KR20160121741A - Rainwater harvesting facilities and portable rainwater storage tanks and water transportation method for rainwater - Google Patents

Abstract

The present invention relates to rainwater collection facilities, a portable rainwater storage tank, and a water transportation method for rainwater. More specifically, rainwater is collected by the rainwater collection facilities, transferred in water, and then used by floating the rainwater on water in a place of use. The rainwater collection facilities are in the shape of a blind having a screen, can collect rainwater by spreading the screen in case of rain, and can minimize the volume by folding the screen on a day without rain. In addition, the rainwater collection facilities can move on water and the ground in an easy manner and have wheels capable of protecting sides of a body during transportation on water. The rainwater collection facilities enable a user to use rain water even in an area lacking sufficient rainfall and thus can solve water deficiency problems. The rainwater storage tank has facilities capable of purifying rainwater and thus can purify and use rainwater in an easy manner. Moreover, the rainwater collection facilities can discharge contaminants, settled in the bottom of the rainwater storage tank, to the outside in an easy manner by a siphon method. In addition, the rainwater collection facilities can transfer the rainwater storage tank on water in an easy manner by utilizing separation walls in the rainwater storage tank as a buoyancy space and using the wheels as a posture control structure.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to rainwater collecting facilities, portable rainwater storage tanks,

The present invention relates to a rainwater collecting facility, a movable rainwater storage tank, and a rainwater transfer system. More particularly, the present invention relates to a rainwater collecting facility capable of collecting rainwater, Tank and rainwater pumping system.

Korean Patent Laid-Open Publication No. 10-2013-0001026 discloses a rainwater storage tank provided in a case formed in a hexahedral box structure for storing rainwater and a rainwater storage tank connected to an inner side of a branch pipe branched from a drain pipe for discharging rainwater, The rainwater collecting tank is provided with an inlet portion located at a lower portion of the rainwater storage tank, an end portion in the rainwater storage tank is provided with a water intake pipe and a water intake pump. The water intake portion receives rainwater in the rainwater storage tank. Discloses a rainwater storage box provided with a water intake portion configured to always receive rainwater at a predetermined depth below the water surface by the buoyant body and an outlet portion connected to the water intake pipe end portion of the water intake portion and through which the rainwater stored in the rainwater storage tank flows out .

The conventional rainwater storage / purification / water intake structure having such a structure is connected to a structure such as a trough for collecting rainwater, and the rainwater to be collected is purified from inside and supplied to the water.

However, this can be applied only in a region where the rainfall is somewhat above a certain level, and is not applicable in an area where rainfall is extremely small.

Korean Patent Publication No. 10-2013-0001026

It is an object of the present invention to enable rainwater to be used even in areas with low rainfall.

In order to achieve the above-mentioned object, the present invention provides a display device comprising a first bar that can be detached at the roof edge of a building, a first screen coupled to the first bar, a second screen coupled with the first screen, A side bar for supporting the side surfaces of the first screen and the second screen, and a pedestal coupled to the side bar so as to stand on the ground.

According to another aspect of the present invention, there is provided an air conditioner comprising: a hollow body; a partition wall partitioning the bottom of the body into a plurality of spaces; a rainwater inlet provided in any one of a plurality of spaces partitioned by the partition; A screen provided in the rainwater inflow port, a precipitation cup provided in the inflow cam inlet outlet, a siphon for discharging the pollutants settled on the bottom of the precipitation cup, a rainwater outlet provided in the area other than the area provided with the rainwater inflow port And a rainwater storage tank,

There is provided a method of transporting rainwater storage tanks having the above-described structure to an aquifer.

The present invention is equipped with a blind-type rainwater collecting facility having a screen, and can spread rainwater when raining, and can minimize the volume by folding the screen on a non-rainy weekday, and can maintain a clean water surface.

In addition, the present invention can easily move the water phase and the ground, and the wheel can protect the side surface of the body from impact during water movement.

The present invention can use rainwater even in a region where rainfall is insufficient and can solve water shortage, and a facility for purifying rainwater in a rainwater storage tank is provided, so that rainwater can be easily purified.

Further, according to the present invention, the contaminants settling on the bottom of the rainwater storage tank can be easily discharged to the outside by a siphon system.

The rainwater storage tank can be easily water-moved by using the partition in the rainwater storage tank as a buoyancy space and using the wheel as the posture control structure.

1 is a perspective view of a rainwater collecting facility according to the present invention;
2 is an internal perspective view of a rainwater storage tank according to the present invention.
3 is a camellet perspective view of a rainwater storage tank according to the present invention.
4 is a camellet perspective view of a rainwater storage tank according to another embodiment of the present invention;
5 is a perspective view of a partition wall of a rainwater storage tank according to the present invention.
6 is a perspective view of a bulkhead of a rainwater storage tank according to another embodiment of the present invention.
FIG. 7 is a structural view showing the attitude of the rainwater storage tank according to the present invention. FIG.

Hereinafter, embodiments of the present invention will be described in detail with reference to the drawings.

It will be apparent to those skilled in the art that the present invention may be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete, It is provided to let you know. Like reference numerals refer to like elements throughout. The present invention relates to a rainwater collecting facility for collecting rainwater, a movable rainwater storage tank for receiving rainwater from the rainwater collecting facility and purifying the rainwater from the rainwater collecting facility, a stormwater moving method for moving the rainwater to the use place when rainwater is stored in the movable rainwater storage tank And a rainwater collecting facility, a movable rainwater storage tank, and a rainwater transfer method will be sequentially described.

1 is a perspective view of a rainwater collecting facility according to the present invention.

1, a rainwater collecting system according to the present invention includes a first bar 10 that can be detached from a roof edge of a building, a first screen 20 coupled with the first bar 10, A second screen 30 coupled with the first screen 20, a trough 40 coupled with the second screen 30, a side bar (not shown) supporting the sides of the first screen 20 and the second screen 30 50, and a pedestal 60 that is coupled so that the side bar 50 can stand on the ground.

The first bar 10 is in the form of a rod extending along one edge of the first screen 20. This embodiment illustrates that the first screen 20 is rectangular and the first bar 10 is joined to the longest one edge of the first screen 20. The second screen 30 preferably has the same shape as the first screen 20 and extends from the first screen 20. In addition, the longest one edge of the second screen 30 is coupled to the trough 40.

The side bar 50 supports the short side edges of the first screen 20 and the second screen 30 and supports the side edges so as to stand on the ground. This sidebar 50 is of the 'y' shape, allowing the angle between the first screen 20 and the second screen 30 to be varied. 1, the second screen 30 is extended from the first screen 20 in the direction of the arrow to form the trough 40, and the rainwater collecting apparatus according to the present invention is folded as shown in FIG. 1 on a weekday, To allow the rainwater to move. At this time, it is also preferable that the first screen 20 is also raised in the upward direction, and finally, the first screen 20 and the second screen 30 are spread in almost a straight line.

As described above, the present invention is equipped with a blind-type rainwater collecting facility having a screen, and can spread rainwater on rainy days. In case of non-rain on a weekday, the screen can be folded to minimize volume and to keep the water surface clean .

2 is an internal perspective view of a rainwater storage tank according to the present invention.

2, the rainwater storage tank according to the present invention includes a hollow body 100, a partition 200 partitioning the bottom of the body 100 into a plurality of spaces, a partition wall 200 partitioned by the partition 200, A rainwater inflow port 300 provided in any one of a plurality of zones, an inflow cam inlet 500 connected to the rainwater inflow port 300 and positioned inside the body 100, a screen provided on the rainwater inflow port 300, A siphon 700 for discharging contaminants settled at the bottom of the settling cup 600 and a rainwater inflow port 300 are provided in a zone other than the zone where the rainwater inflow port 300 is provided And a rainwater outlet (800).

It is preferable that the body 100 is hollow, hollow and has a density less than that of water, such as a resin material, so as to float on the water due to buoyancy. Such a body 100 may have the appearance of an animal such as a hippopotamus.

The partition 200 divides the floor into a plurality of spaces in the body 100. The present embodiment is characterized in that the barrier rib 200 includes a horizontal barrier rib 210 and a vertical barrier rib 220 formed in the longitudinal direction of the body 100, The barrier ribs 220 are illustrated as being intersected with each other. In this embodiment, four zones are divided into a first zone S1 and a second zone S1 in the order in which the rainwater is introduced into the body 100 and purified and then discharged. A second zone S2, a third zone S3 and a fourth zone S4. The precipitation cup 600 is positioned in the first zone S1 and the rainwater outlet 800 is formed in the fourth zone S4. Of course, the present invention is not limited to this, and the area in which at least one of the horizontal barrier ribs 210 and the vertical barrier ribs 220 are partitioned may be four or more. Here, it is preferable that a sediment outlet for discharging the settled contaminants is formed in the lower part of each zone. In this embodiment, since the first to fourth zones S1 to S4 are partitioned, In each of the four zones S1 to S4, the first to fourth precipitate outlets (not shown) are also formed. Here, the bottom of each of the first to fourth zones S1 to S4 is made to be a slope and the first to fourth sediment discharge ports are located at the lowest point on the slope so that the deposited pollutants can easily reach the first to fourth So that it can be discharged to the sediment outlet. In addition, first to fourth drain valves (not shown) may be provided at the first to fourth sediment discharge ports, respectively.

The rainwater inflow port 300 is installed in the first area S1 and extends into the body 100 by the inflow cam inlet 500. [ The screen 400 is installed in the rainwater inflow port 300 to primarily clean the rainwater flowing into the rainwater inflow port 300. The rainwater inflow port 300 may be provided with a rainwater inflow port cover (not shown) so that rainwater is stored in the body 100 and foreign substances are prevented from flowing into the body 100 through the rainwater inflow port 300.

3 is a camellet perspective view of a rainwater storage tank according to the present invention.

The inflow cam inlet (500) moves the rainwater flowing in the rainwater inflow port (300) to the settling cup (600). The inlet cam inlet 500 includes an inlet cam inlet pipe 510 and an upwardly curved inlet inlet inlet bend tube 520.

The inflow cam inlet pipe 510 is connected to the rainwater inflow port 300 and has a hollow tube shape extending in the downward direction. One side of the inflow cam inlet pipe 510 is connected to the rainwater inflow port 300, And an inflow cam inlet bent tube 520 is provided on the other side of the inlet cam groove 510.

4 is a camelet perspective view of a rainwater storage tank according to another embodiment of the present invention.

The inflow cam inlet bending pipe 520 flows in the rainwater inflow port 300 and discharges the rainwater passing through the inflow cam inlet pipe 510 to the settling cup 600. Here, the function of the inflow cam inlet flexure pipe 520 is to prevent the contaminants deposited on the bottom of the settling cup 600 from floating by slowing down the flow rate of the rainwater flowing into the inflow cam inlet pipe 510, 300). ≪ / RTI > As shown in FIG. 3, the diameter of the inflow cam inlet inflection tube 520 is increased as the inflow direction of the inflowing cam inlet inflection tube 520 increases toward the moving direction of the rainwater, It may be further reduced. 4, a plurality of inflow cam inlet inflection tubes 520 may be provided. If a plurality of inflow cam inlet inflection tubes 520 are provided as described above, the flow velocity of the rainwater can be further reduced .

The settling cup 600 secondly cleans rainwater introduced through the inflow cam inlet 500, and then overflows the upper rainwater. To this end, in this embodiment, the settling cup 600 is formed into a cup shape with its top opened, and the inflowing cam inlet 500 is positioned therein. According to this configuration, the rainwater flowing into the precipitation cup 600 through the inflow cam inlet 500 stays in the precipitation cup 600 for a predetermined period of time. During this period, And the upper rainwater of the settling cup 600 relatively cleaner than the lower portion of the settling cup 600 flows into the first section S1 when the settling cup 600 is filled. Here, the bottom of the settling cup 600 is formed so as to be inclined downwardly in the direction in which the bottom hole is formed, which will be described later, to effectively collect the settled contaminants.

The siphon 700 is for discharging the contaminants settled at the bottom of the settling cup 600 to the outside of the body 100 and includes a siphon tube 710 connected to the bottom hole of the settling cup 600, A cover 711 for interrupting the bottom hole, and a control lever 712 for controlling the opening and closing of the cover 711. The control lever 712 includes a lever, a lever bar extending from the lever, and a line connecting the lever bar 711. According to the present invention, when the contaminant is deposited on the bottom of the settling cup 600 and accumulated more than a certain amount, the lever is pressed so that the lever bar extending from the lever is lifted up and pulls the string connected to the cover 711 The lid 711 is opened. When the lid 711 is opened, contaminants on the bottom of the settling cup 600 are discharged to the outside of the body 100 together with the rainwater stored in the settling cup 600 by the phenomenon of the siphon 700. In addition, the bottom of the settling cup 600 is formed so that the inclined surface is inclined downward in the direction of the discharge port (not shown), which is effective for collecting and discharging the settled contaminants toward the discharge port.

The rainwater outlet 800 collects the rainwater that has migrated to the fourth zone S4 and discharges the rainwater, and the discharged rainwater is used as the water. At this time, it is preferable that the rainwater outflow outlet 800 prevents the contaminants deposited on the bottom of the fourth zone S4 from being collected by the inflow cam inlet 500 structure. Of course, a faucet or the like may be installed on the body 100 of the fourth zone S4 together with the rainwater outlet 800. [ The rainwater outlet 800 may be provided with a rainwater outlet cover (not shown) that can open and close the rainwater outlet 800 to prevent contaminants from entering the rainwater outlet 800.

Meanwhile, the present invention can float the rainwater storage tank to form a buoyant space in the body 100 so that it can be used in water houses.

FIG. 5 is a perspective view of a partition wall of a rainwater storage tank according to the present invention, and FIG. 6 is a perspective view of a partition wall of a rainwater storage tank according to another embodiment of the present invention.

The buoyancy space is for increasing the buoyancy of the body 100. The buoyancy space is formed by emptying the inside of the partition 200 of at least one of the transverse partition 210 and the vertical partition 220, The first buoyancy space 211 and the second buoyancy space 212 can be formed. When the buoyant space is formed in the partition 200 as described above, buoyancy can be generated even when the body 100 is filled with rainwater, thereby allowing the rainwater bank to float. Of course, as shown in FIG. 6, the present invention may form a plurality of buoyant spaces inside the partition 200 to maintain the buoyancy to a maximum even if some buoyant spaces are damaged.

In addition, the present invention may further include an attitude control structure 1000 for balancing the body 100 with the water.

7 is a perspective view of a posture control structure of a rainwater storage tank according to the present invention.

The posture control structure 1000 is formed at the lower end of the body 100 to balance the body 100. This embodiment illustrates a hollow wheel with an attitude control structure 1000. 7, the posture control structure 1000 includes a hollow wheel support 1100 which is slid in the body 100 by the protrusion 1110 to be exposed or concealed, and a wheel 1200 coupled to the wheel support 1100 And an interlocking member (not shown) for preventing the wheel support 1100 from being detached from the body 100. With such a configuration, the posture control structure 1000 prevents the body 100 from being tilted or inverted by being exposed to the side surface like a wing in a watercourse, and is provided below the body 100 So that the body 100 can easily move on the ground. At this time, the intermittent member is opened when changing the water and ground mode, and is closed when the change is completed, so that the wheel support 1100 is not moved. The length of the wheel support 1100 is effective to make the width of the body 100 including the wheel longer than the height of the body 100 when the wheel support 1100 is in the airstream mode, to be.

With this structure, the present invention can easily move the water phase and the ground, and the wheel can protect the side surface of the body 100 from impact when moving the water phase.

In the meantime, the present invention bids the rainwater storage tank by a general line. However, the present invention is not limited to this, and one side of the body 100 may be fixed to the eyepiece apparatus so as to bury the rainwater bank in the water house. At this time, it is preferable to prevent the body 100 from being overloaded even if the water level changes due to a roller structure or the like. Here, the roller structure can be implemented by providing rails capable of moving up and down on the eyepiece device, fixing the rollers to the body 100 after attaching the rollers to the rails. Of course, the roller may be a wheel provided in the body 100. In this case, the eyepiece apparatus has a rail that can move up and down, and can be implemented by moving the wheel to the rail. Of course, for this purpose, the wheel 1200 can be rotated 360 degrees from the wheel support 1100 and the wheel 1200 can be rotated vertically in a horizontal state on the water surface and moved up and down along the rails of the eyepiece device .

The operation of the present invention having the above-described structure is as follows.

8 is a view showing a method of using the rainwater storage tank according to the present invention.

First, a separate pipe is connected to the rainwater inflow port 300 to introduce rainwater. The rainwater flowing into the rainwater inflow port 300 flows into the precipitation cup 600 through the inflow cam inlet 500. At this time, a relatively large contaminant contained in the rainwater is filtered by the screen installed in the rainwater inflow port 300, and the rainwater is firstly purified. Thereafter, the rainwater flowing into the settling cup 600 flows over the settling cup 600 and moves to the first area S1. The rainwater that has moved to the first zone S1 moves to the second zone S2 over the vertical barrier 220 and moves to the third zone S3 through the horizontal barrier 210. [ In addition, the rainwater in the third zone S3 flows over the vertical barrier rib 220 and moves to the fourth zone S4. At this time, the rainwater moves from the first zone S1 to the second zone S2, the third zone S3 and the fourth zone S4, and pollutants contained in the rainwater are deposited in the respective zones, Secondly purified. The second purified rainwater is discharged to the outside of the body 100 through the outflow cam inlet 900 installed in the fourth zone S4 and the rainwater outlet 800 connected thereto according to the user's need.

As shown in FIG. 8, a rainwater collecting facility according to the present invention can be used to introduce rainwater into the rainwater inlet 300 by using a separate water collecting facility. That is, the rainwater storage tank of the present invention is supplied with rainwater in an area having a predetermined amount of rainfall or more, moves to a use place, and then goes to a use place and then goes to a docking facility. Thereafter, the user uses the rainwater stored in the rainwater storage tank, collects the rainwater by the rainwater collecting facility in the rain, and stores the rainwater in the rainwater storage tank. Here, the rainwater storage tank is always provided in the place of use, and rainwater can be supplied to the rainwater storage tank by moving the rainwater in the other area when the rainwater is insufficient. That is, the rainwater storage tank may be supplied with rainwater after the rainwater storage tank is connected to another ship in a state where the rainwater is stored, and may be moved to the use place or moved to the use place.

INDUSTRIAL APPLICABILITY As described above, the present invention can use rainwater even in a region where rainfall is insufficient, so that water shortage can be solved. In addition, the present invention provides a facility for purifying rainwater in the rainwater storage tank, so that rainwater can be easily purified. Further, according to the present invention, the contaminants settling on the bottom of the rainwater storage tank can be easily discharged to the outside by a siphon system. In addition, according to the present invention, the partition wall inside the rainwater storage tank can be utilized as a buoyant space, and the wheel can be used as the posture control structure to easily move the rainwater storage tank.

It will be apparent to those skilled in the art that various modifications and variations can be made in the present invention without departing from the spirit or scope of the present invention as defined by the appended claims. You will understand.

10: first bar 20: first screen
30: second screen 40:
50: Sidebar 51: 1st sidebar
52: second side bar 60: pedestal
61: first pedestal 62: second pedestal
100: Body 200:
210: transverse bulkhead 211: first buoyant space
212: second buoyancy space 220: vertical partition wall
300: Rainwater inflow port 400: Screen
500: inflow cam inlet 510: inflow cam inlet piping
520: inlet cam inlet bending tube 600: settling cup
700: Siphon 710: Siphon tube
711: cover 712: control lever
800: Rainwater outlet 900: Outlet ink inlet
1000: attitude control structure 1100: wheel support
1110: protrusion 1200: wheel
S1: first zone S2: second zone
S3: Zone 3 S4: Zone 4

Claims (8)

A first bar to be detached from a roof edge of a building provided with a trough,
A first screen coupled to the first bar,
A second screen having one edge coupled to the first screen and the other edge coupled to the trough,
A side bar supporting the side surfaces of the first screen and the second screen,
Wherein the side bar is coupled to the ground so that the side bar can stand on the ground. A hollow body,
A partition wall partitioning the bottom of the body into a plurality of sections,
A rainwater inlet provided in any one of a plurality of zones partitioned by the partition,
An inflow cam inlet connected to the rainwater inlet and located inside the body,
A precipitation cup provided in the inflow cam inlet outlet,
A siphon for discharging the contaminants settled on the bottom of the settling cup,
And a rainwater outlet provided in an area other than the area provided with the rainwater inflow port. The method of claim 2,
The siphon,
A siphon tube connected to the bottom hole of the precipitation cup and being a curved tube,
A cover for controlling the opening and closing of the bottom hole of the settling cup,
And a control lever for controlling opening and closing of the lid. The method of claim 3,
The barrier rib may include a horizontal barrier rib formed on the body,
And a vertical barrier rib intersecting with the horizontal barrier rib,
Wherein the partition wall is hollow, which is divided into at least one or more portions. The method of claim 4,
Wherein the inflow cam inlet has a diameter of the inflow cam inlet inflating pipe located in the body increasing toward the inflow direction of the rainwater. The method of claim 5,
Wherein the inflow cam inlet includes a plurality of inflow cam inlet. The method of claim 6,
And an attitude control structure for balancing the body,
The posture control structure includes:
A hollow wheel support which is slid in the body by the projection to be exposed or concealed,
Wheels coupled to the wheel support,
And an interlocking member for preventing the wheel support member from being detached from the body,
Wherein the wheel support is exposed by the side surface of the body and is supported by the intermittent member or is exposed downward from the body and is supported by the intermittent member. A rainwater pumping system for pumping a movable rainwater storage tank which receives rainwater from a rainwater collecting facility and stores the rainwater,
The rainwater flowing into the rainwater inflow port of the movable rainwater storage tank from the rainwater collecting facility and stored;
Moving the movable rainwater storage tank in which the rainwater is stored to the use place,
The movable rainwater storage tank includes a hollow body, a partition for partitioning the bottom of the body into a plurality of sections, a rainwater inlet provided in any one of the plurality of sections defined by the partition, A siphon for discharging contaminants deposited on the bottom of the settling cup, and a siphon disposed in an area other than the area provided with the rainwater inflow port. A method for moving a rainwater pond including a rainwater outlet.

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