37results about How to "Economic recovery" patented technology

A hybrid evolutionary algorithm (“HEA”) technique is described for automatically calculating well and drainage locations in a field. The technique includes planning a set of wells on a static reservoir model using an automated well planner tool that designs realistic wells that satisfy drilling and construction constraints. A subset of these locations is then selected based on dynamic flow simulation using a cost function that maximizes recovery or economic benefit. In particular, a large population of candidate targets, drain holes and trajectories is initially created using fast calculation analysis tools of cost and value, and as the workflow proceeds, the population size is reduced in each successive operation, thereby facilitating use of increasingly sophisticated calculation analysis tools for economic valuation of the reservoir while reducing overall time required to obtain the result. In the final operation, only a small number of full reservoir simulations are required for the most promising FDPs.

Disclosed is an electrolytic cell for removal of material from a solution. The cell comprises a cavity for receiving the solution, a rotatable electrode located within the cavity, a counter-electrode in spaced relation to the rotatable electrode, and an ultrasonic generator coupled to said cavity for directing ultrasonic energy toward the rotatable electrode to displace solid material extracted from the solution by an electrochemical reaction. The rotatable electrode may form a cathode, and the counter-electrode may form an anode, wherein metal in the solution is deposited on the cathode as a metal powder, such that the ultrasonic energy displaces the metal powder from the cathode. Alternatively, the rotatable electrode may form an anode, and the counter-electrode may form a cathode, wherein organic waste in the solution is deposited on the anode, such that the ultrasonic energy removes the deposited organic waste from the anode.

The electricity storage and recovery system. At first, injects high-pressure gas in a high-pressure tank and then, the normal-pressure fluid from a normal-pressure tank is pumped into the high-pressure tank by a motor-driven pump so that the electrical energy is converted to high-pressure potential energy of the fluid stored inside the high-pressure tank. To recover the potential energy back to electrical energy, the high-pressure fluid flows from the bottom of the high-pressure tank to the normal-pressure tank through a turbine. The turbine in turn drives a generator to produce electricity. The pump and the turbine are of a same device running in opposite directions. The motor and the generator are also of a same device running in opposite directions.

A device and method for recycling of gas used during the quenching process in a thermal treatment, for example, in which the gas is removed directly from a quenching chamber and is compressed to the pressure prevailing in the high-pressure container rather than being decompressed into a gas buffer, an additional compression step being connected if the pressure inside the chamber lies below a threshold value, wherefore conduits comprising overflow regulators lead to the individual compression steps.

The invention relates to a pyrolysis plant and a process for recovering (recycling) carbon fibers from carbon fiber-containing plastics, in particular from carbon fiber-reinforced plastics (CFPs or CFP materials), preferably from carbon fiber-containing and/or carbon fiber-reinforced composites (composite materials).

The present invention relates to a process for recovering hydrogen along with high temperature high pressure carbon dioxide from one or more hydrocarbon gas streams by incorporating a carbon dioxide recovery unit which utilizes a magnesium based sorbent into a process that includes a reformer unit, a water gas shift reactor and a hydrogen pressure swing adsorption unit.

The invention discloses a repairing technique for a piston rod of a hydraulic oil cylinder. The repairing technique includes the following requirements: (1) surface treatment: heating all the damaged parts through flame, melting out all the liquid or oil liquid dipped in the deep parts of metal, and cleaning the piston rod with a cleaning agent until all the pollutants are removed; machining two ends of a scratch orderly through a drill, deepening and widening the scratch along the whole length through a handheld angle grinder which is provided with a suitable cutting grinding wheel, allowing a repaired position to be groove-shaped, and cleaning all the parts to be repaired again through the cleaning agent; (2) a repairing technique: coating parts on which surface treatment is performed with a repairing agent, allowing the repairing agent to attach to the grinded rough surface, and then continuously coating the parts; and (3) repairing and recovering the parts into an original shape profile through fine emery paper after the repairing agent is solidified completely. The repairing technique is reasonable in processes, is low in cost, is reasonable and coordinated in parameter collocation, is short in time, and is simple in operation.

The present invention relates to a process for recovering hydrogen along with high temperature high pressure carbon dioxide from one or more hydrocarbon gas streams by incorporating a carbon dioxide recovery unit which utilizes a magnesium based sorbent into a process that includes a gasification unit, an optional sulfur removal unit, a water gas shift reactor and a hydrogen pressure swing adsorption unit.

A sulfonamide based rare earth element ion separation media and method of synthesis and use are provided. A bed or column of sulfonamide resin for separations can be prepared by exposing a sulfonate resin to chlorosulfonic acid to form a sulfonyl chloride resin; exposing the sulfonyl chloride resin to aqueous ammonia to form a sulfonamide resin; and then packing the sulfonamide resin into a separation column. Mixtures of lanthanide and other rare earth ions with very similar atomic radii and characteristics can be separated by flowing a mixture of lanthanide ions through a bed of sulfonamide resin followed by a mobile phase of an organic acid such as lactic acid to elute the separated rare earth element ions separated by the sulfonamide resin. Collected fractions of eluate can also be recycled through the sulfonamide media.

The invention relates to an LNG optimum control reliquefaction system for recovering LNG low-temperature waste heat generated during LNG vaporization. The present invention is configured to: supply gaseous LNG to a gaseous LNG consumer while allowing liquid LNG to discharge cold energy through a heat exchanger for a load of a cold energy supply unit for a warehouse, so as to supply a sufficient amount of the gaseous LNG within an LNG storage tank, thereby increasing the temperature of or vaporizing the liquid LNG; allow the LNG with an elevated temperature or vaporized to be supplied to a gaseous LNG consumer supply line, thereby expanding the cold energy use and dissemination of the LNG; and optimally control and reliquefy the flux of the liquid LNG and gaseous LNG, thereby economically recovering the low-temperature waste heat of the LNG generated during LNG vaporization.

The invention relates to a method for preparing vat brilliant red RB (Algol Scarlet B), comprising the following steps: adding 3, 4, 9, 10-perylene tetracid dianhydride into KOH water solution and heating the solution to fully dissolve it, and cooling the solution to 50 degrees centigrade and neutralizing KOH in the solution by H2SO4 until the pH value equals to 5-6, and orange perylene tetra-formic acid is separated out; filtering and washing the perylene tetra-formic acid, and mixing a perylene tetra-formic acid filter cake with water, and adding parachloroaniline and pyridine into the solution, and uniformly stirring them, and transferring the material into a pressure kettle and closing the kettle, and raising the temperature to 130-150 degrees centigrade and performing heat preservation reaction until the perylene tetracid dianhydride is used up, wherein the reaction pressure is 0.2-0.4 MPa; cooling the material to the room temperature, and filtering it and washing it by hot water until no green fluorescence to obtain a vat brilliant red RB rough product filter cake, and heating and processing the rough product filter cake by sodium hypochlorite solution, and filtering, water washing and drying the cake to obtain a vat red RB dry product. The invention provides a safe, environment-friendly and economic preparation method.