A fan tower anti-inclination online automatic adjusting device and method
The online automatic anti-tilt adjustment device for wind turbine towers utilizes a guide rail traction mechanism and a hydraulic telescopic rod to achieve real-time tilt measurement and automatic correction of the wind turbine tower. This solves the problems of high cost and long cycle in existing technologies for adjusting the tilt of wind turbine towers, and improves safety and adjustment accuracy.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2022-11-04
- Publication Date
- 2026-03-27
AI Technical Summary
In the existing technology, the real-time online detection system for the tilt of wind turbine towers can only be adjusted after the wind turbine is shut down. This is costly and time-consuming, cannot meet the expected timeliness requirements, and poses safety hazards.
An online automatic anti-tilt adjustment device for wind turbine towers is adopted, including a tilt angle measuring device, a signal acquisition and processing device, and a tilt adjustment device. Real-time tilt measurement and automatic correction adjustment are achieved through a guide rail traction mechanism and a hydraulic telescopic rod. Combined with a locking mechanism to fix the sliding seat, the hydraulic rod is prevented from bearing fluctuating loads.
It enables real-time online automatic adjustment of wind turbine tower tilt, shortens the construction cycle and reduces costs, improves safety, adjustment accuracy and stability, and extends the service life of hydraulic telescopic rods.
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Figure CN115977883B_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present application relates to the technical field of fan tower tube deviation adjustment, and particularly relates to a fan tower tube anti-inclination online automatic adjustment device and method. BACKGROUND
[0002] The tower tube is an important component of a wind turbine generator unit, and is connected between a nacelle and the ground. In order to facilitate hoisting and improve production efficiency, the tower tube is generally divided into several sections of 20-30m different conical tubes for production, and then the sections are connected through flanges. The tower tube supports the impeller to a certain height so that the impeller obtains a higher and stable wind speed, and supports the nacelle to provide a working platform for installation, operation and maintenance of the generator and other equipment. The reliability of the structure is one of the necessary factors affecting the safe and stable operation of the wind turbine generator unit. The wind in nature changes at any time, and is irregular in space and time. When the wind speed and direction change, the moment generated by the tower tube at different heights also changes. When the wind force exceeds the critical state, the tower tube will be greatly inclined, which may cause a tower collapse accident, causing significant economic losses and threatening the personal safety of the unit operation and maintenance personnel.
[0003] At present, the inclination of the fan tower tube is mainly measured offline by an optical level gauge and a GPS receiver at a certain period. In order to observe the real-time change of the inclination, a real-time online detection system has also been rapidly developed. The system extracts the data of the inclination sensor, sends the data to a remote server through a network module, analyzes and stores the collected signals, and then monitors the online inclination state of the tower tube in real time. However, the data obtained by the two methods is only used to evaluate the running state of the tower tube inclination. When the inclination exceeds the standard during the operation of the fan, the operation and maintenance personnel can only adjust it through basic deviation correction and other measures after the machine is stopped, which is high in cost and long in period, and the inclination treatment capacity of the tower tube cannot meet the expected time requirement. SUMMARY
[0004] The present application aims to provide a fan tower tube anti-inclination online automatic adjustment device and method to solve the above problems in the prior art.
[0005] In order to achieve the above object, the application adopts the following technical scheme: a fan tower anti-inclination online automatic adjusting device, comprising: a fan tower, which is provided with an inclination angle measuring device; a signal acquisition and processing device, which is in wireless communication connection with the inclination angle measuring device, and is used for acquiring and analyzing the data measured by the inclination angle measuring device to evaluate the inclination state of the fan tower and calculate the inclination adjusting data of the fan tower; and a plurality of inclination adjusting devices, which are connected at the top end of the fan tower at equal angles, and comprise a guide rail traction mechanism, which is fixed to the ground and connected with a traction steel rope at the top end of the fan tower through a rotating connecting seat.
[0006] Further description of the above technical scheme:
[0007] The guide rail traction mechanism comprises a guide rail frame, and a sliding seat is slidingly arranged in the guide rail frame, and the bottom end of the traction steel rope is rotatably connected with the sliding seat.
[0008] Further description of the above technical scheme:
[0009] The guide rail traction mechanism comprises a guide rail frame, which is vertically fixed to the outside of the fan tower, and a sliding seat is slidingly arranged in the guide rail frame, and a winch is installed on the sliding seat, and the bottom end of the traction steel rope is connected to the winch.
[0010] Further description of the above technical scheme:
[0011] The guide rail frame is further provided with a hydraulic telescopic rod, and the movable end of the hydraulic telescopic rod is connected with the sliding seat.
[0012] Further description of the above technical scheme:
[0013] The bottom of the fan tower is formed with a pouring seat, the top of the guide rail frame is symmetrically fixed with a support frame on both sides in an inclined manner, one end of the support frame is connected with the pouring seat, the bottom of the guide rail frame is fixed with a connecting frame, and the other end of the connecting frame is connected with the pouring seat.
[0014] Further description of the above technical scheme:
[0015] The sliding seat is provided with a locking mechanism, which is used for locking and fixing the sliding seat on the guide rail frame.
[0016] Further description of the above technical scheme:
[0017] The locking mechanism comprises a T-shaped slot formed on the sliding seat, lock seats are symmetrically arranged on the two sides of the T-shaped slot, an electric control telescopic rod is installed in the T-shaped slot, the movable end of the electric control telescopic rod is connected with an adjusting seat, adjusting links are rotatably connected to the two sides of the adjusting seat, and the other ends of the adjusting links are rotatably connected with the lock seats, and a plurality of lock grooves for cooperating with the lock seats are equidistantly formed on the guide rail frame.
[0018] As a further description of the above technical solution:
[0019] The inclination angle measuring device comprises a laser range finder and a detection seat, the laser range finder is installed at the top center position of the fan tower, the detection seat is arranged at the bottom of the fan tower, and a mark point corresponding to the center position of the bottom of the fan tower is arranged on the detection seat, and a camera is installed on the detection seat.
[0020] As a further description of the above technical solution:
[0021] The fan tower is composed of a plurality of cone cylinders connected by flanges, a plurality of laser range finders are arranged, and the plurality of laser range finders are respectively installed at the top center positions of the cone cylinders.
[0022] A fan tower anti-inclination online automatic adjusting method based on the above-mentioned fan tower anti-inclination online automatic adjusting device, characterized in that it comprises the following steps:
[0023] S1: measuring the deviation data of the fan tower (1) by the inclination angle measuring device, and wirelessly transmitting the measured data to the signal acquisition and processing device (5);
[0024] S2: the signal acquisition and processing device (5) analyzes the measured data, realizes the inclination state evaluation of the fan tower (1), and calculates the inclination adjustment data of the fan tower (1);
[0025] S3: based on the inclination adjustment data of the fan tower (1) calculated by the signal acquisition and processing device (5), the inclination of the fan tower (1) is adjusted by the inclination adjusting device.
[0026] The present application provides a fan tower anti-inclination online automatic adjusting device and method. It has the following advantages:
[0027] The fan tower cylinder anti-inclination online automatic adjusting device and method realize inclination measurement and synchronous inclination correction and adjustment of the fan tower cylinder, and realize real-time online adjustment, without the need for adjustment through foundation correction and other measures, with a long adjustment cycle, high safety, and the guide rail frame in the guide rail traction mechanism is vertically fixed to the ground, and is fixed through the support frame and the connecting frame in cooperation with the pouring seat shaped at the bottom of the fan tower cylinder, so that the fixing is more convenient and stable, without the need for a pouring platform for installation, which shortens the construction cycle and cost, and the winch is installed on the sliding seat to connect the traction steel wire, so that the winch is used for traction and winding of the traction steel wire for coarse adjustment, and the driving sliding seat of the hydraulic telescopic rod is used for sliding adjustment and traction of the guide rail frame for fine adjustment, which significantly shortens the stroke length of the guide rail frame, further improves the convenience of installation of the guide rail frame, and the traction and winding of the winch and the sliding traction of the sliding seat are matched with each other to adjust and adapt the traction steel wire, so that the traction steel wires of multiple inclination adjusting devices are adjusted and adapted, and the accuracy and stability of the fan tower cylinder adjustment are further improved;
[0028] Secondly, the locking mechanism is arranged on the sliding seat, the sliding seat is locked and fixed on the guide rail frame through the locking mechanism after adjustment is completed, the counterforce of the hydraulic telescopic rod caused by the traction steel wire under the action of the wind of the fan tower cylinder is avoided, the hydraulic telescopic rod bears the fluctuating load in real time, the hydraulic telescopic rod is protected, and the service life of the hydraulic telescopic rod is prolonged. BRIEF DESCRIPTION OF DRAWINGS
[0029] Figure 1 It is an installation structure diagram of the inclination angle measuring device in the application on the fan tower cylinder.
[0030] Figure 2 It is an installation structure diagram of the inclination adjusting device in the first embodiment of the application on the fan tower cylinder.
[0031] Figure 3 It is an installation structure diagram of the inclination adjusting device in the second embodiment of the application on the fan tower cylinder.
[0032] Figure 4 It is a structure diagram of the guide rail traction mechanism in the first embodiment of the application.
[0033] Figure 5 It is a structure diagram of the guide rail traction mechanism in the second embodiment of the application.
[0034] Figure 6 It is a structure diagram of the sliding seat in the application.
[0035] Figure 7 It is a structure diagram of the locking mechanism in the application.
[0036] Figure 8Projection diagram of tower top platform of tower drum in the measuring process of the inclination angle measuring device in the application.
[0037] Legend:
[0038] 1, fan tower drum; 10, cone drum; 11, pouring seat; 2, laser range finder; 3, detection seat; 4, camera; 5, signal acquisition and processing equipment; 6, guide rail traction mechanism; 61, guide rail frame; 611, locking groove; 62, sliding seat; 621, winch; 63, hydraulic telescopic rod; 64, support frame; 641, connecting frame; 65, locking mechanism; 651, T-shaped groove; 652, locking seat; 653, electric control telescopic rod; 654, adjusting seat; 655, adjusting connecting rod; 7, traction steel rope; 8, rotary connecting seat. DETAILED DESCRIPTION
[0039] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, not all the embodiments.
[0040] Embodiment one, refer to Figures 1-2 and Figure 4The application discloses an online automatic adjusting device for preventing a fan tower from tilting, which comprises a fan tower 1, an inclination angle measuring device arranged on the fan tower 1, an optional inclination angle measuring device being an inclination sensor, which is installed on the fan tower 1 to collect inclination angle data of the fan tower 1, and a wireless communication module integrated on the inclination sensor to wirelessly transmit the data collected by the inclination sensor to a signal collecting and processing equipment 5, and the signal collecting and processing equipment 5 is wirelessly connected with the inclination angle measuring device and is used for collecting and analyzing the data measured by the inclination angle measuring device to evaluate the inclination state of the fan tower 1, the signal collecting and processing equipment 5 is a computer, which compares and analyzes the inclination angle data with a threshold value to evaluate the inclination state of the fan tower 1, and when the inclination rate tan theta exceeds the provisions of NB / T10311-2019 "Land-based wind farm engineering wind turbine foundation design rule" 6.4.1 (when the allowable value H of the inclination rate is less than or equal to 70m, tan theta is equal to 0.006; when 70m < H < 90m, tan theta is equal to 0.005; when 90m < H < 120m, tan theta is equal to 0.004; and when H > 120m, tan theta is equal to 0.003; wherein H is the hub height, and the allowable value tan theta is the threshold value), a warning is given and the inclination adjusting data of the fan tower 1 is calculated; an inclination adjusting device, which is used for adjusting and rectifying the inclination of the fan tower 1 according to the calculated inclination adjusting data, is arranged, a plurality of inclination adjusting devices are arranged, and the plurality of inclination adjusting devices are arranged at the top of the fan tower 1 at equal angles, optionally, four inclination adjusting devices are arranged at the periphery of the fan tower 1 at equal angles, the inclination adjusting device comprises a guide rail traction mechanism 6, the guide rail traction mechanism 6 is fixed to the ground, a traction steel rope 7 is connected to the guide rail traction mechanism 6, the top end of the traction steel rope 7 is connected to the top of the fan tower 1 through a rotating connecting seat 8, the guide rail traction mechanism 6 comprises a guide rail frame 61, the guide rail frame 61 is horizontally fixed to the ground, a sliding seat 62 is slidingly arranged in the guide rail frame 61, the bottom end of the traction steel rope 7 is rotationally connected to the sliding seat 62, a hydraulic telescopic rod 63 is arranged in the guide rail frame 61, and the movable end of the hydraulic telescopic rod 63 is connected to the sliding seat 62. The inclination adjusting device adjusts and rectifies the inclination of the fan tower 1 by driving the sliding seat 62 to slide on the guide rail frame 61 through the hydraulic telescopic rod 63, so as to drive and rectify the fan tower 1 through the sliding seat 62 and the traction steel rope 7, wherein when one inclination adjusting device is adjusted, the remaining inclination adjusting devices are kept in a loosened state to meet the traction adjusting requirement.
[0041] Embodiment two, refer to Figure 3 、 5The guide rail traction mechanism 6 comprises a guide rail frame 61 vertically fixed outside the fan tower drum 1, a sliding seat 62 slidingly arranged in the guide rail frame 61, a winch 621 installed on the sliding seat 62, and a bottom end of the traction steel wire 7 connected to the winch 621. The guide rail frame 61 is also provided with a hydraulic telescopic rod 63, and a movable end of the hydraulic telescopic rod 63 is connected to the sliding seat 62. The bottom of the fan tower drum 1 is formed with a pouring seat 11, the top of the guide rail frame 61 is symmetrically fixed with a support frame 64 on both sides in an inclined manner, one end of the support frame 64 is connected to the pouring seat 11, the bottom of the guide rail frame 61 is fixed with a connecting frame 641, and the other end of the connecting frame 641 is connected to the pouring seat 11. Further, the guide rail frame 61 in the guide rail traction mechanism 6 is vertically fixed to the ground, and the support frame 64 and the connecting frame 641 cooperate with the pouring seat 11 formed at the bottom of the fan tower drum 1 to be fixed, which is more convenient and stable. Compared with directly fixing the guide rail frame 61 horizontally to the ground, since the fan tower drum 1 is arranged at the top of a mountain (to reduce the height of the fan tower drum 1), the ground is mostly inclined, and a pouring platform is needed for installation when the guide rail frame 61 is installed horizontally, so that the inclination adjusting device is more convenient and stable to install. The winch 621 is installed on the sliding seat 62 to connect the traction steel wire 7, the traction steel wire 7 is coarsely adjusted by being wound by the winch 621, the sliding seat 62 is driven by the hydraulic telescopic rod 63 to slide in the guide rail frame 61 to finely adjust the traction, the stroke length of the guide rail frame 61 is significantly shortened, the convenience of installing the guide rail frame 61 is further improved, the traction steel wire 7 is combined and adjusted by the coarse adjustment of the winch and the fine adjustment of the sliding seat, the traction steel wire 7 of multiple inclination adjusting devices is conveniently adjusted and adapted, and the accuracy and stability of adjusting the fan tower drum 1 are further improved.
[0042] Further, the sliding seat 62 is provided with a locking mechanism 65, which is used to lock and fix the sliding seat 62 on the guide rail frame 61. The locking mechanism 65 includes a T-shaped groove 651 formed on the sliding seat 62, two locking seats 652 symmetrically arranged on the two sides of the T-shaped groove 651, an electric control telescopic rod 653 installed in the T-shaped groove 651, an adjusting seat 654 connected to the movable end of the electric control telescopic rod 653, and two adjusting connecting rods 655 rotatably connected to the two sides of the adjusting seat 654 and rotatably connected to the locking seats 652. A plurality of locking grooves 611 corresponding to the locking seats 652 are formed on the guide rail frame 61. Specifically, by arranging the locking mechanism 65 on the sliding seat 62, after adjustment is completed, the electric control telescopic rod 653 drives the adjusting seat 654 to move, the adjusting seat 654 drives the two adjusting connecting rods 655 to drive the two locking seats 652 to be clamped into the locking grooves 611 on the guide rail frame 61, thereby realizing the locking and fixing of the sliding seat 62. After the adjustment of the traction steel wire 7 is completed, the sliding seat 62 is locked and fixed to avoid the reaction force of the hydraulic telescopic rod 63 caused by the traction steel wire 7 under the action of the wind of the fan tower 1, so as to realize the protection of the hydraulic telescopic rod 63 and prolong the service life of the hydraulic telescopic rod 63.
[0043] Further, the inclination angle measuring device includes a laser range finder 2 and a detection seat 3. The laser range finder 2 is installed at the top center position of the fan tower 1, and the detection seat 3 is arranged at the bottom of the fan tower 1 and provided with a mark point corresponding to the center position of the bottom of the fan tower 1. A camera 4 is installed on the detection seat 3. Specifically, when the inclination angle measuring device collects the inclination angle data of the fan tower 1, the laser range finder 2 at the top center position of the fan tower 1 projects light on the detection seat 3. At this time, the camera 4 collects the image information of the light spot projected by the laser range finder 2 and the mark point on the detection seat 3 and wirelessly transmits it to a signal acquisition and processing device 5. The signal acquisition and processing device 5 receives the image information and establishes a coordinate system in the image information (as shown in Figure 8 The inclination is calculated based on the coordinate system.
[0044] Further, the fan tower 1 is composed of a plurality of cone cylinders 10 connected by flanges. A plurality of laser range finders 2 are arranged, and each laser range finder 2 is installed at the top center position of each cone cylinder 10. By arranging a plurality of laser range finders 2 and installing them at the top center of each cone cylinder 10 that constitutes the fan tower 1, a plurality of discrete projection points are projected on the detection seat 3 by the plurality of laser range finders 2. At this time, the signal acquisition and processing device 5 receives the image information and establishes a coordinate system in the image information (as shown in Figure 8As shown in the figure, the offset value is calculated based on the coordinate increment between multiple projection points in the coordinate system, thereby realizing the detection of the node status of multiple cones 10 that make up the wind turbine tower 1 and are connected together, further improving the detection accuracy, and realizing the detection of the overall tilt of the wind turbine tower 1 and the tilt of the connection node of a single cone 10. The detection data is more comprehensive, and the detection of the wind turbine tower 1 is better realized, providing sufficient data support for the maintenance and repair of the wind turbine tower 1.
[0045] A method for online automatic adjustment of wind turbine tower tilt prevention, based on the aforementioned online automatic adjustment device for wind turbine tower tilt prevention, includes the following steps:
[0046] S1: The offset data of the wind turbine tower 1 is measured by the tilt angle measuring device, and the measured data is wirelessly transmitted to the signal acquisition and processing device 5; specifically, the laser rangefinder 2 located at the circular position at the top of the wind turbine tower 1 projects light onto the detection seat 3. At this time, the camera 4 collects the image information of the light spot projected by the laser rangefinder 2 on the detection seat 3 and the marked point thereon, and wirelessly transmits it to the signal acquisition and processing device 5.
[0047] S2: The signal acquisition and processing device 5 analyzes the measured data to assess the tilt status of the wind turbine tower 1 and calculates the tilt adjustment data for the wind turbine tower 1; wherein, the tilt status assessment of the wind turbine tower 1 includes the overall tilt status assessment of the wind turbine tower 1 and the tilt status assessment of each cone 10 composed of the wind turbine tower 1.
[0048] Signal acquisition and processing device 5 receives image information and establishes a coordinate system (e.g., ...) within the image information. Figure 8 As shown in the figure, x0 and y0 are the coordinates of the center p0 of the bottom surface of the wind turbine tower 1, and xi and yi are the coordinates of the center pi of the section with height i. If x0 ≠ xi and y0 ≠ yi, it means that the center of the bottom surface of the wind turbine tower 1 and the center of the section do not coincide in the vertical plane, and the tower is tilted. The specific steps for evaluating the overall tilt state of the wind turbine tower 1 are as follows:
[0049] S2.1: Then calculate the coordinate increments, Δx = xi - x0, Δy = yi - y0;
[0050] S2.2: Recalculate the offset value:
[0051] S2.3: Calculate the inclination:
[0052] S2.4: Calculate the tilt direction
[0053] S2.5: According to the inclination tanθ obtained by calculation, comparative analysis is carried out, and when the inclination tanθ exceeds the provisions of NB / T10311-2019 “Land-based wind farm engineering wind turbine generator foundation design rules” 6.4.1 (when the hub height H≤70m, tanθ=0.006; 70m<H≤90m, tanθ=0.005; 90m<H≤120m, tanθ=0.004; H>120m, tanθ=0.003; wherein H is the hub height, and the allowable value tanθ is the threshold value), a warning is given and the inclination adjustment data of the wind turbine tower 1 is calculated;
[0054] The inclination state evaluation of each cone 10 composed of the wind turbine tower 1 is the same as above, and the difference is that the inclination of all adjacent two projection points is calculated and integrated evaluation analysis is carried out.
[0055] S3: Based on the inclination adjustment data of the wind turbine tower 1 calculated by the signal acquisition and processing device 5, the inclination of the wind turbine tower 1 is adjusted by the inclination adjustment device. Specifically, the traction steel rope 7 is coiled and coiled by the winch for rough adjustment, and then the driving sliding seat 62 of the hydraulic telescopic rod 63 is adjusted to slide on the guide rail frame 61 to realize fine adjustment, and when one inclination adjustment device is adjusted, the remaining inclination adjustment devices are kept loose at this time to meet the needs of traction adjustment, and when the adjustment is completed, the sliding seat 62 is locked and fixed on the guide rail frame 61 by the locking mechanism 65, so as to avoid that the hydraulic telescopic rod 63 is subjected to the reaction force of the wind turbine tower 1 through the traction steel rope 7 under the action of wind force, resulting in that the hydraulic telescopic rod 63 bears fluctuating load in real time, thereby realizing protection of the hydraulic telescopic rod 63 and prolonging the service life of the hydraulic telescopic rod 63. The inclination of the wind turbine tower 1 is adjusted by the inclination adjustment device, wherein when the inclination of the wind turbine tower after adjustment is less than one-third of the provisions of NB / T10311-2019 “Land-based wind farm engineering wind turbine generator foundation design rules” 6.4.1 (such as when the hub height H≤70m, tanθ≤0.002 after adjustment), the adjustment is stopped, and when the inclination tanθ of the wind turbine tower 1 exceeds the threshold value, the adjustment is carried out again, so as to repeatedly adjust the real-time dynamic picture to adjust the inclination of the wind turbine tower 1.
[0056] In the description of this specification, the description of the terms “one embodiment”, “example”, “specific example” and the like means that the specific features, structures, materials or characteristics described in connection with the embodiment or example are contained in at least one embodiment or example of the present application. In this specification, the illustrative description of the above terms does not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described can be combined in any one or more embodiments or examples in a suitable manner.
[0057] The above merely provides the preferred but not limiting embodiments of the present application, and any person skilled in the art should understand that, within the technical scope of the present application, any equivalent replacement or change based on the technical solution and the inventive concept of the present application should be covered within the protection scope of the present application.
Claims
1. A wind turbine tower anti-tilt online automatic adjustment device, comprising: Fan tower (1), the fan tower (1) is provided with an inclination angle measuring device, characterized in that it further comprises: Signal acquisition processing equipment (5), the signal acquisition processing equipment (5) is connected with the inclination angle measuring device wireless communication, and signal acquisition processing equipment (5) is used to collect the data measured by the inclination angle measuring device and is analyzed to evaluate the inclination state of the fan tower (1), and the inclination adjustment data of the fan tower (1) is calculated; The inclination adjustment device is arranged at the top of the fan tower (1), the inclination adjustment device comprises a guide rail traction mechanism (6), the guide rail traction mechanism (6) is fixed on the ground, and the guide rail traction mechanism (6) is connected with the traction steel rope (7), the top end of the traction steel rope (7) is connected with the top end of the fan tower (1) through the rotating connecting seat (8); The guide rail frame (61) is vertically fixed outside the fan tower (1), the sliding seat (62) is slidably arranged in the guide rail frame (61), and the winch (621) is installed on the sliding seat (62), and the bottom end of the traction steel rope (7) is connected to the winch (621); The hydraulic telescopic rod (63) is further arranged in the guide rail frame (61), and the movable end of the hydraulic telescopic rod (63) is connected with the sliding seat (62). The locking mechanism (65) is arranged on the sliding seat (62), and the locking mechanism (65) is used to lock and fix the sliding seat (62) on the guide rail frame (61).
2. The online automatic adjusting device for preventing tilting of a fan tower, according to claim 1, wherein The hydraulic telescopic rod (63) is further arranged in the guide rail frame (61), and the movable end of the hydraulic telescopic rod (63) is connected with the sliding seat (62).
3. The online automatic adjusting device for preventing tilting of a fan tower, according to claim 1, wherein The bottom of the fan tower (1) is formed with a pouring seat (11), the top of the guide rail frame (61) is symmetrically fixed with a support frame (64) on both sides, one end of the support frame (64) is connected with the pouring seat (11), the bottom of the guide rail frame (61) is fixed with a connecting frame (641), and the other end of the connecting frame (641) is connected with the pouring seat (11).
4. The online automatic adjusting device for preventing tilting of a fan tower, according to claim 1, wherein The locking mechanism (65) comprises a T-shaped groove (651) formed in the sliding seat (62), the locking seat (652) is symmetrically slidably arranged on both sides of the T-shaped groove (651), the electric control telescopic rod (653) is installed in the T-shaped groove (651), the movable end of the electric control telescopic rod (653) is connected with the adjusting seat (654), the adjusting link (655) is rotatably connected with the adjusting seat (654) on both sides, the other end of the adjusting link (655) is rotatably connected with the locking seat (652), and a plurality of locking grooves (611) are equally formed on the guide rail frame (61) to cooperate with the locking seat (652).
5. A wind turbine tower anti-tilting online automatic adjusting device according to claim 1, characterized in that, The inclination angle measuring device comprises a laser range finder (2) and a detection seat (3), the laser range finder (2) is installed at the top center position of the fan tower (1), the detection seat (3) is arranged at the bottom of the fan tower (1), and the detection seat (3) is provided with a mark point corresponding to the center position of the bottom of the fan tower (1), and a camera (4) is installed on the detection seat (3).
6. A wind turbine tower anti-tilting online automatic adjustment device according to claim 5, characterized in that, The fan tower (1) is composed of a plurality of cone cylinders (10) connected by flanges, and a plurality of laser range finders (2) are arranged, and the plurality of laser range finders (2) are respectively installed at the top center position of each cone cylinder (10).
7. A method for online automatic adjustment of wind turbine tower anti-tilting, based on the wind turbine tower anti-tilting online automatic adjustment device according to any one of claims 1-6, characterized in that, The method comprises the following steps: S1: measuring the offset data of the fan tower (1) by the inclination angle measuring device, and wirelessly transmitting the measured data to the signal acquisition processing device (5); S2: the signal acquisition processing device (5) analyzes the measured data, realizes the inclination state evaluation of the fan tower (1), and calculates the inclination adjustment data of the fan tower (1); S3: based on the inclination adjustment data of the fan tower (1) calculated by the signal acquisition processing device (5), the inclination adjustment device is used to adjust and correct the inclination of the fan tower (1).
Citation Information
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