1. Field of the Invention
The present invention relates to a water spraying apparatus having a water-saving function, and in particular to a water saving nozzle, that exerts pressure on the water pipe through a pressuring motor, to raise pressure in the water pipe, and to increase flushing force while reducing water consumption. The present invention is used for washing and cleaning purpose, such as bathing, washing hands, cleaning of sanitary equipment, and car washing
2. The Prior Arts
In general, clean water is used extensively in our daily life, such as washing hands, washing face, taking a bath, washing cars or flushing toilets, such that each person usually consumes about 100˜300 liters of water a day. In places or countries of sufficient water supply, there is not much limit on the use of water for cleaning. On the contrary, in countries of dry climate or draught, it is necessary to have a certain limit on the use of water.
At present, water-saving nozzles are available in the market, its working principle is to reduce amount of water output from the nozzle, to avoid excessive use of water. In this approach, the water output speed is not sufficient to remove the contaminant (such as oil stain). As such, in order to achieve real cleaning, a user must spend more water and time to rub and flush, thus not being able to realize efficient water saving.
Therefore, presently, the design and performance of water spraying apparatus is not quite satisfactory, and it has much room for improvement.
A major objective of the present invention is to provide a water spraying apparatus having water saving function, and the difference of this water spraying apparatus with the conventional water spraying apparatuses in that, the water spraying apparatus of the present invention exerts pressure on the air, then sprays the pressured air with water to outside. Since in this process, air replaces water of the same volume, while increasing pressure in the water pipe, hereby reducing water amount utilized and raising flushing force
To achieve the objective mentioned above, the water spraying apparatus having water saving function of the present invention includes a pressurizing motor and a nozzle.
In one aspect of the present invention, a part of the pressuring motor is embedded into a water pipe.
In another aspect of the present invention, the pressuring motor is provided with a motor bobbin (motor bobbin), a rotation disc, and a plurality of pistons.
In a yet another aspect of the present invention, the motor bobbin utilizes the electric power received to rotate. The rotation disc is connected to the motor bobbin in a synchronous rotation manner. One end of the plurality of pistons is pressed against the surface of the rotation disc, such that through the rotation of the rotation disc, to make the plurality of pistons to move reciprocally in a certain distance. Wherein, the reciprocal movements of the plurality of pistons exert pressure on and push the air in that certain distance into the water pipe, to transport water and air together in the water pipe.
In a further aspect of the present invention, the nozzle and the water pipe are connected and in communication with each other.
a is an inner planar view of a pressurizing device of a pressuring motor of
a is side exploded view of a second nozzle used in a water spraying apparatus having water saving function according to the present invention;
b is a top view of a connection head in a second nozzle according to the present invention;
c is a perspective view of a second nozzle after it is assembled according to the present invention;
a is a side exploded view of a third nozzle used in a water spraying apparatus having water saving function according to the present invention;
b is a bottom planar view of an inner cover in a third nozzle according to the present invention;
The purpose, construction, features, functions and advantages of the present invention can be appreciated and understood more thoroughly through the following detailed description with reference to the attached drawings.
Firstly, refer to
As shown in the drawings, the water spraying apparatus having water saving function includes a pressurizing motor 1 and a first nozzle 2. Wherein, the pressurizing motor 1 is in communication with a first nozzle 2 through a water pipe (not shown).
As shown in
The motor bobbin 12 is placed in the shell 11 in a rotation way, to receive the power from the control circuit to rotate.
The rotation disc 13 is placed in the shell 11 in a rotation way. The rotation disc 13 is connected and fixed to one side of the motor bobbin 12 through a rotation rod (not labeled), so that when the motor bobbin 12 is rotated, it will bring the rotation disc 13 into rotation together. It is worth to note that, the surface of the rotation disc 13 is disposed slantwise, so that the direction of the surface of the rotation disc 13 is changed constantly during rotation. Moreover, a set of magnets 131 of the same or opposite magnetic polarity are embedded in the surface of the rotation disc 13, to rotate along together with the rotation disc 13 in rotation.
The piston restricting seat 14 is fixed to one side of the shell 11, and is provided with a plurality of channels 141 connected to and in communication with the receiving space in the shell 11.
Each of the piston 15 is placed in the respective channel 141, and one end of each piston 15 is pressed against the surface of the rotation disc 13 by means of an elastic mechanical piece (not shown). As such, when the rotation disc 13 is rotated, the respective pistons 15 make reciprocal movement asynchronously.
The elastic mechanical piece can be a spring, and it can be placed on the piston restricting seat 14 or the respective pistons 15 based on design requirement. The restoring force of the spring is used to press one end of the respective pistons 15 against the surface of the rotation disc 13. It is worth to note that, one end of the piston 15 is provided with a magnet, and depending on design requirement, the magnet of the rotation disc 13 and the magnet of the piston 15 can be made to be magnetically attractive or repulsive. Through the magnetic attraction or repulsion, the pistons 15 can be made to move smoothly. As such, the friction force between the rotation disc 13 and the plurality of pistons 15 is reduced, thus decreasing the vibration during the operation of the pressuring motor 1, and prolonging the service life of the pressuring motor 1.
As shown in
As shown in
The first connection head 21 is provided with a water channel 211 inside. One end of the first connection head 21 is connected to a water pipe in a sleeve approach, so that the water channel 211 of the first connection head 21 is connected and in communication with the water pipe.
The first connection cover 22 is sleeved onto the other end of the first connection head 21 by means of thread-and-lock. In addition, the first connection cover 22 is provided with an opening 221 for outputting water, to form a divergent structure from inside to outside, so that the mixed air and water is sprayed from the first nozzle 2 in a radiation manner.
It is worth to note that, the inner structure of the first nozzle 2 is designed to form no evident obstacle to the water and air flowing through, such that the water spray out direction is dependent on the shape of the opening 221.
In addition to the arrangement and cooperation of a pressuring motor 1 and the first nozzle 2. The first nozzle 2 can be replaced with other types of nozzles based on actual requirement.
Refer to
The second nozzle 3 includes a second connection head 31 and a second connection cover 32, connected together by means of thread-and-lock.
Inside the second connection head 31 is provided with a plurality of water channels 311. Between the two blocking rings 312 outside is provided with a plurality of offshoot openings 313 in an encircling manner, so that the plurality of offshoot openings 313 are in communication with the plurality of water channels 311. It is worth to note that, among the blocking rings 312, for the blocking ring 312 disposed on one end of the second connection head 31, a plurality of cutouts 314 are formed around the rim of the ring. One end of plurality of cutouts 314 is extended between the blocking rings 312, while the other end is extended to the end surface of the second connection head 31, as shown in
The surface of the second connection cover 32 is penetrated and provided with a through hole 321 connected to inside of the cover. Certain portion on the inner wall of the second connect cover 32 is provided with threads 322, so that the second connection head 31 can be placed inside the second connection cover 32. As such, the second connection cover 32 and the second connection head 31 can be connected together through using threads 316 and 322 in a rotation way to avoid detachment. It is worth to note that, after the second connection head 31 is connected to the second connection cover 32, the inside of the second nozzle 3 is divided into two cavities: the first cavity (not shown), and the second cavity (not shown). The first cavity is a ring shape cavity, and is disposed between the inner wall of the second connection cover 32, and the blocking ring 312. The second cavity is disposed between one end of the second connection head 31, and the inner side top surface of the second connection cover 32. Then, through the plurality of cutouts 314, the first cavity and the second cavity are connected and in communication. Since the second connection head 31 and the second connection cover 32 are connected in a rotation way, the second cavity utilizes this rotation mechanism to adjust the distance between one end of the second connection head 31, and the inner side top surface of the second connection cover 32, so as to adjust the size of the second cavity.
However, in the process of utilizing the second nozzle 3, water and air may leak in the gap between the second connection head 31 and the second connection cover 32, due to insufficient tight connection between the second connection cover 32 and the second connection head 31. In order to avoid water and air leakage from the second nozzle 3, the second connection head 31 located below the first cavity can be sleeved an elastic ring 317. As such, through using the elastic ring 317 sandwiched between the second connection head 31, and the inner wall of the second connection cover 32, water and air can be prevented from leaking from the first cavity. Further, the elastic ring 317 can reduce further the friction between the second connection head 31 and the second connection cover 32, to prolong the service life of the second nozzle 3.
Upon receiving water and air by the second nozzle 3 from the pressuring motor 1, the water and air is filled into the first cavity through the plurality of offshoot openings 313. When the first cavity is completely filled, the water and air is guided into the second cavity through the plurality of cutouts 314. As shown in
Moreover, refer to
In addition to the first embodiment utilizing the pressuring motor 1 and the first nozzle 2, and the second embodiment utilizing the pressuring motor 1 and the second nozzle 3, in other applications, nozzles 2 and 3 can be replaced with other nozzles.
Refer to
The third nozzle 4 includes a third connection head 41 and a third connection cover 42, connected together by means of sleeving.
Inside the third connection head 41 is provided with a Y-shape water channels 411, as shown in
Inside the third connection cover 42 is provided with a penetrating and restricting hole 421 connected to inside the cover, and inside the cover is provided with an inner cover 422. On the top end of the inner cover 422 is provided with a pellet-shape portion 4221. The pellet-shape portion 4221 is penetrated with a hole (not labeled) connected to the inside of the cover. The pellet-shape portion 4221 is restricted in the restricting hole 421, and can be rotated in a specific direction, and can be pivotally rotated in a specific direction. In other words, the inner cover 422 can be rotated and swayed in the third connection cover 42.
As shown in
The third connection cover 42 is connected securely to one end of the third connection head 41 through threads (not shown), while the output end of the Y-shape water channels 411 is placed inside the inner cover 422. The blade 412 is rotated through the driving push of water and air. In the rotation process, air and water is guided selectively into various different branches for output based on the position of blades of the turbine 412. Therefore, the Y-shape water channels 411 output the water and air in an asynchronous manner, and then push the plurality of blades 4222, to make the inner cover 422 to rotate and sway. In operation, when the inner cover 422 accumulates sufficient air and water, the water and air will be sprayed out spirally through the hole in the inner cover 422, hereby raising the washing force of water through the driving force of spiral movement of water.
When the third nozzle 4 receives water and air coming from the pressuring motor, water and air will pass through the Y-shape water channels 411, so that the blade 412 will be pushed by water and air to rotate, and then distributed selectively to the respective branches for output based on the position of the blades 412.
Refer to
Then, refer to
To facilitate user to perform the functions mentioned above, an operation interface (such as a plurality of push buttons) can be provided. As such, through a control circuit, the operation of the pressuring motor 1, the pump providing detergent, and the pump providing clean water can be selectively controlled, based on the instructions input by the user.
In addition to being used to clean toilet, the pressuring motor 1, the second nozzle 3, or the third nozzle 4 can be used in cooperation to clean human body, wash dishes, and wash car, so that the containment and detergent attached to the human body and dishes can be removed and cleaned speedily. Since water is ejected and sprayed together with air, its speed and washing force are raised, while the amount of water utilized can be reduced.
Refer to
In the structure mentioned above, the first tank 61 is filled with ordinary faucet water, such the pump unit 62 pumps out the water in the first water tank 61, and supply it to the ultraviolet sterilization unit 63,for processing. The ionization unit 64 performs ionization of water by using magnetic field. In the second water tank 65, the ionized water mixed with the ozone provided by the ozone generation unit 66, to perform sterilization.
Finally, refer to
Summing up the above, in the water spraying apparatus having water saving function of the present invention, the pressuring motor 1 is used to mix and transport water and air (in such a process, air replaces part of the water to increase pressure for transporting water), then in cooperation with the connected first nozzle 2, the second nozzle 3, and the third nozzle 4, to effectively eject and spray water and air, in achieving various cleaning purpose.
The above detailed description of the preferred embodiment is intended to describe more clearly the characteristics and spirit of the present invention. However, the preferred embodiments disclosed above are not intended to be any restrictions to the scope of the present invention. Conversely, its purpose is to include the various changes and equivalent arrangements which are within the scope of the appended claims.
Number | Date | Country | Kind |
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102206353 | Apr 2013 | TW | national |