Abstract:
An atomizing spray nozzle device includes an atomizing zone housing that receives different phases of materials used to form a coating. The atomizing zone housing mixes the different phases of the materials into a two-phase mixture of ceramic-liquid droplets in a carrier gas. The device also includes a plenum housing fluidly coupled with the atomizing housing and extending from the atomizing housing to a delivery end. The plenum housing includes an interior plenum that receives the two-phase mixture of ceramic-liquid droplets in the carrier gas from the atomizing zone housing. The device also includes one or more delivery nozzles fluidly coupled with the plenum chamber. The delivery nozzles provide outlets from which the two-phase mixture of ceramic-liquid droplets in the carrier gas is delivered onto one or more surfaces of a target object as the coating on the target object.
Abstract:
Provided are an apparatus and a method of constructing a guide line for a road, and the apparatus includes a painting apparatus part that stores a lane paint, is driven by receiving power, and supplies the lane paint, a nozzle part that is installed in the painting apparatus part and sprays the lane paint supplied from the painting apparatus part on a road to form a guide line for a road including at least one of a directional mark and a lane, and an adjustment part that is installed in the painting apparatus part and adjusts at least one of a location and an interval of the lane paint sprayed from the nozzle part.
Abstract:
A device for applying drywall texture material to a surface is provided. The device generally comprises a hollow tube for holding drywall joint compound, a spray nozzle with a removably attached air hose, a piston, and a ramrod. The device allows users to easily apply drywall joint compound to a surface to create various surface textures.
Abstract:
A fluid nozzle device includes: at least one fluid nozzle which includes a nozzle body having a first inner surface, a second inner surface that is opposite to and spaced apart from the first inner surface, an inner bottom surface that interconnects the first and second inner surfaces and that cooperates with the first and second inner surfaces to define a receiving space thereamong; a gas-intake tube disposed on top of the nozzle body; a liquid-intake tube formed with a liquid inlet and having at least one liquid outlet that is distal from the gas-intake tube; and a plurality of ejecting channels spaced apart from each other and disposed in the nozzle body.
Abstract:
A laminated nozzle assembly includes a first end plate having first and second fluid inlets, a second end plate, and a plurality of nozzle plates positioned between the first and second end plates. A first fluid conduit is fluidically connected to the first fluid inlet. The first fluid conduit has a reservoir and one or more first openings. A second fluid conduit is fluidically connected to the second fluid inlet. The second fluid conduit has an inlet channel, a connecting channel and one or more second openings. An orifice assembly includes a first orifice fluidically connected to the first opening and a second orifice fluidically connected to the second opening. The first and second orifices are disposed in the same plate of the plurality of nozzle plates and are coplanar.
Abstract:
The vaporization nozzle (1) is formed by a nozzle body (10) including a first pressurized gas intake perforation (11), and at least one second perforation (12) for intake of a liquid to be fractionated, in communication with the first perforation, and a liquid vaporization zone (13), formed in the axis of the first perforation (11). This nozzle is noteworthy in particular in that the or each intake perforation (12) of the liquid is in communication with the first perforation (11) through an underpressure chamber (15) that is formed between the first perforation and the vaporization zone, with the propellant gas stream passing all the way through the depression chamber (15).
Abstract:
A modular spray gun manifold having a plurality of spray gun modules arranged in a lateral array each separated by an adjacent support assembly. Each spray gun module has a central liquid passage communicating with a spray nozzle and a transversely oriented liquid inlet port communicating through an outer side of the spray gun module for connection with an independently controllable liquid supply. The spray gun modules further include a recirculation port communicating between the central passageway and a recirculation conduit in an adjacent support assembly. A control valve of each module is operable when in open spraying position for blocking communication of liquid from the central passageway to the circulation port and when in a valve closing position blocking the liquid flow to the spray nozzle while redirecting liquid from the liquid inlet to the recirculation port for recirculation through the manifold array.
Abstract:
A drug delivery device is disclosed which produces aerosolized particles of pharmaceutically active drug for delivery to a patient by inhalation. The device includes a liquid feeding source such as a channel to which formulation is added at one end and expelled through an exit opening. The feeding channel is surrounded by a pressurized chamber into which gas is fed and out of which gas is expelled from an opening. The opening from which the gas is expelled is positioned directly in front of the flow path of liquid expelled from the feeding channel. Various parameters are adjusted so that pressurized gas surrounds liquid flowing out of the feeding channel in a manner so as to maintain a stable capillary microjet of liquid until the liquid exits the pressure chamber opening and is aerosolized into particles having a uniform diameter in the range of about 1 to 5 microns.
Abstract:
A nozzle for dispensing a random pattern of liquid adhesive filaments generally includes a plurality of liquid outlets positioned in a liquid discharge plane and first and second pluralities of air passages. The first plurality of air passages is positioned in a first plane oriented at a first angle relative to the liquid discharge plane, while the second plurality of air passages is positioned in a second plane oriented at a second angle relative to the liquid discharge plane. The first angle is different than the second angle so that pressurized process air streams from the first and second pluralities of air passages are directed asymmetrically toward adhesive filaments discharged from the liquid outlets to produce the random pattern.
Abstract:
A method of dispensing multiple adhesive filaments onto a substrate in a random pattern using asymmetrical pressurized process air. The method generally comprises moving the substrate along a machine direction and discharging multiple adhesive filaments from a plurality of liquid outlets. Pressurized process air is directed toward each one of the multiple adhesive filaments respectively along a first angle relative to a plane including an associated liquid outlet. Pressurized process air is also directed toward each one of the multiple adhesive filaments respectively along a second angle relative to the plane including the associated liquid outlet and on an opposite side of the associated liquid outlet than the pressurized process air directed along the first angle. The second angle is different than the first angle so that the pressurized process air is directed asymmetrically toward the multiple adhesive filaments.