KR102219972B1 - Seawall using waves offset block and sand loss prevention device - Google Patents

Abstract

The present invention relates to a seawall using a coastal sofa block and a sand loss prevention apparatus. More specifically, the seawall includes: a foundation riprap part having a slope, and installed above the surface of the sea; a foundation riprap base protruding from the bottom of the foundation riprap part to be installed in the bottom of the sea; foundation concrete installed on an upper side of the foundation riprap base; a plurality of sofa blocks stacked on an upper side of the foundation concrete, while being stacked along the slope of the foundation riprap part; and an upper base provided in an upper part of the foundation riprap part to cover the upper part of the stacked sofa blocks. According to the present invention, the seawall can offset waves stage by stage by colliding with the waves stage by stage, thereby preventing damage to a coast by preventing the overflow of the waves.

Description

Seawall using waves offset block and sand loss prevention device}

The present invention relates to a breakwater, and more particularly, a first collision of an incoming wave at a first sofa part to cancel the wave first, and a second collision by a second sofa part and an elastic holding part to make the wave second It offsets, and it relates to a breakwater using a coastal sofa block and a sand loss prevention device capable of preventing damage to the shore due to overflowing waves by inducing and discharging the waves in different directions by the wave guiding unit.

In general, berthing facilities and break-breaking sofa blocks are installed in ports to weaken the energy of the waves to keep them calm, thereby protecting the coast and structures.

The conventional sofa structure, as disclosed in Utility Model Registration No. 20-0303560, covers the inclined surface of a breakwater or revetment to prevent loss or collapse of the breakwater or revetment to maintain a beautiful appearance.

Such a conventional sofa structure changes direction by introducing an incoming wave into a plurality of seawater holes, thereby reducing the wave to prevent and minimize breakage or crossing the shoreline.

However, such a conventional sofa structure is effective for waves below a certain level, but has a problem in that it cannot reduce the waves of high waves caused by typhoons or the like.

Of course, it can be prevented by increasing the height of the sofa structure, but in this case, the revetment is too high, so there is a problem that economical and convenience are not guaranteed, such as safety accidents as well as docking of ships.

Accordingly, there is an urgent need to develop a technology capable of effectively canceling the waves of the waves and preventing the waves from overflowing.

Accordingly, the present invention has been devised to solve the above problems, and has an inclined surface and is installed higher than sea level, a foundation stone base protruding from the lower end of the foundation stone part to be installed on the seawater floor, and the foundation The foundation concrete installed on the upper side of the rubble base, the sofa blocks stacked on the upper side of the foundation concrete, and a plurality of sofa blocks stacked along the inclined surface of the foundation stone part, and the upper end of the foundation stone part to cover the upper end of the laminated sofa block The purpose is to provide a breakwater using a sofa block for shore that can prevent damage to the shore by preventing the waves from overflowing by colliding with the waves step by step, including the provided upper base, and offsetting the waves step by step. to be.

The present invention for achieving the above object is, a foundation stone part having a slope and being installed higher than sea level, a foundation stone base that is installed on the seawater floor, and protrudes from the lower end of the foundation stone part, and is installed on the upper side of the foundation stone base. Basic concrete, a sofa block stacked on the upper side of the foundation concrete, a plurality of sofa blocks stacked along an inclined surface of the foundation stone unit, and an upper base provided at an upper end of the foundation stone unit to cover an upper end of the stacked sofa block. do.

Preferably, the sofa block is a base body, a support provided at the front central portion of the base body and protruding forward, and a first sofa provided at a protruding end of the support to first reduce waves by contacting waves Part, a second sofa part movable along the support part, for secondly reducing the wave first reduced by the first sofa part, an elastic holding part having elasticity, and for maintaining the position of the second sofa part , A wave guiding part for inducing a second-order reduced wave through the second sofa part, and a fixing part provided to the rear side of the base body and fixed to the foundation stone part.

And the base body is formed in a hexahedral shape, the support portion is formed with a cross-sectional area elongated in the vertical direction to form a thin left and right width, a support formed protruding long to the front side in the central portion of the base body, and a cross-sectional area in the lateral direction It is formed to be long, the upper and lower widths are formed to be thin, and includes a support end integrally provided at the end of the support.

In addition, the first sofa is provided at an upper end of the support end, a first upper sofa having a first upper inclined surface formed on a lower side edge, and a lower end of the support end, and a first lower inclined at the upper side edge It includes a first lower sofa with a name.

In addition, the second sofa part, the installation hole is formed in the central portion so that the support is penetrated, the second sofa body for colliding with the first reduced wave and secondly reducing the second sofa body, based on the installation hole, the second sofa body A plurality of second one-side sofa wings that are provided on one side of the side to pass through the second reduced wave in one direction, and the installation hole, are provided on the other side of the second sofa body to provide a second reduced wave. It includes a plurality of second side sofa wings, which pass in the other direction.

And the elastic holding portion, having elasticity, the first elastic body provided between the base body and the second sofa body, a first elastic installation hole through the inside of the first elastic body in the front-rear direction, the first elastic installation hole The second elastic installation hole penetrated into the base body of the shopping mall, one end is fixed to the base body, and penetrates the first elastic installation hole and the second elastic installation hole positioned in a straight line so that the other end is after the base body. An elastic holding wire protruding to the side, an elastic stopper provided at the other end of the elastic holding wire, and having elasticity, provided at the other end of the elastic holding wire so as to be positioned between the elastic stopper and the base body, the tension of the elastic holding wire It includes a second elastic body elastically supporting the second sofa body together with the first elastic body by maintaining the first elastic body.

In addition, the first elastic body is provided between the respective corners of the base body and the second sofa body, and a space portion is formed between the adjacent first elastic bodies to move waves.

And the elastic modulus of the first elastic body is formed larger than the elastic modulus of the second elastic body, and after wave buffering, the second sofa body moved to the rear side is positioned to the front side, and the elastic force moved to the front side is adjusted. 2 It relieves the shock transmitted to the sofa body.

In addition, the wave induction part, a wave inlet formed on one front side and the other side of the base body, respectively, communicated with the wave inlet, and a horizontal wave induction route formed in a horizontal direction inside the base body, and each wave inlet It includes a vertical wave taxiway formed in the vertical direction at the part connected to the wave level taxiway.

And the fixing part has a filling space part open upwards therein, a fixed body provided on the rear side of the base body, a fixed connection part connecting the fixed body with the base body, and filling the filling space part of the fixed body It includes a weight portion, which increases the fixing force with the coastal slope.

As described above, according to the breakwater using the sofa block for the coast according to the present invention, it is very useful to prevent damage to the shore over the wave by colliding with the wave step by step and canceling the wave step by step. It is an effective invention.

1 is a view showing a breakwater using a sofa block for the coast according to the present invention,
2 is a view showing the front of a breakwater using a sofa block for the coast according to the present invention,
3 is a view showing a sofa block according to the present invention,
4 is a view showing a support and a first sofa according to the present invention,
5 is a view showing a second sofa part and an elastic holding part according to the present invention,
6 is a view showing a wave guiding unit according to the present invention,
7 is a view showing a sand loss prevention device according to the present invention,
8 is a view showing the loss prevention rotation unit according to the present invention,
9 is a view showing a state further provided with a second loss prevention unit according to the present invention,
10 is a view showing a state in which the loss prevention and supply unit according to the present invention are further provided.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings. DETAILED DESCRIPTION OF THE INVENTION The detailed description to be disclosed hereinafter together with the accompanying drawings is intended to describe exemplary embodiments of the present invention, and is not intended to represent the only embodiments in which the present invention may be practiced. The following detailed description includes specific details to provide a thorough understanding of the present invention. However, those of ordinary skill in the art to which the present invention pertains knows that the present invention may be practiced without these specific details.

In some cases, in order to avoid obscuring the concept of the present invention, well-known structures and devices may be omitted, or may be shown in a block diagram form centering on core functions of each structure and device.

Throughout the specification, when a part is said to "comprising or including" a certain component, it means that other components may be further included rather than excluding other components unless specifically stated to the contrary. do. In addition, the term "... unit" described in the specification means a unit that processes at least one function or operation. In addition, "a or an", "one", "the" and similar related words are different from this specification in the context of describing the present invention (especially in the context of the following claims). Unless otherwise indicated or clearly contradicted by context, it may be used in a sense encompassing both the singular and the plural.

In describing the embodiments of the present invention, if it is determined that a detailed description of a known function or configuration may unnecessarily obscure the subject matter of the present invention, a detailed description thereof will be omitted. In addition, terms to be described later are terms defined in consideration of functions in an embodiment of the present invention, which may vary according to the intention or custom of users or operators. Therefore, the definition should be made based on the contents throughout this specification.

Hereinafter, preferred embodiments of the present invention will be described with reference to the accompanying drawings.

1 is a view showing a breakwater using a coastal sofa block according to the present invention, Figure 2 is a view showing the front of the breakwater using a coastal sofa block according to the present invention, Figure 3 is a sofa according to the present invention It is a block diagram, FIG. 4 is a view showing a support part and a first sofa according to the present invention, FIG. 5 is a view showing a second sofa and an elastic holding part according to the present invention, and FIG. 6 is the present invention. Figure 7 is a view showing a sand loss prevention device according to the present invention, Figure 8 is a view showing the loss prevention rotation unit according to the present invention, Figure 9 is It is a view showing a state in which the second loss prevention part is further provided, and FIG. 10 is a view showing a state in which the loss prevention and supply part is further provided according to the present invention.

As shown in the drawing, the breakwater (1) using a sofa block for the coast includes a foundation stone part 20, a foundation stone base 30, a foundation concrete 40, a sofa block 10 and an upper base 50. Include.

The foundation stone part 20 has an inclined surface 22 and is installed higher than the sea level.

And the foundation stone base 30 is formed protruding from the lower end of the foundation stone portion to be installed on the seawater floor.

The foundation concrete 40 is installed on the upper side of the foundation stone base 30.

In addition, the sofa block 10 is stacked on the upper side of the foundation concrete 40, and a plurality of the sofa blocks 10 are stacked along the inclined surface 22 of the foundation stone part 20.

The upper base 50 is provided at the upper end of the foundation stone part 20 to cover the upper end of the stacked sofa blocks 10.

The breakwater 1 using such a coastal sofa block collides and guides the incoming waves with the plurality of sofa blocks 10 step by step to reduce the wave step by step, thereby preventing the waves from overflowing.

Here, a plurality of sofa blocks 10 are stacked and installed in a plurality along the inclined surface 22 of the foundation stone part 20, stacked in a vertical direction or stacked in a diagonal direction as shown in FIG. 2.

The sofa block 10 for this is a base body 100 and a support part 200, a first sofa part 300, a second sofa part 400, an elastic holding part 500, as shown in FIG. It includes a wave induction part 600 and a fixing part 700.

The base body 100 is provided in a hexahedron.

And the support part 200 is provided in the front central portion of the base body 100 is formed to protrude to the front.

The first sofa part 300 is provided at the protruding end of the support part 200 and is provided to first reduce the wave by contacting the wave.

In addition, the second sofa part 400 is movable along the support part 200 and is provided in order to secondly reduce the wave that is firstly reduced by the first sofa part 300.

The elastic retaining part 500 has elasticity and is provided to maintain the position of the second sofa part 400.

In addition, the wave induction part 600 is provided to induce a second-order reduced wave through the second sofa part 400.

The fixing part 700 is provided to the rear side of the base body 100 and is provided to be fixed to the foundation stone part.

Such a coastal sofa block 10 can prevent and minimize damage to the coast by gradually reducing the wave of the wave.

For this, the support 200 includes a support 210 and a support end 220 as shown in FIG. 4.

The support 210 is formed with a long cross-sectional area in the vertical direction so that the left and right widths are thin, and is formed to protrude long to the front side in the central portion of the base body 100.

In addition, the support end 220 is formed with a long cross-sectional area in the left and right direction so that the vertical width is thin, and is integrally provided at the end of the support 210.

In other words, the cross-sectional area of the support 210 is formed long in the vertical direction, and the cross-sectional area of the support end 220 is formed long in the horizontal direction.

Further, the first sofa part 300 includes a first upper sofa part 310 and a first lower sofa part 320.

The first upper sofa 310 is provided at an upper end of the support end 220, and a first upper inclined surface 312 is formed at an edge of the lower side.

In addition, the first lower sofa 320 is provided at a lower end of the support end 220, and a first lower inclined surface 322 is formed at an edge of the upper side.

These first upper and lower sofas 310 and 320 first collide with the incoming waves and guide them to the first upper slope 312 and the first lower slope 322, thereby generating 1 wave. The car reduces.

In addition, as shown in FIG. 5, the second sofa part 400 includes a second sofa body 410, a second sofa wing 420, and a second sofa wing 430.

The second sofa body 410 has an installation hole 412 formed in the central portion so that the support 210 penetrates, and is provided to collide with the first reduced wave to reduce the second wave.

In addition, the second one-side sofa blade 420 is provided in plural, based on the installation hole 412, on one side of the second sofa body 410 to pass the second reduced wave in one direction.

A plurality of second other side sofa wings 430 are provided on the other side of the second sofa body 410 based on the installation hole 412 to pass the second reduced wave in the other direction.

Here, as the second one side sofa wing 420 and the second side sofa wing 430 obliquely pass the passing wave in the direction of the support 210, some collide with the second sofa body 410, and some The second wave is reduced by passing through the second one side sofa wing 420 and the second side sofa wing 430.

In addition, the elastic holding part 500 includes a first elastic body 510 and a first elastic installation hole 520, a second elastic installation hole 530, an elastic holding wire 540, an elastic stopper 550, and a second elastic body ( 560).

The first elastic body 510 has elasticity and is provided between the base body 100 and the second sofa body 410.

In addition, the first elastic installation hole 520 is through the inside of the first elastic body 510 in the front-rear direction.

The second elastic installation hole 530 is through the base body 100 so as to correspond to the first elastic installation hole 520.

And the elastic holding wire 540 has one end fixed to the base body 100, penetrates through the first elastic installation hole 520 and the second elastic installation hole 530 positioned in a straight line, and the other end of the base body ( 100) is formed protruding to the rear side.

The elastic stopper 550 is provided at the other end of the elastic holding wire 540.

In addition, the second elastic body 560 has elasticity, and is provided at the other end of the elastic holding wire 540 so as to be positioned between the elastic stopper 550 and the base body 100 to maintain the tension of the elastic holding wire 540. .

Accordingly, the second sofa body 410 is elastically supported together with the first elastic body 510.

Here, the first elastic body 510 is provided between each corner of the base body 100 and the second sofa body 410, and a space portion is formed between the first elastic bodies 510 adjacent to each other so that waves move. .

In addition, the elastic modulus of the first elastic body 510 is greater than that of the second elastic body 560.

Accordingly, after the wave secondary buffering, the second sofa body 410 moved to the rear is positioned to the front side, and the elastic force of the first elastic body 510 moved to the front side is adjusted by the second elastic body 560 It prevents damage by mitigating the impact transmitted to the second sofa body 410 which is located in its original position.

In addition, the wave induction unit 600 includes a wave inlet 610, a horizontal wave induction road 620, and a vertical wave induction road 630, as shown in FIG. 6.

The wave inlet 610 is formed on one side of the front side and the other side of the base body 100, respectively, and is provided with at least one on each side of the support 210.

In addition, the horizontal wave taxiway 620 communicates with the wave inlet 610 and is formed in the horizontal direction inside the base body 100.

The vertical wave induction road 630 is formed in a vertical direction at a portion where each wave inlet 610 and the horizontal wave induction road 620 are connected, and is formed inside one side and the other side of the base body 100, respectively. .

As the waves introduced into each wave inlet 610 are distributed and moved to the horizontal wave taxiway 620 and the vertical wave taxiway 630, the introduced waves are induced.

In addition, the fixed part 700 includes a fixed body 710, a fixed connection part 720, and a weight part 730.

The fixed body 710 has a filling space portion 712 opened upwardly therein, and is provided on the rear side of the base body 100.

And the fixed connection part 720 is provided to connect the fixed body 710 to the base body 100.

The fixed connection part 720 has a cross-sectional area that is elongated in the vertical direction and is provided to connect the base body 100 and the intermediate part of the fixed body 710.

The lower side of the fixed connection part 720 is formed at the same height as the lower side of the base body 100 and the fixed body 710, and the upper side is lower than the upper side of the base body 100 and the fixed body 710 Is formed.

The weight portion 730 is filled in the filling space portion 712 of the fixed body 710 to increase the fixing force with the coastal slope.

Here, the weight part 730 is preferably filled with a plurality of quarrying, and when rainwater or groundwater flows in, it is passed downward and drained, and it is natural that a drain hole 714 for this is formed in the fixed body 710 .

In addition, the coastal sofa block 10 further includes a coupling protrusion 120.

The coupling protrusion 120 is formed to protrude from the rear end of the lower side of the base body 100, as shown in Figs. 1 to 3 and 6, and the base body 100 of another sofa block located at the lower side It is inserted between the and the fixed body 710.

In addition, the first sofa part 300 of the stacked sofa block 10 is installed so that the other adjacent first sofa part and the edge part are adjacent to each other.

This may maintain the positions of the first sofa units 300 by the invading waves, thereby maintaining a wave reduction effect.

Accordingly, it is preferable that the corner portions of each of the first sofas 300 are formed with contact surfaces 314 and 324 that can be in contact with each other, and a contact protrusion and a contact groove are further formed so that a more stable position can be maintained.

In other words, a contact groove 316 is formed in each contact surface 314 of the first upper sofa 310, and a contact protrusion 326 is formed in each contact surface 324 of the first lower sofa part 320. We can maintain mutual position.

Of course, it is natural that the contact protrusion and the contact groove may be formed in the opposite way.

Such, the installation method of the breakwater (1) using the coastal sofa block is the sea shielding step (S10) and the seawater draining step (S20), the foundation stone part installation step (S30), the foundation concrete installation step (S40), the sofa block An installation step (S50), an upper base installation step (S60), a seawater filling step (S70), and a shield removing step (S80) are included.

In the sea shielding step (S10), the sea on the front side of the revetment 3 on which the breakwater is to be installed is shielded using a shielding material.

And the seawater draining step (S20) drains the seawater trapped by the shield.

In the foundation stone installation step (S30), a foundation stone part 20 is installed on the sea floor from which seawater is drained, and the foundation stone part 20 has a slope 22 and is installed higher than the sea level.

In addition, in the foundation concrete installation step (S40), the foundation concrete 40 is installed on the installed foundation stone part 20.

In the sofa block installation step (S50), the sofa block 10 is installed above the installed foundation concrete 40, but a plurality of sofa blocks are stacked along the slope of the foundation stone part 20.

In addition, in the upper base installation step S60, the upper base 50 is installed on the upper end of the foundation stone part 20 to cover the upper ends of the stacked plurality of sofa blocks 10.

In the seawater filling step (S70), seawater is refilled in the space partitioned by the shield.

In addition, in the shield removal step (S80), the installation of the breakwater 1 is completed by removing the shielding material from the sea.

Here, it further includes a foundation stone base installation step (S35) between the foundation stone part installation step (S30) and the foundation concrete installation step (S40).

In this foundation stone base installation step (S35), the foundation stone base 30 is protruded at the lower end of the foundation stone part 20 to be installed on the sea floor.

Of course, the lower end of the foundation stone part 20 is also installed on the sea floor, and the foundation stone base 30 is formed to protrude toward the front side of the foundation stone part 20.

Accordingly, in the foundation concrete installation step (S40), the foundation concrete 40 is installed on the upper side of the foundation stone base 30.

And the breakwater 1 using the sofa block for the coast further includes a sand loss prevention device 1000 as shown in FIG. 7.

The sand loss prevention device 1000 is installed around the breakwater 1 using a sofa block for the coast, and is installed on one or more of the front, rear, and left and right sides.

The sand loss prevention device 1000 includes a loss prevention body 1010, a loss prevention rotation part 1020, a loss prevention inlet part 1030, a loss prevention discharge part 1040, and a backflow prevention door 1050.

The loss-preventing body 1010 has a rotating space portion 1012 therein, and is provided on the bottom of the coast, and may be provided on the bottom of seawater.

And the loss prevention rotation unit 1020 has a plurality of rotating blades 1024 that are rotated concentrically, is rotatably provided in the rotation space portion 1012 of the loss prevention body 1010 is rotated by the in and out of sea water.

The loss prevention inflow part 1030 is provided at the front lower end of the loss prevention body 1010 so that seawater and sand pushed to the shore flow into the rotating space part 1012.

In addition, the loss prevention discharge unit 1040 is provided at the rear lower end of the loss prevention body 1010 so as to discharge seawater and sand that has been introduced into the loss prevention inlet unit 1030 and rotated the loss prevention rotation unit 1020 in the coastal direction.

The backflow prevention door 1050 has a certain weight and is rotatably provided on the loss prevention body 1010 to open and close the loss prevention discharge unit 1040, and is opened and discharged by the pressure of the seawater and sand discharged.

When the discharge pressure is lower than the weight of the backflow prevention door 1050, the loss prevention discharge part 1040 is closed to prevent backflow of seawater and sand.

According to such a sand loss prevention device 1000, seawater and sand flowing to the shore are introduced into the loss prevention inlet 1030 to rotate the loss prevention rotating part 1020 and at the same time open the backflow prevention door 1050 to the shore. The seawater that is discharged and swept away is moved to the upper side of the loss prevention body 1010, but the sand is prevented from moving by the closed backflow prevention door 1050 and accumulates on the shore.

Accordingly, it is possible to prevent the sand on the shore from being lost.

For this purpose, the loss prevention rotation unit 1020 includes a loss prevention rotation shaft 1022 and a rotation blade 1024, as shown in FIG. 8.

The loss prevention rotation shaft 1022 is rotatably provided in the rotation space portion 1012.

In addition, a plurality of rotation blades 1024 are provided at regular intervals along the circumferential surface of the loss prevention rotation shaft 1022.

Here, each of the rotating blades 1024 is formed to be convex toward the rear as it goes outward based on the loss-preventing rotation shaft 1022.

In other words, the facing surface is formed concave so as to receive rotational force by the pushed seawater, and is formed convex to the rear side.

Accordingly, it is easily rotated by receiving rotational force by the pushed seawater, so that seawater and sand can be supplied to the loss prevention discharge unit 1040 and discharged to the shore.

And the loss prevention rotation unit 1020 further includes an elastic guide (1026).

The elastic guide 1026 has elasticity, and is provided at the end of each rotary blade 1024 and rotates together, thereby scraping the inner surface of the rotating space portion 1012.

Here, the elastic guide 1026 is bent and rotated in a direction opposite to rotation when scraping the inner surface of the rotating space part 1012, and seawater and sand It is moved to the loss prevention discharge unit (1040).

Of course, seawater and sand are moved to the loss prevention discharge unit 1040 by the centrifugal force of the loss prevention rotation unit 1020, but can be moved more easily by the momentary elastic force of the elastic guide 1026, so that the rotating space unit ( 1012) can minimize the remaining sand.

And, as shown in FIG. 9, the sand loss prevention apparatus 1000 further includes a second loss prevention unit 1060.

The second loss prevention part 1060 allows some of the washed off seawater to move through the rotation space part 1012 to rotate the loss prevention rotation part 1020, thereby removing the sand remaining in the rotation space part 1012. It is induced to discharge to the loss prevention discharge unit 1040.

The second loss prevention part 1060 includes a second loss prevention inlet 1062, a second loss prevention discharge part 1064, and a second backflow prevention door 1066.

The second loss prevention inlet 1062 is provided at the rear end of the loss prevention body 1010 so that a part of the washed off seawater flows into the upper end of the rotational space 1012 after passing through the loss prevention discharge 1040.

And the second loss prevention discharge unit 1064 is a loss prevention body 1010 so as to discharge seawater by rotating the loss prevention rotation unit 1020 through the second loss prevention inlet 1060 to the front side of the loss prevention body 1010. ) Is provided at the top of the front.

The second backflow prevention door 1066 has a certain weight and is rotatably provided on the loss prevention body 1010 to open and close the second loss prevention discharge part 1064.

The second backflow prevention door 1066 is opened and discharged by the pressure of the seawater discharged, and when the discharge pressure is lower than the weight of the second backflow prevention door 1066, the second loss prevention discharge part 1064 is closed. To prevent seawater from entering

Looking at the operating state of the second loss prevention unit 1060, some of the washed off seawater flows into the second loss prevention inlet 1062 to rotate the loss prevention rotation unit 1020 and at the same time, the second reverse flow prevention door ( 1066) is opened and discharged.

In other words, as the loss prevention rotation unit 1020 is rotated by the seawater swept away through the second loss prevention unit 1060, the sand remaining in the rotation space unit 1012 is rotated to the lower end of the rotation space unit 1012. The sand that prevents the rotation of the loss prevention rotating part 1020 is removed by preventing it from accumulating in the.

Accordingly, the loss prevention rotation unit 1020 may be maintained in a rotatable state by the pushed seawater.

In addition, the sand loss prevention apparatus 1000 further includes a loss prevention and supply unit 1070 as shown in FIG. 10.

The loss prevention oversupply unit 1070 is provided to increase the discharge rate as some of the pushed seawater is introduced and oversupplied to the loss prevention discharge unit 1040.

The loss prevention oversupply unit 1070 includes an oversupply inlet 1072, an oversupply supply hole 1074, an oversupply path 1076, and an oversupply cover 1078.

The oversupply inlet 1072 is formed at the upper end of the front end of the loss-preventing body 1010 in order to inflow seawater.

And the oversupply supply hole 1074 is formed inside the rear end of the loss prevention body 1010 to supply the introduced seawater from the side direction of the loss prevention discharge unit 1040.

The oversupply path 1076 is formed in the loss prevention body 1010 to communicate the oversupply inlet 1072 and the oversupply hole 1074.

In addition, the oversupply cover 1078 is provided to open and close the oversupply supply hole 1074.

Looking at the operating state of the loss prevention and supply unit 1070 as described above, when the seawater pushed in passes through the oversupply supply hole 1074 through the oversupply inlet 1072 and the oversupply path 1076, the oversupply cover ( The seawater 1078 is opened and the seawater is oversupplied to the loss prevention discharge unit 1040.

Accordingly, seawater and sand can be discharged closer to the shore by increasing the speed discharged through the loss prevention discharge unit 1040.

Here, the second loss-prevention unit 1060 and the loss-prevention unit supply unit 1070 are provided with any one or more, and may be formed at the same time, and when formed together, it is natural that they are formed to be partitioned from each other.

As such, the coastal erosion prevention method using the sand loss prevention device 1000 includes an installation line setting step (S100), a sand loss prevention device installation step (S110), a sand deposit confirmation step (S120), and an installation line correction step (S130). And a position correction step (S140).

In the installation line setting step (S100), an installation line (L) in which the sand loss prevention device 1000 for preventing sand loss is to be installed is set.

And the sand loss prevention device installation step (S110) installs the sand loss prevention device 1000 along the installation line (L).

In the sand deposit confirmation step (S120), the sand stacking state of the shore is checked by the sand loss prevention device 1000 installed using a satellite image.

It is natural that the sand deposit confirmation step (S120) can be used as long as it is possible to check the stacking and deposit amount as well as satellite images.

In addition, the installation line correction step (S130) resets the installation line (L') of the sand loss prevention device 10 according to the confirmed sand accumulation amount.

The position correction step (S140) moves the position of the corresponding sand loss prevention device 1000 along the corrected installation line L'.

Here, it is natural to repeat the sand deposit confirmation step (S120), the installation line correction step (S130), and the position correction step (S140).

Accordingly, it is possible to prevent the sand from being lost, as well as to prevent the sand from being over-deposited.

And in the sand loss prevention device installation step (S110) and the position correction step (S140), the movement of the sand loss prevention device 1000 is installed using a crane and a wire, and if necessary, an eyebolt to the sand loss prevention device 1000 It is natural that you can install it and hang a hook on the end of the wire.

1: breakwater 10: coastal sofa block
20: basic stone part 30: basic stone base
40: foundation concrete 50: upper base
100: base body 200: support
300: first sofa 400: second sofa
500: elasticity holding part 600: wave induction part
700: fixed part

Claims (3)

A foundation stone part having an inclined surface and installed higher than sea level;
A foundation stone base protruding from the lower end of the foundation stone part to be installed on the sea floor;
Foundation concrete installed on the upper side of the foundation stone base;
A sofa block stacked on the upper side of the foundation concrete, a plurality of sofa blocks stacked along an inclined surface of the foundation stone portion;
An upper base provided at an upper end of the foundation stone part to cover an upper end of the stacked sofa blocks; And
Includes; a sand loss prevention device installed around the sofa block to prevent sand from being lost,
The sofa block,
Base body;
A support portion provided at the front central portion of the base body and protruding forward;
A first sofa part provided at the protruding end of the support part to first reduce the wave by contacting the wave;
A second sofa part movable along the support part and configured to secondly reduce a wave first reduced by the first sofa part;
An elasticity holding unit having elasticity and maintaining a position of the second sofa;
A wave induction part for inducing a second-order reduced wave through the second sofa part; And
Includes; a fixing part provided to the rear side of the base body to be fixed to the foundation stone part,
The sand loss prevention device,
Loss prevention body provided on the bottom of the coast having a rotating space therein;
A loss prevention rotation unit having a plurality of rotation blades rotated concentrically, and rotatably provided in the rotation space portion of the loss prevention body and rotated by the movement of seawater;
A loss prevention inlet provided at the front lower end of the loss prevention body so that seawater and sand pushed to the shore flow into the rotating space;
A loss prevention discharge part provided at a rear lower end of the loss prevention body to discharge seawater and sand which has been introduced into the loss prevention inlet and rotated by the loss prevention rotation part in a coastal direction;
It has a certain weight and is rotatably provided on the loss-preventing body to open and close the loss-preventing discharge part, and is opened and discharged by the pressure of the seawater and sand discharged. When the discharge pressure is lower than the weight, the loss-preventing discharge part A backflow prevention door to prevent backflow of seawater and sand by closing; And
Including; a second loss prevention part for discharging the sand remaining in the rotation space part to the loss prevention discharge part by allowing some of the washed seawater to move through the rotation space part to rotate the loss prevention rotation part,
Seawater and sand coming to the shore flow into the loss prevention inlet, rotate the loss prevention rotating part, and open the backflow prevention door to discharge it to the shore.
When seawater is swept away, the backflow prevention door is closed and the seawater escapes to the upper side of the body to prevent loss, preventing the sand discharged to the shore from escaping along with the seawater.
The second loss prevention unit,
A second loss prevention inlet provided at a rear end of the loss prevention body so that a part of the washed seawater flows into the upper end of the rotating space after passing through the loss prevention discharge part;
A second loss-preventing discharge unit provided at a front end of the loss-preventing body so as to discharge seawater, which has rotated the loss-preventing rotation unit through the second loss-preventing inlet, to the front side of the loss-preventing body; And
It has a certain weight and is rotatably provided on the loss-preventing body to open and close the second loss-preventing discharge part, and is opened and discharged by the pressure of the seawater discharged. When the discharge pressure is lower than the weight, the second loss prevention Includes; a second non-return door for preventing the inflow of seawater by closing the discharge portion,
A breakwater using a coastal sofa block and a sand loss prevention device, characterized in that some of the washed out seawater flows into the second loss prevention inlet and rotates the loss prevention rotation unit and at the same time opens and discharges the second backflow prevention door. delete The method of claim 1,
The base body is formed in a hexahedral shape,
The support part,
The cross-sectional area is formed to be long in the vertical direction, the left and right width is formed to be thin, the support is formed to protrude long to the front side in the center of the base body; And
A breakwater using a coastal sofa block and a sand loss prevention device comprising a; a support end integrally provided at the end of the support, and the cross-sectional area is formed to be long in the left and right direction so that the vertical width is thin.

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