KR101417868B1 - A fountain device - Google Patents

Abstract

The present invention provides a fountain system having a bubble purification part which includes a floating presses part which firstly purifies contaminated water having a foreign substance by a floating process; a bubble purification part which is connected to the floating process part and secondly purifies the contaminated water by saturating oxygen and generating bubble by receiving and the contaminated water and oxygen supplied from the outside; and a bubble purification part which is connected to the bubble purification part and includes an injection part which injects the purified wafer to the outside.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to a fountain apparatus having a bubble purification unit,

The present invention relates to a fractional system, and more particularly to a fractional system having a bubble purifier capable of multiplying and purifying contaminated water.

Generally, a fountain system is a system that circulates water in water through a pump and vertically ejects the water vertically through the spray nozzle to show the water stem that is ejected through the circulation of the continuous water in such a manner that the ejected water drops again. Provides visual beauty and coolness to the viewer through the water stem, provides health benefits to negative ions emitted by splitting water particles, and provides excellent beauty.

The water in the artificial water tank, such as the ecological pond where the fountain system is installed, is flooded and stagnant, so that the water can be easily polluted and decayed due to a large capacity of self-purification, thereby disgusting the spectator , Causing harm to health, and harming the landscape.

A prior art related to the present invention is the Korean Registered Utility Application No. 20-04458830000 (filed on August 31, 2009), which discloses a floating water system having a water purifying function.

It is an object of the present invention to provide a method and apparatus for suspending foreign matter contained in supplied polluted water, removing foreign matter using multiple filtration membranes and porous filter media, And a bubble purification unit having a bubble purification unit.

Another object of the present invention is to provide a fractional system having a bubble purification unit capable of cleaning the purification unit itself when the fluid flowing through the pond forms a predetermined degree of contamination.

In a preferred embodiment of the present invention, the present invention provides a water treatment system comprising: a floating processing unit for subjecting a foreign matter contained in contaminated water to a float treatment and a primary purification; A bubble purifier connected to the floating processing unit and supplied with the floating water and oxygen supplied from outside to simultaneously generate bubbles and oxygen to purify the contaminated water to form purified water; And a bubble purifier connected to the bubble purifier and including a sprayer for spraying the purified water to the outside.

The bubble purifying unit includes a hollow bubble purifying body body having an internal space formed therein and a bubble purifying body body disposed in a state in which the internal space of the bubble purifying body body is erected and physically contacted with the contaminated water, And a purifying member for purifying the contaminated water with purified water.

Wherein the bubble purifying unit body is connected to an upper end portion of the bubble purifying unit body by a contaminated water supply line supplied with the flooded polluted water and an oxygen supply line to which the oxygen is supplied, It is preferable that a spray line to be supplied to the spray portion is connected.

The purifying member may include a porous metal mesh member that is formed in a cylindrical shape and has a predetermined mesh to primarily filter the polluted water and a porous metal mesh member that is filled in the inner space of the mesh member and removes foreign matter contained in the polluted water And a purifying grain for secondary filtration.

The metal mesh member is preferably formed of a material having corrosion resistance.

Wherein the purifying member is disposed along a central axis of an inner space of the bubble purifying body and a bubble forming region is formed between an outer periphery of the metal mesh member and an inner periphery of the bubble purifying body, The oxygen supply line is connected to be exposed to the bubble forming region, and the injection line is connected to be exposed to the purifying grain.

A photocatalytic coating layer is formed on an outer surface of the metal mesh member, and the purified grained particle is a photocatalytic grain.

The bubble purification unit may include a plurality of bubble purification units.

Here, the floating unit and the jet unit may be connected in parallel or in series.

The spray line is further provided with a sterilizing treatment unit for flowing the purified water flowing along the spray line.

The sterilization is preferably carried out using a photocatalyst or an ozone or metal filter network.

The fractional system further comprises a cleaning unit.

The cleaning unit may include a supply unit for supplying the contaminated water to the inside of the bubble forming area through the lower end of the bubble cleaning unit forcibly supplying the contaminated water and the external oxygen to flood the contaminated water, And a discharge unit connected to a lower end of the bubble purifying unit body and discharging the contaminated water dropped from the purifying member to the outside.

The cleaning unit further includes a pollution degree measuring unit.

The contamination degree measuring unit may include a turbidity sensor installed on the spray line for measuring the turbidity of the purified water to be sprayed and a controller for driving the cleaning unit such that the measured turbidity is included in the reference turbidity range desirable.

The jetting line includes a first jetting line and a second jetting line arranged to correspond to the first jetting line, and the jetting unit has a high-velocity jetting unit.

The high-speed jet unit includes a high-speed jet body having a fluid space formed therein and exposing the fluid space to the outside, and an open / close valve installed in the branch.

Wherein an end of the first injection line is installed at one end of the fast injection body and an end of the second injection line is installed at the other end of the body of the fast injection body, It is preferable that the end portion of the line is formed so that the flow path area is gradually narrowed along the facing direction.

The present invention relates to an effect of floating foreign matter contained in supplied polluted water, removing foreign matter by using multiple filtration membranes and a porous filter medium, and simultaneously supplying oxygen to the purified water pond .

Further, the present invention has the effect of self-cleaning the purging portion when the fluid flowing through the pond forms a predetermined degree of contamination.

BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a view showing a configuration of a fractional water system having a bubble purification unit of the present invention. Fig.
2 is a view showing a purifying process in the bubble purifying unit according to the present invention.
3 is a view showing a cleaning process in the bubble purification unit according to the present invention.
4 is a view showing a configuration of a high-speed injection part according to the present invention.
5 is a diagram showing a configuration of another embodiment of a fractional water system having the bubble purification unit of the present invention.
6 is a view showing a sterilizing treatment section according to the present invention.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS The following is a description of a fractional system having a bubble purifier of the present invention with reference to the accompanying drawings.

BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a view showing a configuration of a fractional water system having a bubble purification unit of the present invention. Fig.

1, the construction of the fractional system of the present invention will be described.

The fountain system of the present invention mainly comprises a floating processing unit 100, a bubble purification unit 200, and a jetting unit 400.

1, the pond 1 and the floating processing unit 100 are connected to the pond 1 through a first pipe 10, and the floating processing unit 100 is connected to the bubble purification unit 200, (20).

A pump 110 and a compressor 120 are installed on the second pipe 20 between the floating unit 100 and the bubble purification unit 200.

The compressor 120 serves to forcibly suck external oxygen and supply it to the outside.

The compressor 120 and the bubble purification unit 200 are connected to the contaminated water supply line 130 and the oxygen supply line 140.

The contaminated water supply line 130 is a pipe for flowing the polluted water flowing through the second pipe 20 through the compressor 120 into the bubble purification unit 200.

The oxygen supply line 140 is a pipe for introducing oxygen forced into the bubble purification unit 200 through the compressor 120.

The other end of the contaminated water supply line 130 and the oxygen supply line 140 are connected to the upper end of the bubble purification unit 200.

The bubble purifying unit 200 is connected to the jetting unit 400 through the jetting line 300. The sprayer 400 injects the purified water purified through the bubble purifier 200 into the pond 1.

Here, the configuration of the above-described bubble purifier 200 will be described.

1 and 2, the bubble purification unit 200 includes a bubble purification unit body 210 and a purification member 220.

The bubble purification body 210 includes a hollow body having an inner space and a predetermined length along the upper and lower sides.

The purifying member 220 is installed inside the bubble purifying body 210.

The purifying member 220 includes a metal mesh member 221 and a purifying grain 222.

The metal mesh member 221 is formed in a cylindrical shape and is made porous to form a predetermined mesh.

The metal mesh member 221 may be made of stainless steel so as to have corrosion resistance.

The purge grain 222 is filled in the metal mesh member 221.

Here, the purifying grain 222 may be coated with a photocatalyst, and the outer surface of the metal mesh member 221 may also be coated with a photocatalyst.

In addition, the purging grain 222 according to the present invention may be formed of a far infrared ray material. The nuclear foreign matter may be formed of a bioceramic material.

In addition, the metal mesh 221 may be coated with a far infrared ray material layer.

In the present invention, the emission amount of the far-infrared ray can be manufactured so that the far-infrared ray emission amount is 600 to 700 mu m.

Therefore, in the present invention, the deodorizing effect can be expected in addition to the activation of the contaminated water, as compared with the case where there is no far-infrared ray emission amount.

In addition, the metal mesh member 221 is installed upright along the central axis in the inner space of the bubble purification body 210.

The length of the metal mesh member 221 may be a length connecting the inner upper side wall and the lower side wall of the bubble purification body 210.

Particularly, a bubble forming region 201 is formed between the inner periphery of the bubble purification body 210 and the outer periphery of the metal mesh member 221.

The bubble forming region 201 is a space for inducing bubbles to be formed while substantially forcedly introducing oxygen and contaminated water.

Next, the operation of the fractional system having the bubble purifier of the present invention having the above-described configuration will be described.

1 and 2, contaminated water, for example, rainwater containing foreign matter from the pond 1 flows into the floatation treatment unit 100 along the first pipe 10.

The floating unit 100 has a function of sinking foreign matter to the floor after dirty water is drained for a predetermined time.

Then, the pump 110 pumps the contaminated water that has been firstly purified and flows into the compressor 120 while the foreign substance is scattered from the floating processing unit 100.

The compressor 120 flows the polluted water to the polluted water supply line 130 and forcedly flows the oxygen into the oxygen supply line 140.

The polluted water and the oxygen flowing in this manner are introduced into the bubble forming region 201 through the upper end of the bubble purification body 210 to form a certain pressure.

At this time, in the inner space of the bubble forming area 201, the contaminated water (water) and oxygen (air) flow along the lower side from the upper side.

After the polluted water and the water flow downward as described above, the polluted water flows upward and oxygen also flows upward.

Thus, in the bubble forming region 201, the contaminated water and oxygen are mixed with each other to generate bubbles, thereby achieving the oxygen saturation state.

That is, the dissolved oxygen amount of the polluted water itself can be increased.

As described above, the contaminated water that is saturated with oxygen as described above can be filtered through the metal mesh member 221, and the foreign substances of the solid component are removed as they are physically contacted with the purifying grains 222 filled in the metal mesh member 221 .

Accordingly, in the present invention, bubbles are generated while continuously supplying the contaminated water and oxygen to the bubble purification body 210, and the valve of the injection line 300 can be automatically opened due to the differential pressure.

Accordingly, the purified water, which is secondarily purified in the state where the oxygen saturation and foreign matter are removed as described above, may flow into the spray line 300 connected to the lower end of the bubble purification body 210.

The purified water flowing into the injection line 300 may be injected into the pond 1 by the injection unit 400 as described above. The jetting section 1 may be a device such as an injector.

1, the fountain system of the present invention may further have a cleaning unit 500.

The cleaning unit 500 mainly includes a supply unit 120 and a discharge unit 530.

The supply unit 120 may be the compressor 120 described above.

The supply unit 120 has an auxiliary polluted water supply line 131 connected to the lower end of the bubble purification body 210 to supply polluted water and an auxiliary oxygen supply line 141 for forcedly sucking external oxygen.

Here, the auxiliary oxygen supply line 141 is connected to the auxiliary polluted water supply line 131.

The discharging unit 530 is connected to the lower end of the bubble purifying unit body 210 to be connected to the bubble forming area 201. The discharging unit 530 discharges contaminated water dropped from the purifying member 220, .

Further, the cleaning unit 500 according to the present invention may further have a pollution degree measuring unit.

The contamination level measuring unit includes a turbidity measuring sensor 510 and a controller 520.

The turbidity measurement sensor 510 may be installed on the spray line 300 to measure the turbidity of the purified water flowing along the spray line 300.

The controller 520 drives the cleaning unit 500 such that the measured turbidity is included in the reference turbidity range to be set.

The operation of the cleaning unit will be described with reference to the above configuration.

1 and 3, the turbidity measurement sensor 510 measures the turbidity of the purified water flowing along the jet line 300 and transmits the measured turbidity to the controller 520. [

The controller 520 determines whether the measured turbidity is included in the predetermined reference turbidity range.

The controller 520 blocks the polluted water supply line 130 and the oxygen supply line 140 and the spray line 300 using valves when the measured turbidity is not included in the preset reference turbidity range.

The controller 520 causes the contaminated water to flow into the bubble forming area 201 through the lower part of the bubble purification body 210 through the auxiliary polluted water supply line 131 through the supply part 120.

At this time, the supply unit 120 forcibly supplies external oxygen to the auxiliary polluted water supply line 141 to form bubbles before the contaminated water is introduced into the bubble forming area 201, thereby achieving an oxygen saturation state.

Therefore, the liquid is gradually introduced into the lower space of the bubble forming region 201 and flows into the bubble forming region 201.

Then, the contaminated water is floated in the bubble forming area 201, the foreign matter is removed by the cleaning member 220, and the washing water is moved to the upper part of the bubble forming area 201 to complete the washing.

The purifying method by the purifying member 220 is substantially the same as that described above.

The foreign matter may be discharged to the outside through the discharge portion 530 connected to the lower end of the bubble purification body 210.

Here, the controller 520 is electrically connected to an auxiliary turbidity measuring sensor (not shown) capable of measuring the turbidity of the contaminated water during the washing process.

Therefore, if the turbidity measured by the auxiliary turbidity measurement sensor is included in the reference turbidity range, the operation of the cleaning unit as described above is immediately stopped.

The controller 520 may control the injection of the purified water through the injection line 300 as described above.

4 is a view showing a configuration of a high-speed injection part according to the present invention.

In addition, the jetting unit 400 of the present invention may further include the high-speed jetting unit 410 as shown in FIG.

Here, the injection line 300 according to the present invention includes a first injection line 310 and a second injection line 320 arranged to correspond to the first injection line 310.

The high-speed jetting unit 410 includes a high-speed jetting body 411 and an opening / closing valve 413.

The fast injection body 411 has a flow space formed therein and a branch pipe 412 for exposing the flow space to the outside.

The branch pipe (412) is provided with the on-off valve (413).

Here, the end of the first injection line 310 is installed at one end of the fast injection body 410.

The end of the second injection line 320 is installed at the other end of the fast injection body 411.

The ends of the first injection line 310 and the second injection line 320 form a state in which they are spaced apart from each other along the opposite direction.

In addition, the ends of the first injection line 310 and the second injection line 320 are formed to gradually narrow the flow path area along the opposite direction.

Therefore, the purified water discharged to the end of the first injection line 310 can be introduced while the flow velocity is increased and the velocity is further increased to the end of the second injection line 320 in such a state that the flow velocity is increased.

At this time, the oxygen formed inside the high-speed jet body 411 may be further dissolved in the purified water flowing.

The purified water flowing in the second injection line 320 can be injected into the pond 1 by accelerating based on the increased flow rate as described above.

In addition, the distance between the ends of the first and second injection lines 310 and 320 may be adjusted.

For example, when the first and second injection lines 310 and 320 are screwed to one end and the other end of the fast injection body 411, the length can be adjusted.

Accordingly, by adjusting the distance between the ends of the first and second injection lines 310 and 320 in the fast injection body 411 as described above, or by adjusting the opening / closing degree of the opening / closing valve 413, The amount of oxygen can be efficiently controlled.

In addition, the on-off valve 413 may be an automatic valve, and a sensor (not shown) may be provided to measure the amount of dissolved oxygen dissolved in the purified water flowing in the second injection line 320.

In this case, the sensor measures the amount of dissolved oxygen contained in the purified water flowing in the second injection line 320 and transmits it to the controller 520.

The controller 520 may adjust the amount of oxygen supplied by adjusting the degree of opening and closing of the automatic valve 413 so that the measured dissolved oxygen amount may be included in the predetermined range of dissolved oxygen amount.

5 is a diagram showing a configuration of another embodiment of a fractional water system having the bubble purification unit of the present invention.

In addition, as shown in FIG. 5, the bubble purifiers 200 and 200 'according to the present invention may be connected in parallel through pipes.

In addition, a sterilization treatment unit 600 as shown in FIG. 6 is installed in the injection line 300 to flow the purified water flowing along the injection line 300.

The sterilization treatment unit 600 has a sterilization treatment unit body 610 in which a sterilization space is formed.

Sterilization treatment members 620 are installed at intervals in the sterilization space.

The sterilizing member 620 may be a photocatalyst or an ozone or metal filter.

Accordingly, the purified water flowing along the injection line 300 can be additionally purified while being contacted with the sterilizing treatment members 620 to flow into the spray part.

According to the above-described configuration and operation, in the embodiment of the present invention, foreign matter contained in the supplied polluted water is subjected to a floating treatment, foreign matters are removed using multiple filtration membranes and porous filter media, So that it can be sprayed to the cleaning pond.

Further, the present invention has the effect of self-cleaning the purging portion when the fluid flowing through the pond forms a predetermined degree of contamination.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it should be understood that various changes and modifications may be made without departing from the scope of the present invention.

Therefore, the scope of the present invention should not be limited to the above-described embodiments, but should be determined by the scope of the appended claims and equivalents thereof.

It is to be understood that the foregoing embodiments are illustrative and not restrictive in all respects and that the scope of the present invention is indicated by the appended claims rather than the foregoing description, It is intended that all changes and modifications derived from the equivalent concept be included within the scope of the present invention.

10: first pipe 20: second pipe
100: Floating unit 110: Pump
120: compressor (supply part) 130: contaminated water supply line
131: auxiliary polluted water supply line 140: oxygen supply line
141: auxiliary oxygen supply line 200: bubble purification unit
201: bubble forming space 210: bubble purifying body
220: purge member 221: metal mesh member
222: purge grain 300: injection line
310: first injection line 320: second injection line
400: jetting part 410: high-speed jetting part
411: High-speed jetting body 412:
413: opening / closing valve 500: cleaning device
510: turbidity measurement sensor 520: controller
530: discharging part 600: sterilizing treatment part
610: Sterilization treatment body 620: Sterilization treatment member

Claims (10)

A floating processing unit for floating the foreign matters contained in the contaminated water to perform primary purification;
A bubble purifier connected to the floating processing unit, for simultaneously supplying the flooded polluted water and oxygen supplied from the outside to generate bubbles and oxygen to purify the contaminated water to form purified water; And
And a jetting part connected to the bubble cleaning part and spraying the purified water to the outside,
The bubble purifying unit includes a hollow bubble purifying body body having an internal space formed therein and a bubble purifying body body disposed in a state in which the internal space of the bubble purifying body body is erected and physically contacted with the contaminated water, And a purifying member for purifying the contaminated water by purifying the contaminated water, wherein an upper part of the bubble purifying body is provided with a polluted water supply line supplied with the flooded polluted water and an oxygen supply line supplied with oxygen, And a spray line for supplying the purified water to the spray part is connected to the lower end of the bubble purifying part body.
delete The method according to claim 1,
Wherein the purifying member comprises:
A porous metal mesh member formed into a cylindrical shape and having a predetermined mesh to primarily filter the contaminated water;
And a purifying grain which is filled in the inner space of the metal mesh member and which removes foreign matter contained in the polluted water and performs secondary filtration,
Wherein the metal mesh member is made of a material having corrosion resistance.
The method of claim 3,
Wherein the purifying member is disposed along an inner space central axis of the bubble purifying body,
A bubble forming region is formed between the outer periphery of the metal mesh member and the inner periphery of the bubble purification body,
The contaminated water supply line and the oxygen supply line are connected to be exposed to the bubble forming region,
Wherein the spray line is connected to be exposed to the purging grain.
5. The method of claim 4,
A photocatalytic coating layer is formed on an outer surface of the metal mesh member,
Wherein the purifying grain is a photocatalytic grain.
5. The method of claim 4,
The bubble purifying unit may include a plurality of bubble purifying units
And the bubble purification unit is connected in parallel or in series between the floating unit and the injection unit.
The method according to claim 4 or 6,
Wherein the spray line further includes a sterilizing treatment unit for cleaning the purified water flowing along the spray line,
Characterized in that the sterilization uses a photocatalyst or an ozone or metal filter network.
5. The method of claim 4,
The fractional system further comprises a cleaning unit,
The cleaning unit includes:
A supply unit for supplying the contaminated water and the external oxygen to the inside of the bubble forming area through the lower end of the bubble cleaning unit body to forcibly supply the contaminated water,
And a discharge unit connected to a lower end of the bubble purifying unit body to be connected to the bubble forming area and discharging the contaminated water dropped from the purifying member to the outside.
9. The method of claim 8,
The cleaning unit may further include a pollution degree measuring unit,
The pollution degree measuring unit may measure,
A turbidity sensor installed on the spray line for measuring the turbidity of the purified water to be sprayed,
And a controller for driving the cleaning unit such that the measured turbidity is included in a predetermined reference turbidity range.
The method according to claim 1,
Wherein the injection line includes a first injection line and a second injection line arranged to correspond to the first injection line,
Wherein the jetting section has a high-speed jetting section,
The high-speed jetting unit includes a high-speed jetting body having a fluidizing space formed therein and exposing the fluidizing space to the outside, and an on-off valve installed in the branching duct,
Wherein an end of the first injection line is installed at one end of the fast injection body,
The end of the second injection line is installed at the other end of the high-speed jet body,
Wherein the end of the first injection line and the end of the second injection line are formed such that the flow passage area is gradually narrowed along the opposite direction.

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