Produced water evaporation system
Embodiments of the present disclosure relate generally to a method, apparatus and system for the evaporation of produced water and dirty water from oil and gas production and other dirty water sources. The evaporation system may consist of a portable pond embodied in an Above Ground Storage Tank (AST) system and a fluid projection system which may be controlled and employ optimized operating conditions to maximize the evaporation of produced water under varying meteorological and chemical condition.
1. A system for the evaporation of water, the system comprising:
a portable pond configured to hold the water, wherein the water is selected from the group consisting of produced water and dirty water; and
a nozzle-based fluid projection system that includes fluid projection nozzles configured to project the water and a controller, wherein:
the controller controls a fluid particle size with respect to the projected water, and
the fluid particle size is based on a brine concentration associated with the water in the portable pond.
2. The system of claim 1 , wherein at least one of a hydrocarbon separator and skimmer is fluidly coupled with the portable pond and is configured to collect hydrocarbons.
3. The system-of claim 1 , wherein the fluid projection nozzles are arranged to vary a spray plume shape of a spray generated by the fluid projection nozzles.
4. The system of claim 1 , wherein the fluid projection nozzles are arranged to vary a spray plume height of a spray generated by the fluid projection nozzles.
5. The system of claim 1 , wherein the fluid projection nozzles are arranged to vary a spray plume particle diameter of a spray generated by the fluid projection nozzles.
6. The system of claim 1 , wherein the fluid projection nozzles are arranged in a plurality of sectors that are independently controllable from one another.
7. The system of claim 1 , wherein the fluid projection nozzles are arranged in a plurality of sectors that are independently controllable from one another, wherein any one of fluid particle size, spray plume shape, spray plume height, and spray plume density can be independently controlled in any one of the plurality of sectors.
8. The system of claim 1 , wherein the fluid projection nozzles are arranged in controllable sectors that are independently controllable from one another, wherein any one of fluid particle size, spray plume shape, spray plume height, and spray plume density can be independently controlled in any one of the plurality of sectors according to an algorithm that optimizes evaporation verses a meteorological condition and a fluid chemical makeup that includes a brine concentration.
9. The system of claim 1 , wherein the system incorporates at least one of an electrical charged based chlorine and anti-bacterial solution generator.
10. A system for the evaporation of water, the system comprising:
a portable pond configured to hold water, wherein the water is selected from the group consisting of produced water and dirty water; and
a nozzle-based fluid projection system that includes fluid projection nozzles configured to project the water and a controller, the nozzle based fluid projection system configured to evaporate over 500 barrels of water per day, wherein:
the controller controls a fluid particle size with respect to the projected water, and
the fluid particle size is based on a brine concentration associated with the water in the portable pond, and wherein the fluid particle size is decreased in response to an increased brine concentration.
11. A system for the evaporation of water, the system comprising:
a portable pond configured to hold the water, wherein the water is selected from the group consisting of produced water and dirty water;
a nozzle-based fluid projection system that includes fluid projection nozzles configured to project the water and a controller, wherein;
the controller controls a fluid particle size with respect to the projected water, and
the fluid particle soze is based on a brine concentration associated with the water in the portable pond, and wherein the fluid particle size is increased in response to a decreased brine concentration; and
a multiple fluid retention system that includes at least 2 barriers that surround the portable pond.