Abstract:
A ozonated liquid dispensing unit is described. The unit produces and dispenses an ozonated liquid that may be used to clean and sanitize a variety of articles or used in conjunction with cleaning processes and other apparatus. The unit includes a liquid input port to receive liquid into the unit. The unit includes a first dielectric cell for producing ozone gas from ambient air and a second dielectric cell for producing ozone gas. The first dielectric cell is in supply communication with the second dielectric cell for supplying the second dielectric cell with a supply gas containing the ozone gas generated from the ambient air. The second dielectric cell produces ozone gas from the supply gas. An injector is in fluidic communication with the liquid input port. The injector in supply communication with the second dielectric cell for receiving the ozone gas from the second dielectric cell, and the injector mixes the ozone gas from the second dielectric cell with the liquid from the liquid input port to produce an ozonated liquid. A liquid output port discharges the ozonated liquid from the unit. A faucet or spray may be used to control the discharge of the ozonated liquid from the unit.
Abstract:
An ozone liquid converter (1) which converts a liquid held in a sealed vessel (3) provided with a septum (51), into ozone liquid including: a liquid tight passage (5) in which to both ends of a passage main body (7) thereof, there are respectively connected insertion needles (35,33) for liquid discharge and liquid return in an internally communicating state; an ozone gas entrapment part (11) which is arranged part way along the liquid tight passage (5); and an ozone gas discharge part (27) which is arranged part way along the liquid tight passage (5), and on a downstream side of the ozone gas entrapment part (11), and which discharges ozone gas which has not dissolved in the liquid, to the outside of the pathway; wherein said liquid tight passage (5) and said sealed vessel (3) are connected by puncturing said septum (51) with said insertion needles (35, 33), and there is formed a liquid circulation passage in which liquid flowed out from said sealed vessel (3) passes through said liquid tight passage (5) and returns to said sealed vessel (3), and ozone is dissolved, in said ozone gas entrapment part (11), in the liquid which has flowed out from said sealed vessel (3) to said liquid tight passage (5), and converted to ozone liquid, and after discharging the ozone gas what has not been dissolved in said ozone gas discharge part (27), said ozone liquid is returned to inside said sealed vessel (3), to thereby convert the liquid contained in said sealed vessel into ozone liquid.
Abstract:
In accordance with at least one exemplary embodiment, a syringe, method and system for delivering a therapeutic amount of ozone are disclosed. An exemplary syringe can have a gas chamber and one or more electrodes. A portion of at least one electrode can be within the gas chamber. Alternatively, singularly or in conjunction, one or both electrodes can be attached to the outside of an exemplary syringe. One or more electrical contact points can be outside the gas chamber. Each electrical contact point can be connected to an electrode. Oxygen gas can provided within the gas chamber of the exemplary syringe. A medical ozone generator can be connected to the syringe via the electrical contact points. Corona discharge can be effectuated via the electrodes, which can result in an amount of ozone gas can being produced from the oxygen gas.
Abstract:
The invention provides a power supply apparatus for supplying electric power to a capacitive load. The apparatus has a transformer, a positive half-period driver and a negative half-period driver supplying positive and negative half-periods of voltage to the first coil. The second coil forms an electric resonance circuit and supplies electric voltage to the load. Zero crossings of the voltage supplied to the first coil are determined from a third coil on the transformer, and alternation between positive and negative half-periods of voltage supplied to the first coil is done at the zero crossings of the voltage supplied to the first coil.
Abstract:
A novel type of power supply for AC discharge by which the discharge is easily performed even when insulators adhere to electrodes or the gas pressure drops and variation of plasma parameters with time is very small. A power divider (2) divides a signal from a master oscillator (1) into a plurality of signals and phase shifters (3) and power amplifiers (4) respectively determine the phases and amplitudes of the divided signals. A controller (7) controls and adjusts the oscillation frequency, and the phases and amplitudes of the divided signals. The final outputs are produced through transformers (5) and fed to a plurality of electrodes (6) arranged in a discharge enclosure. The transformers (5) are connected to each other on the output side by one of their outputs which are normally maintained at a floating potential, and discharge is made to take place between the electrodes (6). The phases and amplitudes of the electrodes (6) are arbitrary and may be the same respectively. The phases are controlled and the amplitudes are adjusted most appropriately to the controlled system. In addition, the shapes and arrangement of the electrodes (6) are also arbitrary and made appropriate to the system.
Abstract:
An ozone water production device (1) includes: flow rate controllers (4, 5) that each control a flow rate of gas which is a raw material; a flow rate meter (12) that measures a flow rate of water which is a raw material; a booster pump (13) that controls pressure of the water; an ozone water generating unit (8) that generates ozone water by mixing ozone gas and the water; and a pressure sensor (17) that measures pressure of the ozone water which is to be supplied to a use point (19). The booster pump (13) controls the pressure of the water such that the pressure of the ozone water measured by the pressure sensor (17) is constant. The flow rate controllers (4, 5) each control the flow rate of the gas in accordance with the flow rate of the water measured by the flow rate meter (12).