Abstract:
PURPOSE: A high efficient small ozone generator is provided which is light, and has a small volume and a high ozone production efficiency per power consumption. CONSTITUTION: The ozone generator comprises a high voltage pulse wave generation means(220) generating high voltage pulse waves; and a discharge chamber(300) generating an electric discharge by responding to the high voltage pulse waves, wherein the discharge chamber(300) further comprises one or more planar electrode, one or more planar dielectrics, an air service entrance for leading air into the discharge chamber(300) and an ozone discharging port discharging ozone generated inside the discharge chamber(300) into the outside of the discharge chamber(300), and the discharge chamber(300) is formed in a flat board type shape with the discharge chamber(300) being surrounded by a discharge chamber wall, wherein the one or more planar electrode consists of a pair of planar electrode which are parallel to the discharge chamber wall and horizontally arranged side by side, wherein one electrode plate is arranged inside the discharge chamber(300) so that the electrode plate being horizontally closely adhered onto the lower wall of the discharge chamber(300), and wherein the high voltage pulse wave generation means(220) further comprises a rectangular pulse generation means(210) generating rectangular pulses using a voltage impressed from an external power supply, the high voltage pulse waves are generated by condensing the rectangular pulses, and an oxide sheet is adhered onto the wall surface of the discharge chamber(300).
Abstract:
PURPOSE: An ozone generator is provided to prevent damage of apparatus due to heat and increase of temperature interrupting generation of ozone during continuous operation of a corona discharging system for producing ozone. CONSTITUTION: In an existing ozone generator consisting of a corona discharging system in which ozone is produced and discharged as the air passing through the surrounding of a discharging tube where a high voltage of corona discharging is generated by a high voltage generator (5) connected to a current transformer after air generated from an air pump is flown into an ozone generating chamber (2) of a sealed space where the discharging tube is installed, the ozone generator is characterized in that a plural corona discharging systems are formed so that each of the corona discharging systems are alternately operated for a certain period of time by a switching unit.
Abstract:
PURPOSE: An apparatus for generating ozone is provided, to improve the ozone generation efficiency, the stability and homogeneity of electrical discharge and to reduce the discharging time. CONSTITUTION: A apparatus comprises a pulse generating part (10); a condensing part (20) where the voltage of pulse is stored; a powder condensing part (30) where power is condensed by input of the output of the condensing part (20); a transformation part (T); and a discharging chamber part (50) where ozone is generated. The condensing part (20) consists of a condenser (C3) and a coil (L4) in series between the input and the output. The discharging chamber part (50) comprises a pair of electrode members (55a, 55b); an insulating members (53a, 53b) which are provided at the outer circumference surface of the electrode members (55a, 55b); and a supporting member (51) through which the electrode members (55a, 55b) penetrate.
Abstract:
A method for monitoring ozone generation in an oxygen containing gas within a chamber in an ozone generator in which ozone is generated comprising: sensing with a sensor a parameter within the chamber with time; wherein the parameter is selected from the group consisting of sound and electromagnetic radiation and estimating an amount of ozone generated with time as a function of the parameter sensed by the sensor.
Abstract:
An ozone generating body (3) includes a first electrode (10), a first dielectric (11) that covers the first electrode (10), a second electrode (30), and a second dielectric (31) that covers the second electrode (30). The second dielectric (31) forms a discharge space (DS) between the second dielectric (31) and the first dielectric (11). The ozone generating body (3) further includes a support portion (50) that supports the first dielectric (11) and the second dielectric (31). Young's modulus of the support portion (50) is less than those of the first dielectric (11) and the second dielectric (31).
Abstract:
An ozone injector device comprising a housing having a water passageway through the housing, a corona tube disposed within the housing, an ozone inlet fitting coupled to the water passageway, the ozone inlet being in fluid communication with the corona tube via a corona discharge tube, and a clearing piston positioned to move into and out of the water passageway directly opposite the ozone inlet. The clearing piston is biased upwards, towards to the ozone inlet, and configured to prevent flow of ozone into the water passageway.
Abstract:
An ozone generator includes one or more electrode pairs each containing two electrodes arranged at a distance of a predetermined gap length and a power source for applying an alternating-current voltage between the two electrodes. In the ozone generator, ozone is produced when a source gas flows at least between the two electrodes and a discharge is generated between the two electrodes. The ozone generator has a discharge space formed between the two electrodes, and the ozone generator satisfies the condition of 0.5
Abstract:
Portable ozone generators and methods of use. For example, a hand-held portable ozone generator has: a housing defining an air inlet, an air outlet, and an air channel communicating between the air inlet and the air outlet; a battery; an ozone generator configured to output, during operation, ozone into the air channel at a non-zero rate that is equal to or below 50 mg/hour; and a controller connected to send control signals to the ozone generator in response to user input. In other cases, a plank or slab shaped portable ozone generator is disclosed, with an air inlet and an air outlet located in respective opposed face plates. In one case the unit has no defined base, and every face and side wall of the device forms a ground engaging base, and the unit functions properly regardless of what face or side wall the unit contacts the ground or a horizontal ground surface with.
Abstract:
A reaction vessel and an ozonated liquid dispensing unit are described herein. 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 reaction vessel is incorporated into the unit to reduce bubbles of ozone gas and to break up bubbles of ozone gas in the ozonated liquid to provide a more effective and longer lasting cleaning and sanitizing solution.
Abstract:
A method of replacing an electrode assembly of an ozone generator includes removing an upper closure plate of the ozone generator, removing a contact plate, lifting an individual electrode assembly to be replaced from its associated dielectric tube, and sliding a replacement electrode assembly into place. A method of replacing a dielectric tube of an ozone generator includes removing the upper closure plate, contact plate, individual electrode assembly to be replaced from its associated dielectric tube, removing a suspension means and its associated suspended dielectric tube from its respective lower seal plate aperture, sliding a replacement dielectric tube into the removed suspension means, sliding the removed suspension means and replacement dielectric tube into its respective lower seal plate aperture, sliding the lifted electrode assembly into the replaced dielectric tube, and sliding the electrode assembly with its replaced dielectric tube suspended from its associated suspension means into place.