Self-dismounting flexible connecting piece and array type wave power generation suspension combined piece composed of self-dismounting flexible connecting piece

Abstract

The utility model discloses a self-detachable flexible connecting piece and an array type wave power generation suspension combined piece composed of the self-detachable flexible connecting piece. At present, a suspension wave power generation single body is not provided with a special matching component for emergency rapid splicing according to needs; two conical cylinders in the self-detachable flexible connecting piece are arranged in parallel, the large-head ends of the conical cylinders are oppositely arranged, the two ends of a main flexible connecting belt are connected with the large-head ends of the two conical cylinders respectively, one end of each bottom flexible connecting belt is detachably connected with the large-head end of the corresponding conical cylinder, and the other end of each bottom flexible connecting belt is detachably connected with the large-head end of the corresponding conical cylinder. The other end of each bottom flexible connecting belt is detachably connected with the small end of the corresponding conical cylinder; one end of a middle suspension wave power generation single body of the array type wave power generation suspension combination piece is connected with an adjacent suspension wave power generation single body through a self-dismounting flexible connecting piece. And the other end of the middle suspension wave power generation single body is connected with another adjacent suspension wave power generation single body through another self-dismounting flexible connecting piece.

Description

Technical Field

[0001] The utility model specifically relates to a self-detachable flexible connector and an array-type wave power generation floating combination sheet composed thereof. Background Art

[0002] With the increasingly prominent problem of energy shortage, wave energy has received extensive attention from society. Wave energy is a form of mechanical energy and is a high-quality energy source among ocean energies, which also makes its energy conversion device relatively simple. Although the energy flux density of wave energy is relatively low, its reserves are large. In the areas of 30° - 40° latitude on the east coasts of the Pacific Ocean and the Atlantic Ocean, the wave energy can reach 30 - 70 kW / m, and in some places it can be as high as 100 kW / m, which can ensure the total amount of exploitable energy. The wave energy available in winter is the largest, which can effectively alleviate the huge energy consumption problem in winter. Wave energy is the most widely distributed renewable energy in the ocean, so wave energy can become an energy source for remote areas at sea.

[0003] Wave power generation devices usually include an energy capture system, a secondary energy conversion system, and a tertiary energy conversion system. According to the different energy capture systems, wave power generation devices can be divided into three categories: oscillating water column type, oscillating body type, and overtopping type. The devices for capturing wave energy are in long-term contact with seawater, are prone to corrosion, and have a low device lifespan. Moreover, factors such as the marine environment, climate, and water quality are relatively complex and have quite a lot of unstable factors. In addition, the density of wave energy in the waters of our country is small, and it has the characteristics of large distribution area and high randomness. Currently, there is a single-piece wave energy power generation device. The components of this device can be sufficiently protected and do not come into direct contact with seawater. It uses a pendulum to absorb wave energy, and the rotation speed can be stably transmitted to the generator to achieve power generation. When the single-piece wave energy power generation device is used alone in the sea area, the floating position of the single body is not fixed, and it is applicable to be randomly arranged in a fixed sea area. When it comes to centrally arranging and managing multiple single-piece wave energy power generation devices in a predetermined sea area, due to the rigid fixed connection method, it will affect the movement amplitude of the pendulum in the wave energy single-piece power generation device, thereby affecting the conversion efficiency and quality of mechanical energy, resulting in a lack of a special tool that can be stably and flexibly connected to multiple wave energy single-piece power generation devices at the same time. Content of the Utility Model

[0004] To overcome the defects existing in the prior art, a self-detachable flexible connector and an array-type wave power generation floating combination sheet composed thereof are provided to solve the above problems.

[0005] Self-detachable flexible connector, including a main flexible connection belt, two conical columns and two bottom flexible connection belts. The two conical columns are arranged in parallel, with the large-head ends of each conical column facing each other. The two ends of the main flexible connection belt are respectively connected to the large-head ends of the two conical columns. The conical columns and the bottom flexible connection belts are arranged in one-to-one correspondence. One end of each bottom flexible connection belt is detachably connected to the large-head end of its corresponding conical column, and the other end of each bottom flexible connection belt is detachably connected to the small-head end of its corresponding conical column.

[0006] As a preferred solution: At least one multi-directional connection seat is arranged on the outer wall of each conical column along its length direction. Each multi-directional connection seat includes a block body. A main through-channel is processed at the bottom of the block body along its thickness direction. Two connecting lugs are arranged in parallel at the bottom of each side of the block body. A top bar is arranged on the top surface of the block body along its width direction. A first strip-shaped notch is processed at the bottom side of the top bar along its length direction. The two ends of the top bar are respectively fixedly connected to the block body. A secondary through-channel is formed by enclosing between the strip-shaped notch at the bottom side of the top bar and the top surface of the block body. A second strip-shaped notch is processed on the top surface of the top bar, and the second strip-shaped notch is communicated with the secondary through-channel.

[0007] As a preferred solution: A placement plane is processed on the outer wall of each conical column along its length direction, and at least one multi-directional connection seat is detachably connected to the placement plane.

[0008] As a preferred solution: It further includes a secondary flexible connection belt. When multiple self-detachable flexible connectors are used in cooperation, one end of the secondary flexible connection belt is connected to the main flexible connection belt in one self-detachable flexible connector, and the other end of the secondary flexible connection belt is connected to the main flexible connection belt in another self-detachable flexible connector.

[0009] Array-type wave power generation suspension combination sheet, composed of the above self-detachable flexible connectors, including multiple self-detachable flexible connectors and multiple suspension wave power generation monomers;

[0010] Each suspension wave power generation monomer includes a square-ring-shaped main board body, multiple conversion components and multiple suspension barrels. Multiple conversion components are arranged on the suspension main board body. Two circular grooves arranged in parallel are processed on the square-ring-shaped main board body. A conical column is correspondingly arranged in each circular groove. Multiple suspension barrels are arranged on the outer walls around the square-ring-shaped main board body;

[0011] Each self-detachable flexible connection member comprises a main flexible connection belt, two conical cylinders and two bottom flexible connection belts, the two conical cylinders are arranged in parallel, the large ends of each conical cylinder are arranged opposite to each other, the two ends of the main flexible connection belt are respectively connected to the large ends of the two conical cylinders, the conical cylinders and the bottom flexible connection belts are arranged one by one, one end of each bottom flexible connection belt is detachably connected to the large end of the corresponding conical cylinder, and the other end of each bottom flexible connection belt is detachably connected to the small end of the corresponding conical cylinder;

[0012] A suspended wave power generation unit is a centrally placed suspended wave power generation unit, one end of which is connected to an adjacent suspended wave power generation unit via a self-detachable flexible connector, and the other end of which is connected to another adjacent suspended wave power generation unit via another self-detachable flexible connector.

[0013] An array type wave power generation suspension assembly sheet, using the above-mentioned self-detachable flexible connector, includes N secondary flexible connection belts, 2N self-detachable flexible connectors and 2N+2 suspended wave power generation monomers, the 2N+2 suspended wave power generation monomers are divided into two columns of suspended wave power generation bars, the two columns of suspended wave power generation bars are arranged horizontally in parallel, each column of suspended wave power generation bars includes N+1 suspended wave power generation monomers, the N+1 suspended wave power generation monomers are arranged horizontally in parallel in sequence, a self-detachable flexible connector is arranged between two adjacent suspended wave power generation monomers, and the two self-detachable flexible connectors in the adjacent state between the two columns of suspended wave power generation bars are connected by a secondary flexible connection belt;

[0014] Each self-detachable flexible connection member comprises a main flexible connection belt, two conical cylinders and two bottom flexible connection belts, the two conical cylinders are arranged in parallel, the large ends of each conical cylinder are arranged opposite to each other, the two ends of the main flexible connection belt are respectively connected to the large ends of the two conical cylinders, the conical cylinders and the bottom flexible connection belts are arranged one by one, one end of each bottom flexible connection belt is detachably connected to the large end of the corresponding conical cylinder, and the other end of each bottom flexible connection belt is detachably connected to the small end of the corresponding conical cylinder;

[0015] Each suspended wave power generation unit includes a square ring-shaped main body, multiple conversion parts and multiple suspension barrels. Multiple conversion parts are arranged on the suspended main body. Two parallel circular grooves are processed on the square ring-shaped main body. A conical cylinder is correspondingly arranged in the circular groove. Multiple suspension barrels are arranged on the outer walls around the square ring-shaped main body.

[0016] The beneficial effects of the utility model are:

[0017] The self-detachable flexible connector in the present utility model is a connection member with both rigidity and flexibility formed by the cooperation of a main flexible connection belt, two conical columns, and two bottom flexible connection belts. It is specifically adapted for use with single floating wave power generation units or other existing sheet-like wave power generation units in the form of a sheet. The structure is reasonable and simple, capable of stably connecting multiple single floating wave power generation units without affecting the swing amplitude of each single floating wave power generation unit with the waves, ensuring that the single floating wave power generation units are in a normal operating state, and also capable of achieving stable flexible connection.

[0018] The two conical columns in the present utility model are dual-position balanced fixed members configured specifically for the main structure of single floating wave power generation units. They are rigid connection members themselves. The main flexible connection belt is the main member for overall flexible connection. The two conical columns are connected by the main flexible connection belt. The bottom flexible connection belt is a flexible member that cooperates with the conical columns to achieve enclosing connection, realizing the connection of local positions of single floating wave power generation units.

[0019] III. The array-type wave power generation floating combination sheet in the present utility model is a large-area sheet-like power generation structure floating on the sea surface composed of multiple self-detachable flexible connectors and multiple single floating wave power generation units. It can increase the density of the arrangement positions of single floating wave power generation units, enable multiple single floating wave power generation units to be in a stable and effective operating state under a dense state, and also improve the rapid assembly performance of single floating wave power generation units in an emergency state, which is conducive to improving the power generation efficiency and power generation quality in a fixed sea area. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a three-dimensional structural schematic diagram of the self-detachable flexible connector, with the bottom flexible connection belt removed in the figure;

[0021] Figure 2 It is a three-dimensional structural schematic diagram when two multi-directional connection seats are arranged on the conical column;

[0022] Figure 3 It is the first front view structural schematic diagram of the self-detachable flexible connector;

[0023] Figure 4 It is the second front view structural schematic diagram of the self-detachable flexible connector;

[0024] Figure 5 It is a three-dimensional structural schematic diagram of the multi-directional connection seat;

[0025] Figure 6 It is the first three-dimensional structural schematic diagram of the single floating wave power generation unit;

[0026] Figure 7 It is the second three-dimensional structural schematic diagram of the single floating wave power generation unit;

[0027] Figure 8 A three-dimensional structural schematic diagram of the connection relationship among a square annular main board body, a conversion part, a suspension barrel, a pendulum, an accelerator, a spring winding disc, a mechanical energy output part and a generator;

[0028] Figure 9 A three-dimensional structural schematic diagram of the connection relationship between a conical column and a single floating wave power generation unit;

[0029] Figure 10 A usage state diagram of the connection relationship between a self-detachable flexible connector and two single floating wave power generation units;

[0030] Figure 11 A three-dimensional structural schematic diagram of an array-type floating wave power generation combined sheet in one combination form;

[0031] Figure 12 A three-dimensional structural schematic diagram of an array-type floating wave power generation combined sheet in another combination form.

[0032] In the figure: 1 - main flexible connection belt; 2 - conical column; 3 - bottom flexible connection belt; 4 - multi-directional connection seat; 4-1 - block body; 4-2 - main penetration channel; 4-3 - top strip; 4-4 - secondary penetration channel; 4-5 - second strip-shaped notch; 4-6 - connection ear; 5 - placement plane; 6 - secondary flexible connection belt; 8 - penetration ring; 10 - self-detachable flexible connector; 11 - single floating wave power generation unit; 12 - square annular main board body; 13 - conversion part; 14 - circular groove; 15 - pendulum; 16 - accelerator; 17 - spring winding disc; 18 - mechanical energy output part; 19 - generator; 20 - suspension barrel. Specific embodiments

[0033] The following illustrates the embodiments of the present invention through specific examples. Those skilled in the art can easily understand the other advantages and effects of the present invention from the content disclosed in this specification. The present invention can also be implemented or applied through different specific embodiments. Various details in this specification can also be modified or changed based on different viewpoints and applications without departing from the spirit of the present invention.

[0034] Specific embodiment 1: In combination with Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 , Figure 8 , Figure 9 , Figure 10 , Figure 11 and Figure 12To describe this embodiment, in this embodiment, the self-detaching flexible connector 10 includes a main flexible connecting belt 1, two conical columns 2, and two bottom flexible connecting belts 3. The two conical columns 2 are arranged in parallel, with the large-head ends of each conical column 2 facing each other. The two ends of the main flexible connecting belt 1 are respectively connected to the large-head ends of the two conical columns 2. The conical columns 2 and the bottom flexible connecting belts 3 are arranged in one-to-one correspondence. One end of each bottom flexible connecting belt 3 is detachably connected to the large-head end of its corresponding conical column 2, and the other end of each bottom flexible connecting belt 3 is detachably connected to the small-head end of its corresponding conical column 2.

[0035] In this embodiment, the structural form of the conical column 2 realizes the positioning effect of one-way positioning and non-reversible disassembly. One end of each conical column 2 is the large-head end, that is, the large-diameter end, and the other end of each conical column 2 is the small-head end, that is, the small-diameter end. The large-head ends of each conical column 2 face each other. The purpose of this setting is to ensure that the two conical columns 2 can achieve the only installation method of one-way installation during use, have the function of self-check valve after installation, and have the service performance of non-reverse offset and disassembly, forming a safe and durable installation method.

[0036] In this embodiment, each conical column 2 is provided with a bottom flexible connecting belt 3 in cooperation. One connection relationship between the conical column 2 and the bottom flexible connecting belt 3 is:

[0037] The bottom flexible connecting belt 3 is a strip-shaped connecting belt, made of an existing connecting rope or connecting flat belt. One end of the bottom flexible connecting belt 3 is fixedly connected to the large-head end of the conical column 2, and the other end of the bottom flexible connecting belt 3 is detachably connected to the small-head end of the conical column 2.

[0038] In this embodiment, each conical column 2 is provided with a bottom flexible connecting belt 3 in cooperation. Another connection relationship between the conical column 2 and the bottom flexible connecting belt 3 is: A threading ring 8 is respectively arranged at the large-diameter end and the small-diameter end of each conical column 2. The two ends of the bottom flexible connecting belt 3 are respectively detachably connected to the threading rings 8 at the large-diameter end and the small-diameter end of the conical column 2. During specific use, the corresponding end of the bottom flexible connecting belt 3 is selected according to the disassembly or connection requirements of the installation situation.

[0039] In this embodiment, corrosion-resistant outer skins are sleeved on the outer walls of the main flexible connecting belt 1 and the two bottom flexible connecting belts 3.

[0040] In this embodiment, the main flexible connecting belt 1 and the two bottom flexible connecting belts 3 are both elastic belt bodies or non-elastic belt bodies, and are specifically selected according to the applicable sea area conditions, design requirements, and related design conditions of the specific adaptation of the floating wave power generation unit 11.

[0041] Embodiment 2: This embodiment is a further limitation of Embodiment 1. A plurality of flexible protrusions are integrally connected to the outer wall of the conical column 2. When it is clamped in the floating wave power generation unit 11, it realizes the multi-position tight connection process with the floating wave power generation unit 11.

[0042] Embodiment 3: This embodiment is a further limitation of Embodiment 1 or 2. In this embodiment, at least one multi-directional connection seat 4 is arranged on the outer wall of each conical column 2 along its length direction. Each multi-directional connection seat 4 includes a block body 4-1. A main through-channel 4-2 is processed at the bottom of the block body 4-1 along its thickness direction. Two connection ears 4-6 are arranged in parallel on each side of the bottom of the block body 4-1. A top bar 4-3 is arranged on the top surface of the block body 4-1 along its width direction. A first strip-shaped notch is processed on the bottom side of the top bar 4-3 along its length direction. The two ends of the top bar 4-3 are respectively fixedly connected to the block body 4-1. A secondary through-channel 4-4 is formed by enclosing between the strip-shaped notch on the bottom side of the top bar 4-3 and the top surface of the block body 4-1. A second strip-shaped notch 4-5 is processed on the top surface of the top bar 4-3. The second strip-shaped notch 4-5 is communicated with the secondary through-channel 4-4.

[0043] In this embodiment, the multi-directional connection seat 4 is a seat body that provides multiple connection positions for itself. Both the main through-channel 4-2 and the secondary through-channel 4-4 are positions where a connection belt can be passed through. According to the specific requirements of centralized connection, one connection belt or two connection belts can be passed through the multi-directional connection seat 4 to realize the further connection process of cooperating with the main flexible connection belt 1, two conical columns 2, and two bottom flexible connection belts 3. The structure of the connection belt is the same as that of the main flexible connection belt 1.

[0044] A through-connection method formed between the multi-directional connection seat 4 and one connection belt is as follows:

[0045] After one end of the connection belt is fixed to an existing other buoy fixture on the seaside pier or at sea, the other end of the connection belt passes through the main through-channel 4-2 and then passes upward through the secondary through-channel 4-4 and is fixed to an existing other buoy fixture on the seaside pier or at sea.

[0046] Another through-connection method formed between the multi-directional connection seat 4 and two connection belts is as follows:

[0047] After one end of a connection belt is fixed to an existing other buoy fixture on the seaside pier or at sea, the other end of this connection belt passes through the main through-channels 4-2 of a plurality of multi-directional connection seats 4 in the same horizontal row in sequence and is fixed to another existing other buoy fixture on the seaside pier or at sea, thereby realizing the function of fixed horizontal multi-position unified flexible connection;

[0048] After one end of another connecting belt is fixed to a seaside pier or other existing buoy fixture on the sea, the other end of the connecting belt passes through the auxiliary penetration channels 4-4 of multiple multi-directional connecting seats 4 in the same horizontal row in sequence and is fixed to another seaside pier or other existing buoy fixture on the sea, thereby realizing a unified flexible connection process of fixing multiple horizontal positions in both upper and lower directions.

[0049] The multiple threading positions provided by the multi-directional connecting seat 4 can also be started and used accordingly according to different usage requirements. It can assist the main flexible connecting belt 1, two conical cylinders 2 and two bottom flexible connecting belts 3 to achieve a unified and standardized connection process at multiple local positions, thereby adding multiple connection positions to the flexible connection.

[0050] Specific embodiment 4: This embodiment is a further limitation of specific embodiments 1, 2 or 3. In this embodiment, the outer wall of each conical cylinder 2 is processed with a placement plane 5 along its length direction, and at least one multi-directional connection seat 4 is detachably connected to the placement plane 5. The placement plane 5 is conducive to the layout and installation of the multi-directional connection seat 4.

[0051] Specific embodiment five: This embodiment is a further limitation of specific embodiments one, two, three or four, and also includes a secondary flexible connecting belt 6. The structure of the secondary flexible connecting belt 6 is the same as that of the main flexible connecting belt 1. When multiple self-detachable flexible connectors 10 are used in combination, one end of the secondary flexible connecting belt 6 is connected to the main flexible connecting belt 1 in one self-detachable flexible connector 10, and the other end of the secondary flexible connecting belt 6 is connected to the main flexible connecting belt 1 in another self-detachable flexible connector 10.

[0052] In this embodiment, there are two ways to connect the secondary flexible connecting belt 6 and the main flexible connecting belt 1. One is a fixed connection, that is, the two ends of the secondary flexible connecting belt 6 are respectively connected to the two adjacent main flexible connecting belts 1 as a whole to form an I-shaped connecting rope belt that is staggered horizontally and vertically.

[0053] The other is a detachable connection, that is, hanging parts are respectively provided at both ends of the auxiliary flexible connecting belt 6, and the hanging parts are hooks or other curved hard connectors. A plug-in part matching the hanging part is provided in the middle part of the main flexible connecting belt 1, and the plug-in part is inserted into the seam or loop, and the hanging part and the plug-in part are detachably connected, thereby forming an I-shaped connecting rope with a detachable connection method that is staggered horizontally and vertically.

[0054] Specific implementation method six: Combination Figures 1 to 10To describe this embodiment, the simplest assembly method of the array - type wave - power - generating floating combination sheet in this embodiment is in the form of a strip - shaped sheet structure. The array - type wave - power - generating floating combination sheet can also form a rectangular power - generating sheet structure or a square power - generating sheet structure with a large - area occupation. The array - type wave - power - generating floating combination sheet includes a plurality of self - detachable flexible connectors 10 and a plurality of floating wave - power - generating monomers 11;

[0055] Each floating wave - power - generating monomer 11 includes a square - ring - shaped main board body 12, a plurality of conversion parts 13 and a plurality of floating barrels 20. A plurality of conversion parts 13 are arranged on the floating main board body 12. Two circular grooves 14 arranged in parallel are machined on the square - ring - shaped main board body 12. A conical column 2 is correspondingly arranged in each circular groove 14. The circular groove 14 is a semi - conical groove body, and the shape of its groove inner wall is matched with the shape of the conical column 2. A plurality of floating barrels 20 are arranged on the outer walls around the square - ring - shaped main board body 12;

[0056] Each self - detachable flexible connector 10 includes a main flexible connection belt 1, two conical columns 2 and two bottom - placed flexible connection belts 3. The two conical columns 2 are arranged in parallel, and the big - end parts of each conical column 2 are arranged opposite to each other. The two ends of the main flexible connection belt 1 are respectively connected to the big - end parts of the two conical columns 2. The conical columns 2 and the bottom - placed flexible connection belts 3 are arranged in one - to - one correspondence. One end of each bottom - placed flexible connection belt 3 is detachably connected to the big - end part of its corresponding conical column 2, and the other end of each bottom - placed flexible connection belt 3 is detachably connected to the small - end part of its corresponding conical column 2;

[0057] One floating wave - power - generating monomer 11 is a middle - placed floating wave - power - generating monomer. One end of the middle - placed floating wave - power - generating monomer is connected to an adjacent floating wave - power - generating monomer 11 through a self - detachable flexible connector 10, and the other end of the middle - placed floating wave - power - generating monomer is connected to another adjacent floating wave - power - generating monomer 11 through another self - detachable flexible connector 10.

[0058] Assembly process:

[0059] Determine the number of floating wave power generation units 11. Install a self-detachable flexible connector 10 between two adjacent floating wave power generation units 11 respectively. Clamp the two conical columns 2 in the self-detachable flexible connector 10 into the two adjacent circular grooves 14 respectively in the form of a unique one-way installation method. Then connect one end of the bottom flexible connection belt 3 corresponding to each conical column 2 to the end of the conical column 2. The other end of the bottom flexible connection belt 3 bypasses the bottom of the circular groove 14 on the square annular main board 12 and is detachably connected to the other end of the conical column 2, thus completing the connection process of the self-detachable flexible connector 10 and the floating wave power generation unit 11. By analogy, complete the connection process of other floating wave power generation units 11 through other self-detachable flexible connectors 10.

[0060] Specific Embodiment Seven: Combine Figures 1 to 10 To illustrate this embodiment, the simplest assembly method of the array-type wave power generation floating combination sheet in this embodiment is in the form of a strip-shaped sheet structure. The array-type wave power generation floating combination sheet can also form a rectangular sheet body or a square power generation sheet body with a large area occupation. The array-type wave power generation floating combination sheet includes N auxiliary flexible connection belts 6, 2N self-detachable flexible connectors 10 and 2N + 2 floating wave power generation units 11. The 2N + 2 floating wave power generation units 11 are evenly divided into two columns of floating wave power generation strips. The two columns of floating wave power generation strips are arranged horizontally in parallel. Each column of floating wave power generation strips includes N + 1 floating wave power generation units 11. The N + 1 floating wave power generation units 11 are arranged horizontally in parallel in sequence. A self-detachable flexible connector 10 is arranged between two adjacent floating wave power generation units 11. A sub-flexible connection belt 6 is connected between two self-detachable flexible connectors 10 in an adjacent state between the two columns of floating wave power generation strips;

[0061] Combine Figure 12 As shown, when N = 2, the array-type wave power generation floating combination sheet correspondingly includes 2 sub-flexible connection belts 6, 4 self-detachable flexible connectors 10 and 6 floating wave power generation units 11; when N = 3, the array-type wave power generation floating combination sheet correspondingly includes 3 sub-flexible connection belts 6, 6 self-detachable flexible connectors 10 and 8 floating wave power generation units 11. By analogy, a rectangular sheet body or a square power generation sheet body structure with a large area occupation is formed.

[0062] Each self-detachable flexible connector 10 includes a main flexible connection belt 1, two conical columns 2, and two bottom flexible connection belts 3. The two conical columns 2 are arranged in parallel, with the large-head ends of each conical column 2 facing each other. The two ends of the main flexible connection belt 1 are respectively connected to the large-head ends of the two conical columns 2. The conical columns 2 and the bottom flexible connection belts 3 are arranged in one-to-one correspondence. One end of each bottom flexible connection belt 3 is detachably connected to the large-head end of its corresponding conical column 2, and the other end of each bottom flexible connection belt 3 is detachably connected to the small-head end of its corresponding conical column 2;

[0063] Each floating wave power generation unit 11 includes a square annular main board body 12, a plurality of conversion components 13, and a plurality of floating barrels 20. A plurality of conversion components 13 are arranged on the floating main board body 12. Two circular grooves 14 arranged in parallel are machined on the square annular main board body 12. A conical column 2 is correspondingly arranged in each circular groove 14. A plurality of floating barrels 20 are arranged on the outer walls around the square annular main board body 12.

[0064] Embodiment 8: This embodiment is a further limitation of Embodiment 6 or 7. In the conversion component 13, the accelerator 16, the spring winding disc 17, the mechanical energy output component 18, and the generator 19 are all arranged on one side surface of the square annular main board body 12 and are wrapped and sealed by a sealing shell. The circular groove 14 is machined on the other side surface of the square annular main board body 12, and the notch of the circular groove 14 faces the seabed or the sea surface. The pendulum 15 is arranged at the edge of the inner square hole of the square annular main board body 12. The top of the pendulum 15 is connected to the spring winding disc 17 through the accelerator 16. The spring winding disc 17 is connected to the mechanical energy output component 18, and the mechanical energy output component 18 is connected to the generator 19. The accelerator 16, the spring winding disc 17, the mechanical energy output component 18, and the generator 19 are all existing matching components for wave power generation, and the power generation principle of the mutual cooperation between the accelerator 16, the spring winding disc 17, the mechanical energy output component 18, and the generator 19 is an existing principle.

[0065] Among them, the position of the circular groove 14 can be set to be applicable to the complex sea wave fluctuation environment at sea through the cooperation of the conical column 2. During the specific use process, the position of the circular groove 14 can face upward or downward.

[0066] The floating wave power generation unit 11 of the present utility model can resist complex marine environments. Its multi-sealed structural form avoids the interference of seawater to the work of the conversion component 13. The structural form and installation method of the self-detachable flexible connector 10 can be applicable to the top surface or the bottom surface of the square annular main board body 12 and are adapted to the stable connection and positioning process under sudden tumbling or multiple tumbling states.

Claims

1. A self-detachable flexible connector, characterized in that: The invention comprises a main flexible connection belt (1), two conical cylinders (2) and two bottom flexible connection belts (3), wherein the two conical cylinders (2) are arranged in parallel, the large ends of each conical cylinder (2) are arranged opposite to each other, the two ends of the main flexible connection belt (1) are respectively connected to the large ends of the two conical cylinders (2), the conical cylinders (2) and the bottom flexible connection belts (3) are arranged in a one-to-one correspondence, one end of each bottom flexible connection belt (3) is detachably connected to the large end of the corresponding conical cylinder (2), and the other end of each bottom flexible connection belt (3) is detachably connected to the small end of the corresponding conical cylinder (2).

2. A self-detachable flexible connector according to claim 1, characterized in that: The outer wall of each conical column (2) is provided with at least one multidirectional connection seat (4) along its length direction. Each multidirectional connection seat (4) comprises a block body (4-1). The bottom of the block body (4-1) is processed with a main penetration channel (4-2) along its thickness direction. Two connection ears (4-6) are arranged in parallel on the bottom of each side of the block body (4-1). The top surface of the block body (4-1) is provided with a top bar (4-3) along its width direction. The bottom side of the top bar (4-3) is processed with a first strip-shaped notch along its length direction. The two ends of the top bar (4-3) are respectively fixedly connected to the block body (4-1). The strip-shaped notch on the bottom side of the top bar (4-3) and the top surface of the block body (4-1) enclose a secondary penetration channel (4-4). The top surface of the top bar (4-3) is processed with a second strip-shaped notch. The second strip-shaped notch (4-5) is connected to the secondary penetration channel (4-4).

3. A self-detachable flexible connector according to claim 2, characterized in that: The outer wall of each conical cylinder (2) is processed with a placement plane (5) along its length direction, and at least one multi-directional connection seat (4) is detachably connected to the placement plane (5).

4. A self-detachable flexible connector according to claim 1, 2 or 3, characterized in that: It also comprises a secondary flexible connecting belt (6). When a plurality of self-detachable flexible connecting members (10) are used together, one end of the secondary flexible connecting belt (6) is connected to the main flexible connecting belt (1) in one self-detachable flexible connecting member (10), and the other end of the secondary flexible connecting belt (6) is connected to the main flexible connecting belt (1) in another self-detachable flexible connecting member (10).

5. An array type wave power generation suspension assembly, using a self-detachable flexible connector as claimed in claim 1, 2 or 3, characterized in that: It comprises a plurality of self-detachable flexible connectors (10) and a plurality of suspended wave power generation units (11); Each suspended wave power generation unit (11) comprises a square ring-shaped main body (12), a plurality of conversion parts (13) and a plurality of suspension barrels (20); the suspension main body (12) is provided with a plurality of conversion parts (13); the square ring-shaped main body (12) is processed with two circular grooves (14) arranged in parallel; a conical column (2) is correspondingly arranged in the circular groove (14); and the plurality of suspension barrels (20) are arranged on the outer walls of the four sides of the square ring-shaped main body (12); Each self-detachable flexible connecting member (10) comprises a main flexible connecting belt (1), two conical cylinders (2) and two bottom flexible connecting belts (3); the two conical cylinders (2) are arranged in parallel, the large ends of each conical cylinder (2) are arranged opposite to each other, the two ends of the main flexible connecting belt (1) are respectively connected to the large ends of the two conical cylinders (2), the conical cylinders (2) and the bottom flexible connecting belts (3) are arranged in a one-to-one correspondence, one end of each bottom flexible connecting belt (3) is detachably connected to the large end of the corresponding conical cylinder (2), and the other end of each bottom flexible connecting belt (3) is detachably connected to the small end of the corresponding conical cylinder (2); A suspended wave power generation unit (11) is a centrally placed suspended wave power generation unit, one end of the centrally placed suspended wave power generation unit is connected to an adjacent suspended wave power generation unit (11) via a self-detachable flexible connector (10), and the other end of the centrally placed suspended wave power generation unit is connected to another adjacent suspended wave power generation unit (11) via another self-detachable flexible connector (10).

6. An array type wave power generation suspension assembly, using the self-detachable flexible connector of claim 4, characterized in that: The invention comprises N secondary flexible connection belts (6), 2N self-detachable flexible connection pieces (10) and 2N+2 suspended wave power generation units (11); the 2N+2 suspended wave power generation units (11) are divided into two columns of suspended wave power generation bars; the two columns of suspended wave power generation bars are arranged horizontally in parallel; each column of suspended wave power generation bars comprises N+1 suspended wave power generation units (11); the N+1 suspended wave power generation units (11) are arranged horizontally in parallel in sequence; a self-detachable flexible connection piece (10) is arranged between two adjacent suspended wave power generation units (11); and two adjacent self-detachable flexible connection pieces (10) between the two columns of suspended wave power generation bars are connected via a secondary flexible connection belt (6); Each self-detachable flexible connecting member (10) comprises a main flexible connecting belt (1), two conical cylinders (2) and two bottom flexible connecting belts (3); the two conical cylinders (2) are arranged in parallel, the large ends of each conical cylinder (2) are arranged opposite to each other, the two ends of the main flexible connecting belt (1) are respectively connected to the large ends of the two conical cylinders (2), the conical cylinders (2) and the bottom flexible connecting belts (3) are arranged in a one-to-one correspondence, one end of each bottom flexible connecting belt (3) is detachably connected to the large end of the corresponding conical cylinder (2), and the other end of each bottom flexible connecting belt (3) is detachably connected to the small end of the corresponding conical cylinder (2); Each suspended wave power generation unit (11) comprises a square ring-shaped main body (12), a plurality of conversion parts (13) and a plurality of suspension barrels (20); the suspension main body (12) is provided with a plurality of conversion parts (13); the square ring-shaped main body (12) is processed with two circular grooves (14) arranged in parallel; a conical column (2) is correspondingly arranged in the circular groove (14); and the plurality of suspension barrels (20) are arranged on the outer walls around the square ring-shaped main body (12).

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