Magnequench Technical Resource Website, a subsite of www.neomaterials.com

Product Comparison Tool

If you are unsure about the differences between the different powder grades, our product comparison tool will help you to find the suitable powder grade for your magnets.
* Products with provisional data. Actual production data may vary.

Properties***
Part No.
Download Datasheet
Residual Induction, Br
Energy Product, (BH)max
Intrinsic Coercivity, Hci
Magnetizing Field to
>95% Saturation (Min.), Hs
Temperature Coefficient of Br, α, to 100°C
Temperature Coefficient of Hci, β, to 100°C
Coercive Force, Hc
Curie Temperature, Tc
Maximum Operating Temperature**
Maximum Process Temperature*
Sieve Screen analysis
Total>40 Mesh
(420mm x 420µm opening)
Total>60 Mesh
(250mm x 250µm opening)
Total>80 Mesh
(177x177µm opening)
Total>100 Mesh
(149x149µm opening)
Total<270 Mesh
(53mm x 53µm opening)
Density (theoretical)
Apparent Density
Composition
Legend
  • *** Properties measure at 25°C, unless otherwise specified.
  • ** The Maximum Operating Temperature for a magnet made from this powder is dependent upon the specific application, this type of magnet, and magnet geometry.
  • * Maximum Process Temperature is defined here as <2% reduction in flux (i.e. structural loss) after heating powder 1 hour in air.
  • ! All powders are measured under standard mesh size of -40M.
  • Most compression bonded magnets exhibit a typical MQP volumetric loading of 77.5%, a typical HD powder has 80% by volume loading.
Properties***
Part No.
Download Datasheet
Residual Induction, Br
Energy Product, (BH)max
Intrinsic Coercivity, Hci
Legend
  • *** Properties measure at 25°C, unless otherwise specified.
  • ** The Maximum Operating Temperature for a magnet made from this powder is dependent upon the specific application, this type of magnet, and magnet geometry.
  • * Maximum Process Temperature is defined here as <2% reduction in flux (i.e. structural loss) after heating powder 1 hour in air.
  • ! All powders are measured under standard mesh size of -40M.
  • Most compression bonded magnets exhibit a typical MQP volumetric loading of 77.5%, a typical HD powder has 80% by volume loading.

HD powders are designed to deliver higher density magnets when pressed under typical compression molding conditions. While most compression bonded magnets exhibit a typical MQP volumetric loading of 77.5%, a typical HD powder loading is 80vol%. The higher loading is a direct result of behavior during compression molding, and HD powders do not exhibit any difference in density when used for injection molding.​

If you are using Google Chrome and Windows 10, you may not be able to see the data values when you mouse over the curves. Click here to see how you can adjust your settings.

HD powders are designed to deliver higher density magnets when pressed under typical compression molding conditions. While most compression bonded magnets exhibit a typical MQP volumetric loading of 77.5%, a typical HD powder loading is 80vol%. The higher loading is a direct result of behavior during compression molding, and HD powders do not exhibit any difference in density when used for injection molding.​

The % value indicate the volumetric loading of magnetic powder.

If you are using Google Chrome and Windows 10, you may not be able to see the data values when you mouse over the curves. Click here to see how you can adjust your settings.

HD powders are designed to deliver higher density magnets when pressed under typical compression molding conditions. While most compression bonded magnets exhibit a typical MQP volumetric loading of 77.5%, a typical HD powder loading is 80vol%. The higher loading is a direct result of behavior during compression molding, and HD powders do not exhibit any difference in density when used for injection molding.​

The % value indicate the volumetric loading of magnetic powder.

If you are using Google Chrome and Windows 10, you may not be able to see the data values when you mouse over the curves. Click here to see how you can adjust your settings.

HD powders are designed to deliver higher density magnets when pressed under typical compression molding conditions. While most compression bonded magnets exhibit a typical MQP volumetric loading of 77.5%, a typical HD powder loading is 80vol%. The higher loading is a direct result of behavior during compression molding, and HD powders do not exhibit any difference in density when used for injection molding.​

The % value indicate the volumetric loading of magnetic powder.

If you are using Google Chrome and Windows 10, you may not be able to see the data values when you mouse over the curves. Click here to see how you can adjust your settings.

HD powders are designed to deliver higher density magnets when pressed under typical compression molding conditions. While most compression bonded magnets exhibit a typical MQP volumetric loading of 77.5%, a typical HD powder loading is 80vol%. The higher loading is a direct result of behavior during compression molding, and HD powders do not exhibit any difference in density when used for injection molding.​

If you are using Google Chrome and Windows 10, you may not be able to see the data values when you mouse over the curves. Click here to see how you can adjust your settings.

HD powders are designed to deliver higher density magnets when pressed under typical compression molding conditions. While most compression bonded magnets exhibit a typical MQP volumetric loading of 77.5%, a typical HD powder loading is 80vol%. The higher loading is a direct result of behavior during compression molding, and HD powders do not exhibit any difference in density when used for injection molding.​

If you are using Google Chrome and Windows 10, you may not be able to see the data values when you mouse over the curves. Click here to see how you can adjust your settings.

The product comparison tool is only available on the desktop version of our website