Mooring system and floating platform

Abstract

The invention provides a mooring system and a floating platform. The mooring system comprises a surrounding frame assembly, the surrounding frame assembly comprises a plurality of connected surrounding frames, a mooring space is formed in each surrounding frame, a platform is contained in each mooring space, each surrounding frame comprises a plurality of floating rope sections, a plurality of floating rope rings and a plurality of depth adjusting pieces, any two adjacent floating rope sections are connected through one floating rope ring, and the depth adjusting pieces are arranged on the floating rope rings; the plurality of auxiliary cable assemblies are arranged corresponding to the plurality of enclosure frames; each auxiliary mooring rope assembly comprises a plurality of auxiliary mooring ropes, and each auxiliary mooring rope is connected with the interface of the platform in the corresponding enclosure frame and the floating rope ring of the enclosure frame; the main mooring rope assembly comprises a plurality of main mooring ropes, each main mooring rope comprises a soft section and an anchor chain section which are connected with each other, and the soft sections are connected to the floating rope ring; the soft section is located below the water surface; the anchor assembly comprises a plurality of anchors which are arranged in the circumferential direction of the enclosure frame assembly at intervals; each anchor is connected with at least one anchor chain section, and the anchors can sink into the water bottom to fix the enclosure frame assembly and further fix the platform.

Description

Technical Field

[0001] This invention relates to the field of marine engineering equipment technology, and in particular to a mooring system and a floating platform. Background Technology

[0002] Offshore photovoltaic (PV) platforms are facilities that install solar photovoltaic power generation systems on platform structures located at sea to generate electricity using the solar energy available at sea. These platforms are typically designed to withstand the challenges of the marine environment, such as waves, wind, and corrosion.

[0003] Currently, platforms are typically constrained by mooring systems. However, traditional rigid connections can cause stress concentration in the platform under wave action, leading to breakage of the connecting parts. Summary of the Invention

[0004] The purpose of this invention is to provide a flexible mooring system and a floating platform having the mooring system, in order to solve the problems in the prior art.

[0005] To solve the above-mentioned technical problems, the present invention provides a mooring system, comprising: A frame assembly includes multiple connected frames, each frame forming a mooring space, and each mooring space accommodating a platform. Each frame includes multiple float rope segments, multiple float rope loops, and multiple depth adjustment components. Any two adjacent float rope segments are connected by a float rope loop, and each float rope loop is provided with the depth adjustment component to keep the entire frame assembly below the water surface and to adjust the depth of the entire frame assembly below the water surface. Multiple auxiliary cable assemblies are provided corresponding to multiple enclosure frames; each auxiliary cable assembly includes multiple auxiliary cables, and each auxiliary cable connects to the interface of the platform within the corresponding enclosure frame and the floating rope loop of the enclosure frame; the length of the auxiliary cable is greater than the distance between the interface and the floating rope loop; A mainline assembly comprising multiple mainlines, each mainline including an interconnected flexible section and an anchor chain section, the flexible section being connected to the float loop; the flexible section being located below the water surface. An anchor assembly includes a plurality of anchors arranged circumferentially spaced along the frame assembly; each anchor is connected to at least one anchor chain segment, and the anchors are capable of sinking to the bottom of the water to secure the frame assembly and thus the platform.

[0006] In one embodiment, the depth adjustment component includes a counterweight suspended below the corresponding float ring, and multiple counterweights work together to keep the entire enclosure assembly and the auxiliary cable assembly below the water surface. The depth adjustment component includes a buoy and a connecting rope, the connecting rope being connected between the buoy and the rope loop, and the length of the connecting rope being adjustable to adjust the depth of the enclosure below the water surface.

[0007] In one embodiment, the float rope loop includes an inner rope loop and an outer net covering the inner rope loop; The inner rope loops form a ring structure, and the inner rope loops are made of multi-strand fiber cables wound together. The fiber cable is made of polypropylene, polyester, or high molecular weight polyethylene.

[0008] In one embodiment, the outer mesh is tied to the outer periphery of the inner rope loop by ropes.

[0009] In one embodiment, each of the secondary cables is connected to a weight; The secondary cables in the secondary cable assembly have different lengths; The multiple auxiliary cables in each of the auxiliary cable assemblies are arranged symmetrically about the center of the platform.

[0010] In one embodiment, the flexible segment itself is capable of floating on water; the flexible segment is made of fiber, specifically polypropylene fiber, polyester fiber, or flat yarn. The material of the floating rope section is polypropylene, polyester or high molecular weight polyethylene; The auxiliary cable is made of polypropylene, nylon, or flat filament.

[0011] In one embodiment, each of the flexible segments is provided with at least one weight-adding block; Each of the anchor chain segments and the flexible segment is provided with a floating component located on the water surface.

[0012] In one embodiment, the float rope segment, the auxiliary cable, and the flexible segment are connected to the float rope loop by binding.

[0013] The present invention also provides a floating platform, including multiple platforms and a mooring system as described above, wherein each of the mooring spaces is provided with one of the platforms.

[0014] In one embodiment, the multiple platforms are electrically connected by connecting cables, and the connecting cables between two adjacent platforms are connected to the secondary cables and the enclosure of the two platforms; a general cable is provided after the multiple platforms are combined, and the general cable is connected to the power transmission platform via the main cable.

[0015] As can be seen from the above technical solution, the advantages and positive effects of the present invention are as follows: The mooring system in this invention achieves three-level flexible interconnection through a flexible frame, flexible auxiliary cables, and flexible lightweight sections, which greatly increases the buffering capacity of the mooring system.

[0016] By connecting multiple auxiliary cables to the platform, the load on the platform is distributed, reducing the stress on a single auxiliary cable and lowering the strength requirements for the connection nodes on the platform. Therefore, the safety redundancy of a single platform is increased, and the impact of a single auxiliary cable breakage on the entire mooring system is reduced.

[0017] This mooring system can simultaneously moor multiple platforms, achieving shared mooring. The modular arrangement of multiple platforms reduces the mutual influence of platform forces, allowing the number of platforms to be expanded laterally and longitudinally according to actual needs. At the same time, the disassembly of each platform does not affect the overall stability of the entire mooring system. Attached Figure Description

[0018] Figure 1 This is a top view schematic diagram of one embodiment of the floating platform of the present invention.

[0019] Figure 2 This is a partial structural schematic diagram of the floating platform of the present invention.

[0020] Figure 3 This is a top view schematic diagram of another embodiment of the floating platform of the present invention.

[0021] Figure 4 This is a top view schematic diagram of another embodiment of the floating platform of the present invention.

[0022] The annotations in the attached figures are explained as follows: 1. Platform; 21. Enclosure; 211. Floating rope section; 212. Floating rope loop; 213. Counterweight; 214. Buoy; 215. Connecting rope; 22. Secondary cable; 251. Flexible section; 252. Anchor chain section; 253. Weighting block; 254. Floating component; 26. Anchor. Detailed Implementation

[0023] Although the invention can be readily embodied in various forms, only some specific embodiments are shown in the accompanying drawings and will be described in detail in this specification. It is understood that this specification should be regarded as an exemplary illustration of the principles of the invention and is not intended to limit the invention to what is described herein.

[0024] Therefore, a feature pointed out in this specification is used to illustrate one feature of one embodiment of the invention, and does not imply that every embodiment of the invention must have the described feature. Furthermore, it should be noted that this specification describes many features. While certain features may be combined to illustrate possible system designs, these features may also be used in other combinations not explicitly stated. Therefore, unless otherwise stated, the described combinations are not intended to be limiting.

[0025] In the embodiments shown in the accompanying drawings, the directional indications (such as up, down, left, right, front, and back) used to explain the structure and movement of the various elements of the invention are relative rather than absolute. These descriptions are appropriate when these elements are in the positions shown in the drawings. If the descriptions of the positions of these elements change, these directional indications also change accordingly.

[0026] Therefore, this application provides a mooring system for simultaneously mooring multiple platforms, enabling multiple platforms to share a single mooring system, reducing the number of anchor chains and effectively lowering costs. It also effectively reduces the occupation of marine space, improves the utilization rate of marine area, and is of great significance for marine resource utilization and environmental protection.

[0027] The mooring system of this application allows multiple platforms to move relative to each other through flexible connections, enabling the platforms to move relative to the anchor, thereby adapting to larger winds and waves and improving the reliability of the platforms.

[0028] Combination Figure 1 and Figure 2 The mooring system includes a cofferdam 21 assembly, multiple auxiliary cable assemblies 22, a main cable assembly, and an anchor assembly. The cofferdam 21 assembly provides multiple cofferdams 21, enabling a single mooring system to moor multiple platforms 1. The flexibility of the cofferdam 21, the auxiliary cables 22, and the flexible section 251 in the main cable achieves a flexible mooring connection.

[0029] The enclosure 21 assembly includes multiple connected enclosures 21, each enclosure 21 forming a mooring space, and each mooring space accommodating a platform 1. The multiple enclosures 21 are arranged in an array, for example, one row with multiple columns, one column with multiple rows, or multiple rows with multiple columns.

[0030] Specifically, the enclosure 21 includes multiple float rope segments 211, multiple float rope loops 212, and multiple depth adjustment components. Any two adjacent float rope segments 211 are connected by a float rope loop 212; that is, the multiple float rope segments are connected into a closed-loop structure within the enclosure 21 via the float rope loops 212. The shape of the enclosure 21 can be square, hexagonal, or circular, depending on the structure of the platform 1. The size of the enclosure 21 can be set according to the size of the platform 1.

[0031] The floating rope section 211 is made of polypropylene, polyester, or high-molecular-weight polyethylene. All of these materials are lightweight, allowing them to float on the water. They also possess high strength and good abrasion resistance, ensuring mooring strength.

[0032] The float rope loop 212 includes a closed ring for connecting the float rope segments 211 to form a closed-loop frame 21. The float rope loop 212 also needs to be flexible enough to float on the water surface, while also requiring high strength to ensure the strength of the frame 21.

[0033] Specifically, the floating rope loop 212 includes an inner rope loop and an outer net covering the inner rope loop. The inner rope loop forms a ring structure and is made by winding multiple strands of fiber cable. That is, first, multiple strands of fiber cable are wound to obtain a fiber rope, then the fiber cable is bent to form a ring structure, and then the outer net covering the outer periphery of the fiber cable maintains the ring structure of the fiber cable.

[0034] The fiber cable is made of polypropylene, polyester, or high-molecular-weight polyethylene. The number of strands in the fiber cable can be calculated based on the design strength of a single fiber cable and the actual design strength required for the float loop 212.

[0035] The outer netting is tied to the outer perimeter of the inner rope loop with ropes.

[0036] The floating rope segment 211 and the floating rope loop 212 are connected by binding, thereby connecting multiple floating rope segments 211.

[0037] Multiple frames 21 can share some of the floating rope segments 211 and floating rope loops 212. For example, in a single-row or single-column arrangement of frame 21 components, when the frame 21 is square, any two adjacent frames 21 share one side. In a multi-row, multi-column arrangement of frame 21 components, when the frame 21 is square, the frame 21 can share two sides with two other frames 21, three sides with three other frames 21, or even four sides with four other frames 21.

[0038] The floating rope loop 212 in this application has low rigidity, which allows for smooth tension transmission. Furthermore, the extremely high frictional resistance between the intertwined fiber cables significantly reduces relative displacement, thereby minimizing fiber cable wear caused by friction. This avoids the phenomenon in related technologies where steel connectors are prone to severe stress concentration due to repeated bending and friction in dynamic marine environments, leading to fiber cable wear and fatigue damage.

[0039] The floating rope loop 212 in this application is lightweight. For complex multi-body array photovoltaic mooring systems, using the floating rope loop 212 instead of steel connectors greatly reduces the self-weight of the mooring system, thereby reducing the load on the platform 1.

[0040] The float rope loop 212 in this application has good flexibility, allowing for on-site modifications based on actual strength requirements. Furthermore, the float rope loop 212 is used to connect other ropes, making the operation, installation, and subsequent dismantling and retrieval of the entire mooring system very simple, greatly saving time during offshore operations.

[0041] The floating rope ring 212 in this application has high chemical stability, does not react chemically with seawater, acids, alkalis, or other substances, and has strong corrosion resistance, fundamentally eliminating the performance damage problem caused by electrochemical corrosion.

[0042] Each float rope loop 212 is equipped with a depth adjustment device to keep the entire enclosure 21 assembly below the water surface and to adjust the depth of the entire enclosure 21 assembly below the water surface.

[0043] The depth adjustment component includes a counterweight 213, which is suspended below the corresponding float loop 212. For example, a suspension chain is fixedly connected to the counterweight 213, and the suspension chain can be connected to the float loop 212 via a shackle.

[0044] Multiple counterweights 213 work together to keep the entire enclosure 21 assembly and the auxiliary cable 22 assembly below the water surface.

[0045] That is, the entire frame 21 assembly can be positioned below the water surface by the weight of the counterweight 213, and its position below the water surface can be adjusted by the different weights of the counterweight 213.

[0046] Furthermore, the depth adjustment component includes a float 214 and a connecting rope 215, which connects the float 214 and the float rope loop 212. Within the same set of depth adjustment components, the buoyancy of the float 214 is less than the weight of the counterweight 213, thus enabling the counterweight 213 to keep the enclosure 21 below the water surface.

[0047] The length of the connecting rope 215 is adjustable, thus allowing adjustment of the depth of the enclosure 21 below the water surface. The static vertical position of the enclosure 21 is adjusted by adjusting the length of the connecting rope 215 between the buoy 214 and the float loop 212. For example, the length of the connecting rope 215 is set to 4m, therefore, the static position of the enclosure 21 is 4m underwater. The connecting rope 215 is made of a soft material.

[0048] Multiple auxiliary cable assemblies 22 are correspondingly arranged with multiple enclosure frames 21. That is, each enclosure frame 21 is equipped with an auxiliary cable assembly 22.

[0049] Specifically, each auxiliary cable 22 assembly includes multiple auxiliary cables 22, each auxiliary cable 22 connecting to the interface of the platform 1 within the corresponding enclosure 21 and the floating rope loop 212 of the enclosure 21. The multiple auxiliary cables 22 in each auxiliary cable 22 assembly are arranged symmetrically about the center of the platform 1.

[0050] That is, a connection is established between the platform 1 and the enclosure 21 through the auxiliary cable 22, and the force on the platform 1 is transmitted to the enclosure 21 through the auxiliary cable 22.

[0051] By connecting multiple auxiliary cables 22 to the platform 1, the load on the platform 1 is distributed, reducing the stress on a single auxiliary cable 22 and lowering the strength requirements for the connection nodes on the platform 1. Therefore, the safety redundancy of a single platform 1 is increased, and the impact of a single auxiliary cable 22 breaking on the entire mooring system is reduced.

[0052] The auxiliary cable 22 is made of polypropylene, nylon, or flat filament.

[0053] The length of the auxiliary cable 22 is greater than the distance between the interface and the floating rope loop 212. Therefore, the auxiliary cable 22 is initially without pretension and does not provide vertical or horizontal tension to the platform 1. Under conditions of low wind, waves, and current, the auxiliary cable 22 is also in a relatively slack state.

[0054] In the same cable 22 assembly, the lengths of the multiple cables 22 are different, and the specific lengths are set according to the different positions of their connection points with the platform 1, so as to achieve the purpose of adjusting the platform 1 to balance the force. The material of the secondary cable 22 makes it elastic, and its length margin provides some wind and wave buffering capacity for the movement of platform 1, as well as the ability to cope with changes in tidal range.

[0055] Each auxiliary cable 22 is connected to a weight block. The weight blocks not only provide weight to prevent the auxiliary cables 22 from floating to the surface, but also prevent interference between the auxiliary cables 22. In this embodiment, the weight blocks are located in the middle of the auxiliary cables 22, that is, there is a certain distance between the weight blocks and the interface of the platform 1, and there is also a certain distance between the weight blocks and the floating rope loop 212.

[0056] The auxiliary cable 22 is connected to the floating rope loop 212 by binding.

[0057] The secondary cable 22 is wrapped around a tubular collar, and an eyelet is provided at the interface on platform 1. The tubular collar and the eyelet are inserted to connect the secondary cable 22 to the interface. Furthermore, the eyelet is sealed with resin to slow down the damage process and extend its service life.

[0058] The main cable assembly includes multiple main cables. The multiple main cables are correspondingly arranged with multiple floating rope loops 212 of the enclosure 21 assembly.

[0059] Each main cable includes an interconnected flexible section 251 and an anchor chain section 252. The flexible section 251 is connected to the float rope loop 212 and is located below the water surface. The flexible section 251 itself is capable of floating on the water surface. The flexible section 251 is made of fiber. Specifically, the flexible section 251 is made of polypropylene fiber, polyester fiber, or flat yarn.

[0060] The flexible segment 251 is connected to the float rope loop 212 by binding. The float rope loop 212 is located below the water surface, therefore, the flexible segment 251 is also located below the water surface. The flexible segment 251 can be located below the water surface through the anchor chain segment 252 and the float rope loop 212, which are located below the water surface.

[0061] Furthermore, the flexible section 251 is provided with at least one weight-adding block 253 to further prevent the flexible section 251 from floating to the surface and to prevent interference between the movements of the flexible sections 251 of the multiple main cables. Specifically, multiple weight-adding blocks 253 are spaced apart along the length of the flexible section 251. In this embodiment, the number of weight-adding blocks 253 is two.

[0062] The anchor assembly includes a plurality of anchors 26 spaced circumferentially along the frame 21 assembly. Each anchor 26 is connected to at least one anchor chain segment 252. The anchors 26 are capable of sinking to the bottom of the water to secure the frame 21 assembly and thus the platform 1. That is, in a mooring system, the anchors 26 and anchor chain segments 252 can be arranged in a one-to-one correspondence, or some anchors 26 can be connected to one anchor chain segment 252, and some anchors 26 can be connected to multiple anchor chain segments 252, depending on the actual situation.

[0063] When multiple anchor chain segments 252 are connected to an anchor 26, the multiple anchor chain segments 252 can be connected to the anchor 26 separately, or the multiple anchor chain segments 252 can be first gathered at a converged chain and then connected to the anchor 26 through the converged chain. Considering corrosion, the overall amount of anchor chain used is reduced by consolidating the segments through the converged chain, which can effectively reduce the redundant loss of anchor chains caused by corrosion allowance.

[0064] Anchor chain segment 252 lies permanently on the bottom via anchor 26, thus enabling platform 1 to resist the effects of tidal changes during extreme high and low tides. Anchor chain segment 252 provides vertical tension to the entire system, reducing pull-out forces at the anchor 26 end.

[0065] Each anchor chain segment 252 and flexible segment 251 is provided with a floating component 254 located on the water surface to prevent the flexible segment 251 from contacting the seabed and causing wear.

[0066] Anchor 26 can be a holding anchor 26, a pile anchor 26, or a gravity anchor 26, depending on the actual needs.

[0067] The mooring system achieves three-level flexible interconnection through the flexible enclosure 21, flexible auxiliary cables 22, and flexible lightweight section 251, which greatly increases the buffer capacity of the mooring system.

[0068] By connecting multiple auxiliary cables 22 to the platform 1, the load on the platform 1 is distributed, reducing the stress on a single auxiliary cable 22 and lowering the strength requirements for the connection nodes on the platform 1. Therefore, the safety redundancy of a single platform 1 is increased, and the impact of a single auxiliary cable 22 breaking on the entire mooring system is reduced.

[0069] The length of the auxiliary cable 22 is greater than the length from the interface to the floating rope loop 212 that it needs to connect to, that is, to increase the length margin, thereby appropriately releasing the motion degree of freedom of the platform 1. With the help of the motion unloading of the platform 1, the pre-tension gradient is constructed from the center area to the edge area through the length difference, so as to achieve the tension balance of the platform 1.

[0070] The bottom-lying anchor chain segment 252 can effectively reduce the impact of tidal range changes.

[0071] This mooring system can simultaneously moor multiple platforms 1, achieving shared mooring. The modular arrangement of multiple platforms 1 reduces the mutual influence of forces on the platforms 1, and the number of platforms 1 can be expanded laterally and longitudinally according to actual needs. At the same time, the disassembly of each platform 1 does not affect the overall stability of the entire mooring system.

[0072] This application also provides a floating platform 1, including multiple platforms 1 and a mooring system, with a platform 1 provided in each mooring space.

[0073] Continue reading Figure 1 Platform 1 is a photovoltaic platform, and there are four of them. Platform 1 has a square cross-section. Platform 1 has 12 interfaces arranged at intervals along the circumference. There are interfaces at the four corners of Platform 1, and two interfaces are arranged at intervals on each side.

[0074] The mooring system has four mooring spaces, which are arranged in a single row of four columns.

[0075] Multiple platforms 1 are electrically connected via connecting cables. The connecting cables between adjacent platforms 1 are connected to the auxiliary cables 22 and the enclosure 21 of the two platforms 1. A main cable is provided after the multiple platforms 1 are aggregated, and the main cable is connected to the power transmission platform 1. This mooring system provides a path for the connecting cables of the platforms 1, thereby protecting the connecting cables.

[0076] See Figure 3 Multiple platforms 1 are arranged in a single row and thirteen columns array. In this embodiment, some anchors 26 are connected to four anchor chain segments 252 at the same time, some anchors 26 are connected to three anchor chain segments 252 at the same time, and some anchors 26 are connected to one anchor chain segment 252.

[0077] See Figure 4Multiple platforms 1 are arranged in an array of two rows and five columns. In this embodiment, some anchors 26 are connected to three anchor chain segments 252 at the same time, some anchors 26 are connected to two anchor chain segments 252 at the same time, and some anchors 26 are connected to one anchor chain segment 252.

[0078] Although the invention has been described with reference to several typical embodiments, it should be understood that the terminology used is illustrative and exemplary, and not restrictive. Since the invention can be embodied in many forms without departing from the spirit or essence of the invention, it should be understood that the above embodiments are not limited to any of the foregoing details, but should be interpreted broadly within the spirit and scope defined by the appended claims. Therefore, all variations and modifications falling within the scope of the claims or their equivalents should be covered by the appended claims.

Claims

1. A mooring system, characterized in that, include: A frame assembly includes multiple connected frames, each frame forming a mooring space, and each mooring space accommodating a platform. Each frame includes multiple float rope segments, multiple float rope loops, and multiple depth adjustment components. Any two adjacent float rope segments are connected by a float rope loop, and each float rope loop is provided with the depth adjustment component to keep the entire frame assembly below the water surface and to adjust the depth of the entire frame assembly below the water surface. Multiple auxiliary cable assemblies are provided corresponding to multiple enclosure frames; each auxiliary cable assembly includes multiple auxiliary cables, and each auxiliary cable connects to the interface of the platform within the corresponding enclosure frame and the floating rope loop of the enclosure frame; the length of the auxiliary cable is greater than the distance between the interface and the floating rope loop; A mainline assembly comprising multiple mainlines, each mainline including an interconnected flexible section and an anchor chain section, the flexible section being connected to the float loop; the flexible section being located below the water surface. An anchor assembly includes a plurality of anchors arranged circumferentially spaced along the frame assembly; each anchor is connected to at least one anchor chain segment, and the anchors are capable of sinking to the bottom of the water to secure the frame assembly and thus the platform.

2. The mooring system according to claim 1, characterized in that, The depth adjustment component includes a counterweight block, which is suspended below the corresponding float rope loop. Multiple counterweight blocks work together to keep the entire enclosure assembly and the auxiliary cable assembly below the water surface. The depth adjustment component includes a buoy and a connecting rope, the connecting rope being connected between the buoy and the rope loop, and the length of the connecting rope being adjustable to adjust the depth of the enclosure below the water surface.

3. The mooring system according to claim 1, characterized in that, The floating rope loop includes an inner rope loop and an outer net covering the inner rope loop; The inner rope loops form a ring structure, and the inner rope loops are made of multi-strand fiber cables wound together. The fiber cable is made of polypropylene, polyester, or high molecular weight polyethylene.

4. The mooring system according to claim 3, characterized in that, The outer mesh is tied to the outer periphery of the inner rope loop by ropes.

5. The mooring system according to claim 1, characterized in that, Each of the auxiliary cables is connected to a weight block; The secondary cables in the secondary cable assembly have different lengths; The multiple auxiliary cables in each of the auxiliary cable assemblies are arranged symmetrically about the center of the platform.

6. The mooring system according to claim 1, characterized in that, The flexible segment itself is able to float on the water surface; the flexible segment is made of fiber, specifically polypropylene fiber, polyester fiber, or flat yarn. The material of the floating rope section is polypropylene, polyester or high molecular weight polyethylene; The auxiliary cable is made of polypropylene, nylon, or flat filament.

7. The mooring system according to claim 1, characterized in that, Each of the aforementioned gentle sections is provided with at least one weight-adding block; Each of the anchor chain segments and the flexible segment is provided with a floating component located on the water surface.

8. The mooring system according to claim 1, characterized in that, The floating rope section, the auxiliary cable, and the flexible section are connected to the floating rope loop by binding.

9. A floating platform, characterized in that, It includes multiple platforms and a mooring system as described in any one of claims 1 to 8, wherein each of the mooring spaces is provided with one of the platforms.

10. The floating platform according to claim 9, characterized in that, The multiple platforms are electrically connected by connecting cables. The connecting cable between two adjacent platforms is connected to the secondary cables and the enclosure of the two platforms. After the multiple platforms are combined, a general cable is provided, and the general cable is connected to the power transmission platform via the main cable.

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