WO2015133820A1

WO2015133820A1 - Ionized water producing device

Info

Publication number: WO2015133820A1
Application number: PCT/KR2015/002093
Authority: WO
Inventors: 한병량
Original assignee: 한병량
Priority date: 2014-03-05
Filing date: 2015-03-04
Publication date: 2015-09-11
Also published as: KR20150104394A

Abstract

The present invention relates to an ionized water producing device, comprising: a tubular casing (3) forming an outer body; and a magnetic module (5) formed by laminating two or more unit magnetic parts (7) in the longitudinal direction, wherein the unit magnetic part (7) comprises: a magnetic tube (11) for flowing water, supplied to a water supply side, through a water inlet (21) to a water outlet side; a plurality of magnets (13) facing each other and surrounding the outside of the water inlet (21); and a plurality of sealing rings (15) for sealing between the inner circumferential surface of the casing (3) and the outer circumferential surface of the magnetic tube (11), wherein the magnetic tube (11) has a swirl groove (26) depressed on the up and bottom surfaces through which the water inlet (21) is open, in order to form a swirl chamber (25) by being in contact with the magnetic tube (11) of a neighboring unit magnetic part (7). Accordingly, a swirl chamber is formed between laminated unit magnetic parts, the cross-sectional area of flow of water discharged from the water inlet (21) is widened, the entire flow line formed by the water inlet is rotated in a spiral direction, and thus water can smoothly flow during magnetization.

Description

Ion Water Generator

The present invention relates to an ionized water generating device, and more particularly, to an ionized water generating device that magnetizes, ie, ionizes water supplied through a conduit such as a shower head or a water pipe by a magnet disposed on the conduit.

In general, the ionized water generating device magnetizes water on a conduit such as a shower head or a water pipe that a user directly uses with a magnet while flowing through the conduit. Among these, a universal adapter equipped with a magnet module in which magnets are arranged in multiple stages is domestic. It has been disclosed as registered patent 10-1081266.

According to the adapter 200, as shown in FIG. 1, a plurality of magnets 240 are inserted into both sides of the body 210 through the plurality of receiving grooves 230. However, when the adapter 200 requires only one pair of magnets, the remaining accommodation grooves 230 become unnecessary spaces. On the contrary, when the magnets 240 need four or more stages, the space for using the body 210 is one more space. There was a problem with the application. In addition, when manufacturing the body 210 to match the number of magnets 240, there was also a problem in efficiency that additional time or cost is added, such as to produce a new mold.

In addition, according to the ionized water generator disclosed in Korean Patent No. 10-1119731, as shown in Figure 2, when the ionized water generator 301 is connected in series, that is, up and down as one module, In order to allow water to flow, the holes 314 penetrated vertically and vertically must be aligned in a straight line. This assembly is not only difficult to work, but even when assembled, it can be oriented in an angular direction about an axis when used for a long time. There was a problem that a deviation can occur and cause a malfunction.

In addition, when the cover 320 is combined with the body 310, in order to prevent water from leaking into the cover 320, the cover 320 must be forcibly inserted, so that the work is difficult, and the cover 320 is partially used for a long time. There was a problem that could be broken.

In addition, in order to improve the functionality on the water exit side, when the ceramic is filled, there is a problem that the ceramic adjacent to the water exit side may be damaged due to the increased water while exiting the narrow passage 314.

The present invention has been proposed to solve the problems of the conventional ionized water generating device as described above, by combining two or more unit magnetization units in multiple stages at a desired angle to configure a single magnetization module, easy assembly or manufacturing, yet magnetization performance The purpose is to provide this excellent ionized water generating device.

It is still another object of the present invention to provide an ionized water generating device capable of preventing breakage of ceramics when filling ceramics in adjacent portions to improve water functionality in order to be easily inserted into the conduit's flow path for effective ionization. There is.

To achieve this object, the present invention provides a tubular casing constituting the outer body; And a magnetization module inserted into the casing and formed by stacking two or more unit magnetization portions in a longitudinal direction, wherein the unit magnetization portions are connected to the water supply side by the water inlet from the water supply side to the water supply side. A magnetizing tube for flowing to the water outlet side through the water outlet; A plurality of magnets facing each other and surrounding the yu-gu outside; And a plurality of sealing rings which are inserted into upper and lower ends of the outer circumferential surface of the magnetizing tube, respectively, to seal between the inner circumferential surface of the casing and the outer circumferential surface of the magnetizing tube, wherein the magnetizing tube is in contact with the magnetizing tube adjacent to the unit magnetization unit. Provided is an ionized water generating apparatus in which a vortex groove is recessed in an upper and lower surface in which the flow port is opened to form a vortex chamber.

In addition, the unit magnetization portion is formed around the vortex grooves of the upper and lower surfaces of the magnetizing tube, respectively, female or male irregularities are respectively fastened to the corresponding concave and convex portions of the neighboring unit magnetization portion, the adjacent unit magnetization portion and the casing It is preferable to have an angular retardation with respect to the axis of.

In addition, the unit magnetization unit located at the downstream end of the magnetization module of the plurality of unit magnetization unit is formed on the opposite side facing the discharge port outlet side, to primarily absorb the impact of the water discharged from the discharge port It is preferable to further include a damping plate.

In addition, the magnetizing tube preferably has a rectangular cross-sectional shape so as to close the distance between the magnets while maintaining a constant cross-sectional area of the flow channel.

The unit magnetization unit may further include a plurality of shielding plates that overlap the exposed portion of the magnet to suppress magnetic flux leakage.

In addition, the present invention is inserted into the flow path of the conduit, the magnetization pipe to the water supply side of the conduit from the water supply side to the water supply side to flow the water supplied to the water supply side through the water outlet to the water discharge side; A plurality of magnets facing each other and surrounding the yu-gu outside; A plurality of sealing rings inserted into upper and lower ends of the outer circumferential surface of the magnetizing tube and sealing between the inner circumferential surface of the casing and the outer circumferential surface of the magnetizing tube; And a plurality of shielding plates superposed on an exposed portion of the magnet to suppress magnetic flux leakage.

The magnetizer may further include a damping plate formed on an opposite side facing the discharge port exit side to primarily absorb an impact of water discharged from the discharge port.

According to the ionized water generating device of the present invention, the magnetization module disposed on the conduit to magnetize the water in the conduit is constituted by the stacking of a plurality of unit magnetization portions, so that the magnetization performance can be greatly increased.

In addition, since the vortex chamber is formed between the stacked unit magnetization parts, the vortex is caused by the flow cross-sectional area of the water discharged from the water inlet of one unit magnetization portion is wider, and thus the water flows smoothly without clogging.

In addition, since each unit magnetization unit 7 is coupled to have a constant phase difference in the rotational direction of the axis center with respect to other unit magnetization units adjacent to each other up and down, the streamline formed by the entire water flow port can rotate in the spiral direction. In this way, the water passing through the magnetization module is able to flow more smoothly.

In addition, since the attenuating plate is formed on the water discharge side opposite side of the water inlet, the unit magnetization unit disposed at the downstream end of the magnetization module is damaged due to the high speed water discharged from the water inlet. Can be prevented, and thus the durability of the device can be improved.

Finally, even when a magnetizer is formed by one unit magnetization unit, unlike a conventional single magnetizer, a flange is formed at the upper and lower ends of the magnet tube, and a sealing ring is wound around the flange to maintain the watertightness of the magnets stored on the side of the magnet tube. The waterproof performance and the durability life of the device can be further improved.

1 and 2 are a perspective view and a longitudinal sectional view showing a conventional ionized water generating device.

Figure 3 is a longitudinal sectional view of the ionized water generating device according to an embodiment of the present invention.

4 is a longitudinal front view of the unit magnetization unit illustrated in FIG. 3.

5 is a plan sectional view of FIG.

6 is an exploded perspective view of FIG. 4.

7 is a bottom view of FIG. 4.

8 is a longitudinal sectional view of the ionized water generating device according to another embodiment of the present invention.

FIG. 9 is a bottom view of the unit magnetization unit shown at the bottom of the unit magnetization unit of FIG. 8; FIG.

10 is a longitudinal sectional view of the ionized water generating device according to another embodiment of the present invention.

11 is a longitudinal sectional view of the ionized water generating device according to another embodiment of the present invention.

Hereinafter, an ionized water generating device according to an embodiment of the present invention will be described in detail with reference to the accompanying drawings.

The ionized water generating device of the present invention is installed on the flow path of the conduit 20 such as, for example, the shower head 10, as shown by reference numeral 1 in Fig. 3, the casing 3 and the magnetization module 5 It is composed of

Here, the casing (3) is a portion forming the outer body of the ionized water generating device 1, as shown in Figure 3, along the flow path inside the various conduits 20, such as shower head or water pipe It is inserted coaxially. In the casing 3, a plurality of unit magnetization portions 7 as shown in FIG. 4 are stacked and provided therein.

On the other hand, the magnetization module 5 is a means for substantially magnetizing and ionizing the water passing through the conduit 20, as shown in Figure 3, at least two or more unit magnetization unit 7 provided with a plurality In this case, the casing 3 is formed by inserting and stacking a plurality of unit magnetization parts 7 along the flow path of the conduit 20, that is, in the longitudinal direction of the ionized water generator 1.

At this time, each of the unit magnetization unit 7 is again made as shown in Figures 3 to 6, including the magnetizing tube 11, the magnet 13, and the sealing ring 15, the shielding plate 17 More).

Here, the magnetization tube 11 is a portion forming the columnar body of the unit magnetization portion 7, and the magnet 13 is accommodated while being placed on the flow path of the casing 3 so as to accommodate the casing 3 water supply side. Water supplied from the to pass through the magnet 13 to be discharged to the water discharge side. To this end, the magnetization pipe 11 has a body portion 18, which forms the water drain 21 in the center, so as to connect the water supply side and the water discharge side of the casing 3, as shown in Figs. The upper and lower ends of the body portion 18 are formed with a pair of flanges 19 which are expanded in the radial direction.

Therefore, the magnetization pipe 11 flows the water supplied to the water supply side through the water inlet 21 to the water outlet side, and the oil inlet 21 faces the magnets 13 facing each other while maintaining a constant flow cross-sectional area of the inner passage. It has a rectangular cross-sectional shape with a high aspect ratio as shown to make the distance between the pairs as close as possible. In addition, the magnetization tube 11 is provided with a pair of receiving grooves 23 between the upper and lower flanges 19 to mount the pair of magnets 13 between the body portion 18 as described above. In particular, as shown in FIG. 3, the magnetization tube 11 is stacked up and down in the casing 3 to form the vortex chamber 25 between the magnetization tubes 11 of the other unit magnetization units 7 adjacent to each other. The vortex chamber 25 expands the water flow port 21 into a cylindrical shape on the water supply side or the water discharge side, thereby making the flow of water more smooth by the vortex phenomenon. To this end, a circular vortex groove 26 is recessed in each of the flanges 19 on the upper and lower surfaces in which the flow port 21 is opened. On the other hand, the vortex groove 26 also serves to reduce the thickness of the flange (19) of the magnetizing tube (11) that is injection molded into a synthetic resin material.

The magnet 13 is a means for magnetizing, ie, ionizing the water passing through the magnetization tube 11, as shown in FIGS. 4 to 6, between the upper and lower flanges 19 of the magnetization tube 11. It is received and mounted in the receiving groove 23 so as to face each other with the (18) therebetween. At this time, the plurality of magnets 13 are opposite to each other in the polarity of the facing surface to pull each other opposite pairs. Therefore, the magnet 13 magnetizes the water passing through the drain port 21 by surrounding the outer periphery of the drain port 21.

The sealing ring 15 is a means for sealing between the magnetizing tube 11 and the casing 3, as shown in Figures 3 and 4, the upper and lower ends of the outer peripheral surface of the magnetizing tube 11, that is, the upper and lower flanges 19 Bars are fitted to the circumferential surface of the bar), and the flange 19 of the magnetizing pipe 11 and the inner circumferential surface of the casing 3 are tightly sealed. Thus, the magnet 13 between the flanges 19 is kept watertight by the sealing ring 15.

In addition, the shielding plate 17 is a means for suppressing the leakage of the magnetic flux of the magnet 13, as shown in Figures 4 to 6, for example, a plurality of plates formed by a bending plate bent in the cross-section Bars are superimposed on the exposed portions of the magnets 13 accommodated in the receiving grooves 23 so that the magnetic flux of the magnets 13 is directed only to the magnets 13 facing each other, so that the water passing through the water inlet 21 is seen. Effectively ionized.

In particular, the unit magnetization 7 according to the present invention, as shown in Figures 4, 6, and 7, female or male irregularities around the vortex groove 26 of the flange 19 of the magnetization pipe 11 The

portions

27 and 28 are formed to correspond to each other. That is, for example, when the female groove 27 is recessed and formed in the upper flange 19 as shown in FIG. 4, the male protrusion 28 protrudes and is formed in the lower flange 19. Accordingly, as shown in FIG. 3, when the plurality of unit magnetizations 7 are stacked up and down, the female grooves 27 of the upper flange 19 have the male projections 28 at the bottom of the upper unit magnetizations 7. On the contrary, the male projection 28 of the lower flange 19 is coupled to the female groove 27 on the top of the lower unit magnetization 7.

In addition, as shown in FIG. 3, when the unit magnetization unit 7 is coupled up and down, if the flow openings 21 of all the unit magnetization units 7 are arranged long forward and backward as shown in FIG. As shown in Fig. 3, the sphere 21 as a whole does not generate any angular deviation in the rotational direction about the casing 3 axis. However, when the unit magnetization unit 7 coupled to the upper portion when the unit magnetization unit 7 is coupled up and down is rotated by one click more than the unit magnetization unit 7 below, the upper water hole 21 is connected to the lower water hole ( The phase difference occurs in the angular direction by one click from 21), and the streamline formed by the entire water flow port 21 rotates in the spiral direction. At this time, the angular spacing between the

uneven parts

27 and 28 is called 1 click.

Meanwhile, as shown in FIG. 8, the unit magnetization unit 7 is a modified embodiment. When the unit magnetization unit 7 is located at a downstream end of the magnetization module 5 including the plurality of unit magnetization units 7, the water flow port ( 21) The attenuation plate 31 may be formed on the opposite side facing the water exit side. At this time, since the ionized water generator 1 is reversely arranged, the water supplied from the upper side as shown by the arrow flows downward, passes through the magnetization module 5, and is discharged downward. 8 and 9, the damping plate 31 is formed integrally with the fixing ring body 33 in the form of a dome that maintains the same radius around the exit port 21, the fixing ring body. Since it is attached to the bottom face of the lower flange 19 by 33, the water discharged from the water outlet 21 exiting water collides with the damping plate 31 primarily, as indicated by the arrow. Thus, as shown in FIG. 11, the materials such as, for example, ceramic particles (C) filled under the casing 3 are prevented from directly colliding with water, and thus do not cause damage or deterioration thereof.

Further, the ionized water generator 1 according to the present invention is, as another embodiment, a magnetizer 7 made using only one of the above-described unit magnetizers 7 and a casing 3 surrounding the magnetizer 7. First, the casing 3 constitutes the outer body of the ionized water generator 1 as mentioned above, and as shown in FIGS. 10 and 11, various conduits 20 such as shower heads and water pipes. ) Is coaxially inserted along the flow path.

In addition, the magnetizer 7 also includes a magnet tube 11, a plurality of magnets 13, a plurality of sealing rings 15, and a plurality of shielding plates 17, which are shown in FIGS. Therefore, since it is the same as each corresponding structure demonstrated above, detailed description is abbreviate | omitted. However, since the magnetizer 7 is a unitary body, the above-mentioned concave-

convex portions

27 and 28 are not necessary. In addition, the magnetizer 7 has a damping plate 31 formed on the opposite side facing the water outlet 21 exiting side as in the downstream end unit magnetization unit 7 of FIG. The impact of the discharged water is similarly absorbed first.

Now, the operation of the ionized water generating device 1 according to a preferred embodiment of the present invention will be described.

As shown in FIG. 3, when water is supplied to a conduit 20 such as the shower head 10 into which the ionized water generator 1 is inserted, water is first introduced into the inlet of the casing 3. The water flowing into the inlet of the casing 3 passes through the unit magnetization 7 in the direction of the arrow, and is primarily magnetized, that is, ionized by the magnet 13 while passing through the water inlet 21. At this time, since the water flow port 21 has a long thin rectangular cross-sectional shape, the distance between the opposing magnets 13 can be narrowed under the condition that the flow path cross-sectional area is constant, thereby increasing the magnetization performance of the water. In addition, since the shielding plate 17 is stacked on the outside of the magnet 13 and magnetic flux leakage at the exposed portion is suppressed, the magnetization performance can be further increased.

On the other hand, the water discharged to the water discharge side of the first flow port 21 is introduced into the primary vortex chamber 25, the flow cross-sectional area is largely expanded to reach the primary vortex chamber 25, thereby generating a vortex, accordingly It will have a smooth flow.

After passing through the vortex chamber 25, the water passes through the same operation as the preceding process and exits the unit magnetization unit 7 at the top, that is, the downstream side of the drawing, and after fully magnetized in this process, the shower head 10 Is injected to the user.

At this time, the unit magnetization unit 7 stacked up and down may have an angular phase difference between the top and bottom, as mentioned above, in this case, since the entire flow port 21 extends while rotating in a spiral direction, The pouring water flows more smoothly than the water in which the water flow ports 21 are arranged in a line to form a straight streamline as shown in FIG. 3.

In addition, as shown in FIGS. 4, 8, 10, and 11, each magnet tube 11 has a sealing ring 15 fitted to the upper and lower ends of the outer circumferential surface, that is, around the upper and lower flanges 19. Sealing between the inner circumferential surface of the casing (3) and the casing (3), as shown in Figs. 4 and 6, each sealing ring 15 is wound in a state of being fitted more than half into the female groove (27) of the flange (19) Therefore, when the magnetizing tube 11 is inserted into the casing 3, it is not significantly deformed or damaged, and thus the durability life and airtight performance can be improved.

In addition, the magnetization tube 11 or the single magnetization tube 11 of the magnetizer 7 positioned at the downstream end of the magnetization module 5 may have a damping plate 31 on the opposite side facing the water outlet 21 exiting side. The damping plate 31 primarily absorbs the impact of the water discharged from the water inlet 21, so that the ceramic particles C and the like filled adjacent to the magnetization pipe 11 are discharged to the water discharged. It is possible to prevent the damage caused by.

The ionized water generating device of the present invention is a useful invention that can greatly increase the magnetization performance because a magnetization module disposed on a conduit and magnetizing water in the conduit is formed by stacking a plurality of unit magnetization portions.

Claims

Tubular casing 3 constituting the outer body; And

A magnetization module 5 inserted into the casing 3 and formed by stacking two or more unit magnetization parts 7 in a longitudinal direction;

The unit magnetization unit 7,

A magnetization pipe (11) which is connected from the water supply side to the water discharge side by the water discharge port 21 and flows water supplied to the water supply side to the water discharge side through the water discharge port 21;

A plurality of magnets 13 facing each other and surrounding the outflow port 21; And

A plurality of sealing rings 15 inserted into upper and lower ends of the outer circumferential surface of the magnetizing tube 11 and sealing between the inner circumferential surface of the casing 3 and the outer circumferential surface of the magnetizing tube 11;

The magnetization tube 11 is in contact with the magnetization tube 11 of the unit magnetization unit 7 to form a vortex chamber 25 so that the vortex groove 26 is formed on the upper and lower surfaces of the flow opening 21. ) Is an ionized water generating device characterized in that it is recessed.
The method according to claim 1,

The unit magnetization part 7 has female or male irregularities 27 and 28 formed around the vortex groove 26 on the upper and lower surfaces of the magnetization pipe 11, respectively, so that the unit magnetization part 7 of the neighboring unit magnetization part 7 is formed. The ionized water generating device, characterized in that it is fastened to the corresponding concave-convex portion (27,28), the angular phase difference around the axis of the neighboring unit magnetization portion (7) and the casing (3).
The method according to claim 1,

The unit magnetization unit 7 positioned at a downstream end of the magnetization module 5 among the plurality of unit magnetization units 7 is formed on an opposite side facing the water outlet 21 exiting side. And a damping plate (31) which primarily absorbs the impact of the water discharged from the sphere (21).
The method according to any one of claims 1 to 3,

The magnetizing pipe 11 generates ionized water, characterized in that the water flow port 21 has a rectangular cross-sectional shape so as to close the distance between the magnets 13 while maintaining a constant flow cross-sectional area of the water flow port 21. Device.
The method according to any one of claims 1 to 3,

The unit magnetization unit (7) further comprises a plurality of shield plates (17) overlapping the exposed portion of the magnet (13) to suppress magnetic flux leakage.
Is inserted into the flow path of the conduit 20, it is connected to the water outlet side from the water supply side of the conduit 20 by the water inlet 21, to flow the water supplied to the water supply side through the water outlet 21 to the water outlet side Magnetron tube 11;

A plurality of magnets 13 facing each other and surrounding the outflow port 21;

A plurality of sealing rings 15 inserted into upper and lower ends of the outer circumferential surface of the magnetizing tube 11 to seal between the inner circumferential surface of the casing 3 and the outer circumferential surface of the magnetizing tube 11; And

And a magnetizer (7) comprising a plurality of shielding plates (17) overlapping the exposed portions of the magnets (13) to suppress magnetic flux leakage.
The method according to claim 6,

The magnetizer (7) is formed on the opposite side facing the discharge side of the discharge port 21, a damping plate 31 for first absorbing the impact of the water discharged from the discharge port 21; Ion water generator, characterized in that.