Abstract:
A pair of electrodes (1a, 1b) are formed on one surface of a dielectric substrate (2). A dielectric layer (18) is formed on the surface of the dielectric substrate (2) so as to cover the pair of electrodes (1a, 1b). The pair of electrodes (1a, 1b) have linear electrode elements, respectively. The respective linear electrode elements are arrange at equal intervals.
Abstract:
An ozone generator (10) has a helical spring anode (12) located within a sealed glass dielectric tube (14) and a metal tube cathode (15) spaced across an annular gap (16) from glass tube (14). The dielectric/electrode subassembly (12, 14, 15, 16) is contained within a hollow cylindrical housing (25) made up of a tubular sleeve (26) centered between left and right porting collars (27, 28) and left and right end caps (30, 31). Gas inlet and outlet fittings (43, 44) connected through collars (27, 28) to flow oxygen axially along gap (16) through a varying intensity corona discharge, having maximums at centers of coils and minimums between coils of spring (12), and frequency determined by flow speed and coil twin separation. Fluid inlet and outlet fittings (50, 51) connect through sleeve (26) to pass cooling fluid along an annular conduit (47) formed between the inside of sleeve (26) and the outside of cathode (15). In a modified implementation, a plurality of generators (10') are mounted in axially parallel positions with sleeves (26) omitted and cathodes (15) located within a common cooling jacket (80).
Abstract:
A tubular type ozone generator with inner and outer concentric electrodes and a middle dielectric member. One end is sealed to permit feed gas traversing the inner gap between the inner electrode and the dielectric member to reverse direction and to traverse the outer gap between the dielectric member and the outer electrode. A method for producing ozone using a tubular type ozone generator where first the total feed gas is passed in one direction between an electrode and the dielectric member for producing ozone, reversed, and then passed in the reverse direction between the dielectric member and the other electrode producing additional ozone. A hollow inner electrode permits more efficient cooling of the inner electrode. A plurality of ozone generators are combined with intake and output manifolds for the feed gas and produced ozone.
Abstract:
An ozone generator where the ozone generator comprises a first electrical conductive plate and an insulating plate with a thin ozone generating chamber between them and a second electrical conducting plate attached to the insulating plate and cooling fins and liquid cooling pipes connected to the ozone generator.
Abstract:
Disclosed is a device comprising an ozonizer (1) in the first region (1') of which container (1) ozone is formed which is dispersed into fluid by a gas feed organ (3). The thusly formed two-phase mixture flows through a second region (1") of the ozonizer (1) to a phase separating element (13). Through the arrangement and disposition of the gas feed organ (3) on the fluid entry side, the second region (1") forms and defines a flow region for the two-phase mixture resulting in the greatest possible ozone feed into the fluid. Such devices have especial application for the sterilization of drinking and bath water.
Abstract:
An ozonizer formed of a pair of tubular or plate-shaped carriers having respective electrodes arranged thereon, with the electrodes laying opposite to each other. A non-conductive layer is provided covering one of the electrodes. On the surface of the non-conductive layer facing the other electrode is provided an electrically conductive layer forming separate islands to form a discharge gap extending in the direction of the longitudinal axis of the ozonizer between the other electrode and the conductive layer forming the separate islands. The discharge gap contains a stream of an oxygenic gas or of pure oxygen.
Abstract:
APPARATUS AND METHOD ARE DISCLOSED FOR HIGH EFFICIENCY ELECTRICAL CONVERSION OF OXYGEN TO OZONE. AN OXYGEN-CONTAINING GAS IS PASSED UPWARDLY THROUGH A PARTICULATE DIELETRIC CONTAINED BETWEEN SPACED ELECTRODE SURFACES, WHEREBY A FLUIDIZED BED IS ESTABLISHED CONSISTING OF A SUSPENSION OF SAID DIELECTRIC PARTICLES IN THE STREAMING GAS. MEANS ARE PRESENT FOR SIMULTANEOUSLY MAINTAINING A SILENT ELECTRICAL DISCHARGE ACROSS THE SPACED ELECTRODES AND THROUGH THE FLUIDIZED BED. THE BED ACTS AS A HIGHLY EFFECTIVE HEAT SINK AND ALSO PROMOTES THE PRESNECE OF HIGH-FREQUENCY COMPONENTS IN THE CURRENT WAVES PASSING BETWEEN ELECTRODES, AS A RESULT OF WHICH INCREASED ELECTRICAL EFFICIENCY AND INCREASED OZONE OUTPUT IS ENABLED IN THE CONVERSION PROCESS.
Abstract:
In an ozone generating system in which an intermittent operation is performed, in which an ozone generating operation period in which ozone is generated by discharging gas which contains oxygen in a discharge space of an ozone generating apparatus and an ozone generating operation standby period in which gas is sealed in an ozone generating apparatus and discharge is stopped so as not to generate ozone are performed repeatedly, an absorbent which absorbs at least one of nitric acid and nitrogen oxide is provided in an ozone generating apparatus other than the discharge space.
Abstract:
In an ozone generation apparatus, a discharge cell includes a first electrode part, a second electrode part, and a dielectric partition plate. The first electrode part and the second electrode part face each other, and the dielectric partition plate is provided between the first and second electrode parts.