Pocketed cyclonic separator

1. A double-pocketed cyclonic separator comprising:

a cyclone chamber, which includes interior chamber walls;

one or more inlets connected to the cyclone chamber and through which a substance may be introduced into the cyclone chamber so as to create a rotational force sufficient to generate a cyclone in the cyclone chamber, wherein forces generated by the cyclone will cause heavier material in the substance to move towards the interior chamber walls when in use;

one or more tangential baffles connected to the one or more inlets that cause the substance to be introduced into the cyclone chamber tangentially to the inlets; and

a plurality of T-shaped pocket separators, located on the interior chamber walls, wherein each T-shaped pocket separator defines opposite facing double pockets, wherein the opposite facing double pockets trap heavier material in the substance when in use.

2. The double-pocketed cyclonic separator of claim 1 wherein the T-shaped pocket separators extend from the inlet substantially to a bottom of the cyclone chamber.

3. The double-pocketed cyclonic separator of claim 1 wherein the T-shaped pocket separators slant inwards away from interior chamber walls as the T-shaped pocket separators extend downwards from the inlet, defining an inverted cone-shape space in an interior of the cyclone chamber.

4. The double-pocketed cyclonic separator of claim 1 wherein the T-shaped pocket separators define a plurality of pockets around a circumference of the cyclone chamber.

5. The double-pocketed cyclonic separator of claim 1 further comprising a protection plate positioned below the inlet and covering a space in a center of the cyclone chamber defined by the T-shaped pocket separators, wherein the protection plate prevents heavier material from being driven upwards by vertical shear when in use.

6. The double-pocketed cyclonic separator of claim 1 further comprising an outlet at a top of the cyclone chamber through which lighter material exits the cyclone chamber when in use.

7. The double-pocketed cyclonic separator of claim 1 further comprising an outlet at a bottom of the cyclone chamber through which heavier material exits the cyclone chamber when in use.

8. The double-pocketed cyclonic separator of claim 1 wherein the cyclone chamber is cylindrical.

9. A double-pocketed cyclone tube comprising:

a cylindrical cyclone chamber, which includes interior chamber walls that slope inwards from a top of the cyclone chamber to a bottom of the cyclone chamber;

a plurality of inlets extending from near the top of the cyclone chamber downwards and located on the exterior circumference of the cylindrical cyclone chamber, through which a substance may be introduced into the cylindrical cyclone chamber so as to create a rotational force sufficient to generate a cyclone in the cylindrical cyclone chamber, wherein forces generated by the cyclone will cause heavier material in the substance to move towards the interior chamber walls when in use; and

a plurality of T-shaped pocket separators, located around the circumference of the interior chamber walls, that define a plurality of opposite-facing, double pockets, wherein the plurality of double pockets trap heavier material in the substance when in use.

10. The double-pocketed cyclone tube of claim 9 further comprising a tube through which lighter material is output when in use.

11. A double-pocketed defoamer comprising:

a defoamer chamber, which includes interior chamber walls;

an inlet extending from near the top of the defoamer chamber downwards and located on the exterior circumference of the defoamer chamber, through which a foamy liquid may be introduced into the defoamer chamber so as to create a rotational force sufficient to generate a cyclone in the defoamer chamber, wherein forces generated by the cyclone will cause liquid and foam of the foam substance to separate and the liquid to move towards the interior chamber walls when in use; and

a plurality of T-shaped pocket separators, located around the circumference of the interior chamber walls, that define a plurality of opposite-facing, double pockets, wherein the plurality of double pockets trap liquid when in use.

12. A pocketed swirl tube comprising:

a swirl tube chamber, which includes interior chamber walls;

an inlet located at an end of the swirl tube chamber and through which a substance may be introduced into the swirl tube chamber when in use;

an outlet located at an end of the swirl tube chamber opposite the inlet;

a rotor that creates a rotational force that drives the substance towards the outlet and which introduces a centrifugal force on the substance, causing heavier material in substance to separate from lighter material in substance and move towards the interior chamber walls when in use; and

a plurality of pocket separators, located around the circumference of the interior chamber walls, that define a plurality of pockets, wherein the one or more pockets trap heavier material in the substance when in use.

13. The pocketed swirl tube of claim 12 wherein the pocketed swirl tube is a vertical pocketed swirl tube.

14. The pocketed swirl tube of claim 12 wherein the pocketed swirl tube is a horizontal pocketed swirl tube.

15. The double-pocketed cyclonic separator of claim 1 wherein the T-shaped pocket separators extend downward from the inlet for some portion of the height of the cyclone chamber.