A gas trap assembly including a base connector housing including an inflow port and an outflow port, a reservoir fluidly connecting the inflow port to the outflow port, and a grooved porous media located within the reservoir. The grooved porous media including a plurality of grooves and composed of a material having a plurality of pores of a selected size. The grooved porous media fluidly divides the reservoir into two portions in such a way that a working fluid flowing from the inflow port to the outflow port must flow through the plurality of grooves and the plurality of pores of the grooved porous media. The plurality of grooves and the plurality of pores are configured to prevent gas from passing through the grooved porous media.

A method and system for balancing water content in a liquid mixture is described. The method includes using an direct column contact evaporator to reduce the water content in the liquid mixture. The liquid mixture is provided in the open column direct contact evaporator with relatively dry air. The dry air evaporates excess water from the liquid mixture to concentrate the liquid mixture while at the same time reducing the energy required for water evaporation elsewhere in the plant.

The disclosure provides a thermal desensitization intermittent evaporator. The thermal desensitization intermittent evaporator includes a shell and at least one heating body disposed in the shell, wherein the heating body includes an electrical heating body and a wire connecting the electrical heating body, the wire is lead out from the shell to connect a power source; the electrical heating body includes a heating tube base and a metal joint mounted on the top of the heating tube base, the heating tube base includes upper and lower two bases, the upper base is a conductive low-heat-conduction material, and the lower base is a conductive heat-generating material. The disclosure can realize intermittent heating and high-pressure steam injection, thereby improving the activity of a water molecule, rapidly flowing to a low-temperature area and improving the efficiency of consolidation.

The disclosure provides a thermal desensitization intermittent evaporator. The thermal desensitization intermittent evaporator includes a shell and at least one heating body disposed in the shell, wherein the heating body includes an electrical heating body and a wire connecting the electrical heating body, the wire is lead out from the shell to connect a power source; the electrical heating body includes a heating tube base and a metal joint mounted on the top of the heating tube base, the heating tube base includes upper and lower two bases, the upper base is a conductive low-heat-conduction material, and the lower base is a conductive heat-generating material. The disclosure can realize intermittent heating and high-pressure steam injection, thereby improving the activity of a water molecule, rapidly flowing to a low-temperature area and improving the efficiency of consolidation.

A method and system for balancing water content in a liquid mixture is described. The method includes using an direct column contact evaporator to reduce the water content in the liquid mixture. The liquid mixture is provided in the open column direct contact evaporator with relatively dry air. The dry air evaporates excess water from the liquid mixture to concentrate the liquid mixture while at the same time reducing the energy required for water evaporation elsewhere in the plant.

The present invention provides an industrial wastewater recovery apparatus (100) aiming at Zero Liquid Discharge (ZLD). The apparatus (100) provides two stages in pre-heating the spiral coil pipe (103) containing wastewater and also conserves the heat by using the two heat exchangers (104, 105). The apparatus (100) agitates the surface wastewater to increase the rate of evaporation for faster heating. The apparatus (100) provides two stages in condensation of distilled water and also provides real-time monitoring of the water quality. The apparatus (100) provides automatic cleaning in the various parts during the operations. Further, a plurality of IoT sensor (201) monitor the real time parameters of the industrial wastewater recovery apparatus (100) and data is available to the user on the electronic display device (204).

The present invention provides an industrial wastewater recovery apparatus (100) aiming at Zero Liquid Discharge (ZLD). The apparatus (100) provides two stages in pre-heating the spiral coil pipe (103) containing wastewater and also conserves the heat by using the two heat exchangers (104, 105). The apparatus (100) agitates the surface wastewater to increase the rate of evaporation for faster heating. The apparatus (100) provides two stages in condensation of distilled water and also provides real-time monitoring of the water quality. The apparatus (100) provides automatic cleaning in the various parts during the operations. Further, a plurality of IoT sensor (201) monitor the real time parameters of the industrial wastewater recovery apparatus (100) and data is available to the user on the electronic display device (204).

A process for separating distillate and waste from a water stream comprising: spraying the water stream together with compressed steam through one or more dual phase nozzles down into one or more vertical tubes contained in a shell and tube heat exchanger; evaporating water condensing the distillate; and ejecting the waste.

A process for separating distillate and waste from a water stream comprising: spraying the water stream together with compressed steam through one or more dual phase nozzles down into one or more vertical tubes contained in a shell and tube heat exchanger; evaporating water condensing the distillate; and ejecting the waste.

The invention relates to an apparatus for desubliming, condensing or evaporating a fluid. The apparatus includes a chamber and at least one tubular member for desubliming, condensing or evaporating the fluid on the outer surface of the at least one tubular member. The chamber is provided with at least one inlet for the fluid and at least one outlet for the condensate and/or evaporate, and at least one supply and at least one discharge for a cooling and/or heating fluid. The tubular member includes an outer member and an inner member enclosed within the outer member. The inner member is in communication with the supply at a first end. The outer member is in communication with the discharge at a first end. The outer member is closed at a second end. The inner member is open and mouths into the outer member at a second end.