Ferrite Magnet Part for Magnetic Therapy Block, Disc

Payment Type:T/T

Incoterm:FOB,CFR,CIF,EXW,DDP

Min. Order:100000 Piece/Pieces

Transportation:Ocean,Land,Air,Express

Port:Guangzhou,Shanghai,Ningbo

$0.01-0.02 /Piece/Pieces

Product Attributes
Supply Ability & Additional Information
Packaging & Delivery

Product Attributes

Model No.: YB-B

Brand: YB

Place Of Origin: China

Species: Permanent

Composition: Ferrite Magnet

Shape: Block

Application: Industrial Magnet

Tolerance: ±1%

Processing Service: Bending, Welding, Decoiling, Cutting, Punching, Moulding

Shape: Block, disc

Composite: ferrite magnet

Size: multi size

Sample: available

Supply Ability & Additional Information

Packaging: Carton packing, then in wood pallet

Productivity: 50 millions per month

Transportation: Ocean,Land,Air,Express

Place of Origin: China

Supply Ability: 50 millions per month

Certificate: ISO9001

HS Code: 85051900

Port: Guangzhou,Shanghai,Ningbo

Payment Type: T/T

Incoterm: FOB,CFR,CIF,EXW,DDP

Packaging & Delivery

Selling Units:

Piece/Pieces

Package Type:

Carton packing, then in wood pallet

Picture Example:

Download

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ceramic ferrite magnet production process

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Anisotropic magnet-wet process

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Sintering process workshop

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Magnetic Therapay

Applications

Ferrite magnet, sometimes referred to as Ceramic Magnet, because of the production process, is the least expensive class of Permanent Magnet materials. This material became commercially available in the mid 1950s, and has since found its way into countless applications including arc shaped magnets for motors, magnetic chucks, and magnetic tools.

The raw material, iron oxide, for these magnets is mixed with either strontium or barium and milled down to a fine powdered form. The powder is then mixed with a ceramic binder and magnets are produced through a compression or extrusion molding technique that is followed by a sintering process. The nature of the manufacturing process results in a product that frequently contains imperfections such as cracks, porosity, chips, etc. Fortunately, these imperfections rarely interfere with a magnet’s performance.

To enhance a ceramic magnet’s performance, the ferrite compound may be biased by a magnetic field during the pressing process. This biasing induces a preferred direction of magnetization within the magnet, significantly reducing its performance in any other orientation. Consequently, ceramic magnets are available in both oriented (Anisotropic Ferrite Magnets) and non-oriented (Isotropic Ferrite Magnets) grades. Because of its lower magnetic properties, the isotropic grade of ferrite is typically utilized where complex magnetization patterns are required, and in process biasing would be cost prohibitive.

Ceramic magnet is inherently brittle, and it is highly recommended that they NOT be utilized as structural elements in any application. The thermal stability is the poorest of all the magnetic families, but they may be utilized in environments up to 300 Deg C (570 Deg F). The dimensional repeatability of as pressed components is difficult to control, consequently, components requiring tight tolerances necessitate secondary grinding operations to assure conformity.