KR102613713B1 - A movable beam system that provides a walkway - Google Patents

Abstract

The present invention relates to a movable beam system that provides a walking path, which has an improved structure so that the water blocking part, the walking path part, the main joint part, and the driven joint part work together by linkage, and the water blocking part moves upward to trap water in the beam. During circular movement, the walking path parts are raised and raised together to provide a walking path, so that a separate bridge structure for crossing the beam can be omitted. ) as its main components.

Description

A movable beam system that provides a walkway}

The present invention relates to a movable beam system that provides a walking path, and more specifically, the structure has been improved so that the water blocking part, the walking path part, the main joint part, and the driven joint part work in conjunction with the linkage, and the water blocking part is used to trap water in the beam. This relates to a movable beam system that provides a walking path that can omit a separate bridge structure for crossing the beam because the walking path parts are lifted together when the parts move in an upward arc to provide a walking path.

In general, a movable beam refers to a type of water barrier fence that regulates the water level of a river. This movable beam is configured to open and close a water gate to control the flow of water in various ways.

In other words, in general, the movable weir closes the floodgates to trap water in a river, stream, or reservoir so that it can be used for various purposes. In the event of a flood, it opens the floodgates to allow the water to flow smoothly, and performs the function of allowing water to flow smoothly downstream. When the water rises, it functions to prevent the water flow from flowing back upstream.

Looking at this conventional movable beam technology, in Registered Patent No. 10-1118731, a sluice gate that opens and closes by rotating around the main shaft at the bottom; a main arm whose one end is coupled to the main shaft so as to rotate integrally with the main shaft; a link unit operating in conjunction with the main arm so that the main arm rotates around the main shaft; and a driving unit that drives the link unit, wherein the link unit operates to move its upper end up and down by driving the driving unit, and the other end of the main arm is slidably coupled to the upper end of the link unit. A technology that rotates around the main shaft as the link unit moves up and down has been previously proposed.

However, the prior art is intended to prevent vibration or bending deformation of the hydraulic cylinder and piston rod that open and close the sluice gate. Since this conventional movable beam only performs the function of blocking water, water is trapped by the movable beam. In order to allow people to pass through rivers or streams, a bridge structure including a separate stone bridge had to be installed.

KR 10-1118731 B1 (2012.02.14.)

Accordingly, the present invention was conceived to solve the above-mentioned problems, and the structure was improved so that the water blocking part, the walkway part, the main joint part, and the driven joint part work together by linkage, so that the water blocking part is used to trap water in the beam. The purpose is to provide a movable beam system that provides a walking path that can omit a separate bridge structure for crossing the beam because the walking path parts are raised and lowered together during the upward arc movement to provide a walking path.

In order to achieve this purpose, the present invention features a water blocking part (10) connected to the bottom of the beam (1) with one end connected to the first link shaft (11) and capable of arcing movement; A walking path part (20) connected to the water blocking part (10) with one end connected to a second link shaft (21) and forming a walking path while moving in an arc in connection with the water blocking part (10); One end of the walking path part 20 is connected to the third link shaft 31, and the other end is connected to the driving part 33 by the fourth link shaft 32, so that it moves straight along the bottom of the beam 1, forming a water barrier part. (10) and a driving joint part (30) that provides the operating force necessary for the arcuate movement of the walking path part (20); And one end is connected to the fifth link shaft (41) at the bottom of the beam (1) corresponding to the area between the water blocking part (10) and the circular joint part (30), and the other end is connected to the third link shaft (31). It is characterized in that it includes a driven joint part 40 that is connected to the driven joint part 30 and is provided to raise and lower the walking path part 20 while rotating around the fourth link axis 41.

At this time, when the fourth link shaft 32 of the driving joint part 30 is moved toward the water blocking part 10 by the driving unit 33, the water blocking part 10 and the driven joint part 40 move in an upward arc. The walking path part 20 is lifted from the bottom of the beam 1 to the top to form a walking path while blocking the beam 1, and the fourth link shaft 32 of the circular cutting part 30 is used as a water blocking part ( 10) When moved to the opposite side, the water blocking part 10 and the follower joint part 40 move in a downward arc while the walking path part 20 is lowered to the bottom of the beam 1 to open the beam 1. do.

In addition, the water blocking part 10 has a drainage passage 12 formed at a predetermined height, and when the water confined in the beam 1 by the water blocking part 10 reaches a predetermined water level, the drainage passage 12 It is characterized in that the water level within the beam (1) is maintained lower than that of the walking path part (20) as the water is drained through the.

In addition, nozzles 60 are installed to correspond to both ends of the walking path part 20 in the width direction, and the nozzles 60 are connected to the pumping means 62 to output a fountain.

In addition, the pumping means 62 is provided to suck water filtered by the filtration module 70, and the filtration module 70 is located in a horizontal line with the drain passage 12 formed in the water blocking part 10. A multi-channel 71 is formed on the circular part 30 to match the multi-channel 71 and is provided to accommodate water between the water blocking part 10 and the circular part 30, and is installed in the drainage channel 12 to remove foreign substances. It is characterized by including a filter mesh 72 for filtering.

In addition, the filter mesh 72 is provided to remove foreign substances filtered by the washing module 74, and the washing module 74 is disposed between the drain passage 12 and the nozzle 60, A support shaft (74a) that supports (72) so that it can move in an arc, a cover (74b) connected to the filter mesh (72) at a predetermined inclination angle around the support shaft (74a1) to open and close the nozzle (60), and , It is installed at one end of the filter mesh 72, and includes inclined wings 74c installed at an inclination to be spaced apart from the water blocking part 10 toward the end, and the water blocking part 10 traps water in the beam 1. When the filter mesh 72 moves upward at an angle, the filter mesh 72 rotates downward around the support axis 74a by its own weight to filter out foreign substances while closing the drain passage 12, and the cover 74b is a filter net. It moves in an arc with the sieve 72 to open the nozzle 60, and when the water blocking part 10 moves in a downward arc, the filter mesh 72 is discharged from the beam 1 by the inclined blade 74c. When friction with water causes the cover 74b to rotate upward around the support shaft 74a, the nozzle 60 is closed while the cover 74b is grounded against the water blocking part 10, and the filter mesh 72 is supported upright. It is characterized in that the water discharged from the beam (1) is provided to remove foreign substances collected while passing through the filter mesh (72).

In addition, handrail modules 50 are installed at both ends of the pedestrian walkway part 20 in the width direction, and the handrail modules 50 are connected to the second and third link axes 21 and 31, respectively, and are folded while moving in an arc. The handrail 51 is connected to the handrail 51 at a predetermined angle around the second and third link axes 21 and 31, and controls the folding operation of the handrail 51 by the drive cylinder 52. It is characterized in that it includes a driving piece (53).

In addition, handrail modules 50 are installed at both ends of the pedestrian walkway part 20 in the width direction, and the handrail modules 50 are connected to the second and third link axes 21 and 31, respectively, and are folded while moving in an arc. A drive piece (53) connected to the handrail (51) and the handrail (51) at a predetermined angle around the second and third link axes (21) and (31) to control the folding operation of the handrail (51), One end is connected to the driving piece 53, and the other end includes a rope 54 fixed to the bottom of the beam, and when the water blocking part 10 moves in an upward arc at an angle to trap water in the beam 1, , As the drive piece 53 is pulled by the rope 54, the handrail 51 rotates upward and operates to unfold, and when the water barrier part 10 moves in a downward arc, the drive piece 53 is pulled by the rope 54. When this pulling force is released, the handrail 51 is provided to pivot downward under its own weight.

According to the above configuration and operation, the present invention has been improved in structure so that the water blocking part, the walking path part, the main joint part, and the driven joint part are operated in conjunction by linkage, and the water blocking part moves in an upward arc to trap water in the beam. Since it is raised and lowered together to provide a pedestrian path, there is an effect of omitting a separate bridge structure for crossing the beam.

1 is an overall configuration diagram of a movable beam system that provides a pedestrian path according to an embodiment of the present invention.
Figure 2 is a configuration diagram showing a drainage channel of a movable beam system providing a pedestrian path according to an embodiment of the present invention.
Figure 3 is a configuration diagram showing the filtration module of a movable beam system that provides a pedestrian path according to an embodiment of the present invention.
Figure 4 is a configuration diagram showing the cleaning module of a movable beam system that provides a pedestrian path according to an embodiment of the present invention.
Figures 5 and 6 are diagrams illustrating the railing module of a movable beam system that provides a pedestrian path according to an embodiment of the present invention.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the attached drawings. Also, in describing the present invention, if it is determined that related known functions may unnecessarily obscure the gist of the present invention as they are obvious to those skilled in the art, the detailed description thereof will be omitted.

Figure 1 is a schematic diagram showing the overall configuration of a movable beam system that provides a pedestrian path according to an embodiment of the present invention, and Figure 2 is a configuration diagram showing a drainage channel of a movable beam system that provides a pedestrian path according to an embodiment of the present invention. , Figure 3 is a configuration diagram showing the filtration module of the movable beam system providing a walking path according to an embodiment of the present invention, and Figure 4 is a cleaning module of the movable beam system providing a walking path according to an embodiment of the present invention. It is a configuration diagram showing, and Figures 5 and 6 are configuration diagrams showing a handrail module of a movable beam system that provides a pedestrian path according to an embodiment of the present invention.

The present invention relates to a movable beam system that provides a walking path, which has an improved structure so that the water blocking part, the walking path part, the main joint part, and the driven joint part work together by linkage, and the water blocking part moves upward to trap water in the beam. During circular movement, the walking path parts are raised and raised together to provide a walking path, so that a separate bridge structure for crossing the beam can be omitted. ) as its main components.

The water blocking part 10 according to the present invention has one end connected to the bottom of the beam 1 with a first link shaft 11 and is capable of arcing movement.

The water blocking part 10 is formed in a plate shape to trap water in the beam 1, and is connected to the first link shaft by the walking path part 20, the driving joint part 30, and the driven joint part 40, which will be described later. It is provided to open and close the beam (1) and control the water level while moving in an arc around (11).

In addition, the walking path part 20 according to the present invention has one end connected to the water blocking part 10 with a second link shaft 21, and moves in an arc in connection with the water blocking part 10 to form a walking path.

The walking path part 20 is formed in the same manner as the water barrier part 10 in the form of a plate or a mesh network, and the water barrier part 10 is linked to an upward swing operation and is raised higher than the water level of the beam 1 to help the user. It is provided to provide a pedestrian path for movement.

In addition, the circular joint part 30 according to the present invention has one end connected to the walking path part 20 by a third link shaft 31, and the other end connected to the driving part 33 by a fourth link shaft 32. It moves in a straight line along the bottom of the beam (1) and provides the operating force necessary for the arcuate movement of the water barrier part (10) and the walking path part (20).

When the fourth link shaft 32 of the circular joint part 30 moves toward the water blocking part 10, the water blocking part 10 moves in an upward arc and at the same time, the walking path part 20 is lifted and transferred, causing water to enter the beam 1. In addition to this confinement, a walking path is formed that can cross the beam (1).

In addition, when the fourth link shaft 32 of the circular joint part 30 moves to the opposite side of the water barrier part 10, the water barrier part 10 moves in a downward arc and at the same time, the walking path part 20 is transported downward to beam (1) It is equipped to open.

In addition, the driven joint part 40 according to the present invention has one end connected to the bottom of the beam 1 corresponding to the area between the water blocking part 10 and the driven joint part 30 with a fifth link shaft 41, The other end is connected to the third link shaft 31, and is connected to the circular joint part 30 to rotate around the fourth link shaft 41 to raise and lower the walking path part 20.

The driven joint part 40 is installed opposite the water blocking part 10, and moves in an arc around the fifth link axis 41 by the operating force of the driven joint part 30 to raise and lower the walking path part 20. It is equipped to do so.

That is, the water barrier part 10 and the driven joint part 40 are arranged side by side, and are respectively linked to both ends of the walking path part 20 by the second and third link axes 21 and 31, and the driven joint part It is provided to open and close the beam (1) by moving in an arc in the upward and downward directions in connection with the operating force of (30).

Looking at the operating state, when the fourth link shaft 32 of the driving part 30 is moved toward the water blocking part 10 by the driving part 33, the water blocking part 10 and the driven part as shown in Figure 1 (a) As the part 40 moves in an upward arc, the walking path part 20 is lifted from the bottom of the beam 1 to the top, blocking the beam 1 to form a walking path.

And, when the fourth link shaft 32 of the driving joint part 30 is moved to the side opposite to the water blocking part 10 by the driving unit, the water blocking part 10 and the driven joint part 40 are separated as shown in FIG. 1 (b). During the downward arc movement, the walking path part 20 is lowered to the bottom of the beam 1 and is provided to open the beam 1.

In Figure 2, the water blocking part 10 has a drainage passage 12 formed at a predetermined height. The drain passage 12 is arranged to be spaced apart in a plurality in the width direction of the water blocking part 10.

When the water trapped in the beam (1) by the water blocking part (10) reaches a predetermined water level, the water is drained through the drainage passage (12) and the water level in the beam (1) is maintained lower than that in the walking path part (20). It is provided as much as possible.

In Figure 3, nozzles 60 are installed to correspond to both ends in the width direction of the walking path part 20, and the nozzles 60 are connected to the pumping means 62 to output a fountain.

Meanwhile, it is also possible to install LED lighting on both ends in the width direction of the walking path part 20 adjacent to the nozzle 60.

Additionally, the pumping means 62 is provided to suck in the water filtered by the filtration module 70.

The filtration module 70 is formed on the circular cut part 30 so as to coincide with the drain passage 12 formed in the water blocking part 10 on a horizontal line, and is located between the water blocking part 10 and the circular cutting part 30. It includes a multi-channel 71 provided to accommodate water, and a filter mesh 72 installed in the drain channel 12 to filter foreign substances.

In this way, since the pumping means 62 is provided to pump water in which foreign substances have been filtered by the filter mesh 72, failures such as clogging of the pumping means 62 by foreign substances are prevented.

In Figure 4, the filter mesh 72 is provided to remove foreign substances filtered by the washing module 74.

The washing module 74 is disposed between the drain passage 12 and the nozzle 60, and includes a support shaft 74a that supports the filter mesh 72 so as to be able to move in an arc, and a support shaft 74a1 as the center. A cover (74b) connected to the filter net (72) at a predetermined inclination angle to open and close the nozzle (60), is installed at one end of the filter net (72), and is installed at an inclination to be spaced apart from the water blocking part (10) toward the end. Includes inclined wings 74c.

In operation, when the water blocking part 10 is moved in an upward arc at an angle to trap water in the beam 1, the filter mesh 72 is centered on the support axis 74a by its own weight, as shown in Figure 4 (a). It rotates downward to filter out foreign substances while closing the drain passage 12, and the cover 74b moves in an arc together with the filter mesh 72 to open the nozzle 60.

And, when the water blocking part 10 moves in a downward arc, the filter mesh 72 is rubbed with the water discharged from the beam 1 by the inclined blades 74c and rotates upward around the support axis 74a, As shown in Figure 4 (b), the nozzle 60 is closed with the cover 74b grounded to the water blocking part 10, and the filter mesh 72 is supported upright, and the water discharged from the beam 1 is blocked. It is provided to remove foreign substances collected while passing through the filter mesh 72.

Meanwhile, the upward and downward arcing movement of the water blocking part 10 is provided to be manually or automatically performed by the control unit, and the filter mesh 72 is automatically cleaned when the water blocking part 10 moves in an upward and downward arc. There is an advantage.

In Figure 5, handrail modules 50 are installed at both ends of the pedestrian path part 20 in the width direction.

The handrail module 50 is centered around the handrail 51, which is connected to the second and third link axes 21 and 31 and folds while moving in an arc, and the second and third link axes 21 and 31. It includes a driving piece 53 that is connected to the handrail 51 at a predetermined angle and controls the folding operation of the handrail 51 by the driving cylinder 52.

Accordingly, safety fences are formed at both ends of the pedestrian path part 20 in the width direction by the handrail 51, which has the advantage of safely protecting pedestrians.

In Figure 6, handrail modules 50 are installed at both ends of the pedestrian path part 20 in the width direction.

The handrail module 50 is centered around the handrail 51, which is connected to the second and third link axes 21 and 31 and folds while moving in an arc, and the second and third link axes 21 and 31. A driving piece 53 is connected to the handrail 51 at a predetermined angle and controls the folding operation of the handrail 51, one end is connected to the driving piece 53, and the other end is fixed to the bottom of the beam. Includes rope 54.

At this time, the handrail 51 is provided to apply a bias load to the inside of the walking path part 20 centered on the second and third link axes 21 and 31, so that when the pulling force from the rope 54 is released, its own weight It is provided to be folded by.

In operation, when the water barrier part 10 moves in an upward arc at an angle to trap water in the beam 1, the drive piece 53 is pulled by the rope 54 and the handrail 51 rotates upward. When the unfolding operation is performed and the water blocking part 10 moves in a downward arc, the pulling force on the driving piece 53 by the rope 54 is released, and the handrail 51 is provided to rotate downward by its own weight.

As described above, the most preferred embodiments of the present invention have been described in the detailed description of the present invention, but various modifications may be made without departing from the technical scope of the present invention. Therefore, the scope of protection of the present invention should not be limited to the above embodiments, but should be recognized to the technologies in the patent claims described later and to equivalent technical means from these technologies.

10: Water barrier part 20: Walking path part
30: Drive joint part 40: Drive joint part
50: Handrail module 60: Nozzle
70: Filtration module

Claims (8)

A water blocking part (10) at the bottom of the beam (1), one end of which is connected to the first link shaft (11) and capable of arcing movement;
A walking path part (20) connected to the water blocking part (10) with one end connected to a second link shaft (21) and forming a walking path while moving in an arc in connection with the water blocking part (10);
One end of the walking path part 20 is connected to the third link shaft 31, and the other end is connected to the driving part 33 by the fourth link shaft 32, so that it moves straight along the bottom of the beam 1, forming a water barrier part. (10) and a driving joint part (30) that provides the operating force necessary for the arcuate movement of the walking path part (20); and
At the bottom of the beam (1) corresponding to the area between the water blocking part (10) and the circular joint part (30), one end is connected to the fifth link shaft (41), and the other end is connected to the third link shaft (31), , a driven joint part 40 that is connected to the driven joint part 30 and is provided to raise and lower the walking path part 20 while rotating around the fourth link axis 41;
Handrail modules 50 are installed at both ends of the pedestrian path part 20 in the width direction,
The handrail module 50 is centered around the handrail 51, which is connected to the second and third link axes 21 and 31 and folds while moving in an arc, and the second and third link axes 21 and 31. A driving piece 53 is connected to the handrail 51 at a predetermined angle and controls the folding operation of the handrail 51, one end is connected to the driving piece 53, and the other end is fixed to the bottom of the beam. Comprising a rope 54,
When the water barrier part 10 moves in an upward arc at an angle to trap water in the beam 1, the drive piece 53 is pulled by the rope 54 and the handrail 51 rotates upward and operates to unfold,
When the water barrier part (10) moves in a downward arc, the pulling force on the driving piece (53) is released by the rope (54), and the handrail (51) is provided to rotate downward by its own weight. A moving information system.
According to clause 1,
When the fourth link shaft 32 of the driving joint part 30 is moved toward the water barrier part 10 by the driving unit 33, the water barrier part 10 and the driven joint part 40 move in an upward arc to form a walking path part. (20) is lifted from the bottom of the beam (1) to the top to form a walking path while blocking the beam (1),
When the fourth link shaft 32 of the driving joint part 30 is moved to the opposite side of the water blocking part 10 by the driving unit, the water blocking part 10 and the driven joint part 40 move in a downward arc while moving the walking path part 20. ) A movable beam system that provides a walking path, characterized in that the beam is lowered to the bottom of the beam (1) to open the beam (1).
According to clause 1,
The water blocking part 10 has a drainage passage 12 formed at a predetermined height,
When the water trapped in the beam (1) by the water blocking part (10) reaches a predetermined water level, the water is drained through the drainage passage (12) and the water level in the beam (1) is maintained lower than that in the walking path part (20). A movable beam system that provides a pedestrian path, characterized in that it is provided as much as possible.
According to clause 3,
A movable beam providing a walking path, characterized in that nozzles 60 are installed to correspond to both ends in the width direction of the walking path part 20, and the nozzles 60 are connected to a pumping means 62 to output a fountain. system.
According to clause 4,
The pumping means 62 is provided to suck in the water filtered by the filtration module 70,
The filtration module 70 is,
A multi-plug is formed on the circular cut part 30 to match the horizontal line with the drain passage 12 formed on the water blocking part 10, and is provided to accommodate water between the water blocking part 10 and the circular cutting part 30. Euro (71) and
A movable beam system that provides a walking path, characterized in that it includes a filter mesh (72) installed in the drainage passage (12) to filter foreign substances.
According to clause 5,
The filter mesh 72 is provided to remove foreign substances filtered by the washing module 74,
The washing module 74 is,
A support shaft (74a) disposed between the drain passage (12) and the nozzle (60) and supporting the filter mesh (72) so as to be able to move in an arc,
A cover (74b) connected to the filter mesh (72) at a predetermined inclination angle around the support axis (74a1) to open and close the nozzle (60),
It is installed at one end of the filter mesh 72, and includes inclined wings 74c installed at an inclination to be spaced apart from the water blocking part 10 toward the end,
When the water blocking part 10 moves in an upward arc at an angle to trap water in the beam 1, the filter mesh 72 rotates downward around the support axis 74a by its own weight, closing the drainage channel 12. Foreign substances are filtered in one state, and the cover (74b) moves in an arc together with the filter mesh (72) to open the nozzle (60),
When the water blocking part 10 moves in a downward arc, the filter mesh 72 rubs with the water discharged from the beam 1 by the inclined blades 74c and rotates upward around the support axis 74a, the cover ( 74b) closes the nozzle 60 while being grounded to the water blocking part 10 and simultaneously supports the filter mesh 72 upright, and the water discharged from the beam 1 passes through the filter mesh 72. A movable beam system that provides a walking path, characterized in that it is equipped to remove collected foreign substances.
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