Abstract: Systems and methods of integrated gas oil separation are disclosed. Systems include a high pressure production trap (HPPT), a low pressure production trap (LPPT), a low pressure degassing tank (LPDT), a first knockout drum (KOD) fluidly coupled to the LPDT and operable to accept an atmospheric pressure off-gas from the LPDT, an atmospheric pressure compressor fluidly coupled to the first KOD and operable to compress the atmospheric pressure off-gas to introduce the atmospheric pressure off-gas from the LPDT into the LPPT inlet feed stream, a second KOD fluidly coupled to the LPPT and operable to accept a low pressure off-gas from the LPPT, and a low pressure compressor fluidly coupled to the second KOD and operable to compress the low pressure off-gas to introduce the low pressure off-gas from the LPPT into the crude oil inlet feed stream.

Abstract: Control strategy and algorithms to be utilized in a programmable logic control for automating injection rates of demulsifier and wash-water in a Gas-Oil-Separation Plant (GOSP). The logic control system can be programmed on a Distributed Control System (DCS) of the plant. The automating system is developed with the objective of optimizing demulsifier and wash water usage, improving plants water removal efficiency and minimizing process upsets from insufficient injection of demulsifier or wash water.

Abstract: A system and method for dispensing an injection material to an injection point. The injection material is stored in a tank and disposed to parallel piped vessels. An orifice is disposed in piping connected to discharge ends of the vessels, and has an opening with a designated cross sectional area. A high pressure fluid drives the injection material to the injection point; the pressure of the high pressure fluid is regulated with a pressure control valve. Valves in the inlet and discharge piping connected to the vessels are selectively opened and closed so that injection material flows to and from the vessels. Vessels vent to a recycle/recovery system to reduce vessel pressure enabling refilling with injection material. Valves in the pressurizing and depressurizing lines are selectively opened and closed to depressurize and refill the vessels to have continuous chemical injection to the injection location.

Abstract: A system and method for recycling flare gas back to a processing facility that selectively employs different numbers of ejector legs depending on the flare gas flowrate. The ejector legs include ejectors piped in parallel, each ejector has a flare gas inlet and a motive fluid inlet. Valves are disposed in piping upstream of the flare gas and motive fluid inlets on the ejectors, and that are selectively opened or closed to allow flow through the ejectors. The flowrate of the flare gas is monitored and distributed to a controller, which is programmed to calculate the required number of ejector legs to accommodate the amount of flare gas. The controller is also programmed to direct signals to actuators attached to the valves, that open or close the valves, to change the capacity of the ejector legs so they can handle changing flowrates of the flare gas.

Abstract: Systems and methods of integrated gas oil separation are disclosed. Systems include a high pressure production trap (HPPT), a low pressure production trap (LPPT), a low pressure degassing tank (LPDT), a first knockout drum (KOD) fluidly coupled to the LPDT and operable to accept an atmospheric pressure off-gas from the LPDT, an atmospheric pressure compressor fluidly coupled to the first KOD and operable to compress the atmospheric pressure off-gas to introduce the atmospheric pressure off-gas from the LPDT into the LPPT inlet feed stream, a second KOD fluidly coupled to the LPPT and operable to accept a low pressure off-gas from the LPPT, and a low pressure compressor fluidly coupled to the second KOD and operable to compress the low pressure off-gas to introduce the low pressure off-gas from the LPPT into the crude oil inlet feed stream.

Abstract: An industrial packed column system and method of operation for gas stream processing to remove a component by liquid absorbent contact includes: a. a plurality of packed tubular members having ends aligned, in vertical parallel array to form a first bundle, b. an upper lean absorption liquid inlet and lower rich absorption liquid outlet; c. a raw gas feed inlet positioned below the packing material, connected to a raw feed gas manifold via control valves for selectively admitting the feed gas to one or more of the plurality of tubular members, d. an upper treated gas outlet, connected via valved conduit to (i) a treated gas collection manifold and (ii) the raw as inlet of one or more of the other tubular members, and the apparatus equipped with appropriate systems so that desired portions of the treated gas stream exiting a tubular member can be passed for further treatment to at least one other tubular member in the first bundle.

Abstract: An industrial packed column system and method of operation for gas stream processing to remove a component by liquid absorbent contact includes: a. a plurality of packed tubular members having ends aligned, in vertical parallel array to form a first bundle, b. an upper lean absorption liquid inlet and lower rich absorption liquid outlet; c. a raw gas feed inlet positioned below the packing material, connected to a raw feed gas manifold via control valves for selectively admitting the feed gas to one or more of the plurality of tubular members, d. an upper treated gas outlet, connected via valved conduit to (i) a treated gas collection manifold and (ii) the raw as inlet of one or more of the other tubular members, and the apparatus equipped with appropriate systems so that desired portions of the treated gas stream exiting a tubular member can be passed for further treatment to at least one other tubular member in the first bundle.

Abstract: An industrial packed column for gas stream processing to remove a component by liquid absorbent contact includes: a. a plurality of packed tubular members having ends aligned in vertical parallel array to form a first bundle, b. an upper lean absorption liquid inlet and lower rich absorption liquid outlet; c. a raw gas feed inlet positioned below the packing material, connected to a raw feed gas manifold via control valves for selectively admitting the feed gas to one or more of the plurality of tubular members, d. an upper treated gas outlet, connected via valved conduit to (i) a treated gas collection manifold and (ii) the raw gas inlet of one or more of the other tubular members, and the apparatus equipped with appropriate systems so that desired portions of the treated gas stream exiting a tubular member can be passed for further treatment to at least one other tubular member in the first bundle.

Abstract: An industrial packed column for gas stream processing to remove a component by liquid absorbent contact includes: a. a plurality of packed tubular members having ends aligned in vertical parallel array to form a first bundle, b. an upper lean absorption liquid inlet and lower rich absorption liquid outlet; c. a raw gas feed inlet positioned below the packing material, connected to a raw feed gas manifold via control valves for selectively admitting the feed gas to one or more of the plurality of tubular members, d. an upper treated gas outlet, connected via valved conduit to (i) a treated gas collection manifold and (ii) the raw gas inlet of one or more of the other tubular members, and the apparatus equipped with appropriate systems so that desired portions of the treated gas stream exiting a tubular member can be passed for further treatment to at least one other tubular member in the first bundle.

Abstract: A system is disclosed for Hydraulic Transient Energy Generation, based on the principle of hydraulic transients involving conversion of kinetic energy into potential (pressure) energy, which will serve as a reliable, renewable, inexpensive and green source of energy, and provide good environmental benefits (and CO2 credit) by substantially minimizing greenhouse gas emissions. To utilize the potential (pressure) energy developed in the system, the invention makes the transient pressure surge continuous and steady. Rapid response valves with appropriate and compatible instrumentation systems make it possible to periodically and continuously induce pressure surges to maintain high pressure at the outlet of the system. The steady pressure rise at the outlet of the system can be used to drive a turbine for generating electrical power, or for pumping liquid from lower pressure to a higher pressure, wherein it can be used for driving pumps, compressors and the like which require energy input for their operation.