Abstract:
A sprinkler head includes a sprinkler body having an inlet bore at one end, and a coupling element at an opposite end adapted to connect the sprinkler body to a water deflector plate. A multi-nozzle shuttle supports at least two nozzles and is attached to the sprinkler body axially between the inlet bore and the coupling element for swinging pivotal movement between two nozzle-installed positions. The multi-nozzle shuttle may also be provided with a shut-off surface portion for shutting off flow through the sprinkler body when the multi-nozzle shuttle is moved to a shut-off position. The shuttle may be moved manually or by a power actuator.
Abstract:
A liquid diffuser device, comprising a support frame (2) with an upper passageway (3) to direct a liquid jet and a lower hollow tubular body (4) with a bottom wall (5), a liquid jet deflecting member (9) having an upper plate (10) fixed to a lower stem (11) which is had within the tubular body (4), means (13) for movably coupling the stem (11) to the bottom wall (5), comprising at least one lower contact surface (14) of the stem (11) and at least one upper contact surface (15) of the bottom wall (5). The movable coupling means (13) comprise an intermediate contact member (16) secured to the lower end portion (12) of the stem (11), and continuously contacting the upper surface (15) of the bottom wall (5) to avoid downward shifting of the stem (11) consequent to wear of the contact surfaces (14, 15).
Abstract:
A method of controlling rotation of a water distribution plate supported on a shaft and adapted to rotate about an axis defined by the shaft by reason of impingement of a stream emitted from a nozzle on grooves formed in the plate, the method includes: (a) slowing the rotation of the water distribution plate intermittently so as to create intervals of relatively slow and relatively fast rotation and thereby correspondingly increase and decrease, respectively, a radius of throw of the stream or improve the uniformity of water distribution; and (b) continually changing circumferential locations of the intervals about the axis.
Abstract:
A multiple nozzle differential fluid delivery head is disclosed. The fluid delivery head includes a body that defines a fluid chamber having a longitudinal axis. The body includes an inlet for connection to a fluid source, and the inlet is in fluid communication with the fluid chamber. The fluid delivery head includes a plurality of outlet ports connected to and extending away from the body. Each outlet port has an interior space in fluid communication with the fluid chamber. The fluid delivery head includes a nozzle insert removably secured in an outer end of each outlet port. At least one nozzle insert has a fluid delivery aperture in fluid communication with the interior space of its associated outlet port for delivering fluid out of the interior space of its associated outlet port. One or more of the outlet ports is angled away from a plane normal to the axis of the fluid delivery head.
Abstract:
A rotating deflector for use with a rotary sprinkler in accordance with an embodiment of the present disclosure includes a conical body, a plurality of channels formed on a bottom surface of the conical body and extending from a center of the conical body outward toward an outer edge of the conical body, and a deflector ring rotatably mounted on the conical body such that the deflector ring rotates from a first position in which the deflector ring provides additional rotational force for rotation of the deflector and a second position in which the deflector ring provides substantially no rotational force for rotation of the deflector.
Abstract:
A rotary sprinkler includes a housing supporting a nozzle and a nozzle tube, the nozzle tube located axially adjacent an orifice of the nozzle with an axial gap therebetween. A water-deflection plate assembly is carried by the nozzle tube for rotation relative to the nozzle tube. The housing is formed with an exterior substantially annular funnel surrounding the nozzle and forming a collection trough for collection of excess water, and the housing formed with one or more apertures directing excess water in the collection trough to an internal area surrounding the orifice to be aspirated through the gap into a stream of water emitted from the nozzle orifice and through the nozzle tube such that the excess water is distributed by the water-deflection plate along with water emitted from the nozzle orifice.
Abstract:
An irrigation sprinkler head has an auxiliary nozzle carrier having a nozzle attached to each end thereof. Each nozzle is held on one end of the flexible nozzle carrier. One end of the nozzle carrier holding a nozzle is attached to the sprinkler head to operatively attach the nozzle to the outlet of the sprinkler head while the other end extends from the side of the sprinkler head. The nozzles are rapidly exchanged on the sprinkler head by disconnecting the nozzle carrier and nozzle from the sprinkler head and connecting the other end of the nozzle carrier and nozzle to the sprinkler head without removing either nozzle from the carrier and without the use of tools. The nozzle carrier is flexible and angled between the nozzle holding ends so that the nozzle carrier can flex between the ends thereof to absorb impact without damage when used below a crop line.
Abstract:
A fluid dispensing device is provided that is capable of discharging fluid in multiple different directions simultaneously. The device may include a deflector which redirects an initial stream of fluid from the container into multiple sub-streams that are oriented in different directions. The device may create a spray pattern that substantially covers an entire 360 degree area surrounding the device, which may be advantageous for certain applications such as toilet bowl cleaner dispensers. A control valve or flow restrictor may be provided for preventing unintended discharge of fluid when the container is inverted.
Abstract:
A sprinkler includes a riser having an inlet end and an outlet end and a nozzle rotatably supported at the outlet end of the riser. The nozzle has a plurality of circumferentially spaced, radially extending stream forming channels. A gear drive is coupled for rotating the nozzle. A stationary arc plate has an upper surface adjacent a lower surface of the nozzle and includes a first aperture that directs water into terminal ends of the stream forming channels. A manually adjustable orifice plate is mounted in overlapping relationship with the stationary orifice plate. The adjustable orifice plate has a second aperture shaped and aligned with the first aperture so that manual rotation of the adjustable orifice plate increases or decreases an arc of an arc shaped water distribution pattern. A ratchet mechanism including radially deflectable tabs releasably locks the position of the adjustable orifice plate.
Abstract:
A sprinkler head comprising an elongated main body (2), a deflecting member (4) coupled thereto for deflecting the water flow and sprinkling it outwards, and a stabilizing mass (3). The main body (2) has a fixing portion (18), with a plurality of snap-fit fastening members (19, 19′, 19″). The stabilizing mass (3) has at least one engaging member (20) which is designed to interact with the fastening members (19, 19′, 19″) for unremovably fixing the stabilizing mass (3) to the periphery of the fixing portion (18). The fastening members (19, 19′, 19″) and the engaging member (20) are mutually configured to allow the stabilizing mass (3) to be axially snap-fitted onto said fixing portion (18) and prevent it from being later axially disengaged therefrom.