A floating breakwater structure with seawater introduction function

Abstract

The present invention provides a floating breakwater structure with a seawater introduction function, which comprises a fixed block, an anchor chain, a floating unit, a breakwater, a mooring post, a tire side, an outer walrus water pipe, and a water outlet of a reservoir. The center of the upper end of the fixed block is connected to the anchor chain, and the upper end of the anchor chain is connected to the lower end of the breakwater through the floating unit to form a floating breakwater. A mooring post is also arranged on the upper edge of the breakwater, and the side is connected to the tire side. The outer walrus water pipe of the breakwater is located at the lower layer of the tire side to cover the outer walrus water pipe of the breakwater. The present invention is further improved from the breakwater, and the seawater is introduced into the reservoir and the harbor through the outer walrus water pipe, and then the harbor combines with the water outlet of the reservoir to introduce the seawater into the aquatic organism breeding area. Therefore, the process of introducing seawater manually can be replaced by the guiding method, which improves the convenience of fixed-point breeding of aquatic organisms. At the same time, the situation of excessively high water level during high tide submerging the breakwater can be avoided through the guiding effect.

Description

Technical Field

[0001] The invention relates to the technical field of breakwaters, and more specifically to a floating breakwater structure with a seawater introduction function. Background Art

[0002] Breakwaters have the effect of preventing waves from invading. They will form a hydraulic structure needed to shelter waters. They are usually located outside port waters or aquatic breeding waters. They can be suspended on the sea surface through floating units. At the same time, the bottom of the floating units will be connected and fixed to the seabed with anchor chains, so that the floating breakwater can be positioned on the surface of the waters to achieve the effect of eliminating and blocking waves. In summary, the inventors have found that the existing floating breakwater structure mainly has the following defects: when the existing floating breakwater structure is located in an aquatic breeding area, in order to improve the survival of aquatic organisms, the seawater from the open sea is artificially guided to the breeding area, but this process will increase the intensity of manual work, so that the overall structure of the current floating breakwater structure is relatively simple and cannot achieve the automatic introduction of seawater from the open sea, resulting in a situation where it is difficult to increase seawater in the aquatic breeding area. At the same time, at high tide, the sea level in the open sea gradually rises, so that the height of the waves formed also rises accordingly, which is very likely to cause direct invasion of waves. Summary of the invention

[0003] The technical solution adopted by the present invention to achieve the technical purpose is: a floating breakwater structure with a seawater introduction function, which structure includes: a fixed block, an anchor chain, a floating unit, a breakwater, a mooring post, a tire side, an outer walrus water pipe, and a water outlet of a reservoir. The center of the upper end of the fixed block is connected to the anchor chain, and the upper end of the anchor chain is connected to the lower end of the breakwater through the floating unit to form the breakwater into a floating breakwater. A mooring post is also arranged on the upper edge of the breakwater, and the side is connected to the tire side. The outer walrus water pipe of the breakwater is located at the lower layer of the tire side, and the outer walrus water pipe is covered by the water outlet of the reservoir. The lower end of the outer walrus water pipe is also arranged with a water outlet of the reservoir.

[0004] An improved scheme of the present invention, a water reservoir and a harbor are further provided inside the breakwater, the water reservoir is located on the inner side of the edge of the breakwater and is interconnected with the harbor, both of which are arranged on the edge of the breakwater and one side of the water reservoir is connected to the outer walrus water pipe and the other side is connected to the water outlet of the water reservoir, and an upper platform is also provided on the upper end of the breakwater, and the upper platform is arranged above the tire side through the breakwater.

[0005] According to an improved solution of the present invention, a wind energy converter is further arranged at the upper end of the breakwater and behind the mooring post. The wind energy converter is arranged at the rear side of the mooring post through the breakwater and is spaced in coordination with the mooring post.

[0006] An improved scheme of the present invention is that the breakwater will float on the sea surface through the floating unit, anchor chain and fixed block at the lower end, and then be connected to the ship through the mooring post. During the process, the hull will contact the side of the ship, and at the same time, the seawater can be introduced into the reservoir by using the external walrus water pipe, and then the seawater is introduced into the harbor from the reservoir, and finally the seawater is introduced into the aquatic breeding area through the water outlet of the reservoir, and then the wind energy converter on the breakwater combines with natural wind power to convert wind energy.

[0007] An improved solution of the present invention, the fixed block and the anchor chain are perpendicular to each other and the floating unit is parallel to the lower layer of the breakwater, a plurality of groups of mooring posts are arranged on the upper end of the breakwater, the top of the mooring posts are semicircular, the side of the mooring posts are circular and a large number of them are used to cover a large area of ​​the side of the breakwater.

[0008] An improved solution of the present invention is that a plurality of water reservoirs and harbors are arranged on the inner side of the edge of the breakwater, the number of the two is consistent with the number of outer walrus water pipes, and the upper platform is set in an inclined orientation and is provided with a plurality of steps.

[0009] An improved solution of the present invention is that the wind energy converter is provided with a support column, a check plate is installed on the top of the support column, a wind wheel is arranged at the center of the check plate, and fan blades are arranged on the edge of the wind wheel. The wind wheel is also connected to a rotating device and the other end of the rotating device is connected to the generator. The generator and the rotating device are both installed in the support column and a control device and an energy storage device are also installed on the side of the lower middle part of the support column.

[0010] An improved solution of the present invention, the support column is installed in a vertical position and the center of the wind wheel is positioned by the center of the check plate, so that the fan blades rotate at a fixed point, and then the rotating device is equipped with gears, bearings, and couplings to complete the mechanical rotation connection with the wind wheel and the generator. The built-in rotor of the generator is driven by the rotating device and can also drive the asynchronous power generation system to operate. The energy storage device can store the electric energy converted by the generator or output it through the control device.

[0011] An improved scheme of the present invention, a center block is further provided at the lower end of the support column, the center block is welded to the center of the lower end of the base and a groove is opened at the center of the upper end of the base, the insulating reinforcement rod is vertically embedded and fixed through the groove, the insulating reinforcement plate is vertically inserted into the inner area of ​​the lower end of the support column through the groove to overlap, and reinforcement rods are also provided on the left and right sides of the base to complete the fixed connection with the surface of the breakwater.

[0012] An improved solution of the present invention is that the center block is a solid rectangular block and the groove width of the base matches the width of the support column. Then the diameter of the insulating reinforcement rod is smaller than the internal diameter of the support column, and the reinforcement rod is installed in a symmetrical position on the left and right sides of the base.

[0013] An improved solution of the present invention is that the tire side is also provided with a fusion ring, the inner side of the fusion ring is connected to a limiting ring, the fusion ring carries the limiting ring and is welded to the side of the breakwater, and the edge of the rubber fender is covered and positioned by the limiting ring, and a locking groove is also opened on the surface of the rubber fender to allow the locking bolt to be embedded and connected to the breakwater.

[0014] In an improved solution of the present invention, the centers of the fusion ring and the limiting ring coincide with each other and the diameter of the limiting ring matches the diameter of the rubber fender, and the locking groove on the rubber fender allows the locking bolt to be linearly locked.

[0015] An improved solution of the present invention is that a covering groove is further provided on the outside of the locking bolt, the covering groove is opened in the center area of ​​the rubber sleeve and a drawing groove is opened in the center of the outer side of the bottom layer of the rubber sleeve. The rubber sleeve is controlled by the drawing groove to allow the covering groove to embed into the edge of the locking groove to completely cover the locking bolt.

[0016] In an improved solution of the present invention, the diameter of the covering groove is larger than the diameter of the locking bolt and the rubber sleeve can be embedded in the edge of the locking groove through its own diameter, and the position is fixed through the rebound characteristic.

[0017] Compared with the prior art, the present invention has the following beneficial effects: 1. The present invention is a further improvement of the breakwater. The seawater is introduced into the reservoir and the harbor through the outer seawater pipe. Then the harbor combines with the water outlet of the reservoir to introduce the seawater into the aquatic organism breeding area. Therefore, the process of introducing seawater manually can be replaced by the guidance method, which improves the convenience of fixed-point breeding of aquatic organisms. At the same time, the guidance effect can avoid the situation where the water level is too high during high tide and submerges the breakwater; Then, through the cooperation of the floating unit, anchor chain and fixed block, it can be positioned on the sea surface, thus forming a floating breakwater, and then the mooring post and the tire side can be used to ensure the stability of the ship's docking and avoid damage to the hull caused by collision.

[0018] 2. The present invention is based on the wind energy converter added to the breakwater. The wind wheel and the fan blades can be effectively positioned in combination with the restraining plate through the restraining energy of the support column and the base. Then the wind wheel and the fan blades capture the sea breeze to rotate and drive the rotating device and the generator, so that the generator is driven by wind power and the electrical energy is input into the energy storage device for storage through the effect of mechanical conversion into electrical energy, or the electrical energy is output for use using the control device, thereby achieving the characteristics of clean energy technology.

[0019] 3. The present invention is further improved from the tire side. After being welded to the side of the breakwater through a fusion ring, the rubber arc can be positioned in combination with an internal limit ring. Then the rubber fender will be reinforced for a second time using the locking groove and the locking bolt to improve its own origin positioning. The rubber sleeve added to the outside of the locking bolt can cover the locking bolt through the covering groove, so that the rubber sleeve is embedded in the edge of the locking groove and fixed at the origin through its own rebound effect, avoiding the partial area being squeezed and bumped and damaged by direct contact with the hull caused by one end of the locking bolt being exposed to the outside. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 The present invention is a structural schematic diagram of a floating breakwater structure with a seawater introduction function.

[0021] Figure 2 This is a schematic diagram of the structure of an improved breakwater from a bird's-eye view.

[0022] Figure 3 This is a structural schematic diagram of a breakwater section.

[0023] Figure 4 The present invention is a schematic diagram of the cross-sectional structure of an improved wind energy converter.

[0024] Figure 5 The present invention is a front view structural diagram of a support column with a component provided at the lower end thereof.

[0025] Figure 6 The present invention is a schematic structural diagram of a cross-section of an improved side of a mature tire.

[0026] Figure 7 The present invention is a three-dimensional structural diagram of a locking bolt with components disposed outside the locking bolt.

[0027] In the figure: fixed block-1, anchor chain-2, floating unit-3, breakwater-4, bollard-5, tyre side-6, outer walrus water pipe-7, water outlet of reservoir-8; Reservoir-41, harbor-42, upper platform-43, wind energy converter-44; Support column 441, restraining plate 442, fan blade 443, wind wheel 444, rotating device 445, generator 446, control device 447, energy storage device 448; Center block-4411, base-4412, groove-4413, insulating reinforcement rod-4414, reinforcement plug-4415; Fusion ring-61, limit ring-62, rubber fender-63, locking groove-64, locking bolt-65; Covering groove-651, rubber sleeve-652, pull groove-653. DETAILED DESCRIPTION

[0028] The present invention is further described below in conjunction with the accompanying drawings: Example

[0029] Figures 1 to 7 As shown: The present invention provides a floating breakwater structure with a seawater introduction function. Its structure includes a fixed block 1, an anchor chain 2, a floating unit 3, a breakwater 4, a mooring post 5, a tire side 6, an outer walrus water pipe 7, and a water outlet 8 of a reservoir. The center of the upper end of the fixed block 1 is connected to the anchor chain 2, and the upper end of the anchor chain 2 is connected to the lower end of the breakwater 4 through the floating unit 3 to form the breakwater 4 into a floating breakwater. A mooring post 5 is also arranged on the upper edge of the breakwater 4, and the side is connected to the tire side 6. The outer walrus water pipe 7 of the breakwater 4 is covered by the outer walrus water pipe 7 of the breakwater 4. The lower end of the outer walrus water pipe 7 is also arranged with a water outlet 8 of a reservoir.

[0030] Among them, a water reservoir 41 and a harbor 42 are also provided inside the breakwater 4. The water reservoir 41 is located on the inner side of the edge of the breakwater 4 and is interconnected with the harbor 42. Both are arranged on the edge of the breakwater 4 and one side of the water reservoir 41 is connected to the external walrus water pipe 7 and the other side is connected to the water outlet 8 of the water reservoir. An upper platform 43 is also provided at the upper end of the breakwater 4, and the upper platform 43 is arranged above the tire side 6 through the breakwater 4.

[0031] A wind energy converter 44 is also provided at the upper end of the breakwater 4 and behind the mooring post 5. The wind energy converter 44 is arranged at the rear side of the mooring post 5 through the breakwater 4 and is spaced in coordination with the mooring post 5.

[0032] Among them, the breakwater 4 will float on the sea surface through the floating unit 3, anchor chain 2 and fixed block 1 at the lower end, and then be connected to the ship through the mooring post 5. During the process, the hull will contact the tire side 6. At the same time, the seawater can be introduced into the reservoir 41 by using the external walrus water pipe 7, and then the seawater is introduced into the harbor 42 by the reservoir 41. Finally, the seawater is introduced into the aquatic breeding area through the reservoir outlet 8, and then the wind energy converter 44 on the breakwater 4 combines with natural wind power to convert wind energy.

[0033] Among them, the fixed block 1 and the anchor chain 2 are perpendicular to each other and the floating unit 3 and the lower layer of the breakwater 4 are parallel to each other. A plurality of groups of mooring posts 5 are arranged on the upper end of the breakwater 4. The top of the mooring posts 5 is semicircular in shape. The sidewall 6 is circular in shape and covers a large area of ​​the side of the breakwater 4 through a large number.

[0034] Among them, multiple groups of water reservoirs 41 and harbors 42 are arranged on the inner side of the edge of the breakwater 4, and the number of the two is consistent with the number of the outer walrus water pipes 7. The upper platform 43 is set in an inclined orientation and is provided with a plurality of steps.

[0035] The wind energy converter 44 is provided with a support column 441, a check plate 442 is installed on the top of the support column 441, a wind wheel 444 is arranged at the center of the check plate 442, and a fan blade 443 is arranged on the edge of the wind wheel 444. The wind wheel 444 is also connected to a rotating device 445, and the other end of the rotating device 445 is connected to a generator 446. The generator 446 and the rotating device 445 are both installed in the support column 441, and a control device 447 and an energy storage device 448 are also installed on the side of the lower middle part of the support column 441.

[0036] Among them, the support column 441 is installed in a vertical position and the center of the restraining plate 442 positions the center of the wind wheel 444, so that the fan blades 444 rotate at a fixed point, and then the rotating device 445 is equipped with gears, bearings, and couplings to complete the mechanical rotation connection with the wind wheel 444 and the generator 446. The built-in rotor of the generator 446 is driven by the rotating device 445 and can also drive the asynchronous power generation system to operate. The energy storage device 448 can store the electric energy converted by the generator 446 or output it through the control device 447.

[0037] Among them, a center block 4411 is also provided at the lower end of the support column 441, and the center block 4411 is welded to the lower end center of the base 4412 and a groove 4413 is opened at the upper end center of the base 4412. The insulating reinforcement rod 4414 is vertically embedded and fixed through the groove 4413, and the insulating reinforcement plate 4414 is vertically inserted into the lower end inner area of ​​the support column 441 through the groove 4413 to overlap. Reinforcement rods 4415 are also provided on the left and right sides of the base 4412 to complete the fixed connection with the surface of the breakwater 4.

[0038] Among them, the center block 4411 is a solid rectangular shape and the width of the groove 4413 of the base 4412 matches the width of the support column 441. Then the diameter of the insulating reinforcement rod 4414 is smaller than the internal diameter of the support column 441, and the reinforcement rod 4415 is installed in a symmetrical position on the left and right sides of the base 4412.

[0039] Among them, the tire side 6 is also provided with a fusion ring 61, and the inner side of the fusion ring 61 is welded to the side of the breakwater 4 with the limiting ring 62, and the edge of the rubber fender 63 is covered and positioned by the limiting ring 62. A locking groove 64 is also opened on the surface of the rubber fender 63 to allow the locking bolt 65 to be embedded and connected to the breakwater 4.

[0040] The centers of the fusion ring 61 and the limiting ring 62 coincide with each other, and the diameter of the limiting ring 62 matches the diameter of the rubber fender 63 . The locking groove 64 on the rubber fender 63 allows the locking bolt 65 to be linearly locked.

[0041] Among them, the locking bolt 65 is also provided with a covering groove 651 on the outside. The covering groove 651 is opened in the center area of ​​the rubber sleeve 652 and a groove 653 is opened in the outer center of the bottom layer of the rubber sleeve 652. The rubber sleeve 652 is controlled by the groove 653 to allow the covering groove 651 to be embedded in the edge of the locking groove 64 to completely cover the locking bolt 65.

[0042] The diameter of the covering groove 651 is larger than the diameter of the locking bolt 65 and the rubber sleeve 652 can be embedded in the edge of the locking groove 64 by its own diameter, and the position is fixed by the rebound characteristic.

[0043] Specific functions and operation procedures of this embodiment: In the present invention, the breakwater 4 of the breakwater structure will be based on the floating unit 3 at the lower end. After the floating unit 3 is connected to the seabed through the lower end anchor chain 2 and the fixed block 1, the breakwater 4 can float on the sea surface, thereby forming a floating breakwater 4, and then the mooring column 5 at the upper end of the breakwater 4 can be connected to the iron chain of the ship after the ship docks through its own vertical fixation, so that the ship is close to the side of the breakwater 4 and contacts the tire side 6. The damage to the hull caused by the direct collision between the hull and the breakwater 4 can be avoided through the cooperation of the tire side 6. Then the tire side 6 can position the rubber fender 63 through the fusion ring 61 and the limit ring 62, and then the rubber fender 63 can be combined with the locking groove 64 and the locking bolt 65 for secondary fixation, thereby locking After the bolt 65 is installed, the outer rubber sleeve 652 can be embedded through the covering groove 651 to cover the outside of the locking bolt 65, and then the rubber sleeve 652 is embedded in the locking groove 64 and can be positioned by the rebound effect, thereby avoiding the small-scale damage caused by the collision between one end of the locking bolt 65 and the hull. Finally, the rubber sleeve 652 can be pulled outward through the pulling groove 653 to expose the locking bolt 65 to the space again, and then the water reservoir 41 of the breakwater 4 can be combined with the outer sea water pipe 7 to guide the seawater, so that the water reservoir 41 and the harbor 42 can receive seawater, and then the seawater is input into the aquatic breeding area through the water reservoir outlet 8 again, thereby achieving the effect of supplementing seawater to the aquatic breeding area. The effect is improved, which improves the convenience of aquaculture and reduces the impact intensity of seawater. Then, with the cooperation of the upper platform 43, relevant staff can climb up the breakwater 4 to maintain or board the approaching ships, and then the wind energy converter 44 located at the rear side of the mooring column 5 can be positioned and used through the base 4412 at the lower end of the support column 441, so that the groove 4413 of the base 4412 can be vertically connected with the lower end of the support column 441 through the insulating reinforcement rod 4414, and then the reinforcement plug rods 4415 on the left and right sides and the center block 4411 in the center area are used to complete the vertical fixed connection with the surface of the breakwater 4. For this reason, the restraining plate 442 at the upper end of the support column 441 can be stably installed in the suspended area domain, and then the wind wheel 444 and the fan blades 443 at the center of the containment plate 442 can be driven to rotate by the sea breeze. During the process, the rotation of the wind wheel 444 can drive the gears, bearings, and couplings inside the rotating device 445 to rotate. For this reason, the cooperation of the rotating device 445 can combine the kinetic energy of the wind wheel 444 to drive the rotor of the generator 446, so as to achieve the effect of mechanical rotation connection. Then the rotation of the rotor inside the generator 446 will drive the operation of the asynchronous power generation system, so that the wind energy can be effectively converted into electrical energy. Then the converted electrical energy will be input into the energy storage device 448 through the power line for storage or combined with the control device 447 at the other end to output the converted electrical energy, so as to achieve the use characteristics of clean energy.

[0044] Utilizing the technical solution of the present invention, or those skilled in the art designing similar technical solutions inspired by the technical solution of the present invention to achieve the above-mentioned technical effects, all fall within the protection scope of the present invention.

Claims

1. A floating breakwater structure with seawater introduction function, comprising: A fixed block (1), an anchor chain (2), a floating unit (3), a breakwater (4), a mooring post (5), a tire side (6), an outer walrus water pipe (7), and a water outlet (8) of a reservoir. The center of the upper end of the fixed block (1) is connected to the anchor chain (2), and the upper end of the anchor chain (2) is connected to the lower end of the breakwater (4) through the floating unit (3), so that the breakwater (4) forms a floating breakwater. A mooring post (5) is also arranged at the upper edge of the breakwater (4), and the side is connected to the tire side (6). The outer walrus water pipe (7) of the breakwater (4) is covered by the outer walrus water pipe (7) of the breakwater (4). The lower end of the outer walrus water pipe (7) is also arranged with a water outlet (8) of the reservoir. The invention is characterized in that: A water reservoir (41) and a harbor (42) are also provided inside the breakwater (4). The water reservoir (41) is located inside the edge of the breakwater (4) and is interconnected with the harbor (42). Both are arranged at the edge of the breakwater (4) and one side of the water reservoir (41) is connected to the outer walrus water pipe (7) and the other side is connected to the water outlet (8) of the water reservoir. An upper platform (43) is also provided at the upper end of the breakwater (4). The upper platform (43) is arranged above the tire side (6) through the breakwater (4); A wind energy converter (44) is also provided at the upper end of the breakwater (4) and behind the mooring column (5); the wind energy converter (44) is arranged at the rear side of the mooring column (5) through the breakwater (4) and is spaced in a manner coordinated therewith; The breakwater (4) floats on the sea surface through the floating unit (3) and anchor chain (2) and fixed block (1) at the lower end, and is then connected to the ship through the mooring column (5). During the process, the hull will come into contact with the side of the ship (6). At the same time, the seawater can be introduced into the reservoir (41) through the external sea water pipe (7), and then the seawater is introduced into the harbor (42) through the reservoir (41). Finally, the seawater is introduced into the aquatic breeding area through the reservoir outlet (8), and then the wind energy converter (44) on the breakwater (4) combines with natural wind power to convert wind energy.

2. A floating breakwater structure with seawater introduction function according to claim 1, characterized in that: The fixed block (1) and the anchor chain (2) are perpendicular to each other, and the floating unit (3) and the lower layer of the breakwater (4) are parallel to each other. A plurality of groups of mooring posts (5) are arranged at the upper end of the breakwater (4). The top of the mooring posts (5) is semicircular in shape. The sidewalls (6) are circular in shape and cover a large area of ​​the side of the breakwater (4) through a plurality of groups.

3. The floating breakwater structure with seawater introduction function according to claim 1, characterized in that: A plurality of water reservoirs (41) and harbors (42) are arranged on the inner side of the edge of the breakwater (4), the number of which is consistent with the number of the outer walrus water pipes (7), and the upper platform (43) is set in an inclined orientation and is provided with a plurality of steps.

4. The floating breakwater structure with seawater introduction function according to claim 1, characterized in that: The wind energy converter (44) is provided with a support column (441), a check plate (442) is installed on the top of the support column (441), a wind wheel (444) is installed in the center of the check plate (442), and a fan blade (443) is installed on the edge of the wind wheel (444), the wind wheel (444) is also connected to a rotating device (445), and the other end of the rotating device (445) is connected to a generator (446), the generator (446) and the rotating device (445) are both installed in the support column (441), and a control device (447) and an energy storage device (448) are also installed on the side of the lower middle part of the support column (441); The support column (441) is installed in a vertical orientation and the center of the wind wheel (444) is positioned by the center of the restraining plate (442), so that the fan blade (444) rotates at a fixed point. Then, the rotating device (445) is equipped with gears, bearings, and couplings to complete the mechanical rotation connection with the wind wheel (444) and the generator (446). The rotor built into the generator (446) is driven by the rotating device (445) and can drive the asynchronous power generation system to operate. The energy storage device (448) can store the electric energy converted by the generator (446) or output it through the control device (447).

5. A floating breakwater structure with seawater introduction function according to claim 4, characterized in that: The lower end of the support column (441) is also provided with a center block (4411), the center block (4411) is welded to the lower end center of the base (4412), and the upper end center of the base (4412) is provided with a groove (4413), through which the insulating reinforcement rod (4414) is vertically embedded and fixed, and the insulating reinforcement plate (4414) is vertically inserted into the lower end inner area of ​​the support column (441) through the groove (4413) to overlap, and the left and right sides of the base (4412) are also provided with reinforcement rods (4415) to complete the fixed connection with the surface of the breakwater (4); The center block (4411) is a solid rectangular parallelepiped and the width of the groove (4413) of the base (4412) matches the width of the support column (441). The diameter of the insulating reinforcement rod (4414) is smaller than the inner diameter of the support column (441). The reinforcement rod (4415) is installed in a symmetrical position on the left and right sides of the base (4412).

6. The floating breakwater structure with seawater introduction function according to claim 1, characterized in that: The tire side (6) is also provided with a fusion ring (61), the inner side of the fusion ring (61) is connected to a limiting ring (62), the fusion ring (61) carries the limiting ring (62) and is welded to the side of the breakwater (4), and the edge of the rubber fender (63) is covered and positioned by the limiting ring (62), and the surface of the rubber fender (63) is also provided with a locking groove (64) for a locking bolt (65) to be embedded and connected to the breakwater (4); The centers of the fusion ring (61) and the limiting ring (62) coincide with each other, and the diameter of the limiting ring (62) coincides with the diameter of the rubber fender (63), and the locking groove (64) on the rubber fender (63) allows the locking bolt (65) to be linearly locked.

7. A floating breakwater structure with seawater introduction function according to claim 6, characterized in that: The locking bolt (65) is also provided with a covering groove (651) on the outside. The covering groove (651) is opened in the center area of ​​the rubber sleeve (652) and a drawing groove (653) is opened in the center of the outer bottom layer of the rubber sleeve (652). The rubber sleeve (652) is controlled by the drawing groove (653) to allow the covering groove (651) to be embedded in the edge of the locking groove (64) to completely cover the locking bolt (65). The diameter of the covering groove (651) is greater than the diameter of the locking bolt (65), and the rubber sleeve (652) can be embedded in the edge of the locking groove (64) through its own diameter, and the position is fixed through the rebound characteristic.

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