MPP piston dispensing head
Always a constant amount of output
For many applications, the accuracy and consistency of the output quantity is critical. For such applications, Musashi MPP piston dispensers are an excellent solution. Thanks to their volume displacement principle, they always provide a stable dispensed volume, regardless of temperature, viscosity or material pressure, and thanks to their wear-resistant design, they require little maintenance.
The MPP-1, a smaller model, can dispense up to tenths of microlitres, while the larger MPP-3 can be used up to 7 ml. MPP heads can be used to dispense highly charged abrasives and heat-conducting pastes with high precision without frequent head wear and frequent replacement of parts.
- Details
- Piston-operated, volume displacement principle for a constant output volume at all times
- Constant output independent of temperature, viscosity and pressure
- Abrasion resistant design also for abrasive materials
- Can be used for thermal paste, potting, solder paste, gluing
- Suitable for a wide range of viscosities
- MPP-1 for up to 0.1 microlitre dispensing volume
- MPP-3 larger version from 5 microlitres to 7 millilitres
- Two component designs available
- Can be integrated into target machines, robotic arms or are available Musashi with table or suspended axle system and also in a turnkey production cell
- Can be connected to a tube, pressure tank or bucket dispenser
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Thermal conductive material dosage
We can handle highly viscous, highly filled materials even in smaller quantities than ever before
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Filling up to microlitre range for sensor production
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MPP-3
Larger design for micro and mililitre volumes and heavily filled materials
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MPP-1
Unique solution for microlitre and sub-microlitre applications
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MPP Duo
Dosing of two-component materials with a stable mixing ratio and volume
Videos
MPP-1
Volumetric dosing in a wide range of viscosities for many different materials and applications
MPP-3 thermal paste dosing
Dosing of one and two component thermal conductive materials in smaller quantities than ever before