System for whipping a fluid slurry and method therefore

1. An apparatus for whipping a slurry comprising of:

a whipping chamber;

an impeller located in the whipping chamber, wherein the impeller induces dynamic fluid flow of a slurry within the chamber; and

one or more indentation(s) recessed into a surface of the chamber such that a bottom surface of each indentation is offset from the surface of the chamber, wherein the impeller and the one or more indentation(s) create cavitation in the fluid flow of the slurry near interface(s) between the one or more indentation(s) and the surface of the chamber.

2. The apparatus in claim 1 wherein turbulence in the fluid flow is caused by the cavitations near the interface(s) between the one or more indentations and the surface of the chamber.

3. The apparatus in claim 2 wherein the turbulence creates a shearing effect in the slurry near the interface(s).

4. The apparatus in claim 1 further comprising an outlet orifice to discharge the fluid.

5. The apparatus in claim 1 further comprising:

a discharge outlet; and

a restrictor coupled to the discharge outlet to increase the time the slurry remains in contact with the interface(s) prior to exiting the discharge outlet.

6. The apparatus in claim 1 wherein the impeller further comprises at least one breaker located on a side of the impeller nearest to the indentation(s).

7. The apparatus in claim 1 wherein the impeller further has serrations located on a side of the impeller nearest to the indentation(s).

8. The apparatus in claim 1 wherein the impeller rotates at least at 8500 revolutions per minute.

9. The apparatus of claim 1 , wherein said surface surrounds a space in which said fluid flow occurs, and wherein each said indentation surrounds a respectively corresponding portion of said space.

10. The apparatus of claim 9 , wherein said surface extends along, surrounds and tapers toward a rotational axis of said impeller.

11. The apparatus of claim 10 , wherein said surface tapers toward said rotational axis as the surface extends away from said impeller.

12. The apparatus of claim 1 , wherein the whipping chamber includes a wall that surrounds a space in which the fluid flow of the slurry occurs, wherein the surface is an interior surface of the wall, and wherein each indentation surrounds a respectively corresponding portion of the space.

13. The apparatus in claim 1 wherein cavitation in the fluid flow of the slurry is produced by a rate of movement of the impeller, a configuration of the impeller, and restriction on a discharge outlet in combination with the one or more indentation(s).

14. A method of whipping a slurry, the method comprising:

whipping the slurry by rotating an impeller in a whipping chamber;

inducing turbulence in the whipping chamber during whipping by creating cavitation in the slurry near interface(s) between a surface of the whipping chamber and one or more indentation(s) recessed into the surface of the whipping chamber such that a bottom surface of each indentation is offset from the surface of the whipping chamber; and

discharging the whipped slurry from the whipping chamber.

15. The method of claim 14 , further comprising rotating the impeller at least at 8500 revolutions per minute.

16. The method of claim 14 further comprising cavitating the slurry near the interface(s) between the one or more indentation(s) and the surface of the whipping chamber to produce one or both of shearing effects and turbulence.

17. The method of claim 14 further comprising providing at least one breaker on a surface of the impeller closest to the one or more indentation(s) in the surface of the whipping chamber.

18. The method of claim 17 further comprising creating turbulence at interface(s) between the one or more indentation(s) and the surface of the whipping chamber using the breaker.

19. The method of claim 14 further comprising restricting the discharge of the whipped slurry using a restrictor.

20. The method of claim 14 further comprising creating a shearing effect in the slurry near the one or more indentation(s).

21. The method of claim 14 further comprising using serrations on a side of the impeller nearest to the one or more indentation(s).

22. A system for providing a whipped beverage, the system comprising:

a customer order system;

a dry beverage mix electronically connected to the customer order system;

a whipping chamber for mixing the dry beverage from a customer order and hot water;

an impeller located interior to the whipping chamber for whipping the dry beverage and hot water into a slurry and inducing fluid flow in the slurry;

one or more indentation(s) recessed into a surface of the whipping chamber and having a bottom surface offset from the surface of the whipping chamber; and

a discharge outlet from the whipping chamber to dispense the whipped slurry into a customer receptacle,

wherein rotation of the impeller within the whipping chamber creates cavitation in the fluid flow of the slurry near interface(s) between the surface of the whipping chamber and the one or more indentation(s).

23. The system in claim 22 wherein the impeller rotates faster than 8500 revolutions per minute.

24. The system in claim 22 wherein turbulence is produced in the slurry near the interface(s) as the impeller rotates near the one or more indentation(s).

25. The system in claim 22 wherein a shearing effect is produced in the slurry near the interface(s) as the impeller rotates near the one or more indentation(s).

26. The system in claim 22 wherein the discharge outlet is located between two of the indentation(s).

27. The system in claim 22 further comprising a restrictor located on the discharge outlet to restrict discharge of whipped fluid slurry.

28. The system in claim 22 wherein the impeller further comprises at least one breaker located on the side of the impeller nearest to the indentation(s).

29. The system in claim 22 wherein the impeller further has serrations located on the side of the impeller nearest to the indentations.