 0
Field strength (flux density) (±10%): 6000 gauss (on shell) gauss
Magnetic field depth: 150 mm
Min. Fe-particle size that can be caught: 0.1 mm
Easy-to-install drum magnets for the continuous separation of coarse or sharp iron particles. Various magnet strengths and types available to separate strong- or weakly- magnetic particles.

High capacity (up to 550 m³/h)
Various dimensions and flange types
With neodymium or ferrite magnets
For belt width 600-2000 mm
Suitable for sharp or abrasive particles

Application

Application

Add-on magnetic drum separators purify product streams. This takes place before the next processing step, such as non-ferrous separation or plastic sorting.
 
The undesired, weakly magnetic iron parts are then separated from the main current so that they do not interfere in the next machining step. This way you achieve a higher separation efficiency, which also results in the recovery (recycling) of a clean, salable iron fraction.
 
To achieve good separation it is important that the material is supplied in a consistent flow, which can be achieved with a vibratory feeder or conveyor belt for example.

Types

Types

Type F
The 1,800 drum magnets have an axial magnet system and are suitable for separation of ferromagnetic particles. These are built with a ferrite magnet segment, in some cases strengthened with neodymium. These drum magnets are not suitable for separation of weakly magnetic metal particles.

cost effective
axial magnet system
capture Fe particles from 2 mm
max. particle size 100 mm
magnetic field depth 100 mm
ferrite magnet

 
Type B
The 3000 gauss magnet has the same configuration as type F, however, this system is built with Neodymium magnets instead of Ferrite magnets.

axial magnet system
capture Fe particles from 0.5 mm
max. particle size 100 mm
magnetic field depth 100 mm

 
Type P
The 6,000 gauss (Power) drum magnet also has an axial magnetic system, but thanks to its high magnetic force and deep holding field it is also suitable for separation of coarse and even fine Fe particles and weakly magnetic particles such as stainless steel and other steel alloys. The magnet segment consists entirely of neodymium magnets.

axial magnet system
capture weakly magnetic particles > 0.5 mm
capture Fe particles > 0.1 mm
magnetic field depth 150 mm

 
Type H
The 8,000 gauss ('High gradient') drum magnet has a radial magnet system and is used for smaller layer thickness than the 6,000 gauss drum magnet. The 8,000 gauss is not really intended for separation of ferromagnetic particles. These may only be present sporadically, because they disrupt the magnetic field, which is detrimental to the separation of weakly magnetic metal particles. Therefore a 8,000 gauss drum magnet is usually placed at the end of a processing step (preceded by other separators).

radial magnet system
capture weakly magnetic particles > 0.1 mm
capture Fe particles > 30 µm (sporadically)
magnetic field depth 30 mm


Working principle

Working principle

In case of overfed drum magnets, the material is fed over the drum. As soon as an iron part passes through the magnet, it is attracted and carried over the drum until the part comes out of the magnetic field. The iron part is then released and falls behind a divider plate.

Working width : 2000 mm
RMD-20-32-RS-H-OR-20S2
SKU: E0062424
Stock *: 0
Field strength (flux density) (±10%): 8000 gauss (on shell) gauss
Magnetic field depth: 30 mm
Min. Fe-particle size that can be caught: 30 µm (sporadically)
Easy-to-install drum magnets for the continuous separation of coarse or sharp iron particles. Various magnet strengths and types available to separate strong- or weakly- magnetic particles.

High capacity (up to 550 m³/h)
Various dimensions and flange types
With neodymium or ferrite magnets
For belt width 600-2000 mm
Suitable for sharp or abrasive particles

Application

Application

Add-on magnetic drum separators purify product streams. This takes place before the next processing step, such as non-ferrous separation or plastic sorting.
 
The undesired, weakly magnetic iron parts are then separated from the main current so that they do not interfere in the next machining step. This way you achieve a higher separation efficiency, which also results in the recovery (recycling) of a clean, salable iron fraction.
 
To achieve good separation it is important that the material is supplied in a consistent flow, which can be achieved with a vibratory feeder or conveyor belt for example.

Types

Types

Type F
The 1,800 drum magnets have an axial magnet system and are suitable for separation of ferromagnetic particles. These are built with a ferrite magnet segment, in some cases strengthened with neodymium. These drum magnets are not suitable for separation of weakly magnetic metal particles.

cost effective
axial magnet system
capture Fe particles from 2 mm
max. particle size 100 mm
magnetic field depth 100 mm
ferrite magnet

 
Type B
The 3000 gauss magnet has the same configuration as type F, however, this system is built with Neodymium magnets instead of Ferrite magnets.

axial magnet system
capture Fe particles from 0.5 mm
max. particle size 100 mm
magnetic field depth 100 mm

 
Type P
The 6,000 gauss (Power) drum magnet also has an axial magnetic system, but thanks to its high magnetic force and deep holding field it is also suitable for separation of coarse and even fine Fe particles and weakly magnetic particles such as stainless steel and other steel alloys. The magnet segment consists entirely of neodymium magnets.

axial magnet system
capture weakly magnetic particles > 0.5 mm
capture Fe particles > 0.1 mm
magnetic field depth 150 mm

 
Type H
The 8,000 gauss ('High gradient') drum magnet has a radial magnet system and is used for smaller layer thickness than the 6,000 gauss drum magnet. The 8,000 gauss is not really intended for separation of ferromagnetic particles. These may only be present sporadically, because they disrupt the magnetic field, which is detrimental to the separation of weakly magnetic metal particles. Therefore a 8,000 gauss drum magnet is usually placed at the end of a processing step (preceded by other separators).

radial magnet system
capture weakly magnetic particles > 0.1 mm
capture Fe particles > 30 µm (sporadically)
magnetic field depth 30 mm


Working principle

Working principle

In case of overfed drum magnets, the material is fed over the drum. As soon as an iron part passes through the magnet, it is attracted and carried over the drum until the part comes out of the magnetic field. The iron part is then released and falls behind a divider plate.

Working width : 2000 mm
RMD-20-32-RS-F-OR-30S2
SKU: E0061182
Stock *: 0
Field strength (flux density) (±10%): 1800 gauss (on shell) gauss
Magnetic field depth: 100 mm
Min. Fe-particle size that can be caught: 2 mm
Easy-to-install drum magnets for the continuous separation of coarse or sharp iron particles. Various magnet strengths and types available to separate strong- or weakly- magnetic particles.

High capacity (up to 550 m³/h)
Various dimensions and flange types
With neodymium or ferrite magnets
For belt width 600-2000 mm
Suitable for sharp or abrasive particles

Application

Application

Add-on magnetic drum separators purify product streams. This takes place before the next processing step, such as non-ferrous separation or plastic sorting.
 
The undesired, weakly magnetic iron parts are then separated from the main current so that they do not interfere in the next machining step. This way you achieve a higher separation efficiency, which also results in the recovery (recycling) of a clean, salable iron fraction.
 
To achieve good separation it is important that the material is supplied in a consistent flow, which can be achieved with a vibratory feeder or conveyor belt for example.

Types

Types

Type F
The 1,800 drum magnets have an axial magnet system and are suitable for separation of ferromagnetic particles. These are built with a ferrite magnet segment, in some cases strengthened with neodymium. These drum magnets are not suitable for separation of weakly magnetic metal particles.

cost effective
axial magnet system
capture Fe particles from 2 mm
max. particle size 100 mm
magnetic field depth 100 mm
ferrite magnet

 
Type B
The 3000 gauss magnet has the same configuration as type F, however, this system is built with Neodymium magnets instead of Ferrite magnets.

axial magnet system
capture Fe particles from 0.5 mm
max. particle size 100 mm
magnetic field depth 100 mm

 
Type P
The 6,000 gauss (Power) drum magnet also has an axial magnetic system, but thanks to its high magnetic force and deep holding field it is also suitable for separation of coarse and even fine Fe particles and weakly magnetic particles such as stainless steel and other steel alloys. The magnet segment consists entirely of neodymium magnets.

axial magnet system
capture weakly magnetic particles > 0.5 mm
capture Fe particles > 0.1 mm
magnetic field depth 150 mm

 
Type H
The 8,000 gauss ('High gradient') drum magnet has a radial magnet system and is used for smaller layer thickness than the 6,000 gauss drum magnet. The 8,000 gauss is not really intended for separation of ferromagnetic particles. These may only be present sporadically, because they disrupt the magnetic field, which is detrimental to the separation of weakly magnetic metal particles. Therefore a 8,000 gauss drum magnet is usually placed at the end of a processing step (preceded by other separators).

radial magnet system
capture weakly magnetic particles > 0.1 mm
capture Fe particles > 30 µm (sporadically)
magnetic field depth 30 mm


Working principle

Working principle

In case of overfed drum magnets, the material is fed over the drum. As soon as an iron part passes through the magnet, it is attracted and carried over the drum until the part comes out of the magnetic field. The iron part is then released and falls behind a divider plate.

Working width : 2000 mm
RMD-20-32-RS-B-OR-30S2
SKU: E0061241
Stock *: 0
Field strength (flux density) (±10%): 3000 gauss (on shell) gauss
Magnetic field depth: 100 mm
Min. Fe-particle size that can be caught: 0.5 mm
Easy-to-install drum magnets for the continuous separation of coarse or sharp iron particles. Various magnet strengths and types available to separate strong- or weakly- magnetic particles.

High capacity (up to 550 m³/h)
Various dimensions and flange types
With neodymium or ferrite magnets
For belt width 600-2000 mm
Suitable for sharp or abrasive particles

Application

Application

Add-on magnetic drum separators purify product streams. This takes place before the next processing step, such as non-ferrous separation or plastic sorting.
 
The undesired, weakly magnetic iron parts are then separated from the main current so that they do not interfere in the next machining step. This way you achieve a higher separation efficiency, which also results in the recovery (recycling) of a clean, salable iron fraction.
 
To achieve good separation it is important that the material is supplied in a consistent flow, which can be achieved with a vibratory feeder or conveyor belt for example.

Types

Types

Type F
The 1,800 drum magnets have an axial magnet system and are suitable for separation of ferromagnetic particles. These are built with a ferrite magnet segment, in some cases strengthened with neodymium. These drum magnets are not suitable for separation of weakly magnetic metal particles.

cost effective
axial magnet system
capture Fe particles from 2 mm
max. particle size 100 mm
magnetic field depth 100 mm
ferrite magnet

 
Type B
The 3000 gauss magnet has the same configuration as type F, however, this system is built with Neodymium magnets instead of Ferrite magnets.

axial magnet system
capture Fe particles from 0.5 mm
max. particle size 100 mm
magnetic field depth 100 mm

 
Type P
The 6,000 gauss (Power) drum magnet also has an axial magnetic system, but thanks to its high magnetic force and deep holding field it is also suitable for separation of coarse and even fine Fe particles and weakly magnetic particles such as stainless steel and other steel alloys. The magnet segment consists entirely of neodymium magnets.

axial magnet system
capture weakly magnetic particles > 0.5 mm
capture Fe particles > 0.1 mm
magnetic field depth 150 mm

 
Type H
The 8,000 gauss ('High gradient') drum magnet has a radial magnet system and is used for smaller layer thickness than the 6,000 gauss drum magnet. The 8,000 gauss is not really intended for separation of ferromagnetic particles. These may only be present sporadically, because they disrupt the magnetic field, which is detrimental to the separation of weakly magnetic metal particles. Therefore a 8,000 gauss drum magnet is usually placed at the end of a processing step (preceded by other separators).

radial magnet system
capture weakly magnetic particles > 0.1 mm
capture Fe particles > 30 µm (sporadically)
magnetic field depth 30 mm


Working principle

Working principle

In case of overfed drum magnets, the material is fed over the drum. As soon as an iron part passes through the magnet, it is attracted and carried over the drum until the part comes out of the magnetic field. The iron part is then released and falls behind a divider plate.

Working width : 2000 mm
RMD-20-32-RN-P-OR-30S2
SKU: E0025966
Stock *: 0
Field strength (flux density) (±10%): 6000 gauss (on shell) gauss
Magnetic field depth: 150 mm
Min. Fe-particle size that can be caught: 0.1 mm
Easy-to-install drum magnets for the continuous separation of coarse or sharp iron particles. Various magnet strengths and types available to separate strong- or weakly- magnetic particles.

High capacity (up to 550 m³/h)
Various dimensions and flange types
With neodymium or ferrite magnets
For belt width 600-2000 mm
Suitable for sharp or abrasive particles

Application

Application

Add-on magnetic drum separators purify product streams. This takes place before the next processing step, such as non-ferrous separation or plastic sorting.
 
The undesired, weakly magnetic iron parts are then separated from the main current so that they do not interfere in the next machining step. This way you achieve a higher separation efficiency, which also results in the recovery (recycling) of a clean, salable iron fraction.
 
To achieve good separation it is important that the material is supplied in a consistent flow, which can be achieved with a vibratory feeder or conveyor belt for example.

Types

Types

Type F
The 1,800 drum magnets have an axial magnet system and are suitable for separation of ferromagnetic particles. These are built with a ferrite magnet segment, in some cases strengthened with neodymium. These drum magnets are not suitable for separation of weakly magnetic metal particles.

cost effective
axial magnet system
capture Fe particles from 2 mm
max. particle size 100 mm
magnetic field depth 100 mm
ferrite magnet

 
Type B
The 3000 gauss magnet has the same configuration as type F, however, this system is built with Neodymium magnets instead of Ferrite magnets.

axial magnet system
capture Fe particles from 0.5 mm
max. particle size 100 mm
magnetic field depth 100 mm

 
Type P
The 6,000 gauss (Power) drum magnet also has an axial magnetic system, but thanks to its high magnetic force and deep holding field it is also suitable for separation of coarse and even fine Fe particles and weakly magnetic particles such as stainless steel and other steel alloys. The magnet segment consists entirely of neodymium magnets.

axial magnet system
capture weakly magnetic particles > 0.5 mm
capture Fe particles > 0.1 mm
magnetic field depth 150 mm

 
Type H
The 8,000 gauss ('High gradient') drum magnet has a radial magnet system and is used for smaller layer thickness than the 6,000 gauss drum magnet. The 8,000 gauss is not really intended for separation of ferromagnetic particles. These may only be present sporadically, because they disrupt the magnetic field, which is detrimental to the separation of weakly magnetic metal particles. Therefore a 8,000 gauss drum magnet is usually placed at the end of a processing step (preceded by other separators).

radial magnet system
capture weakly magnetic particles > 0.1 mm
capture Fe particles > 30 µm (sporadically)
magnetic field depth 30 mm


Working principle

Working principle

In case of overfed drum magnets, the material is fed over the drum. As soon as an iron part passes through the magnet, it is attracted and carried over the drum until the part comes out of the magnetic field. The iron part is then released and falls behind a divider plate.