Difference between revisions of "Magnetic Separators"

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[[File:Wet-drum-separator.jpg|thumb|right|Wet drum Separator]]
Machines used for '''Magnetic separation'''. This is a process in which magnetically  susceptible material is extracted from a mixture using a magnetic force.  This separation technique can be useful in mining iron as it is attracted to a magnet. Magnetic  separation is one of the most reliable ways to remove unwanted ferrous  metals during the processing of raw materials. From recycling plants to  food and pharmaceutical manufacturing, we have the perfect industrial  magnet to assist your operation.
 
 
==Industry==
[[File:Magnetic_Separators1.jpg|thumb|right|Magnetic Separator]]
 
*Aggregate & Mining
*Food Processing
*Textile Industries
*Pharmaceutical and Chemical Industries
*Wood Processing
*Pallet Recycling
*Tire Recycling
 
In mines where wolframite was mixed with cassiterite, such as South Crofty and East Pool mine in Cornwall or with bismuth such as at the Shepherd and Murphy mine in Moina, Tasmania,  magnetic separation was used to separate the ores. At these mines a  device called a Wetherill's Magnetic Separator (invented by John Price  Wetherill, 1844–1906) was used. In this machine the raw ore, after calcination was fed onto a moving belt which passed underneath two pairs of electromagnets  under which further belts ran at right angles to the feed belt. The  first pair of electromagnets was weakly magnetised and served to draw  off any iron ore present. The second pair were strongly magnetised and  attracted the wolframite, which is weakly magnetic. These machines were  capable of treating 10 tons of ore a day.
 
 
 
==Working Principle==
[[File:Magnetic_Separators2.jpg|thumb|right|Magnetic Separator Principle]]
 
All materials possess magnetic properties. Substances that have a  greater permeability than air are classified as paramagnetic; those with  a lower permeability are called diamagnetic. Paramagnetic materials are  attracted to a magnet; diamagnetic substances are repelled. Very  strongly paramagnetic materials can be separated from weakly or  nonmagnetic materials by the use of low-intensity magnetic separators.  Minerals such as hematite, limonite, and garnet are weakly magnetic and  can be separated from nonmagnetics by the use of high-intensity  separators.
 
 
Magnetic separation method is based on the difference of  mineral magnetic, bearing different forces in the magnetic field of  magnetic separator, resulting in material separation. It is mainly used  for sorting ferrous metal ores (iron, manganese, chromium); as well as  non-ferrous and rare metals. With good separation efficiency, high  processing capacity, and high recovery rate, the application of magnetic  separation method in the new iron ore dressing plant is very common. The working principle of magnetic separation is that materials  which is going to be elected bearing the force of  magnetic and other  mechanical (such as gravity, centrifugal force, friction, medium  resistance, etc.) together, in the sorting space of the magnetic  separator. The magnetic suffered by mineral grains is related with the  size and magnetic of the mineral; non-magnetic mineral particles mainly  by mechanical force. Consequently, magnetic mineral particles and  non-magnetic mineral particles move along different paths to get  separation. In general the magnetic force bore by magnetic particles is  proportional to the strength and gradient of the magnetic field.
 
 
There is a magnetic field around the magnetic materials. Magnetic field  can be divided into uniform magnetic field and non-uniform magnetic  field. The strength and direction of various points in uniform magnetic  field are in the same size; and the strength and direction in  non-uniform magnetic field are always changing. Mineral particles in a  uniform magnetic field only by the role of the torque, its long axis  parallel to the direction of magnetic field; in the non-uniform magnetic  field, the mineral particles not only by the role of the torque, but  also by the magnetic force, resulting in mineral particles both rotation  and moving to the direction of magnetic field gradient increasing, and  being sucked in the magnet surface in the last. Such mineral particles  with different magnetic can be separation. Therefore, the magnetic  selection is a method based on the differences of permeability between  minerals to achieve separation in the non-uniform magnetic field.
 
 
 
==Types==
*[[Magnetic Chutes]]
*[[Magnetic Clarifiers]]
*[[Magnetic Cyclones]]
*[[Magnetic Decanters]]
*[[Magnetic Dedusters]]
*[[Magnetic Deferrizers]]
*[[Magnetic Drums]]
*[[Magnetic Elutriators]]
*[[Magnetic Extractors]]
*[[Magnetic Flotation Cells]]
*[[Magnetic Grates]]
*[[Magnetic Gravity Separators]]
*[[Magnetic Grids]]
*[[Magnetic Humps]]
*[[Magnetic Pulleys]]
*[[Magnetic Rods]]
*[[Magnetic Sieve Shakers]]
*[[Magnetic Sieves]]
*[[Magnetic Strainers]]
*[[Magnetic Thickeners]]
*[[Magnetic Tramp Metal Removers]]
 
 
==Video==
<youtube>vEaYuZIx2sg</youtube>

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