KR20090093423A - Fabricated rain reservoir - Google Patents

Abstract

A separable rain gutter is provided to eject larger amount of rainwater because the outlet tank is secondarily provided for the soil receiver and the rainwater is temporarily stored then ejected. A separable rain gutter(1) comprises a case(3) which is laid in the underground, wherein a drain pipe(11) protrudes from the one side thereof, a separable oil receiver(7) which is inserted inside the case, wherein the soil is piled up, a cover plate(13) which is mounted on top of the soil receiver, wherein the rainwater flowing on the surface inflows, and a connector(15) which connects the cover plate and soil receiver.

Description

Detachable Rain Gutters {FABRICATED RAIN RESERVOIR}

The present invention relates to a rain gutter, and more particularly, to a rain gutter which can efficiently remove the soil piled up inside the earth gutter by constructing the earth gutter separately.

In general, rain gutters are installed in adjacent areas, such as roads, to discharge rainwater or sewage into the interior.

When rainwater or sewage, such as rainwater flows into the interior of the rain gutters, the soil and garbage are introduced together. Then, the introduced soil or garbage is accumulated in the rain gutter over time.

As such, the rainwater gutters fail to function due to the accumulated soil or rubbish, and thus the connection pipe connecting the rain gutters is blocked.

As a result, rainwater or sewage is not discharged into the rain gutters, but it is a cause of car accidents due to the rain.

In addition, the earth and sand accumulated in the rain gutter is solidified as a certain time passes, so it must be removed periodically, and it is not easy to clean the solidified soil, and moreover, the rain gutters installed on the road numerous times Cleaning is a difficult issue.

In addition, when the connection path between the rain gutters is blocked, it is very difficult to find exactly the blocked section. In this case, the entire construction between the rain gutters and the rain gutters is reconstructed. There is a problem that inconveniences pedestrians who pass through the place.

Accordingly, the present invention has been made to solve the conventional problems as described above, the object of the present invention is to provide a rain gutter that can easily remove the soil deposited in the interior by configuring the sediment receiver separately. have.

Another object of the present invention is to provide a rain gutter that can discharge a larger amount of rain water by providing a discharge tank to the soil receiving tray auxiliary storage temporarily discharged after discharge.

Therefore, the present invention is a preferred embodiment of the present invention is buried underground to solve the conventional problems as described above, one side of the case is formed with a drain pipe protruding; A separable soil collecting container inserted into the case and having a first housing and a second housing removably coupled to the first housing so that earth and sand are deposited; A cover plate provided on an upper portion of the soil collecting tray and into which water flows; And it provides a rain gutter including a connecting means for connecting the cover plate and the earth and sand receiver.

Rain gutter according to the present invention has the advantage that can easily remove the soil piled up inside by configuring the earth receiving bowl in a separable manner.

In addition, there is an advantage that by providing a discharge tank to the soil receiving tank to temporarily store the rainwater introduced and then discharged again to discharge a larger amount of rainwater to the outside.

1 is an exploded perspective view showing the structure of a rain gutter according to a preferred embodiment of the present invention.

2 is a side cross-sectional view showing the structure of the rain gutter shown in FIG.

3 is an exploded perspective view showing the structure of the soil collecting receiver shown in FIG.

4 is a plan view of the soil collecting receiver shown in FIG.

FIG. 5 is a side view of the dust collecting tray shown in FIG.

Hereinafter, the structure of the rain gutter according to the preferred embodiment of the present invention by the accompanying drawings will be described in detail.

As shown in Figures 1 to 3, the rain gutter 1 proposed by the present invention is a case 3 embedded in the basement, the earth is inserted into the case 3, the soil is deposited, separable soil And a cover plate 13 provided at an upper portion of the receiving plate 7 and allowing the fluid to flow therein, and connecting means 15 connecting the cover plate 13 and the soil collecting plate 7 to each other. do.

In the rain gutter having such a structure, the case 3 has a hexahedral shape, and the soil collecting member 7 may be inserted by forming a space therein. In addition, a drain pipe 11 protrudes from one side surface of the case 3.

At this time, the drain pipe 11 is formed at a height similar to that of the discharge tank 19 formed in the soil receiving (7).

Therefore, the flowing water flowing into the sediment receiver 7 fills the sediment receiver 7 and is discharged to the sewerage through the drain pipe 11 when the water level is reached.

The earth collecting member 7 has a detachable structure, the upper part of which is open, and the side and bottom parts of which are enclosed.

Therefore, the rainwater injected through the cover plate 13 flows into the sedimentary receiver 7, and the soil and the foreign matter contained in this rainwater are settled and accumulate | stored in the inside of the sedimentary receiver 7 by it.

3 to 5, the dust collecting member 7 is detachably coupled to the first housing 17 and the first housing 17 to form the dust collecting member 7, and the discharge tank ( 19 includes a second enclosure 18 formed therein.

The first enclosure 17 may have a semi-hexahedral shape, thereby allowing soil to be accumulated therein. Inner sliding grooves 35a and 35b are formed in both side surfaces of the first housing 17, respectively. In addition, a first sliding groove 43 is formed at the bottom edge of the first enclosure 17.

In addition, outer sliding grooves 37a and 37b are formed at both outer sides of the second enclosure 18 corresponding to the first enclosure 17, respectively. In addition, a second sliding groove 45 is formed at the bottom edge of the second enclosure 18.

In the first and second enclosures, the inner sliding grooves 35a and 35b of the first enclosure 17 correspond to the outer sliding grooves 37a and 37b of the second enclosure 18 and the first sliding groove. 43 corresponds to the second sliding groove 45.

Accordingly, when the first housing 17 and the second housing 18 are coupled to each other, the outer sliding grooves 37a and 37b are coupled to the inner sliding grooves 35a and 35b and the second sliding groove 45 is provided. The first and second enclosures 17 and 18 may be integrally coupled to each other by being coupled to the first sliding groove 43.

If necessary, the first and second enclosures 17 and 18 may be separated from each other to remove soil accumulated therein.

On the other hand, the discharge vessel 19 is provided on one side of the second housing 18 to allow the introduced rainwater to be discharged smoothly and to minimize the outflow of soil.

That is, the discharge tank 19 is provided on the opposite side of the inner wall 27 and the inner wall 27 to bend the inner side of the second housing 18 to form a storage space, the front of the discharge tank 19 It consists of an outer wall (29) for sealing.

The discharge tank 19 has a shape surrounded by the inner wall 27 and the outer wall 29 to form a predetermined space therein, the upper portion 31 is in an open state.

Therefore, when the rainwater introduced into the soil collecting member 7 reaches a predetermined level, the rainwater overflows, and the overflowed rainwater is stored in the discharge tank 19 again.

Then, the rain water stored in the discharge tank 19 can be discharged to the outside through the drain pipe 11 by overflowing when reaching a predetermined level.

Therefore, when the discharge vessel 19 is provided so that the soil receiving plate 7 is inserted into the case 9, the space between the soil collecting plate 7 and the discharge pipe 11 of the case 9 is more secured. More rainwater can be discharged.

Meanwhile, through holes 25 are formed in the bottoms of the first and second enclosures 17 and 18. When the through-hole 25 removes the soil and foreign matter accumulated on the upper portion of the separation plate 23 to be described later, the tool is inserted through the through-hole 25 to impact the separation plate 23 by separating. The plate 23 is removed from the dust collector 7.

The through hole 25 may have various shapes such as a circle, a rectangle, and a pentagon, but preferably includes a long hole.

Therefore, since the through hole 25 is a long hole shape, when the first enclosure 17 and the second enclosure 18 are coupled to each other, the through holes 25 are also coupled to each other, thereby leaving a circular hole.

In addition, the separation plate 23 has soil and foreign matter deposited thereon, and after a certain period of time, the separation plate 23 is separated from the soil collecting plate 7 to remove the soil and foreign matter from the soil collecting plate 7. Can be.

The separating plate 23 preferably includes a square plate, and the plate can be separated from the soil collecting plate 7 as necessary by being provided inside the soil collecting plate 7.

Meanwhile, since the cover plate 13 is seated on the upper part of the case 3, rainwater or sewage flowing on the surface of the cover plate 13 may be introduced into the sedimentary receiver 7 through the cover plate 13.

The cover plate 13 typically comprises a check plate of well-known construction. That is, the cover plate 13 may be formed by a plurality of mesh (Mesh) can be introduced into the bottom through the cover plate 13 sewage and rain water.

In addition, the connection means 15 integrally connects the cover plate 13 and the soil collecting member 7.

The connecting means 15 preferably comprises a chain-type wire or frame. In the case of using a chain-type wire as the connecting means 15, the wire can be folded or unfolded flexibly so that the distance between the cover plate 13 and the dust collector 7 can be freely adjusted.

Therefore, when the rain gutter 1 is buried underground, the rain gutter can be installed without being affected by the depth of embedding.

The connecting means 15 is preferably provided with four, thereby integrally connecting each corner of the cover plate 13 and each corner of the earth receiving plate 7.

Hereinafter, with reference to the accompanying drawings, it will be described in more detail the process of removing the soil and foreign matter by the removable rain gutter according to a preferred embodiment of the present invention.

As shown in Figs. 1 to 5, first, the case 3 is buried underground or placed inside the pre-installed manhole. At this time, the drain pipe 11 of the case (3) is positioned so as to communicate with the sewer or drainage.

Then, the soil collector 7 is combined and placed in the rain gutter 1. That is, the outer sliding grooves 37a and 37b of the second enclosure 18 are coupled to the inner sliding grooves 35a and 35b of the first enclosure 17. In this case, the second sliding groove 45 may also be coupled to the first sliding groove 43. Then, the connecting means 15 of the rain gutter 1 is connected to the soil gutter 7 at four corners.

In this way, after the first and second enclosures 17 and 18 are coupled to each other to form the dust collector 7, the soil collector 7 is placed inside the rain gutter 1.

That is, the earth receiving receiver 7 is integrally connected to the cover plate 13 by the connecting means 15, so when the cover plate 13 is installed on the upper part of the case 3, the earth receiving receiver 7 naturally. May be located inside the case 3.

Therefore, flowing water such as rainwater or sewage flowing through the cover plate 13 from the ground drops and is stored in the sediment receiver 7.

Then, when the rainwater introduced into the sediment receiver 7 reaches a certain level, the rainwater overflows, and the overflowed rainwater is stored in the discharge tank 19 again.

Rainwater stored in the discharge tank 19 may be discharged to the outside through the drain pipe 11 by overflowing when the water reaches a predetermined level.

At this time, the soil and foreign matter contained in the rain water or sewage is deposited on the separation plate 23 of the soil receiving plate 7 by being precipitated.

In addition, when the rain gutter 1 is cleaned after a certain period of time, the cover plate 13 is taken out of the case 3, and the tool is inserted and separated through the through hole 25 of the soil gutter 7. By applying an impact to the bottom of the plate 23, the separating plate 23 is separated from the pile. Therefore, the earth and sand deposited on the separating plate 23 can be removed.

Claims (3)

It is buried underground, the case in which the drain pipe is formed protruding; A separable sewage tray inserted into the case and having a first housing and a second housing detachably coupled to the first housing to form an earthenware receiver; A cover plate provided on an upper portion of the soil collecting tray and into which water flows; And Rain gutters comprising a connecting means for connecting the cover plate and the earth and sand receiver. According to claim 1, wherein the inner sliding grooves are formed in each of the inner sides of the first housing, the first sliding grooves are formed in the bottom edge, the outer sliding is inserted into the inner sliding grooves on both sides of the second enclosure. Each groove is formed, and the rain gutter is characterized in that the bottom edge is formed with a second sliding groove inserted into the first sliding groove. According to claim 1, wherein the discharge tank is provided on one side of the second housing, the discharge tank is provided with an inner wall which is bent to the inside of the second housing to form a storage space, the opposite side of the inner wall of the discharge tank A rain gutter made of an outer wall that seals the front.