A sprinkler structure contains: an accommodation tube, multiple water outflow zones, multiple grooved partitions, multiple first water gathering zones, and multiple second water gathering zones. Each first water gathering zone has a first inlet, and each second water gathering zone has a second inlet, the accommodation tube includes multiple first guide orifices and multiple second guide orifices. Each first guide orifice communicates with the accommodation tube, and each second guide orifice communicates with the accommodation tube, hence a control bar is rotatably connected and horizontally moves in each first guide orifice and each second guide orifice. The control bar further includes an inflow chamber and a receiving portion for housing a stop element, such that the stop element abuts against each first water gathering zone and each second water gathering zone. The control bar further includes two seal rings, and the accommodation tube further includes an elongated lid.

A nozzle adjustment member for a sprinkler is revealed. A plurality of nozzle tubes aligned in at least one row is positioned on a wall of a hollow pipe. A top end of the nozzle tube is projecting to an outside of the hollow pipe. At least one pivot support is disposed on the outside of the hollow pipe. Each pivot support is pivoted with an adjustment piece having a plurality of guiding openings. The guiding openings are positioned over the plurality of nozzle tubes correspondingly. A nozzle cover is connected with the outside of the hollow pipe for covering the adjustment piece. A plurality of long through holes for mounting the corresponding nozzle tubes is arranged at the nozzle cover. Around a pivot hole, the adjustment piece swings so as to drive the plurality of nozzle tubes moving at an angle and different water distribution patterns are provided.

The present invention discloses an oscillating sprinkler with an adjustable spray area, and relates to a gardening watering tool that obtains a spray area by swinging an ejected water flow by using a jet principle related to flow pressure. A structure of the oscillating sprinkler includes a base, an oscillating gear box, a spray assembly, and the like. An end portion of a spray tube of the spray assembly is mainly provided with water passage holes in communication with a water cavity in the spray tube and an adjusting jacket rotatably sleeved over the end portion of the spray tube and sealing the water passage holes. A plurality of rows of adjusting spray holes with different quantities is provided on the adjusting jacket, and the plurality of rows of adjusting spray holes can be in sequentially selective communication with the water passage holes with rotation of the adjusting jacket. Therefore, when original fixed spray holes on the spray tube and the adjusting spray holes that can be adjusted at the end portion of the spray tube are combined for use, the entire oscillating sprinkler has a function of controlling adjustment of the spray area. The improved oscillating sprinkler further has advantages such as simplicity in structure design, flexibility in adjustment operation, convenience in use, being capable of precisely controlling adjustment of the spray area, and low production costs.

An oscillating sprinkler has two base rails which are parallel to each other. The base rails are interconnected by a bridge support and the sprinkler's water drive housing. Two pairs of elongated legs are rotatably mounted to the base rails. The legs can be aligned and positioned parallel and adjacent to, along the sides of the sprinkler to allow it to be used directly on the ground surface. The sprinkler's legs can be rotated down 90 so that they are perpendicular to the base rails and, since the distal ends of the legs are sharp and spike-like, they can be driven into the ground in order to set the sprinkler at any desired height. This permits watering at higher elevations. The legs can also be adjusted and positioned at a variety of configurations for watering at different angles.

A single or dual sided direction-controllable sprinkler comprises two rotatable trigger portions slidably disposed on a main body. When one trigger portion is limited by a fastener, the two trigger portions have the same rotational position, and when the one trigger portion is not limited by the fastener, the rotational positions of the two trigger portions are controlled independently. The fastener is selectively connected to allow the user to selectively control one of the trigger portions or both of the trigger portions together so that various water sprinkling modes are available.

An apparatus includes a handheld element and a remote control. The handheld element has a proximal end, a distal end, and an internal flow conduit. The internal flow conduit extends between the proximal and distal ends. The internal flow conduit is configured to be in fluid communication with a hose. The remote control is integrated with the handheld element. The remote control is configured to transmit wireless data signals for controlling a device associated with the hose. The device may include a reel, a valve system, a valve unit, and/or a plurality of valves.

According to some embodiments, an oscillating sprinkler system is provided that includes: a central tubular portion having at least one row of flexible nozzles; a cam plate located inside a peripheral wall of said central tubular member, said cam plate having a plurality of cam slots for adjusting positions of said flexible nozzles upon rotation of said cam plate within said peripheral wall; and said peripheral wall including a window via which an edge of said cam plate is observable during rotation of said cam plate such as to designate an extent of angular displacement of the nozzles based on the positioning of the cam plate within the window.

A single or dual sided direction-controllable sprinkler comprises two rotatable trigger portions slidably disposed on a main body. When one trigger portion is limited by a fastener, the two trigger portions have the same rotational position, and when the one trigger portion is not limited by the fastener, the rotational positions of the two trigger portions are controlled independently. The fastener is selectively connected to allow the user to selectively control one of the trigger portions or both of the trigger portions together so that various water sprinkling modes are available.

The utility model is realized through the following technical scheme: an energy saving dynamic effluent sprinkler, comprises a shell, a water inlet seat, a water outlet device and a water outlet cover, the water outlet device is arranged in the shell, the water outlet cover is connected with the shell, and the water outlet cover is provided with a water outlet hole; Among them, the water outlet device comprises a base, an inclined water body, a swing water component, an impeller component and a driving component, the inclined water body is connected with the base to form a cavity, the cavity has a water outlet, the impeller component is arranged in the cavity, driven by the impeller component, the driving component can drive the swing water component to swing back and forth; The swing water component is mounted on the base and can swing in the base, the swing component is provided with a water passing chamber, the side surface of the swing component is provided with a water passing outlet, he water outlet is communicated with water passing outlet through a communication channel, and the swing water component is communicated with the water outlet hole. The utility model relates to an energy-saving dynamic water outlet sprinkler of the utility model has a larger shower range under the same water outlet area, can play a good water-saving effect; at the same time, the swing sprinkler has a sweeping impact massage feeling and strong ornamental, and can bring users a comfortable shower experience.

A sprinkler includes a base, a tubular body disposed on the base, at least one control assembly mounted to the tubular body, and at least one nozzle set which has a plurality of nozzles aligned in a row and is disposed on the tubular body. The control assembly includes at least one push portion mounted with at least one connecting member which is pivotally connected to at least one guiding member with a plurality of sliding slots. The sliding slots are inserted by the nozzles for allowing the nozzles to be moved back and forth selectively. By movement of the push portion in an axial direction of the tubular body caused by manual operation, the guiding member is also moved radially to drive at least one of the nozzles to incline in turn.