Abstract:
The present disclosure provides a method and system for producing antimicrobial compositions comprising transition metal ions which are generated electrolytically in aqueous solution; chelating agent and excipients; wherein the said ionic species thereby impart stability and longer shelf life and long-term efficacy. Owing to the neutral pH, colorless, odorless, tasteless, non-caustic, non-corrosive nature, the composition of example embodiments shall be used as surface disinfectant and food contact sanitizer and provides an unparalleled combination of high efficacy and low toxicity with instant kill and long-term efficacy. The specific combination of certain metals provides the ability to be extremely broad spectrum and thus works against virus, bacteria, fungi, mold, mildew and antibiotic resistant species as well.
Abstract:
A method for electrolytically generating a biocide, including providing a brine solution carrier fluid; providing a vessel for creating a first passageway and a second passageway, flowing the carrier fluid through the vessel; applying an electric potential to the electrodes to produce an anolyte fluid, an anolyte gas, a catholyte fluid, and a catholyte gas in the vessel; removing the anolyte fluid, anolyte gas, catholyte fluid, and catholyte gas from the vessel; mixing a portion of the anolyte gas with the catholyte fluid to produce ozone gas and hypochlorite bleach mixture; re-circulating the ozone gas with the ozone gas and hypochlorite bleach mixture; mixing the anolyte fluid with the hypochlorite bleach solution; mixing a chlorite brine with the hypochlorite bleach solution to produce a chlorite brine/hypochlorite bleach solution mixture; and mixing the anolyte fluid with the chlorite brine/hypochlorite bleach solution mixture to the produce the biocide.
Abstract:
An electrochlorination and electrochemical system for the on-site generation and treatment of municipal water supplies and other reservoirs of water, by using a custom mixed oxidant and mixed reductant generating system for the enhanced destruction of water borne contaminants by creating custom oxidation-reduction-reactant chemistries with real time monitoring. A range of chemical precursors are provided that when acted upon in an electrochemical cell either create an enhanced oxidation, or reduction environment for the destruction or control of contaminants. Chemical agents that can be used to control standard water quality parameters such as total hardness, total alkalinity, pH, total dissolved solids, and the like are introduced via the chemical precursor injection subsystem infrequently or in real time based on sensor inputs and controller set points.
Abstract:
A ballast water electrolytic apparatus for treating ballast water comprising a ballast water electrolytic chamber and an oxygen supply chamber, the ballast water electrolytic chamber including an anode for producing chlorine oxides by electrolyzing ballast water and an oxygen cathode for separating the ballast water electrolytic chamber and the oxygen supply chamber and for producing water by reacting hydrogen ions in the ballast water electrolytic chamber with oxygen flowing into the oxygen supply chamber.
Abstract:
An aqueous fluid treatment method and system is provided which preferably uses a 3 step electro-chemical oxidation process to remove organic contaminates from water. A high surface area electro-chemical reaction cell can be employed to remove organic particles and precipitate hardness salts from the aqueous solution. Several 3-phase spark arcs generated mixed oxidants and acoustic cavitations to remove dissolved organic compounds and oxidize organic metal compounds in the next step. Finally, a dielectric discharge in aqueous foam is used to eliminate recalcitrant organic compounds such as, but not limited to, polychlorinated aromatics, disinfectants, pesticides, and pharmaceuticals before release to environment or recycled.
Abstract:
This disclosure of a liquid treatment device includes a first metal electrode having a part disposed in a reaction tank into which a water being treated is filled, a second metal electrode disposed in the reaction tank, an insulator having an opening portion disposed to surround the first metal electrode so that a closed space is formed. A bubble is generated from the closed space to the water being treated via the opening portion. The liquid treatment device also includes a gas supply device that supplies the space with a gas for generating the bubble, and a power supply that applies a voltage between the first metal electrode and the second metal electrode.
Abstract:
Prolongation of the lifetime for reduced water is attempted.Production water that presents alkalinity is produced by utilizing raw water with ionized metallic minerals being dissolved therein and hydrogen gas H2. When inpouring the hydrogen gas together with the raw water into an electromagnetic portion in the apparatus, the hydrogen gas is bubbled and ionized to produce ions. The gas bubbles of the ionized hydrogen-ions are miniaturized. By making a metallic mineral as a core, hydrides (H−), which are negative ions in the hydrogen ions, coordinate on the periphery of that core. The metallic minerals which are complex-ionized (complex-ionized metallic minerals) based on a fact that the hydrides coordinate are dissolved in the water stably for long period of time, so that production water which presents alkalinity, that is, reduced water can be obtained. The reduced water can be utilized as drinking water. A metal container is preferable for a refilling container.
Abstract:
A method of electrolysing water, using a water electrolyser having cathode and anode compartments respectively on either side of a hydrophilic polymer cation-exchange membrane, the method comprising: (i) adding water to the anode compartment only, such that the cathode compartment is predominantly free of water in liquid form; (ii) electrolysing the water to form hydrogen gas in the cathode compartment and oxygen gas in the anode compartment; and (iii) re-circulating the hydrogen gas through the cathode compartment.
Abstract:
A method and system are described to treat ammonia-containing wastewater or process waters. Sewage containing human or animal waste and certain process liquids, typically water, contains high levels of nitrogen in the form of ammonia. An electro-chemical method to extract the ammonia from the wastewater is also described. The system described is one implementation of this method. One or more electrolysis cells convert ammonium to ammonia where the generated ammonia gas can readily be extracted for disposal or reuse. Such a system can involve electrolysis cells of numerous types as described herein.
Abstract:
A system carried by a watercraft for reducing the population of microorganisms in a body of water, including an electrolytic apparatus for producing antimicrobial chlorine-containing compounds and conduits for discharging electrolyzed water into the body of water.