The present invention provides a method of controlling pH of wastewater being treated by electro-oxidation in an electrochemical cell containing boron doped diamond electrodes. The method comprises allowing and adjusting pH of electrolytes to vary within a defined pH range about a target pH setpoint at a required rate, wherein the pH setpoint, the defined pH range and rate of pH variation is optimized to maximize rate of pollutant destruction in the wastewater.

A trade metal analysis detector and method of operating the same to detect metals in various fluid samples using boron doped diamond working electrodes.

A liquid treatment apparatus comprises a liquid flow channel (26) configured to receive and channel liquid; and plasma generation means. The plasma generation means is arranged and configured to generate a plasma field in the gas phase above the liquid flow channel (26) to contact the surface of the liquid flowing therethrough to act on the liquid to cause impurities dissolved therein to form solid insoluble material which may be removed from the liquid by conventional filtration methods. The plasma generation means comprises at least one electrode (40) defining an anode, and at least one cathode (24) element spaced from the at least one electrode (40). The at least one electrode is located such that when liquid flows through the flow channel (26) the at least one electrode (40) is spaced above the surface of the liquid in the gaseous phase and the at least one cathode (24) is located within the flow channel (26) and arranged such that when liquid flows through the flow channel (26) it is at least partially submerged beneath the surface of the liquid, such that the plasma field is generated in the gas phase and extends to and contacts the surface of the liquid.

A system for electrochemically enhanced water filtration is provided. The system includes: a chamber plug-flow electrochemical cell; a first cathode and anode pair disposed in the cell; and a second cathode and anode pair disposed in the cell. The first and the second pair are collectively operative to apply a 2D electric field in at least one of a horizontal direction and a vertical direction with respect to the chamber plug-flow electrochemical cell.

The present invention provides an oxidant production apparatus, an example embodiment of which comprises a water container configured to accept and retain a volume of water; a porous salt container configured to accept and retain a quantity of salt, mounted with the water container such that salt in the salt container is in fluid communication with water in the water container; an electrolysis system mounted with the water container; and a gas directing element mounted with the salt container and the water container such that gas generated by the electrolysis system is preferentially directed through the salt container. In operation, gas from electrolysis percolates through the water and the salt, agitating the salt and encouraging the salt to fully dissolve.

Systems and methods for generating reactive oxygen species formulations useful in various oxidation applications. Exemplary formulations include singlet oxygen or superoxide and can also contain hydroxyl radicals or hydroperoxy radicals, among others. Formulations can contain other reactive species, including other radicals. Exemplary formulations containing peracids are activated to generate singlet oxygen. Exemplary formulations include those containing a mixture of superoxide and hydrogen peroxide. Exemplary formulations include those in which one or more components of the formulation are generated electrochemically. Formulations of the invention containing reactive oxygen species can be further activated to generate reactive oxygen species using activation chosen from a Fenton or Fenton-like catalyst, ultrasound, ultraviolet radiation or thermal activation. Exemplary applications of the formulations of the invention among others include: cleaning in place applications, water treatment, soil decontamination and flushing of well casings and water distribution pipes.

The embodiments disclose a method including bottling alcoholic beverages with selected ingredients including alcohol neutral spirits, alcohol and whisky, beer, wine, ingredients to add flavors and nutritional additive ingredients to benefit the health of an alcoholic beverage drinker, wherein a selection of alcohols includes vodka, tequila, gin, rum, brandy and other alcoholic spirits, wherein a selection of ingredients to add flavors includes flavorings including fruit flavorings, an artificial sweetener, and natural sweetener, wherein a selection of nutritional additive ingredients includes vitamins, minerals, fulvic acid, humic acid, ulmic acid and a purified and sanitized black water with humic acid and fulvic acid molecules in a mixed solution, and wherein bottling includes a bottling electronic monitoring, at least one control network, at least one bottling quality control process and a bottling labeling and packaging process and devices.

A water treatment apparatus includes: a trough-shaped flow path portion (2) on which treatment target water (W) flows; a high-voltage portion (3) having a plurality of high-voltage electrodes (4) disposed above the flow path portion (2) spacing therebetween in a direction orthogonal to a direction in which the treatment target water (W) flows; and an electric field relaxation portion (5) having first members (6) and second members (7) provided so as to extend around the high-voltage portion (3). Water treatment is performed by applying a high voltage from a pulse power supply (8) to the high-voltage portion (3), the first members (6), and the second members (7) in order to generate electric discharge between the high-voltage electrodes (4) and the flow path portion (2). And water treatment is performed by dissolving generated active species such as ozone and hydroxyl radicals into the treatment target water.

A process for removing oil and other organics, especially naphthalenic acid, is disclosed. The process involves use of electrical fields using electrodes in the device, inducing gas bubbles which force contaminants to the surface of the solutions to be skimmed off and recovered.

A water treatment apparatus includes: a reaction vessel that contains water to be treated, including an upper part from which the water to be treated is introduced and a lower part from which the water to be treated is discharged, to form a downward flow; an ozone supply unit that supplies ozonized gas into the reaction vessel from the lower part to form an upward flow of the ozonized gas containing ozone gas and oxygen; and an electrolysis electrode pair disposed on the upper part of the reaction vessel, the pair that produces hydrogen peroxide from the water to be treated and the oxygen gas contained in the ozonized gas by electrolysis.