220 results about "Ionized air" patented technology

Coated articles may comprise one or more coating layers, including water resistant coatings. A method comprises applying such coating layers by treating the article substrate by one or more methods selected from flame treatment, corona treatment, ionized air treatment, plasma air treatment and plasma arc treatment and dip, spray or flow coating. Additionally, a method comprises injection molding a first substrate material to form an article, treating the article surface by one or more methods selected from flame treatment, corona treatment, ionized air treatment, plasma air treatment and plasma arc treatment, and overmolding the article substrate with one or more barrier materials.

Contaminated water, particularly, ballast water, blackwater, galley water, accommodation water, laundry water, fresh water and seawater, is disinfected by admixture of a highly reactive gas stream containing ions of oxygen and nitrogen, formed by exposure of air to short-wavelength ultraviolet radiation, and of chlorine, formed in situ by electrolysis of salt in the water. Solids removal can be accomplished by electrophoresis in the same unit employed for electrolysis to release chlorine, or in a separate unit. Heavy metals maybe removed by plating or sacrificing electrodes.

An ion mobility spectrometer includes a housing with a flow channel, an air pump to force air through the flow channel, a heater at an inlet end of the flow channel, and an ionization source that ionizes the air after it is heated. The heated, ionized air passes through an electric field produced by a field source and a plurality of sensor elements located within in the wall of the flow channel in the measurement region of the electric field. The sensor elements include a plurality of sensor electrodes in one wall of the flow channel. Ion currents to the sensor electrodes are measured by an integrated high-sensitivity readout circuit array, permitting the sensor electrodes to be quite small. The sensor electrodes may be arranged in one-dimensional or two-dimensional arrays.

An ion wind heat dissipating device includes a metal body electrically connected with a voltage source and provided with a plurality of sharp structures as well as a metal grounding body arranged at corresponding positions sharp structures of the metal body at a preset distance and grounded. The metal body is a sheet-shaped body, and the sharp structures are in saw-teeth shape and formed on the same side of the sheet-shaped body. By applying voltage on the sharp structures of the metal body, corona phenomenon is generated between the sharp structures and the grounded metal grounding body to perform ionization on air close to the sharp structures, and the ionized air generates incompatibility with the same charges on the sharp structures and then emits ions to the metal grounding body to convert the metal grounding body into an ion receiver and further to form electric wind or balled ion wind which drives air flow to flow from the metal body to the metal grounding body, thereby generating hat dissipating effect.

A casing unit (8) with built-in ionizer (7) and blower (21) is integrated with a control panel (6) so as to emit plus ions and minus ions into an outside-refrigerator living space around the front side of the refrigerator, and an ionized air discharge port (11) is disposed in the front side thereof, whereby suspended bacteria in the outside-refrigerator living space are sterilized to provide a hygienic living space. Concurrently, suspended bacteria intruding into the inside of the refrigerator from the outside when the door is opened can be excluded to realize a hygienic inside-refrigerator environment.

A brush includes a self-contained ion generator that subjects material being brushed to an outflow of ionized air containing safe amounts of ozone. The ion generator includes a high voltage pulse generator whose output pulses are coupled between first and second electrodes. An outflow of ionized air and ozone is directed between the brush bristles onto the material being brushed.

An ion wind generator is provided behind a light source. The ion wind generator 20 negatively-ionizes air by corona discharges using needle-shaped electrodes on the negative side, and draws the negatively-ionized air by a mesh electrode on the ground side to generate an air current. An exhaust port is provided with an ozone decomposition catalyst filter. A path axis for vent holes in the ozone decomposition catalyst filter is inclined to the direction of advancement (a direction toward the exhaust port) of unnecessary light from a lamp from the light source, and the unnecessary light from a lamp is shaded by the ozone decomposition catalyst filter.

A power system for an electrically powered land vehicle extracts electrons from ambient air to generate electrical power to operate the land vehicle electrical energy production and propulsion system. The extracted electrons generate electrical power to run electrical systems of the land vehicle. The power system includes an abutting series of tubular sections defining an airflow path with heating plates in the airflow path and variable positive voltage grids to extract charged particles from the heated air. Air is drawn into the airflow path by a centrifugal impeller. The ionized air not used to generate electric power is neutralized in an ionized gas neutralizing chamber and then exhausted.

An electronic camera is provided that prevents deterioration of quality of an object image obtained by an image-pickup device due to dust adhered on an optical element. The electronic camera includes an ion generator for taking off the electric charges from the optical element, such as a low-pass filter, arranged in front of the image-pickup device. The ion generator is provided in the camera body and ionizes the air inside the camera body. The ionized air diffuses toward the low-pass filter and binds with the charge on the low-pass filter. Thus, the electric charge of the low-pass filter is taken off and the low-pass filter does not attract dust which cause the quality decrease of the object's image obtained by the image-pickup device.

Contaminated water is disinfected by admixture of a highly reactive gas stream containing ions of oxygen and nitrogen, formed by exposure of air to short-wavelength ultraviolet radiation, and of chlorine, formed by electrolysis of a brine solution. Solids removal can be accomplished by electrophoresis in the same unit employed for electrolysis of brine to release chlorine, or in a separate unit.

A static eliminator that can be placed at a close distance capable of eliminating static electricity while preventing furious elevation of the surface electric potential of a work when the static eliminator is placed at a close distance to the work. A cover formed by an electro conductive porous material covering discharge needles is attached to a holding member in which a plurality of the discharge needles are provided and air blowing openings for ejecting air around the discharge needles are provided. The cover evenly discharges ionized air from the surface of the cover, and is electrically connected to ground to have a function for absorbing a part of generated ions.

The ionizer of the present invention comprises a chamber which has an ionization part that ionizes a portion of an ion carrier gas that is supplied to the interior of this chamber, and a blowing part which feeds the ion carrier gas toward a charged body. The ionization part is constructed from an ionization source which is contained in the chamber, and a control device which is connected with this ionization source via a high-voltage cable. Either the generating part of a soft X-ray generating device, the generating part of a low-energy electron beam generating device or the generating part of an ultraviolet radiation generating device is used as the ionization source. The control device, the connecting part between the control device and the high-voltage cable and the connecting part between the ionization source and the high-voltage cable are formed with an explosion-proof structure.

The power system for an electrically powered land vehicle extracts electrons from ambient air to generate adequate electrical power to operate the land vehicle electrical energy production and propulsion system. The extracted electrons generate enough electrical power to run an electrical propulsion system and all accessory electrical systems of the land vehicle. The power system includes an abutting series of tubular sections defining an airflow path with a heating plates in the airflow path and variable positive voltage grids to extract charged particles from the heated air. Air is drawn into the airflow path by a centrifugal impeller. The ionized air not used to generate electric power is neutralized in an ionized gas neutralizing chamber and then exhausted.

An apparatus for reducing static electricity includes an ionizer that generates ions for neutralizing static electricity, a blower that produces a current of air for moving the ions to a desired location, and a motion detector operatively connected to the blower. Upon detecting motion, the motion detector activates the blower, which disperses ions to reduce static electricity at the desired location. The apparatus can include a heater for heating the current of ionized air. In addition, the motion detector can be operatively linked to the ionizer and heater so that they are also activated upon detection of motion. The blower can be linked to a timer such that it runs for a predetermined amount of time upon activation by the motion detector, or the blower can run continuously until the motion detector no longer detects any motion. The apparatus is particularly useful for reducing static electricity around fuel dispensers.

An ion wind generator (20) is arranged in the vicinity of a light source (1). The ion wind generator (20) allows an air flow by negatively ionizing air by corona discharges using negative side needle electrodes (21), and drawing the negatively-ionized air using a ground side mesh electrode (22).

High-temperature air surrounding the light source (1) is drawn by the air flow and exhausted from a exhaust port at a rear side of a casing. An ozone decomposition catalyst filter 23 is provided in the exhaust port. Ozone (O₃) is generated by the corona discharges in the ion wind generator (20). However, the ozone is decomposed by passing through the ozone decomposition catalyst filter 23 provided at the exhaust port.

Coated articles may comprise one or more coating layers, including water resistant coatings. A method comprises applying such coating layers by treating the article substrate by one or more methods selected from flame treatment, corona treatment, ionized air treatment, plasma air treatment and plasma arc treatment and dip, spray or flow coating. Additionally, a method comprises injection molding a first substrate material to form an article, treating the article surface by one or more methods selected from flame treatment, corona treatment, ionized air treatment, plasma air treatment and plasma arc treatment, and overmolding the article substrate with one or more barrier materials.

A combined ionic air filter and humidifier apparatus filters air using ionic air filtering, humidifies at least a portion of the filtered ionized air, and directs the humidified filtered ionized air back into the environment. The apparatus generally includes an ionic air filter for ionizing and filtering air to produce filtered ionized air and a humidifier for humidifying the filtered ionized air to produce humidified filtered ionized air. A humidifier manifold fluidly couples the humidifier with the ionic air filter in a manner that does not allow the humidifier to interfere with operation of the ionic air filter. One or more fans draw the air into the ionic air filter and direct at least a portion of the filtered ionized air into the humidifier manifold such that the humidified filtered ionized air is discharged from the humidifier manifold.

A coming and going personnel control system having a high security level by prohibiting a coming person who has dealt with a dangerous substance from entering a facility through a control area is disclosed. Whether a person coming into the control area carries a dangerous substance such as explosive material with him or has dealt with such dangerous substance can be checked by the steps of: ionizing air which has been contacted with the person coming into a control area by a discharging device; the ionized air is detected by a mass spectrometer as a molecular weight; the molecular weight is input into a control processor; and if the detected molecular weight is matched with a molecular weight of dangerous substance which have been registered previously into the control processor, the door in a direction forward to the coming person is closed.

The invention discloses a glaze capable of inducing to generate negative ions. The glaze capable of inducing to generate the negative ions comprises ground glaze and cover glaze, the ground glaze comprises the following components in percentages by mass: 8-9% of sodium pyroxene, 6-7% of fluorite, 3-4% of barite and the balance of basic ground glaze; and the cover glaze comprises the following components in percentages by mass: 0.5-1% of titanium ores, 8-13% of alpha-Al2O3, 10-15% of titanium dioxide and the balance of basic cover glaze. The invention further discloses a ceramic tile with the glaze capable of inducing to generate negative ions and a preparation process of the ceramic tile. The sodium pyroxene, the fluorite and the barite are added on the ground glaze to trigger alpha-Al2O3of the cover glaze and titanium oxide in the titanium dioxide to generate an electric field on a tile surface, and substances such as water in air are ionized to generate the negative ions. The groundglaze does not have materials which affect color development of a color aid such as tourmaline, color development of ceramic ink is not affected, and the glaze can be applied to a ceramic tile by aninkjet penetrating technology.