Admix Rotosolver® – High Shear Mixer

 

 

 

 

 

 

 

High Shear Mixer

If your production line requires sanitary, high shear mixing equipment with intense mixing vortex control, superior wetting out of powders, and an easy-to-clean, 3-A compliant design, the patented Rotosolver high shear mixer is the solution.

High Shear Mixing Advantages

How do high shear mixers stack up? Use this guide to compare high shear mixers on various performance factors and find out how the Rotosolver top-entry batch mixer offers key benefits including:

  • High-intensity optimum shear
  • One-piece clean-in-place (CIP) mix head
  • Meets 3-A sanitary standard #73-01 and USDA-AMS standards
  • Single shaft, obstruction-free design
  • All stainless mix head, shaft, drive and motor available
  • Optional secondary impellers
  • 100% dissolving, hydrating or suspension
  • Lab models and production sizes up to 100 HP
  • High speed mixing capabilities to reduce batch times

If you are a meat and poultry processor, then check out our Rotosolver RXRS which is designed specifically for your industry and combines the high shear technology of the Rotosolver with a low maintenance bearing frame. Plus, the sealed drive assembly eliminates water intrusion and stands up to the toughest wash-down environments.

Want to see the Rotosolver in action or take it for a test drive? Admix’s comprehensive mixing equipment services can improve your process and bottom line today.

 

How it works

The Rotosolver combines the shearing capabilities of a high speed toothed rotor and a slotted stator with the additional advantage of high flow / circulation from the dual rotor blades. This unique mixing head design of the disperser provides a four-stage mixing action:

  1. Product flow is drawn into the mixing head from above and below. As flow is drawn in, materials and powders pulled down from the top (typically the toughest to disperse) are immediately exposed to two additional mechanical shear zones and one shear zone from the bottom. Therefore, these materials are then immediately mechanically ripped by the teeth on the rotor’s discharge at the top and bottom of the stator.
  2. The counter-current streams converge within the stator causing high turbulence and hydraulic shear. As a result, no momentum loss from obstructions within the stator.
  3. Centrifugal pressure forces material to the stator, where it is subjected to further shear from edges of the expanded slots.
  4. The high velocity radial discharge combines with slower moving tank flow for additional hydraulic shear and circulation