Abstract:
A dishwashing method in which water having an oxidizing and disinfecting action is provided in a dishwasher and used as dishwashing water or added to a dishwashing water, wherein, to provide the water, a) a stream of untreated water is fed into a reverse osmosis device and separated into a concentrate stream and a permeate stream, b) ozone is produced by an ozone generator, and c) the ozone is introduced into the permeate stream emerging from the reverse osmosis device, wherein the reverse osmosis controls ozone production in that the ozone generator is configured such that ozone is only produced and mixed with the permeate stream when the reverse osmosis device is in operation.
Abstract:
A system is described herein which provides an ozonated liquid. The system comprises a liquid inlet arranged to continuously accept a liquid into the system at a desired flow rate; a liquid outlet to dispense ozonated liquid out of the system, the ozonated liquid having an oxidation-reduction potential of at least 450 mV due solely to ozone dissolved in the liquid, the liquid outlet being in fluid communication with the liquid inlet and arranged to dispense the ozonated liquid out of the system at the desired flow rate. The system has a tank-less ozonation flow path between the liquid inlet and the liquid outlet, the flow path adapted to ozonate the accepted liquid, producing the ozonated liquid to be dispensed out of the system. The accepted liquid has a fluid residence time in the ozonation flow path of less than 5 minutes prior to being dispensed as the ozonated liquid.
Abstract:
A water treatment system including: a biological treatment stage for treating an organic wastewater by an action of a microorganism; an ozone gas producing stage for generating ozone gas; a sludge transferring stage for withdrawing and transferring a part of the microorganism-mixed liquid in the biological treatment stage; an ozone treatment stage for bringing ozone into contact with the part of the microorganism-mixed liquid transferred; and a treated liquid returning stage for returning the treated liquid after the ozone treatment from the ozone treatment stage to the biological treatment stage. Undecomposed aggregated microorganisms after the ozone treatment are separated and concentrated, and an ozone treatment is selectively applied to the aggregated undecomposed microorganisms thus separated and concentrated.
Abstract:
A water treatment apparatus including a central electrode, and an outer periphery electrode, water to be treated being treated by applying a high voltage between the central electrode and the outer periphery electrode to thereby form a discharge in a discharge space between the central electrode and the outer periphery electrode and supplying the water to be treated as water droplets or a water film into the discharge space from above the discharge space, the water treatment apparatus further including a water droplet reformation unit connected to the outer periphery electrode, wherein the water droplet reformation unit captures, as trapped water, a portion of the water to be treated falling in the discharge space, performs water droplet reformation by causing the captured trapped water and gas containing oxygen supplied via a gas pipe to be mixed, and jets out water droplets formed by water droplet reformation into the discharge space.
Abstract:
An ozone sparkling water supply apparatus includes a water supply and an ozone generator, wherein the ozone generator is communicated with the water supply via a first pipe. The ozone generator includes a main processor, a sensor electrically connected to the main processor and a fluid pressure switch communicated with the main processor via a second pipe, wherein the sensor and the fluid pressure switch correspond to each other. The fluid pressure switch starts the ozone generator for providing ozone into the water supply such that the water supply is capable of providing ozone sparkling water when the ozone is mixed into the water in the water supply.
Abstract:
An ozone sparkling water supply apparatus includes a water supply and an ozone generator, wherein the ozone generator is communicated with the water supply via a first pipe. The ozone generator includes a main processor, a sensor electrically connected to the main processor and a fluid pressure switch communicated with the main processor via a second pipe, wherein the sensor and the fluid pressure switch correspond to each other. The fluid pressure switch starts the ozone generator for providing ozone into the water supply such that the water supply is capable of providing ozone sparkling water when the ozone is mixed into the water in the water supply.
Abstract:
An apparatus for a programmable self sanitizing water dispenser apparatus with a digital controller as well as a programmable method for generating ozone for cleaning the reservoir and the water contained within it. The apparatus includes an anti-spill receiver that houses the controller and that can contain a ozone generator.
Abstract:
Systems and methods for creating an oxidation reduction potential (ORP) in water for pathogenic control are described. The systems and methods generate an oxidation reduction potential that provides pathogenic control of the solution as well as pathogenic control of the surfaces with which the solution comes in immediate contact. The system also provides purified drinking water to a tap or an ice making machine.
Abstract:
An apparatus has a tank with an interior for containing water, a nozzle for directing ozonated water out of the spray apparatus, and an electrolytic cell located between the nozzle and the tank. The electrolytic cell is configured to ozonate water as the water flows from the tank to the nozzle. The apparatus also includes a power source for providing electric potential to the electrolytic cell. The tank, nozzle, and electrolytic cell all are part of a single spray bottle or dispenser (e.g., like a soap dispenser).
Abstract:
Disclosed are a method, a device and a system of automatic flow control based on sensed effectiveness indicators to produce effectively treated water with a portable water treatment unit. In one or more embodiments, a chemical treatment unit delivers a treatment chemical to water as the water flows at a flow rate induced by a pump capable of operating at multiple speeds. A sensor downstream of the chemical treatment unit measures an effectiveness indicator and a processor and/or a feedback circuit determines an effectiveness of the chemical treatment. A controller changes power to the pump in response to the determination, adjusting the flow rate to ensure efficient usage of a power source and/or to ensure effective production of potable water. One or more filters may be included, each having a bypass valve, and the pump may automatically adjust to changing filter configurations and/or source water composition.