Fluid vortex breaker

1 . A vortex breaker assembly, comprising:

a vessel having a first fluid arranged therein, the vessel including an opening formed in an outer wall of the vessel through which the first fluid is configured to selectively flow;

a first conduit coupled to the vessel and configured to fluidically open into the vessel via the opening such that the first fluid is configured to flow from the vessel and into the first conduit via the opening, the first conduit including at least one inlet formed in an outer wall of the first conduit and opening into the first conduit; and

a fluid source configured to provide a second fluid to the at least one inlet, and

at least one inlet pipe fluidically coupled to the at least one inlet,

wherein the at least one inlet pipe is arranged such that the second fluid flows against a direction of rotation of the fluidic vortex of the first fluid,

wherein the second fluid flows into the first conduit from the at least one inlet at a predetermined flow momentum such that the second fluid interacts with the first fluid flowing from the vessel and through the first conduit so as to disrupt a flow field of the first fluid and minimize formation of a fluidic vortex of the first fluid at the opening of the vessel.

2 . The vortex breaker assembly of claim 1 ,

wherein the at least one inlet is located proximate to a first end of the first conduit that is coupled to the vessel such that the at least one inlet is proximate to the opening of the vessel, and wherein the at least one inlet pipe fluidically opens into the first conduit via the at least one inlet.

3 . The vortex breaker assembly of claim 2 , wherein the predetermined flow momentum of the second fluid flow into the first conduit is constant over a predetermined period of time.

4 . The vortex breaker assembly of claim 3 , wherein the opening of the vessel is located on a bottom sidewall of the vessel such that the first fluid is configured to selectively drain through the opening, and wherein the first conduit is substantially vertical so as to allow drainage of the first fluid from the vessel.

5 . The vortex breaker assembly of claim 4 , wherein the predetermined period of time during which the predetermined flow momentum of the second fluid flow is constant is a time period from when the first fluid begins draining through the opening to when the first fluid stops draining through the opening.

6 . The vortex breaker assembly of claim 2 , further comprising:

a first pump and a flow regulator valve located between and fluidically interconnecting the fluid source and the at least one inlet pipe, the first pump and the flow regulator valve being configured to control a velocity and a mass flow of the second fluid flow so as to control the flow momentum of the second fluid into the first conduit; and

a controller configured to control the first pump and the flow regulator valve so as to control the velocity and the mass flow of the second fluid flow.

7 . The vortex breaker assembly of claim 6 , further comprising:

a second pump fluidically connected to a second end of the first conduit opposite the first end of the first conduit and located downstream of the opening of the vessel, the second pump being configured to draw the first fluid from the vessel via the opening and the first conduit.

8 . The vortex breaker assembly of claim 7 , wherein the fluid source is a polishing loop fluidically connected to an output of the second pump and fluidically connected to an input of the first pump such that the first fluid flows into the polishing loop, is treated via the polishing loop, and exits the polishing loop as the second fluid.

9 . The vortex breaker assembly of claim 8 , wherein the vessel is at least one of an oxygen separator or a hydrogen separator, and wherein the first fluid is deionized water and the second fluid is deionized water.

10 . The vortex breaker assembly of claim 1 , further comprising:

at least one inlet pipe fluidically coupled to the at least one inlet,

wherein the at least one inlet pipe includes a first inlet pipe arranged at a first position of the first conduit and a second inlet pipe arranged at a second position of the first conduit different than the first position.

11 . The vortex breaker assembly of claim 10 , wherein the first inlet pipe and the second inlet pipe are arranged diametrically opposite of each other on opposing sides of the first conduit.

12 . A method of breaking a fluidic vortex, comprising:

providing a first fluid within a vessel, the vessel including an opening formed in a sidewall of the vessel through which the first fluid is configured to selectively flow;

coupling a first conduit to the vessel that opens into the vessel via the opening such that the first fluid is configured to flow from the vessel and into the first conduit via the opening;

forming at least one inlet in an outer wall of the first conduit, the at least one inlet opening into the first conduit;

providing a second fluid from a fluid source to the at least one inlet;

drawing the first fluid from the vessel and into the first conduit; and

ejecting the second fluid into the first conduit at a predetermined flow momentum such that the second fluid interacts with the first fluid flowing from the vessel and through the first conduit so as to disrupt a flow field of the first fluid and minimize formation of a fluidic vortex of the first fluid at the opening of the vessel,

wherein the ejecting of the second fluid includes ejecting the second fluid against a direction of rotation of the fluidic vortex of the first fluid.

13 . The method of claim 12 , further comprising:

coupling at least one inlet pipe to the first conduit, the at least one inlet pipe opening into the first conduit,

wherein the second fluid flows through the at least one inlet pipe and into the first conduit via the at least one inlet, and

wherein the predetermined flow momentum of the second fluid flow into the first conduit is constant over a predetermined period of time.

14 . The method of claim 13 , wherein the predetermined period of time during which the predetermined flow momentum of the second fluid flow is constant is a time period from when the first fluid begins draining through the opening to when the first fluid stops draining through the opening.

15 . The method of claim 14 , further comprising at least one of:

increasing a mass flow of the second fluid flowing through the at least one inlet pipe and decreasing a velocity of the second fluid flowing through the at least one inlet pipe via a first pump and a flow regulator valve located between and fluidically interconnecting the fluid source and the at least one inlet pipe such that the flow momentum of the second fluid remains constant; and

decreasing a mass flow of the second fluid flowing through the at least one inlet pipe and increasing a velocity of the second fluid flowing through the at least one inlet pipe via the first pump and the flow regulator valve such that the flow momentum of the second fluid remains constant.

16 . The method of claim 14 , wherein the at least one inlet pipe includes a first inlet pipe arranged at a first position of the first conduit and a second inlet pipe arranged at a second position of the first conduit different than the first position, and wherein a sum of a first flow momentum of the second fluid flowing through the first inlet pipe and a second flow momentum of the second fluid flowing through the second inlet pipe is equal to the predetermined flow momentum.