SOLIDS JETTING RETROFIT

1 . A method of retrofitting an existing separator pressure vessel with a solids removal system, the method comprising:

installing a support structure in the separator pressure vessel;

adjusting a size of the support structure within the separator pressure vessel to frictionally engage contact surfaces of the support structure with an inner surface of the separator pressure vessel or a surface of a component installed in the separator pressure vessel;

installing a supply header and a suction header on the support structure in the separator pressure vessel;

coupling a jetting nozzle or a cyclonic device to the supply header;

coupling the supply header to an inlet nozzle extending from an interior of the separator pressure vessel to an exterior of the separator pressure vessel; and

coupling the return header to an outlet nozzle from an interior of the separator pressure vessel to an exterior of the separator pressure vessel.

2 . The method of claim 1 , further comprising installing the inlet nozzle and the outlet nozzle in a flange configured to be coupled to an existing nozzle on the separator pressure vessel.

3 . The method of claim 2 , further comprising installing the flange having the inlet nozzle and the outlet nozzle on a manway of the separator pressure vessel.

4 . The method of claim 1 , wherein the inlet nozzle and the outlet nozzle are nozzles formed on a wall of the separator pressure vessel.

5 . The method of claim 1 , further comprising providing a flow of fluid into the separator pressure vessel through the supply header and a flow of slurry through the return header and out of the separator pressure vessel while a pressure inside the separator pressure vessel is maintained.

6 . The method of claim 1 , further comprising coupling a connecting pipe between the inlet nozzle and supply header, and coupling a connecting pipe between the outlet nozzle and the return header.

7 . The method of claim 1 , further comprising coupling a fluid tank to the inlet nozzle and a slurry tank to the outlet nozzle.

8 . The method of claim 1 , further comprising coupling a fluid tank to the inlet nozzle and a slurry tank to the outlet nozzle.

9 . The method of claim 1 , wherein the component installed in the separator pressure vessel is a wave breaker baffle.

10 . The method of claim 8 , further comprising positioning at least one zinc anode on the wave breaker baffle.

11 . A solids removal system comprising:

a support structure;

a supply header coupled to the support structure;

a jetting nozzle in fluid communication with the supply header;

a return header coupled to the support structure; and

a flange comprising:

an inlet nozzle extending through the flange, a first end of the inlet nozzle configured to couple with a first end of the supply header; and

an outlet nozzle extending through the flange, a first end of the outlet nozzle configured to couple with a first end of the suction header.

12 . The solids removal system of claim 11 , further comprising a second supply header having a length longer than the supply header and a second return header having a length longer than the return header.

13 . The solids removal system of claim 11 , wherein a size of the support structure is adjustable.

14 . The solids removal system of claim 11 , further comprising a solids dam.

15 . The solids removal system of claim 11 , wherein the flange comprises a blind flange having two openings therethrough.

16 . A separator pressure vessel system comprising:

a weir extending up from a bottom of the separator pressure vessel;

an adjustable support structure removably disposed within the separator pressure vessel on a first side of the weir, the support structure comprising at least two contact surfaces configured to frictionally engage an inner surface of the separator pressure vessel or a component installed in the separator pressure vessel;

a supply header coupled to the adjustable support structure;

a jetting nozzle or cyclonic device in fluid communication with the supply header;

a suction header disposed in the separator pressure vessel and coupled to the support structure;

an inlet nozzle extending from an interior of the separator pressure vessel to an exterior of the separator pressure vessel, wherein the inlet nozzle is coupled to the supply header; and

an outlet nozzle extending from an interior of the separator pressure vessel to an exterior of the separator pressure vessel, wherein the outlet nozzle is coupled to the return header.

17 . The separator pressure vessel system of claim 16 , wherein the inlet nozzle and the outlet nozzle are coupled to a flange.

18 . The separator pressure vessel of claim 16 , wherein the inlet nozzle and the outlet nozzle are formed in the wall of the separator pressure vessel.

19 . The separator pressure vessel of claim 16 , further comprising a fluid tank in fluid communication with the inlet nozzle.

20 . The separator pressure vessel of claim 16 , further comprising a slurry tank in fluid communication with the outlet nozzle.

21 . The separator pressure vessel of claim 16 , further comprising a solids dam disposed in the bottom of the separator pressure vessel proximate a water outlet.