Abstract: The present invention relates to a method for the separation of an oily mixture from an aqueous mixture and a kit for use in said method.

Abstract: An insulated electrostatically-assisted insulated spraying extender (10) is described, which is installed on the spraying bar (100) of a spraying device and positioned adjacent to a hydraulic nozzle (20) that atomizes the spray solution, said extender (10) being equipped with an insulated internal shaft (12) for the passage of the power supply cable (30) and the placement of an encapsulated electric device (13) that feeds the induction electrode (151) surrounding the opening (21) of the hydraulic nozzle (20), causing the dielectric rupture of atomized drops, eliminating or decreasing the wetting of the induction electrode (151) and of the power supply cable (30), as well as of other electric parts that affect the efficiency and the full operation of the spraying nozzle, while hindering leakage of the electric current through cable (30) by contacting any section of the machine structure.

Abstract: The present invention relates to a cleaning composition for the decontamination of surfaces, in particular radioactive surfaces, and the related decontamination method.

Abstract: The present invention relates to a method for removing a contaminant based on fats, crude oil or derivatives and mixtures thereof and to a cleaning composition for use in said method.

Abstract: The present invention relates to a cleaning composition and to a cleaning method in the industrial or household field comprising the use of said composition.

Abstract: An insulated electrostatically-assisted insulated spraying extender (10) is described, which is installed on the spraying bar (100) of a spraying device and positioned adjacent to a hydraulic nozzle (20) that atomizes the spray solution, said extender (10) being equipped with an insulated internal shaft (12) for the passage of the power supply cable (30) and the placement of an encapsulated electric device (13) that feeds the induction electrode (151) surrounding the opening (21) of the hydraulic nozzle (20), causing the dielectric rupture of atomized drops, eliminating or decreasing the wetting of the induction electrode (151) and of the power supply cable (30), as well as of other electric parts that affect the efficiency and the full operation of the spraying nozzle, while hindering leakage of the electric current through cable (30) by contacting any section of the machine structure.

Abstract: The method serves to control substances present in a liquid; a liquid mass is brought to temperature and pressure conditions such as to give rise to an appreciable evaporation of the liquid mass; at least one solid surface is arranged, in part inside the liquid mass and in part outside the liquid mass so as to establish at least a meniscus of the liquid on this solid surface; the shape and/or the size and/or the extension and/or the position and/or the temperature of this meniscus is controlled so that the evaporation of the liquid through said meniscus is controlled; any deposition of these substances is also controlled.

Abstract: The present invention relates to a water purifier having a non-drinkable water inlet (I) and a drinkable water outlet (O1), and comprising at least a boiler (8) having a water inlet and a steam outlet, a fluids separating filter (5) operating by flow and float, having an inlet and an outlet, and a heat exchanger (4) adapted to exchange heat between a first and a second separated fluid flows, having an inlet and an outlet for a first water flow to be heated as well as an inlet and an outlet for a second water flow to be cooled; the non-drinkable water inlet (I) is coupled to the first flow inlet of the heat exchanger (4), the first flow outlet of the heat exchanger (4) is coupled to the inlet of the fluids separating filter (5), the outlet of the fluids separating filter (5) is coupled to the inlet of the boiler (8), the outlet of the boiler (8) is coupled to the second flow inlet of the heat exchanger (4), the second flow outlet of the heat exchanger (4) is coupled to the drinkable water outlet (O1).

Abstract: The method serves to control substances present in a liquid; a liquid mass is brought to temperature and pressure conditions such as to give rise to an appreciable evaporation of the liquid mass; at least one solid surface is arranged, in part inside the liquid mass and in part outside the liquid mass so as to establish at least a meniscus of the liquid on this solid surface; the shape and/or the size and/or the extension and/or the position and/or the temperature of this meniscus is controlled so that the evaporation of the liquid through said meniscus is controlled; any deposition of these substances is also controlled.

Abstract: The present invention relates to a water purifier having a non-drinkable water inlet (I) and a drinkable water outlet (O1), and comprising at least a boiler (8) having a water inlet and a steam outlet, a fluids separating filter (5) operating by flow and float, having an inlet and an outlet, and a heat exchanger (4) adapted to exchange heat between a first and a second separated fluid flows, having an inlet and an outlet for a first water flow to be heated as well as an inlet and an outlet for a second water flow to be cooled; the non-drinkable water inlet (I) is coupled to the first flow inlet of the heat exchanger (4), the first flow outlet of the heat exchanger (4) is coupled to the inlet of the fluids separating filter (5), the outlet of the fluids separating filter (5) is coupled to the inlet of the boiler (8), the outlet of the boiler (8) is coupled to the second flow inlet of the heat exchanger (4), the second flow outlet of the heat exchanger (4) is coupled to the drinkable water outlet (O1).

Abstract: The present invention relates to an automatic dispenser equipped with an ejection assembly which includes at least a geared motor, an ejection device fitted to the output shaft of the geared motor, and detection means configured to detect the movement of the ejection device, wherein the detection means includes at least one magnet associated with the output shaft of the geared motor, and at least one magnetic sensor positioned in a manner such as to detect when the magnet passes through a predetermined region; and the ejection assembly further includes an overcurrent protection device connected electrically upstream of the geared motor.