A method for rock-embedded construction of integrated jacket structures for offshore wind power

Abstract

The present application discloses a rock-embedded construction method for an integrated offshore wind power conductor frame, and relates to the technical field of integrated conductor frames. The regulating mechanism of the present application includes a lifting screw rotatably connected to one end of the conductor frame body, a worm gear is fixedly connected to the top of the lifting screw, a worm gear meshing with the worm gear is rotatably connected to one end of the conductor frame body, a lifting motor is fixedly connected to one end of the conductor frame body, the output end of the lifting motor is fixedly connected to the worm gear, the bottom of the lifting screw is threadedly connected to a mounting platform, and the bottom of the mounting platform is symmetrically slidably connected to a buoyancy slide bar. After the conductor frame body is inserted into the foundation pile and fixed, the lifting motor is started to drive the lifting screw to form a threaded connection with the mounting platform, and the airbag is driven to move closer to the sea surface along the length direction of the conductor frame body, and then the wave energy is used to push the airbag to drive the buoyancy slide bar to form a sliding connection with the mounting platform, and cooperate with the power generation component to convert the wave energy into electrical energy.

Description

Technical Field

[0001] The present application relates to the technical field of integrated conductor frames, and in particular to a rock-embedded construction method for an integrated conductor frame for offshore wind power generation. Background Art

[0002] With the growing global demand for clean energy, offshore wind power, as an important part of renewable energy, has developed rapidly in recent years. Offshore wind power development has great potential. However, the construction of offshore wind power projects faces many challenges, one of which is how to build a stable and reliable foundation structure in a complex and changeable marine environment. As one of the commonly used foundation forms for offshore wind farms, the jacket foundation has the advantages of small construction volume, fast installation speed, relatively low cost and guaranteed quality, and is especially suitable for the construction of offshore wind farms. However, in some sea areas, due to the shallow seabed cover, the jacket engineering piles need to be embedded in the rock, which undoubtedly increases the difficulty and cost of construction.

[0003] At present, the rock-embedded construction method of offshore wind turbine integrated jackets has made some progress. The traditional method usually involves building a temporary construction platform on the jacket, and using equipment such as cranes to drive rock-embedded piles into the seabed rock layer one by one, which greatly strengthens the connection strength between the jacket and the seabed rock layer, allowing the jacket to be stably fixed on the seabed in harsh marine environments.

[0004] Although breakthroughs in rock-embedded construction technology have strengthened the connection strength between the jacket and the seabed rock, most of the existing jacket foundations only serve as supporting structures for wind turbine towers, with relatively single functions. They fail to fully utilize marine resources such as wave energy in the sea areas where they are located, greatly limiting the comprehensive benefits and sustainable development potential of offshore wind power projects. Summary of the invention

[0005] The purpose of this application is to solve the problem that most of the existing jacket foundations only serve as the supporting structure of the wind turbine tower, have relatively single functions, fail to fully utilize the marine resources such as wave energy in the sea area where they are located, and greatly limit the comprehensive benefits and sustainable development potential of offshore wind power projects. This application provides a rock-embedded construction method for an integrated offshore wind turbine jacket.

[0006] In order to achieve the above-mentioned purpose, this application specifically adopts the following technical solutions: A rock-embedded construction method for an integrated offshore wind power jacket includes a jacket body and foundation piles, an air bag, an adjustment mechanism, and a power generation component, including the following steps: Step 1: First, prefabricate the jacket body according to the design requirements, and inspect it, and then transport the prefabricated jacket body to the offshore wind power construction site; Step 2: Set up a construction platform at the offshore wind power construction site to ensure a stable and safe construction process; Step 3: Use a rock-embedded drill to drill a rock-embedded hole in the seabed rock, and make the depth, diameter and position of the rock-embedded hole meet the design requirements, and then use rock-embedded technology to fix the foundation pile inside the rock-embedded hole; Step 4: hoist the jacket body to the construction platform and perform preliminary positioning, then insert the bottom of the jacket body into the interior of the foundation pile, and pour high-strength grouting material into the interior of the foundation pile. After the grouting material solidifies, a firm connection is formed to enhance the stability of the jacket body; Step 5: Start the regulating mechanism to drive the airbag to float on the sea surface, and use the sea waves to push the airbag to drive the power generation assembly to generate electricity, so as to increase the application scope and development potential of the conductor frame body.

[0007] Furthermore, the adjustment mechanism includes a lifting screw rotatably connected to one end of the catheter frame body, the top of the lifting screw is fixedly connected to a worm gear, one end of the catheter frame body is rotatably connected to a worm meshing with the worm gear, one end of the catheter frame body is fixedly connected to a lifting motor, the output end of the lifting motor is fixedly connected to the worm gear, the bottom of the lifting screw is threadedly connected to a mounting platform, the bottom of the mounting platform is symmetrically slidably connected to a buoyancy slide bar, the bottoms of the two buoyancy slide bars are fixedly connected to a buoyancy connecting plate, the airbag is fixedly connected to the bottom of the buoyancy connecting plate, and one end of the catheter frame body is equipped with a follower component for guiding the mounting platform to move along the length direction of the catheter frame body.

[0008] By adopting the above technical scheme and arranging the coordinated use of the follower assembly and the power generation assembly, it is convenient to start the lifting motor to drive the lifting screw to form a threaded connection with the mounting platform after the installation of the conductor frame body is inserted into the foundation pile and fixed, and drive the airbag to move closer to the sea surface along the length direction of the conductor frame body, and then use the wave energy to push the airbag to drive the buoyancy slide bar to form a sliding connection with the mounting platform, and cooperate with the power generation assembly to convert the wave energy into electrical energy, so as to facilitate the coordinated use of the airbag and the buoyancy of seawater, so that the conductor frame body can generate electricity by using wave energy while supporting the operation of the wind power generation equipment, thereby making full use of the wave energy in the sea area, improving the functionality of the conductor frame body and the comprehensive benefits and sustainable development potential of the offshore wind power project.

[0009] Furthermore, the follower assembly includes four follower slide grooves evenly arranged at one end of the mounting platform, the follower slide grooves are slidably connected with follower slide rods inside, and one end of the catheter frame body is provided with a lifting slide groove adapted to the follower slide rod.

[0010] By adopting the above technical scheme, by setting the coordinated use of the follower slide bar, the follower slide groove and the lifting slide groove, it is convenient to drive the mounting platform to drive the follower slide bar to move along the length direction of the lifting slide groove, while the follower slide bar is pushed by the inner wall of the lifting slide groove and moves along the length direction of the follower slide groove, thereby effectively improving the smoothness of the mounting platform along the length direction of the catheter frame body and reducing the jamming between the mounting platform and the catheter frame body.

[0011] Furthermore, the power generation assembly includes an air chamber opened at the bottom of the mounting platform, the top of the buoyancy connecting plate is fixedly connected to a sealing gas rod adapted to the air chamber, the top of the guide tube frame body is fixedly connected to an air turbine generator, and one end of the air chamber is connected to the air turbine generator through a pipeline.

[0012] By adopting the above technical solution and arranging the coordinated use of the air chamber and the sealing air rod, when the airbag is pushed by the waves and drives the sealing air rod to slide along the inner wall of the air chamber, the sealing air rod pushes the air flow inside the air chamber and cooperates with the air turbine generator to generate electricity, thereby effectively improving the functionality of the device.

[0013] Furthermore, one end of the catheter frame body is evenly slidably sleeved with four scraper sleeve rods, one end of the scraper sleeve rod is fixedly connected to a transmission rack, one end of the catheter frame body is rotatably connected to a transmission gear meshing with the transmission rack, and one end of the transmission gear is installed with a transmission assembly for connecting to the buoyancy connecting plate.

[0014] By adopting the above technical solution, by setting up the transmission component and the coordinated use of the scraper sleeve rod and the transmission rack, it is convenient that when the airbag is pushed by the waves to drive the buoyancy connecting plate to move back and forth along the length direction of the catheter frame body, the transmission gear and the transmission rack are driven to engage, and the scraper sleeve rod is pushed to move back and forth to scrape off the marine life adhered to the surface of the catheter frame body, thereby effectively reducing the adhesion of marine life on the surface of the catheter frame body and extending the service life of the catheter frame body.

[0015] Furthermore, the transmission assembly includes a transmission rod fixedly connected to the hinged end of the transmission gear, one end of the transmission rod is fixedly connected to a lock body, and one end of the buoyancy connecting plate is hinged with a connecting ring adapted to the lock body.

[0016] By adopting the above technical solution, by setting the transmission rod and the lock body and the connecting ring for use in coordination, it is convenient to drive the buoyancy connecting plate to drive the transmission rack to reciprocate around the hinge shaft through the transmission rod after the lock body and the connecting ring are pulled to form a lock connection, thereby effectively improving the practicality of the device.

[0017] Furthermore, four corners of the bottom of the jacket body are fixedly connected with a plurality of reinforcing ribs, and the reinforcing ribs are inserted into the interior of the foundation piles.

[0018] By adopting the above technical solution, by providing the reinforcement ribs and using them in conjunction with the jacket body, the contact area between the jacket body and the grouting material is effectively increased, thereby further strengthening the connection strength between the jacket body and the foundation piles.

[0019] In summary, the present application includes at least one of the following beneficial effects: 1. By setting up the coordinated use of the follower component and the power generation component, after the installation of the conductor frame body is completed by inserting it into the foundation pile and fixing it, the lifting motor is started to drive the lifting screw to form a threaded connection with the mounting platform, and the airbag is driven to move closer to the sea surface along the length direction of the conductor frame body, and then the wave energy is used to push the airbag to drive the buoyancy slide bar to form a sliding connection with the mounting platform, and the power generation component is used to convert the wave energy into electrical energy, so that the coordinated use of the airbag and the buoyancy of seawater can be used to enable the conductor frame body to generate electricity using wave energy while supporting the operation of the wind power generation equipment, thereby making full use of the wave energy in the sea area, improving the functionality of the conductor frame body and the comprehensive benefits and sustainable development potential of the offshore wind power project.

[0020] 2. By setting up the transmission assembly in coordination with the scraper sleeve and the transmission rack, when the airbag is pushed by the waves to drive the buoyancy connecting plate to move back and forth along the length direction of the catheter frame body, the transmission gear is driven to engage with the transmission rack, and the scraper sleeve is pushed to move back and forth to scrape off the marine life adhering to the surface of the catheter frame body, thereby effectively reducing the adhesion of marine life on the surface of the catheter frame body and extending the service life of the catheter frame body.

[0021] 3. By setting up the coordinated use of the transmission rod, the lock body and the connecting ring, after the lock body and the connecting ring are pulled to form a lock connection, the buoyancy connecting plate can drive the transmission rack to reciprocate around the hinge shaft through the transmission rod, which effectively improves the practicality of the device. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 It is a schematic diagram of the three-dimensional structure of the device body in this application.

[0023] Figure 2 It is a schematic diagram of the internal structure of the catheter frame body in this application.

[0024] Figure 3 It is a schematic diagram of the internal structure of the follower slide in this application.

[0025] Figure 4 It is a three-dimensional structural schematic diagram of the scraper sleeve rod in this application.

[0026] Figure 5 It is a schematic diagram of the three-dimensional structure of the reinforcing rib in this application.

[0027] Description of reference numerals: 1. The main body of the catheter frame; 2. The foundation pile; 3. The air bag; 4. The lifting screw; 5. The worm gear; 6. The worm; 7. The lifting motor; 8. The mounting platform; 9. The buoyancy slide bar; 10. The buoyancy connecting plate; 11. The follow-up slide; 12. The follow-up slide bar; 13. The lifting slide; 14. The air chamber; 15. The sealing gas rod; 16. The air turbine generator; 17. The scraper sleeve rod; 18. The transmission rack; 19. The transmission gear; 20. The transmission rod; 21. The locking body; 22. The connecting ring; 23. The reinforcing rib. DETAILED DESCRIPTION

[0028] The following is combined with Figure 1-5 This application is described in further detail.

[0029] The embodiment of the present application discloses a rock-embedded construction method for an offshore wind power integrated conductor frame.

[0030] Reference Figure 1 and Figure 2 A rock-embedded construction method for an integrated offshore wind power jacket comprises a jacket body 1, a foundation pile 2, an air bag 3, an adjustment mechanism, and a power generation component, including the following steps: Step 1: First, prefabricate the jacket body 1 according to the design requirements, and inspect it, and then transport the prefabricated jacket body 1 to the offshore wind power construction site; Step 2: Set up a construction platform at the offshore wind power construction site to ensure a stable and safe construction process; Step 3: Use a rock-embedded drill to drill a rock-embedded hole in the seabed rock, and make the depth, diameter and position of the rock-embedded hole meet the design requirements, and then use rock-embedded technology to fix the foundation pile 2 inside the rock-embedded hole; Step 4: hoist the jacket body 1 to the construction platform and perform preliminary positioning, then insert the bottom of the jacket body 1 into the interior of the foundation pile 2, and pour high-strength grouting material into the interior of the foundation pile 2, and then after the grouting material solidifies, a firm connection is formed to enhance the stability of the jacket body 1; Step 5: Start the regulating mechanism to drive the airbag 3 to float on the sea surface, and use the sea waves to push the airbag 3 to drive the power generation assembly to generate electricity, so as to increase the application scope and development potential of the jacket body 1.

[0031] Reference Figure 1-Figure 3The adjusting mechanism includes a lifting screw 4 rotatably connected to one end of the catheter frame body 1, a worm gear 5 is fixedly connected to the top of the lifting screw 4, a worm 6 meshing with the worm gear 5 is rotatably connected to one end of the catheter frame body 1, a lifting motor 7 is fixedly connected to one end of the catheter frame body 1, and the output end of the lifting motor 7 is fixedly connected to the worm 6, the bottom of the lifting screw 4 is threadedly connected to a mounting platform 8, the bottom of the mounting platform 8 is symmetrically slidably connected to a buoyancy slide bar 9, the bottoms of the two buoyancy slide bars 9 are fixedly connected to a buoyancy connecting plate 10, the airbag 3 is fixedly connected to the bottom of the buoyancy connecting plate 10, and a follower component for guiding the mounting platform 8 to move along the length direction of the catheter frame body 1 is installed at one end of the catheter frame body 1; The follower assembly includes four follower slide grooves 11 evenly arranged at one end of the mounting platform 8, a follower slide rod 12 is slidably connected inside the follower slide groove 11, and a lifting slide groove 13 adapted to the follower slide rod 12 is arranged at one end of the catheter frame body 1; In addition, the power generation assembly includes an air chamber 14 opened at the bottom of the mounting platform 8, a sealing gas rod 15 adapted to the air chamber 14 is fixedly connected to the top of the buoyancy connecting plate 10, an air turbine generator 16 is fixedly connected to the top of the catheter frame body 1, and one end of the air chamber 14 is connected to the air turbine generator 16 through a pipeline.

[0032] When in use, when the main body 1 of the hoisting jacket frame is inserted into the interior of the foundation pile 2 and fixed, the worm 6 is driven to rotate by starting the lifting motor 7, and the worm 6 is driven to mesh with the worm wheel 5, so that the worm wheel 5 drives the lifting screw 4 to rotate, and drives the lifting screw 4 to form a threaded connection with the mounting platform 8, and then drives the mounting platform 8 to drive the follower slide bar 12 to slide downward along the inside of the lifting slide groove 13, and at the same time, the mounting platform 8 drives the buoyancy connecting plate 10 to push the airbag 3 closer to the sea surface, and the airbag 3 is supported by the buoyancy of seawater, so that the airbag 3 pushes the buoyancy connecting plate 10 to drive the buoyancy slide bar 9 to form a sliding connection with the mounting platform 8, so that the buoyancy slide bar 9 drives the buoyancy connecting plate 10 and the airbag 3 along the length direction of the jacket frame main body 1, and is driven by the buoyancy of seawater to move back and forth; When the airbag 3 is driven by the buoyancy of seawater to push the buoyancy connecting plate 10 to reciprocate along the length direction of the jacket body 1, the sealing gas rod 15 is driven to reciprocate along the inside of the air chamber 14, so that the sealing gas rod 15 changes the internal space of the air chamber 14 and pushes the air inside the air chamber 14 to flow, and at the same time, the air inside the air chamber 14 flows to the air turbine generator 16 through the pipeline, and the air turbine generator 16 is used to generate electricity; At the same time, when the driving mounting platform 8 drives the follower slide bar 12 to move along the length of the lifting slide slot 13, one end of the follower slide bar 12 is resisted by the inner wall of the lifting slide slot 13, so that one end of the follower slide bar 12 moves along the length direction of the follower slide slot 11 and retracts into the interior of the follower slide slot 11, thereby effectively reducing the jamming between the follower slide bar 12 and the conductor frame body 1 when the mounting platform 8 drives the follower slide bar 12 to move along the length direction of the lifting slide slot 13, thereby facilitating the use of the airbag 3 and the buoyancy of seawater, so that the conductor frame body 1 can use wave energy to generate electricity while supporting the operation of the wind power generation equipment, thereby making full use of the wave energy in the sea area, improving the functionality of the conductor frame body 1 and the comprehensive benefits and sustainable development potential of the offshore wind power project.

[0033] Reference Figure 1 and Figure 2 , Figure 3 One end of the catheter frame body 1 is evenly and slidably sleeved with four scraper sleeve rods 17, one end of the scraper sleeve rod 17 is fixedly connected to a transmission rack 18, one end of the catheter frame body 1 is rotatably connected to a transmission gear 19 meshing with the transmission rack 18, and one end of the transmission gear 19 is installed with a transmission assembly for connecting with the buoyancy connection plate 10; The transmission assembly includes a transmission rod 20 fixedly connected to the hinged end of the transmission gear 19 , one end of the transmission rod 20 is fixedly connected to a lock body 21 , and one end of the buoyancy connecting plate 10 is hinged with a connecting ring 22 adapted to the lock body 21 .

[0034] When in use, firstly, the transmission rod 20 is manually pulled around the hinge axis to drive the lock body 21 to move closer to the connecting ring 22, and the lock body 21 is used to lock and connect with the connecting ring 22. Then, the airbag 3 is pushed by the waves to drive the buoyancy connecting plate 10 to reciprocate along the length direction of the catheter frame body 1. At the same time, the buoyancy connecting plate 10 is used in conjunction with the lock body 21 through the connecting ring 22 to drive the transmission rod 20 to reciprocate around the hinge axis. At the same time, the transmission rod 20 drives the transmission gear 19 to mesh with the transmission rack 18, and at the same time drives the transmission rack 18 to drive the scraper sleeve rod 17 to reciprocate along one end of the catheter frame body 1, so that the scraper sleeve rod 17 scrapes off the marine organisms adhered to the surface of the catheter frame body 1, thereby effectively reducing the adhesion of marine organisms on the surface of the catheter frame body 1 and extending the service life of the catheter frame body 1.

[0035] Reference Figure 1 and Figure 4 A plurality of reinforcing ribs 23 are fixedly connected to the four corners of the bottom of the jacket body 1 , and the reinforcing ribs 23 are inserted into the interior of the foundation pile 2 .

[0036] During use, when high-strength grouting material is poured into the interior of the foundation pile 2 and the grouting material is cured and connected to the conductor frame body 1, a plurality of reinforcing ribs 23 are provided at one end of the conductor frame body 1, thereby effectively increasing the contact area between the conductor frame body 1 and the grouting material, thereby strengthening the connection strength between the conductor frame body 1 and the foundation pile 2 and improving the stability of the device.

[0037] The implementation principle of the rock-embedded construction method of an offshore wind power integrated jacket in this embodiment is as follows: after the jacket body 1 is inserted into the foundation pile 2 and fixed, the locking body 21 is driven to approach the connecting ring 22 around the hinge shaft by manually pulling the transmission rod 20, and the locking body 21 is locked with the connecting ring 22, and then the lifting motor 7 is started to drive the worm 6 to mesh with the worm wheel 5, and at the same time, the worm wheel 5 drives the lifting screw 4 to form a threaded connection with the mounting platform 8, thereby driving the mounting platform 8 to drive the follower slide bar 12 to slide downward along the inside of the lifting slide slot 13, and at the same time, the follower slide bar 12 is driven to move downward along the inside of the lifting slide slot 13. One end of the movable slide bar 12 is resisted by the inner wall of the lifting slide groove 13, so that one end of the follower slide bar 12 moves along the length direction of the follower slide groove 11 and retracts into the inside of the follower slide groove 11, and the mounting platform 8 drives the buoyancy connecting plate 10 to push the airbag 3 to the sea surface, and the airbag 3 is supported by the buoyancy of seawater, so that the airbag 3 pushes the buoyancy connecting plate 10 to drive the buoyancy slide bar 9 to form a sliding connection with the mounting platform 8, so that the buoyancy slide bar 9 drives the buoyancy connecting plate 10 and the airbag 3 along the length direction of the jacket body 1, and is driven by the buoyancy of seawater to move back and forth; Then, when the airbag 3 is driven by the buoyancy of seawater to push the buoyancy connecting plate 10 to reciprocate along the length direction of the jacket body 1, the sealing gas rod 15 is driven to reciprocate along the inside of the air chamber 14, so that the sealing gas rod 15 changes the internal space of the air chamber 14 and pushes the air inside the air chamber 14 to flow, and at the same time, the air inside the air chamber 14 flows to the air turbine generator 16 through the pipeline, and the air turbine generator 16 is used to generate electricity; Then, when the airbag 3 is pushed by the waves, the buoyancy connecting plate 10 is driven to reciprocate along the length direction of the catheter frame body 1, and the buoyancy connecting plate 10 is used in conjunction with the locking body 21 through the connecting ring 22 to drive the transmission rod 20 to reciprocate around the hinge axis, and at the same time, the transmission rod 20 drives the transmission gear 19 to engage with the transmission rack 18, and at the same time drives the transmission rack 18 to drive the scraper sleeve rod 17 to reciprocate along one end of the catheter frame body 1, so that the scraper sleeve rod 17 scrapes off the marine organisms adhered to the surface of the catheter frame body 1.

Claims

1. A rock-embedded construction method for an integrated offshore wind power jacket, comprising a jacket body (1), foundation piles (2), an air bag (3), an adjustment mechanism, and a power generation component, characterized in that: The steps include: Step 1: First, prefabricate the jacket body (1) according to the design requirements, and inspect it, and then transport the prefabricated jacket body (1) to the offshore wind power construction site; Step 2: Set up a construction platform at the offshore wind power construction site to ensure a stable and safe construction process; Step 3: Use a rock-embedded drill to drill a rock-embedded hole in the seabed rock, and make sure that the depth, diameter and position of the rock-embedded hole meet the design requirements, and then use rock-embedded technology to fix the foundation pile (2) inside the rock-embedded hole; Step 4: hoist the jacket body (1) to the construction platform and perform preliminary positioning, then insert the bottom of the jacket body (1) into the interior of the foundation pile (2), and pour high-strength grouting material into the interior of the foundation pile (2), and then after the grouting material solidifies, a firm connection is formed to enhance the stability of the jacket body (1); Step 5: The regulating mechanism is activated to drive the airbag (3) to float on the sea surface, and the sea waves are used to push the airbag (3) to drive the power generation component to generate electricity, thereby increasing the application scope and development potential of the conductor frame body (1).

2. The rock-embedded construction method for an offshore wind power integrated jacket according to claim 1, characterized in that: The adjustment mechanism comprises a lifting screw (4) rotatably connected to one end of the catheter frame body (1), a worm gear (5) is fixedly connected to the top of the lifting screw (4), a worm (6) meshing with the worm gear (5) is rotatably connected to one end of the catheter frame body (1), a lifting motor (7) is fixedly connected to one end of the catheter frame body (1), an output end of the lifting motor (7) is fixedly connected to the worm gear (6), a mounting platform (8) is threadedly connected to the bottom of the lifting screw (4), a buoyancy slide bar (9) is symmetrically slidably connected to the bottom of the mounting platform (8), a buoyancy connecting plate (10) is fixedly connected to the bottom of the two buoyancy slide bars (9), the airbag (3) is fixedly connected to the bottom of the buoyancy connecting plate (10), and a follower component for guiding the mounting platform (8) to move along the length direction of the catheter frame body (1) is installed at one end of the catheter frame body (1).

3. The rock-embedded construction method for an offshore wind power integrated jacket according to claim 2, characterized in that: The follower assembly comprises four follower slide grooves (11) uniformly arranged at one end of the mounting platform (8), a follower slide rod (12) being slidably connected inside the follower slide groove (11), and a lifting slide groove (13) adapted to the follower slide rod (12) is arranged at one end of the catheter frame body (1).

4. The rock-embedded construction method for an offshore wind power integrated jacket according to claim 2, characterized in that: The power generation assembly comprises an air chamber (14) opened at the bottom of the mounting platform (8), a sealing air rod (15) adapted to the air chamber (14) is fixedly connected to the top of the buoyancy connection plate (10), an air turbine generator (16) is fixedly connected to the top of the catheter frame body (1), and one end of the air chamber (14) is connected to the air turbine generator (16) through a pipeline.

5. The rock-embedded construction method for an integrated offshore wind power jacket according to claim 1, characterized in that: One end of the catheter frame body (1) is evenly and slidably sleeved with four scraper sleeve rods (17), one end of each scraper sleeve rod (17) is fixedly connected to a transmission rack (18), one end of the catheter frame body (1) is rotatably connected to a transmission gear (19) meshing with the transmission rack (18), and one end of the transmission gear (19) is mounted with a transmission assembly for connecting to a buoyancy connection plate (10).

6. The rock-embedded construction method for an integrated offshore wind power jacket according to claim 5, characterized in that: The transmission assembly comprises a transmission rod (20) fixedly connected to the hinged end of the transmission gear (19), one end of the transmission rod (20) being fixedly connected to a lock body (21), and one end of the buoyancy connection plate (10) being hinged to a connection ring (22) adapted to the lock body (21).

7. The rock-embedded construction method for an integrated offshore wind power jacket according to claim 1, characterized in that: A plurality of reinforcing ribs (23) are fixedly connected to the four corners of the bottom of the jacket body (1), and the reinforcing ribs (23) are inserted into the interior of the foundation piles (2).

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