6results about "Electrical discharge ozone preparation" patented technology

The application relates to a high-stability ozone generation monitoring system and device, in particular to the technical field of ozone generation monitoring, which comprises an information acquisition module, a sample construction module, a sample storage module, an adjustment and optimization module, a power control module and a concentration output module; the information acquisition module is used for periodically acquiring light cell information, gas information and working information during ozone generation device operation; the sample construction module is used for analyzing ozone concentration according to the light cell information and the gas information, and is also used for constructing ozone sample data according to the ozone concentration and the working information; the sample storage module is used for storing the ozone sample data; the adjustment and optimization module is used for adjusting the analysis process of a power parameter, extracting ozone similar data, and optimizing the adjustment process of the power parameter according to the ozone similar data; the power control module is used for controlling light source power according to the power parameter; and the concentration output module is used for outputting the ozone concentration. The application realizes accurate monitoring of ozone generation concentration.

To provide a discharge device capable of discharging highly concentrated ejection product material.SOLUTION: A discharge device 1 ejects ejection product material into the air. The discharge device 1 comprises: a housing 11; a discharge electrode 131; and two protection portions 141 and 141. The discharge electrode 131 projects from the housing 11. The discharge electrode 131 ejects the ejection product material into the air by performing a discharge. Each protection portion 141 is one portion and the housing 11 is another portion. The two protection portions 141 and 141 are provided with the discharge electrode 131 interposed between the two protection portions. Each protection portion 141 includes: a pair of supporting portions 161 and 161; and an electrode protection portion 151. The pair of supporting portions 161 and 161 is provided in the housing. Each supporting portion 161 extends toward a direction separated from the housing 11. A terminal end portion of each supporting portion 161 is arranged at a position more separated from the housing 11 than a distal end portion 13A of the discharge electrode 131. The electrode protection portion 151 connects the terminal end side of one support portion 161 to the other support portion 161.SELECTED DRAWING: Figure 4

A method and system of controlling a cohort of ozone gas generating devices. The method comprises identifying, at a computing device, a plurality of ozone gas generating devices that constitute the cohort, detecting, via at least one remote ozone gas sensor device located in a spatial area associated with the cohort in conjunction with one or more processors of the computing device, a concentration of ozone gas constituent of ambient air within the spatial area, and instructing, responsive to detecting the concentration of the ozone gas constituent as being one of above and below a predetermined threshold concentration, at least one ozone gas generating device of the cohort to perform one of increasing and decreasing a rate of ozone gas generation associated therewith.

An ozone generator (100) includes an ozone production unit (102) with multiple electrodes (104AN) that ionizes air or oxygen to produce ozone. The ozone generator comprises an electronic unit (106) adjacent to the ozone production unit for control and operation. An integrated cooling unit (108) cools the ozone production unit (102), and the cooling of the ozone production unit (102) by the integrated cooling unit (108) indirectly cools the electronic unit (106) through a thermally conductive interface between the ozone production unit (102) and the electronic unit (106). A door control switch on the housing door restricts opening if the internal and external temperature difference exceeds 3°C, thus preventing moisture from affecting the electrodes. This design enhances cooling efficiency, eliminates the need for separate cooling channels, and maintains a high ozone concentration with improved ozone production.

An electric resistance value of a first passage between the first ground portion and one of the high-voltage side cooling passages that is closest to the first ground portion is higher than an electric resistance value of a second passage between the first ground portion and one of the low-voltage side cooling passages that is closest to the first ground portion. An electric resistance value of a third passage between the second ground portion and one of the high-voltage side cooling passages that is closest to the second ground portion is higher than an electric resistance value of a fourth passage between the second ground portion and one of the low-voltage side cooling passages that is closest to the second ground portion.