Orientation Magnetized Through Thickness Sintering SmCo Segment Magnets

Orientation Magnetized Through Thickness Sintering SmCo Segment Magnets, High Curie Temperature Custom Permanent Motor generator SmCo Magnet, Extremely strong rare earth curved tile arc segment magnets, precision Samarium Cobalt motor magnets, SmCo Powerful stator rotor magnet China supplier

Orientation Magnetized Through Thickness Sintering SmCo Segment Magnets YXG-24H Item No. MPCO-SMOS  series
Customzied Specific Requirements
OEM or ODM service: Accept
Dimension: Customized size
Custom Grade: SmCo5,  Sm2Co17
Magnetization direction: Thickness, Length, Axially, Diametre, Radially, Multipolar
Surface Treatment: UNCOATED, Silver, Gold, Zinc, Ni-cu-Ni. Epoxy etc.
Tolerance: +/-0.02 – 0.05mm
Application: SmCo rare earth permanent magnets are widely applied in Auto, energy-efficient Motors and Generators, Machinery, Audio/Video and Communication Equipment, Medical Device(MRI), Office Automation, Magnetic Separator, etc.

Samarium cobalt magnet, also known as SmCo magnet, is another type of permanent magnets. A big advantage of SmCo magnets is that they can operate at temperatures up to 300 degrees Centigrade. SmCo magnets are widely used in applications in which high operating temperature and high corrosion and oxidation resistance are crucial.

Rare-Earth Permanent Magnets for High Temperature Applications
Servo motors
Automotive applications (e.g. sensors…)
High end sport cars
Aviation

Samarium Cobalt Segment Magnets for energy-efficient Motors and Generators

Permanent Magnets in Different Shapes and Various Coatings
Samarium-Cobalt magnets have particularly high coercivities with simultaneous high saturation polarization and excellent temperature and corrosion stability. Benefits:
Suitable for high temperature applications (depending on alloy up to max. 350 °C)
High corrosion resistance against aggressive media
Usually no coating necessary
Low decrease of magnetic properties with increasing temperature due to high Curie temperature

Heavy duty super powered Samarium Cobalt magnet. Samarium Cobalt although not quite as strong as neodymium has a better corrosion resistance and a much higher working temperature & is still in the class of the permanent supermagnet. Samarium Cobalt is also a rare earth magnet, like neodymium and can be used for much the same type of applications like scientific applications tool hangers decorations towel hangers knife holders refrigerator magnets scrap books recoup storage general description these cube magnets are made for holding stuff & that is what they do. High Curie Temperature Custom Arc Sector Sintered Sm2Co17 Magnet

The main application for arc segment magnets is in motors or generators, either for rotors or stators. We can supply Ferrite, Neodymium Iron Boron and Samarium Cobalt arc segments. Which material is used depends on the required torque, maximum operating temperature, environmental conditions and cost. High Magnetic Properties Bespoke Customized Sintered Smco Arc Magnet

Rare-Earth SmCo Permanent Magnets for High Temperature Application

We carry a limited number of standard parts because precise specifications usually vary from one customer to another, requiring bespoke items to be manufactured. For prototyping, we can grind standard blocks into an arc segment using specially profiled grinding wheels. When full-scale production is required, the magnet is pressed to shape in a tool, prior to the sintering process as this is more efficient and cost-effective than grinding from blocks, but importantly from the same raw material grade for consistency from prototyping right through to production.

Temperature Considerations
A Samarium Cobalt magnet can withstand higher temperatures than a Neodymium magnet. The maximum operating temperatures for Samarium Cobalt magnets are between 250 and 550 °C; Curie temperatures range from 700 to 800 °C. Additionally, a Samarium Cobalt magnet is less subject to corrosion than a Neodymium magnet, and usually does not require coating or plating.

Generally, arc segments are anisotropically aligned through the outer and inner radii of the segment. After the magnet has been surface ground to profile the Arc radius or pressed, we magnetise it through the radius of the arc.