Abstract:
An electro-kinetic electro-static air conditioner includes a mechanism to clean the wire-like electrodes in the first electrode array. A length of flexible Mylar type sheet material projects from the base of the second electrode array towards and beyond the first electrode array. The distal end of each sheet includes a slit that engages a corresponding wire-like electrode. As a user moves the second electrode array up or down within the conditioner housing, friction between slit edges and the wire-like electrode cleans the electrode surface. The sheet material may be biasedly pivotably attached to the base of the second electrode array, and may be urged away from and parallel to the wire-like electrodes when the conditioner is in use. Another embodiment includes a bead-like member having a through opening or channel, through which the wire-like electrode passes. As the conditioner is turned upside down and rightside up, friction between the opening in the bead-like member and wire-like electrode cleans the electrode surface. The bead-like member may be made of ceramic, glass, or even metal. The through channel may be symmetrically formed in the bead-like member, but preferably will be asymmetrical to create a mechanical moment and increased friction with the surface of the wire-like electrode being cleaned.
Abstract:
An electro-kinetic electrostatic air conditioner includes a mechanism to clean the wire-like electrodes in the first electrode array. A length of flexible Mylar type sheet material projects from the base of the second electrode array towards and beyond the first electrode array. The distal end of each sheet includes a slit that engages a corresponding wire-like electrode. As a user moves the second electrode array up or down within the conditioner housing, friction between slit edges and the wire-like electrode cleans the electrode surface. The sheet material may be biasedly pivotably attached to the base of the second electrode array, and may be urged away from and parallel to the wire-like electrodes when the conditioner is in use. Another embodiment includes a bead-like member having a through opening or channel, through which the wire-like electrode passes. As the conditioner is turned upside down and rightside up, friction between the opening in the bead-like member and wire-like electrode cleans the electrode surface. The bead-like member may be made of ceramic, glass, or even metal. The through channel may be symmetrically formed in the bead-like member, but preferably will be asymmetrical to create a mechanical moment and increased friction with the surface of the wire-like electrode being cleaned.
Abstract:
A personal electro-kinetic electrostatic air conditioner includes a self-contained ion generator that provides electro-kinetically moved air with ions and safe amounts of ozone, and includes a water retaining element to increase humidity of the output air flow. The ion generator includes a high voltage pulse generator whose output pulses are coupled between first and second electrode arrays. Preferably the first electrode array includes first and second pointed electrodes, and the second electrode array includes annular-like electrodes having a central opening coaxial with the associated pointed electrode. The surface of the annular-like electrodes is smooth and continuous through the opening and into a collar region through which the air flows. A water retaining member is disposed surrounding the output airflow to increase humidity of the output air, which is substantially cleansed of particulate matter, and contains safe amounts of ozone.
Abstract:
A module containing a pair of generally concentric cylinders with a dielectric cylinder disposed therebetween is connected to a source of air under pressure to provide an air flow intermediate the concentric cylinders and on either side of the encircled dielectric cylinder. Clips, connected to a source of high voltage, detachably engage the outer cylinder and a boss electrically connected to the inner cylinder to provide a voltage potential between the generally concentric cylinders of sufficient magnitude to cause an electrostatic discharge through the space therebetween. The use of an electrically high resistance dielectric cylinder between the generally concentric cylinders will tend to provide a uniform electrostatic discharge along the length of the generally concentric cylinders. The oxygen molecules within the air flow between the generally concentric cylinders will be converted, to some extent, to ozone molecules and provide an ozone enriched air flow into a plenum and an outflow therefrom through tubing to a point of use. As the module is readily detached from its mechanically and electrically associated clips, it is readily replaced in the event of malfunction. Moreover, the electrically conducting cylinders may be of inexpensive metallic tubing and the dielectric cylinder may be inexpensive glass tubing. The electric circuitry providing a voltage potential sufficient to produce electrostatic discharge is primarily an inexpensive step-up transformer.
Abstract:
Ozone is generated by directing ambient air through a co-axially oriented cathode and anode. In a preferred embodiment, the outer electrode is a tubular cathode, with the anode disposed about a longitudinal axis therein. The anode is provided with a plurality of vane assemblies, with each individual vane canted at an angle of from about 15null to about 70null, and preferably about 45null, to the planar body of the vane assembly. Air flow is provided either coincident with the longitudinal axis, or tangentially thereto.
Abstract:
An electro-kinetic electro-static air conditioner includes a self-contained ion generator that provides electro-kinetically moved air with ions and safe amounts of ozone. The ion generator includes a high voltage pulse generator whose output pulses are coupled between first and second electrode arrays. Preferably the first array comprises one or more wire electrodes spaced staggeringly apart from a second array comprising hollow nullUnull-shaped electrodes. Preferably a ratio between effective area of an electrode in the second array compared to effective area of an electrode in the first array exceeds about 15:1 and preferably is about 20:1. An electric field produced by the high voltage pulses between the arrays produces an electrostatic flow of ionized air containing safe amounts of ozone. A bias electrode, electrically coupled to the second array electrodes, affects net polarity of ions generated. The outflow of ionized air and ozone is thus conditioned.
Abstract:
This invention relates to an ozonizer for generating ozone by causing a corona discharge to occur between electrodes oppositely arranged in air. An object of the ozonizer is to make the whole device compact and maintenance simple with reduction of the number of accessories. To this end, the ozonizer is characterized by that one of the electrodes comprises blades, the other electrode comprises a casing, and the blades and the casing form a blower. With this arrangement, it is not necessary to provide a particular blower for supplying fresh air continuously to the field of corona discharge and taking out ozone as it is produced.
Abstract:
An ozone production system for use with hydrocarbon fuel apparatus, such as internal combustion engines, to improve the efficiency of combustion and to limit ozone emissions in the exhaust. The system comprises electrode means for the production of ozone arranged in association with the air inlet of an hydrocarbon fuel apparatus, an ozone sensing means associated with the exhaust outlet of the hydrocarbon fuel apparatus, and control means operative in response to an output of the ozone sensing means for supplying electricity to the electrode means for producing ozone at a controlled rate so as to limit the ozone emissions at the exhaust outlet and so as to supply sufficient ozone for complete combustion of the hydrocarbon fuel.
Abstract:
An apparatus for producing ozone, comprising: a first electrode; a second, annular electrode surrounding the first electrode and spaced therefrom; a first tubular wall of electrically insulating material disposed between the electrodes; a first sealed glow discharge chamber surrounding one of the electrodes, formed at least in part by the tubular wall, and filled with a charge of an ionizable gas; an ozonization chamber disposed between the electrodes, formed at least in part by the tubular wall, and having an inlet for an oxygen charged medium and an outlet for the medium as ozone enriched; and, electrical conductors for connecting the electrodes to an electrical power source, whereby ionized gas in the glow discharge chamber forms a plasma electrode. The apparatus is preferably energized by applying an electrical potential between the electrodes in the form of voltage pulses at a frequency in the range of 10 to 60 KHz. In further embodiments, both electrodes are disposed in sealed glow discharge chambers filled with an ionizable gas, whereby the apparatus functions with at least two plasma electrodes.
Abstract:
The apparatus for producing a desired quantity of ozone uses a flow of air in which a corona discharge utilizes high voltage to produce sparks. This apparatus includes a source of high voltage and the spark is produced when metal or conducting edge portions of the blades are moved in way of spaced conductors carried in a tubular confine. The blades are carried as an assembly which may be rotated by a flow of air. The flow of air and the turning of the assembly maintains the blades in a cooled condition so that unwanted burning of the edges of the blades does not occur. The corona discharged ozone may be used in swimming pools, or as an air purifier or dust eliminator. The ozone, when used in a closed building, will utilize a timer so an excess of ozone is not produced. The rotating of the bladed member is preferably by the flow of air, said volume of air flow regulates the speed of rotation.