A floating offshore wind tower with high assembly performance

Abstract

The present invention discloses a floating offshore wind measurement tower with high assembly performance. By fixing the tower base and the tower pole, the tower base can be linked to the tower pole for circular motion adjustment during circular motion adjustment, so that the tower pole and the existing wind measurement structure on the tower pole can be conveniently adjusted in position. When in use, the slide rail passes through the side channel of the disk and the upper cavity of the disk to connect the tower base and the linkage plate, so that the tower base and the linkage plate can be linked to each other for coordinated movement. When in use, the slide rail can be moved to link the tower base and the linkage plate to perform circular motion relative to the middle disk, so that the relative position of the linked tower base and the linkage plate on the middle disk can be adjusted, so that it can better adapt to the offshore wind measurement environment.

Description

Technical Field

[0001] The invention relates to the technical field of offshore wind measurement towers, in particular to a floating offshore wind measurement tower with high assembly performance. Background Art

[0002] Wind power is a renewable, pollution-free energy source. Offshore wind energy resources are abundant and stable, wind conditions are better than on land, and there are fewer land use, noise pollution, bird protection, electromagnetic wave interference, and no land acquisition or other issues.

[0003] Most of the existing wind measurement towers are fixedly installed at sea, and their ends cannot be adjusted to change the position of their wind measurement components, resulting in poor flexibility during assembly during use. At the same time, no safety protection can be provided on the tower body. The floating performance of the tower body is single, resulting in poor stability after installation. In addition, the seabed is complex, and the fixed structure between the tower body and the seabed cannot be flexibly changed to change its assembly position, resulting in poor safety performance during assembly. Summary of the invention

[0004] The object of the present invention is to provide a floating offshore wind measurement tower with high assembly performance, so as to solve the problem proposed in the above background technology that most of the existing wind measurement towers are fixedly installed at sea, and their ends cannot be adjusted to change the position of their wind measurement components, resulting in poor flexibility in assembly during use. At the same time, no safety protection can be performed on the tower body, and the floating performance of the tower body is single, resulting in poor stability after installation. In addition, the seabed is complex, and the fixed structure between the tower body and the seabed cannot flexibly change its assembly position, resulting in poor safety performance during assembly.

[0005] To achieve the above object, the present invention provides the following technical solutions:

[0006] A floating offshore wind measurement tower with high assembly performance comprises a tower pole, a transfer mechanism is installed at the bottom of the tower pole, tower lower columns are installed at the bottoms of both sides of the transfer mechanism, a tower assembly mechanism is arranged at the side ends of the tower lower columns, a grafting ring is installed at the bottom of the tower lower column, a ring sliding column is fixed at the top edge of the grafting ring, a ring buckle is installed at the bottom edge of the grafting ring, a base plate is arranged at the bottom of the grafting ring, and base fixing mechanisms are arranged at both sides of the base plate;

[0007] The transfer mechanism includes a middle plate, a plate side channel is opened on the inner side of the middle plate, a plate upper cavity is opened on the upper wall of the middle plate, a tower seat is placed on the outer end of the plate upper cavity, a slide rail is fixed to the bottom of the tower seat, and a linkage piece is fixed to the side wall of the slide rail.

[0008] Preferably, support pieces are respectively provided at both ends of the linkage piece.

[0009] Preferably, the tower base is fixedly connected to the tower pole.

[0010] Preferably, the support pieces are symmetrically distributed about the center of the linkage piece.

[0011] Preferably, the tower group mechanism includes a middle seat, side blocks are fixed to the side end walls of the middle seat, the end walls of the side blocks are provided with bayonet slots, a middle cavity is penetrated through the middle of the middle seat, a center frame is arranged at the inner end of the middle cavity, an inner chip is fixed to one side of the center frame, a turning bar is penetrated through the middle of the inner chip, side chips are arranged on both sides of the turning bar, a screw is penetrated through the other end of the center frame, and outer plates are arranged on adjacent surfaces to the surface where the side blocks are located.

[0012] Preferably, the middle seat is threadedly connected to the center frame via a screw rod.

[0013] Preferably, the side chips are symmetrically distributed about the center of the middle seat.

[0014] Preferably, the base fixing mechanism includes a base bar column, the upper end wall of the base bar column is provided with a column buckle hole, the end of the base bar column is provided with an external connection block, and the side wall of the external connection block is fixed with a block locking strip, a base through-hole is provided on the side wall of the base bar column close to the external connection block, an inner winding column is provided on the inner side of the base through-hole, winding disks are fixed on both sides of the inner winding column, and a disk locking hole is provided on the side of the winding disk close to the external connection block.

[0015] Preferably, the block locking strip is snap-fitted with the disk locking hole, and the column buckle hole is snap-fitted with the grafting ring.

[0016] Preferably, a reflective sheet is arranged in the middle of the tower.

[0017] Compared with the prior art, the present invention has the following beneficial effects: the present invention provides a floating offshore wind measurement tower with high assembly performance. By fixing the tower base and the tower pole, the tower base can be linked to the tower pole for circular motion adjustment when the circular motion is adjusted, so that the tower pole and the prior art wind measurement structure on the tower pole can be conveniently adjusted accordingly. When in use, the slide rail passes through the side channel of the disk and the upper cavity of the disk, connects the tower base and the linkage plate, and allows the tower base and the linkage plate to be linked to cooperate in movement. When in use, the slide rail can be moved to link the tower base and the linkage plate to perform circular motion relative to the middle disk, and the relative position of the linked tower base and the linkage plate on the middle disk is adjusted, so that it is convenient for it to better adapt to the offshore wind measurement environment.

[0018] Furthermore, support pieces are respectively provided at both ends of the linkage piece. When the support piece at the end of one linkage piece moves outward, it can fit with the support piece at the end of the other linkage piece. At this time, when one of the tower bases and the linkage piece moves in a circle and adjusts its position, it can drive the other tower base and the linkage piece to adjust their positions synchronously, so that they have synchronous performance when adjusting.

[0019] Furthermore, a reflective sheet is placed in the middle of the tower pole, which is convenient for providing a certain reflective safety warning function at sea at night;

[0020] Furthermore, the block locking strip and the disk locking hole are clamped together, the column buckle hole and the grafting ring are clamped together, the grafting ring is moved downward, and the buckle at the bottom of the grafting ring is buckled into the column buckle hole to limit and lock the base bar column. Through the clamping of the block locking strip and the disk locking hole, the external connection block and the winding disk can be clamped together to achieve the effect of locking the winding disk. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 This is a schematic structural diagram of a floating offshore wind tower with high assembly performance according to the present invention;

[0022] Figure 2 It is a schematic diagram of the three-dimensional structure of a transfer mechanism of a floating offshore wind measurement tower with high assembly performance according to the present invention;

[0023] Figure 3 It is a schematic diagram of the three-dimensional structure of a tower assembly mechanism of a floating offshore wind measurement tower with high assembly performance according to the present invention;

[0024] Figure 4 It is a schematic diagram of the three-dimensional structure of a grafting ring of a floating offshore wind measurement tower with high assembly performance according to the present invention;

[0025] Figure 5 It is a schematic diagram of the three-dimensional structure of a base fixing mechanism of a floating offshore wind measurement tower with high assembly performance according to the present invention;

[0026] Figure 6 The present invention is a schematic diagram of a three-dimensional structure of a block locking bar of a floating offshore wind measurement tower with high assembly performance.

[0027] In the figure: 1. tower pole; 2. reflective sheet; 3. transfer mechanism; 4. middle disk; 5. disk side road; 6. disk upper cavity; 7. tower base; 8. slide rail; 9. linkage sheet; 10. support sheet; 11. tower lower column; 12. tower assembly mechanism; 13. middle base; 14. side block; 15. bayonet; 16. center frame; 17. inner chip; 18. transfer bar; 19. side chip; 20. screw rod; 21. middle cavity; 22. outer sheet; 23. grafting ring; 24. ring sliding column; 25. buckle; 26. base fixing mechanism; 27. base bar column; 28. column buckle hole; 29. ​​base through-hole; 30. inner winding column; 31. winding disk; 32. disk locking hole; 33. outer connection block; 34. block locking bar; 35. base disk. DETAILED DESCRIPTION

[0028] The present invention is further described in detail below in conjunction with specific embodiments, which are intended to explain the present invention rather than to limit it.

[0029] like Figure 1-6As shown, the present invention provides a floating offshore wind measurement tower with high assembly performance, including a tower pole 1, a reflective sheet 2, a transfer mechanism 3, a middle plate 4, a plate side channel 5, a plate upper cavity 6, a tower base 7, a slide rail 8, a linkage sheet 9, a support sheet 10, a tower lower column 11, a tower assembly mechanism 12, a middle seat 13, a side block 14, a bayonet 15, a center frame 16, an inner chip 17, a transfer bar 18, a side chip 19, a screw rod 20, a middle cavity 21, an outer sheet 22, a grafting ring 23, a ring sliding column 24, a ring buckle 25, a base fixing mechanism 26, a base bar column 27, a column buckle hole 28, a base through hole 29, an inner winding Column 30, winding disk 31, disk lock hole 32, outer connection block 33, block lock strip 34 and base plate 35, the middle part of tower pole 1 is provided with reflective sheet 2, and the bottom of tower pole 1 is installed with transfer mechanism 3, the bottom of left and right sides of transfer mechanism 3 are fixed with tower lower column 11, and the side end of tower lower column 11 is provided with tower assembly mechanism 12, grafting ring 23 is provided at the bottom of tower lower column 11, and the top of grafting ring 23 is fixed with ring sliding column 24, the bottom of grafting ring 23 is provided with ring buckle 25, the bottom end of grafting ring 23 is provided with base plate 35, and the side end of base plate 35 is provided with base fixing mechanism 26;

[0030] The offshore wind measurement structure of the prior art installed by the tower 1 and the end of the tower 1 can be used for offshore wind measurement, and the reflective sheet 2 can be used for warning at night, and the tower 1 can be installed through the transfer mechanism 3, and the two towers 1 can be flexibly adjusted to a single position, and the towers 1 can also be linked and synchronously regulated, so that the towers 1 can be driven to a suitable position for offshore measurement. The lower tower column 11 can cooperate with the base plate 35 to connect and assemble the entire body. Further, the floating objects are assembled through the tower assembly mechanism 12 to enhance the buoyancy of the entire body. At the same time, the grafting ring 23 can be used to lock the position of the base mechanism 26, so that the base mechanism 26 can be adjusted and positioned for use. At the same time, the base mechanism 26 can be connected to the anchor line and other offshore fixed assembly structures to facilitate the offshore assembly and positioning of the body.

[0031] The transfer mechanism 3 includes a middle disk 4, a disk side channel 5, a disk upper cavity 6, a tower seat 7, a slide rail 8, a linkage piece 9 and a support piece 10. The inner end wall of the middle disk 4 is provided with a disk side channel 5, and the upper end wall of the middle disk 4 is provided with a disk upper cavity 6. The outer end of the disk upper cavity 6 is provided with a tower seat 7, and the bottom of the tower seat 7 is fixed with a slide rail 8 by welding, and the side end wall of the slide rail 8 is fixed with a linkage piece 9, and the end of the linkage piece 9 is penetrated with a support piece 10. The middle disk 4 forms a sliding structure with the slide rail 8 through the disk side channel 5 and the disk upper cavity 6, and the slide rail 8 is fixedly connected with the tower seat 7 and the linkage piece 9. The slide rail 8 passes through the disk side channel 5 and the disk upper cavity 6, connects the tower seat 7 and the linkage piece 9, and allows the tower seat 7 and the linkage piece 9 to cooperate with each other. When in use, the movable slide rail 8, the linkage tower seat 7 and the linkage piece 9 perform circular motion relative to the middle disk 4, and the relative position of the linkage tower seat 7 and the linkage piece 9 on the middle disk 4 is adjusted;

[0032] The tower base 7 is fixedly connected to the tower pole 1, and the linkage piece 9 and the support piece 10 are movably connected to each other, and the support piece 10 is symmetrically distributed about the center of the linkage piece 9. By fixing the tower base 7 and the tower pole 1, the tower base 7 can be linked to the tower pole 1 for circular motion adjustment when the circular motion is adjusted, so that the tower pole 1 and the existing wind measurement structure on the tower pole 1 can be adjusted accordingly, so that it is convenient for it to better adapt to the offshore wind measurement environment. At the same time, the linkage piece 9 and the support piece 10 can be movably adjusted. When the support piece 10 at the end of one linkage piece 9 moves outward, it can fit with the support piece 10 at the end of the other linkage piece 9. At this time, when one of the tower bases 7 and the linkage piece 9 moves in a circle and adjusts the position, it can drive the other tower base 7 and the linkage piece 9 to adjust the position synchronously, so that it has synchronization performance during adjustment, and it is convenient to better control and adjust the tower pole 1 at the end of the tower base 7. The reflective sheet 2 at the end of the tower pole 1 is made of the reflective material of the existing technology, which is convenient for it to have a certain reflective safety warning function at night at sea.

[0033] The tower assembly mechanism 12 includes a middle seat 13, a side block 14, a bayonet 15, a center frame 16, an inner chip 17, a turn bar 18, a side chip 19, a screw 20, a middle cavity 21 and an outer piece 22. The side end wall of the middle seat 13 is fixed with the side block 14, and the end wall of the side block 14 is provided with a bayonet 15. The middle part of the middle seat 13 is penetrated with a middle cavity 21, and the inner side end of the middle cavity 21 is provided with the center frame 16. The front end of the center frame 16 is fixed with an inner chip 17, and the middle part of the front end of the inner chip 17 is penetrated with a turn bar 18, and the side chip 19 is provided with the side end of the turn bar 18. The rear end of the center frame 16 is penetrated with a screw 20, and the outer pieces 22 are provided at the front and rear ends of the middle seat 13. The middle seat 13 is threadedly connected with the center frame 16 through the screw 20, and the center frame 16 The inner chip 17 is movably connected with the turning bar 18, and the inner chip 17 forms a rotating structure with the center frame 16 through the turning bar 18. By rotating the screw rod 20, the screw rod 20 and the center frame 16 are threadedly transmitted to adjust the position of the center frame 16. At the same time, the turning bar 18 is in the shape of a pentagonal prism. When the turning bar 18 rotates, it can drive the inner chip 17 to turn up. At the same time, the turning bar 18 is fixed to the side chip 19, and the side chip 19 can be linked to rotate and turn up. At this time, it has better linkage adjustment to synchronize the side chip 19 and the inner chip 17 to turn up. The center frame 16 and the turning bar 18 are movably connected, which can facilitate the center frame 16 to slide horizontally along the horizontal direction of the turning bar 18, so that when the screw rod 20 is rotated, the center frame 16 can move horizontally stably.

[0034] The side chip 19 forms a rotating structure with the middle seat 13 through the turning bar 18, and the side chip 19 is symmetrically distributed about the center of the middle seat 13. After the side chip 19 and the middle seat 13 are turned up, the screw rod 20 can be rotated to adjust the position of the center frame 16, so that the center frame 16 is horizontally displaced and close to the side chip 19. When the side chip 19 is close to the inner chip 17 in the middle of the center frame 16, floating objects on the sea can be placed on the inner side of the inner chip 17 and the side chip 19, and clamped, thereby improving the buoyancy of the entire body and enhancing its safety performance during use. The screw hole at the upper end of the outer piece 22 can be penetrated with screws to further fix the floating objects on the sea carried on the body, so as to facilitate its assembly.

[0035] The base fixing mechanism 26 includes a base bar column 27, a column buckle hole 28, a base through hole 29, an inner winding column 30, a winding disc 31, a disc lock hole 32, an outer connection block 33 and a block lock strip 34, and the upper end wall of the base bar column 27 is provided with a column buckle hole 28, the side end wall of the base bar column 27 is provided with an outer connection block 33, and the end wall of the outer connection block 33 is fixed with a block lock strip 34, the upper wall of the base bar column 27 close to the outer connection block 33 is provided with a base through hole 29, and the base The inner end of the through hole 29 is provided with an inner winding column 30, a winding disc 31 is fixed to the side end wall of the inner winding column 30, and a disc locking hole 32 is penetrated through the end wall of the winding disc 31, the outer connecting block 33 and the base bar column 27 are movably connected, and the outer connecting block 33 and the winding disc 31 form a snap-fit ​​structure through the block locking strip 34 and the disc locking hole 32, and the base bar column 27 forms a snap-fit ​​structure with the grafting ring 23 through the column buckle hole 28, and the grafting ring 23 forms a snap-fit ​​structure through the ring buckle hole 28. The sliding column 24 and the tower lower column 11 form a sliding structure. The base column 27 is moved outward through the movement between the base column 27 and the base plate 35. At this time, the grafting ring 23 can be moved downward through the movement of the ring sliding column 24 and the tower lower column 11, and the ring buckle 25 at the bottom of the grafting ring 23 is buckled into the column buckle hole 28, so as to limit and lock the base column 27, which is convenient for the firm and stable use of the base column 27. The inner winding column 30 at the end of the base column 27 can be wound and rolled up the anchor line and other structures fixed at the bottom of the offshore wind measurement tower. The anchor line and other structures can pass through the base through the base through-hole 29 and penetrate into the seabed to fix the entire body. The outer connection block 33 can be clamped with the winding plate 31 through the clamping of the block locking strip 34 and the disk locking hole 32, so as to achieve the effect of locking the winding plate 31, so as to facilitate the inner winding column 30 at the end of the winding plate 31 to be locked, so as to facilitate the more stable placement of the anchor line.

[0036] Working principle:

[0037] The slide rail 8 passes through the disk side channel 5 and the disk upper cavity 6, connecting the tower seat 7 and the linkage piece 9, so that the tower seat 7 and the linkage piece 9 can be linked to cooperate. When in use, the movable slide rail 8 can be used to link the tower seat 7 and the linkage piece 9 to perform circular motion relative to the middle disk 4, and the relative position of the linkage tower seat 7 and the linkage piece 9 on the middle disk 4 can be adjusted. By fixing the tower seat 7 and the tower pole 1, the tower seat 7 can be linked to the tower pole 1 to perform circular motion adjustment when the circular motion is adjusted, so that the tower pole 1 and the existing wind measurement structure on the tower pole 1 can be adjusted accordingly, so that it can better adapt to the offshore wind measurement environment. At the same time, the linkage piece 9 and the support piece 10 can be movably adjusted. When one of the linkage pieces 9 ends After the supporting piece 10 at the end is moved outward, it can fit with the supporting piece 10 at the end of another linkage piece 9. At this time, when one of the tower bases 7 and the linkage piece 9 moves in a circle and adjusts the position, it can drive the other tower base 7 and the linkage piece 9 to adjust the position synchronously, so that it is convenient to have synchronization performance during adjustment, and it is convenient to better control and adjust the tower pole 1 at the end of the tower base 7. The reflective sheet 2 at the end of the tower pole 1 is made of reflective material of the prior art, which is convenient for a certain reflective safety warning function at sea at night. By rotating the screw rod 20, the screw rod 20 and the center frame 16 are threaded to adjust the position of the center frame 16. At the same time, the rotating bar 18 is a pentagonal prism. When the rotating bar 18 rotates, The inner chip 17 can be driven to turn up, and the rotating bar 18 and the side chip 19 are fixed at the same time, and the side chip 19 can be linked to rotate and turn up. At this time, the side chip 19 and the inner chip 17 can be better linked to adjust the synchronous turning up operation, and the center frame 16 and the rotating bar 18 are movably connected, which can facilitate the horizontal sliding of the center frame 16 along the horizontal direction of the rotating bar 18, so that when the screw rod 20 is rotated, the center frame 16 can move horizontally stably. After the side chip 19 and the middle seat 13 are turned up, the screw rod 20 can be rotated to adjust the position of the center frame 16, so that the center frame 16 is horizontally displaced and close to the side chip 19. When the side chip 19 and the middle of the center frame 16 are When the inner chip 17 is close, floating objects on the sea can be placed on the inner side of the inner chip 17 and the side chip 19 and clamped, thereby improving the buoyancy of the entire body and enhancing its safety performance during use. The screw holes at the upper end of the outer sheet 22 can be penetrated with screws to further fix the floating objects on the sea carried on the body, making it convenient for assembly. The base bar column 27 can be moved outward through the movement between the base bar column 27 and the base plate 35. At this time, the grafting ring 23 can be moved downward through the movement of the ring sliding column 24 and the lower tower column 11, and the buckle 25 at the bottom of the grafting ring 23 is buckled into the column buckle hole 28, so that the base bar column 27 is limited and locked, which is convenient for the firm and stable use of the base bar column 27.The inner winding column 30 at the end of the base bar column 27 can be wound and rolled up with structures such as anchor lines fixed at the bottom of the offshore wind tower. The anchor lines and other structures can pass through the base through-hole 29 and penetrate into the seabed to fix the entire body. Through the clamping of the block locking strip 34 and the disc locking hole 32, the outer connection block 33 and the winding disc 31 can be clamped to achieve the effect of locking the winding disc 31, which is convenient for the inner winding column 30 at the end of the winding disc 31 to be locked, so that it is more stable when placing the anchor line.

[0038] Compared with the prior art, the present invention has the following beneficial effects:

[0039] 1. The slide rail 8 of the present invention passes through the disk side channel 5 and the disk upper cavity 6, connects the tower seat 7 and the linkage piece 9, and allows the tower seat 7 and the linkage piece 9 to move in conjunction with each other. When in use, the movable slide rail 8 can be used to link the tower seat 7 and the linkage piece 9 to perform circular motion relative to the middle disk 4 to adjust the relative positions of the linkage tower seat 7 and the linkage piece 9 on the middle disk 4.

[0040] 2. The present invention fixes the tower base 7 and the tower pole 1 so that the tower base 7 can be adjusted in a circular motion by linkage with the tower pole 1, so that the tower pole 1 and the existing wind measurement structure on the tower pole 1 can be adjusted in position accordingly, so that it can better adapt to the offshore wind measurement environment. At the same time, the linkage piece 9 and the support piece 10 can be movably adjusted. When the support piece 10 at the end of one of the linkage pieces 9 moves outward, it can be fitted with the support piece 10 at the end of the other linkage piece. At this time, when one of the tower bases 7 and the linkage piece 9 moves in a circle and adjusts its position, it can drive the other tower base 7 and the linkage piece 9 to adjust its position synchronously, so that it has synchronization performance during adjustment, and it is convenient to better control and adjust the tower pole 1 at the end of the tower base 7. The reflective sheet 2 at the end of the tower pole 1 is made of reflective material in the prior art, so that it has a certain reflective safety warning function at night at sea.

[0041] 3. After the side chip 19 and the middle seat 13 are turned up, the screw rod 20 can be rotated to adjust the position of the center frame 16, so that the center frame 16 is horizontally displaced and close to the side chip 19. When the side chip 19 and the inner chip 17 in the middle of the center frame 16 are close to each other, floating objects on the sea can be placed on the inner side of the inner chip 17 and the side chip 19 and clamped, thereby improving the buoyancy of the entire body and enhancing its safety performance during use.

[0042] 4. The present invention rotates the screw rod 20 to perform threaded transmission between the screw rod 20 and the center frame 16 to adjust the position of the center frame 16. At the same time, the turning bar 18 is in the shape of a pentagonal prism. When the turning bar 18 rotates, it can drive the inner chip 17 to flip up. At the same time, the turning bar 18 is fixed to the side chip 19, and the side chip 19 can be linked to rotate and flip up. At this time, it has better linkage adjustment to perform synchronous flipping operation of the side chip 19 and the inner chip 17. The center frame 16 and the turning bar 18 are movably connected, which can facilitate the horizontal sliding of the center frame 16 along the horizontal direction of the turning bar 18, so that when the screw rod 20 is rotated, the center frame 16 can perform stable horizontal movement.

[0043] 5. The present invention moves the base column 27 outward through the movement between the base column 27 and the base plate 35. At this time, the grafting ring 23 can be moved downward through the movement of the ring sliding column 24 and the lower column of the tower, and the ring buckle 25 at the bottom of the grafting ring 23 is buckled into the column buckle hole 28 to limit and lock the base column 27, so that the base column 27 can be used firmly and stably. The inner winding column at the end of the base column 27 can be wound and rolled up with structures such as anchor lines fixed at the bottom of the offshore wind measurement tower. The anchor lines and other structures can pass through the base through-hole and penetrate into the seabed to fix the entire body. The outer connection block 33 can be clamped with the winding plate 31 through the clamping of the block locking strip 34 and the disk locking hole 32, so as to achieve the effect of locking the winding plate 31, so that the inner winding column 30 at the end of the winding plate 31 can be locked, so that it is more stable when the anchor line is placed.

[0044] Although the embodiments of the present invention are described above in conjunction with the accompanying drawings, the present invention is not limited to the above-mentioned specific embodiments and application fields, and the above-mentioned specific embodiments are only illustrative and instructive, rather than restrictive. Under the guidance of the specification, a person skilled in the art can also make many forms without departing from the scope of protection of the claims of the present invention, all of which belong to the scope of protection of the present invention.

Claims

1. A floating offshore wind tower with high assembly performance, characterized in that: The tower comprises a tower pole (1), a transfer mechanism (3) is installed at the bottom of the tower pole (1), tower lower columns (11) are installed at the bottoms of both sides of the transfer mechanism (3), a tower assembly mechanism (12) is arranged at the side ends of the tower lower columns (11), a grafting ring (23) is installed at the bottom of the tower lower column (11), a ring sliding column (24) is fixed to the top edge of the grafting ring (23), a ring buckle (25) is installed at the bottom edge of the grafting ring (23), a base plate (35) is arranged at the bottom of the grafting ring (23), and base fixing mechanisms (26) are arranged on both sides of the base plate (35); The transfer mechanism (3) comprises a middle plate (4), a plate side channel (5) is provided on the inner side of the middle plate (4), a plate upper cavity (6) is provided on the upper wall of the middle plate (4), a tower seat (7) is arranged at the outer end of the plate upper cavity (6), a slide rail (8) is fixed to the bottom of the tower seat (7) by welding, a linkage piece (9) is fixed to the side end wall of the slide rail (8), and the slide rail (8) passes through the plate side channel (5) and the plate upper cavity (6) to connect the tower seat (7) and the linkage piece (9); Supporting pieces (10) are respectively provided at both ends of the linkage piece (9); The tower base (7) is fixedly connected to the tower pole (1); The tower assembly mechanism (12) comprises a middle seat (13), a side block (14) is fixed to the side end wall of the middle seat (13), a bayonet (15) is provided on the end wall of the side block (14), a middle cavity (21) is penetrated in the middle of the middle seat (13), a center frame (16) is arranged at the inner end of the middle cavity (21), an inner core (17) is fixed to one side of the center frame (16), a turning bar (18) is penetrated in the middle of the inner core (17), side cores (19) are arranged on both sides of the turning bar (18), a screw rod (20) is penetrated at the other end of the center frame (16), and outer plates (22) are arranged on the adjacent surfaces of the surface where the side block (14) is located; The middle seat (13) is threadedly connected to the center frame (16) via a screw rod (20).

2. A floating offshore wind tower with high assembly performance according to claim 1, characterized in that: The support pieces (10) are symmetrically distributed about the center of the linkage piece (9).

3. The floating offshore wind tower with high assembly performance according to claim 1, characterized in that: The side chips (19) are symmetrically distributed about the center of the middle seat (13).

4. The floating offshore wind tower with high assembly performance according to claim 1, characterized in that: The base fixing mechanism (26) comprises a base bar column (27), an upper end wall of the base bar column (27) is provided with a column buckle hole (28), an end of the base bar column (27) is provided with an external connection block (33), and a block locking strip (34) is fixed to the side wall of the external connection block (33), a base through-hole (29) is provided on the side wall of the base bar column (27) close to the external connection block (33), an inner winding column (30) is provided on the inner side of the base through-hole (29), winding discs (31) are fixed on both sides of the inner winding column (30), and a disc locking hole (32) is provided on the side of the winding disc (31) close to the external connection block (33).

5. A floating offshore wind tower with high assembly performance according to claim 4, characterized in that: The block locking strip (34) is snap-fitted to the disk locking hole (32), and the column buckle hole (28) is snap-fitted to the grafting ring (23).

6. The floating offshore wind tower with high assembly performance according to claim 1, characterized in that: A reflective sheet (2) is arranged in the middle of the tower pole (1).

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