Wind driven generator blade production detector and working method thereof

Abstract

The invention is applied to the technical field of wind driven generator blade production, and discloses a wind driven generator blade production detector which comprises a testing frame, a supporting frame is fixedly arranged at one end of the testing frame, a rotating center rotating shaft is installed at the upper end of the supporting frame, and testing blades are fixedly installed on the outer side surface of the center rotating shaft through bolts. A supporting rod is fixedly arranged on the surface of the outer side of the central rotating shaft, a dynamic detection mechanism is arranged on the surface of the inner side of the functional ring, and the influence of different motion states on a detection result is reduced through a mode of carrying out detection in the rotating process of the tested blades. According to the wind driven generator blade production detector, the mode that the test blade is installed on the center rotating shaft and driven to rotate is adopted, the rotating state of the test blade in the actual working condition is simulated to guarantee the accuracy of the detection result, real-time detection is achieved in cooperation with the dynamic detection mechanism installed on the inner side surface of the functional ring, and the detection accuracy is further improved.

Description

Technical Field

[0001] The invention relates to the technical field of wind turbine blade production, and in particular to a wind turbine blade production detector and a working method thereof. Background Art

[0002] As the global demand for clean energy continues to grow, wind power generation, as a renewable and pollution-free way of obtaining energy, has been widely used and developed rapidly. The blades of wind turbines are one of the key components in the wind power generation system. Their performance and quality directly affect the efficiency and stability of the entire wind power generation system. In the production process of wind turbine blades, it is crucial to ensure that the quality and performance of the blades meet strict standards. However, the existing detection technologies and methods have many shortcomings. Traditional detection methods often rely on manual visual inspection and simple measuring tools. This method is not only inefficient, but also difficult to ensure the accuracy and reliability of the detection results. In the production process of wind turbine blades, it is crucial to ensure that the blades have sufficient strength to withstand complex wind conditions and long-term operation fatigue stress. However, the existing detection methods and technologies have many shortcomings.

[0003] Traditional strength detection methods such as ultrasonic detection and X-ray detection, although they can perform detection without destroying the blades, have problems such as limited detection accuracy, complex operation, and low detection efficiency. Due to the complex shape and structure of wind turbine blades, existing detection technologies often have detection blind spots when detecting different parts of the blades, and cannot fully and accurately evaluate the strength of the blades. At the same time, since wind turbine blades are often in a dynamic working environment, the compressive strength of wind turbine blades detected under static conditions is not completely consistent with the compressive strength under actual working conditions, which also causes inaccurate test results. Summary of the invention

[0004] The object of the present invention is to provide a wind turbine blade production detector and a working method thereof, so as to solve the problem that the static detection proposed in the above background technology is different from the actual working conditions, resulting in inaccurate detection results.

[0005] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a wind turbine blade production detector, comprising a test frame, a support frame is fixedly provided at one end of the test frame, and a rotating central shaft is installed at the upper end of the support frame, a test blade is fixedly installed on the outer surface of the central shaft by bolts, a support rod is fixedly provided on the outer surface of the central shaft, and a functional ring is fixedly provided at one end of the support rod away from the central shaft, a dynamic detection mechanism is provided on the inner surface of the functional ring, and the detection is performed during the rotation of the test blade to reduce the influence of different motion states on the detection result.

[0006] Preferably, the dynamic detection mechanism includes: a mounting frame, which is fixedly arranged on the inner surface of the functional ring, and a guide rail is fixedly arranged on the surface of the mounting frame, and a sliding sliding seat is installed on the outer surface of the guide rail, displacement wheels are rotatably installed on both ends of the sliding seat, and displacement motors are fixedly installed on both ends of the sliding seat, and the output shaft of the displacement motor is rotatably connected to the opposite displacement wheel shaft, a test seat is rotatably installed on one end of the sliding seat, and a rotatable detection plate and a knocking plate are installed on the outer surfaces of both sides of the test seat, a detection motor and a knocking motor are fixedly installed on the outer surface of the test seat, an angular displacement sensor is fixedly installed on the outer surface of one end of the test seat opposite to the detection plate shaft, and a switching motor is fixedly installed on the outer surface of the lower end of the sliding seat.

[0007] By adopting the above technical solution, the blades of the wind turbine generator can be detected in a moving state.

[0008] Preferably, the outer surface of the displacement wheel is in contact with the outer surface of the guide rail, the two ends of the rotating shaft of the detection plate are respectively fixedly connected to the output shaft of the detection motor and the input shaft of the angular displacement sensor, the knocking plate drives one end of the rotating shaft to be fixedly connected to the output shaft of the knocking motor, and one end of the output shaft of the switching motor is in contact with the outer surface of the test seat.

[0009] The above technical solution is adopted to achieve the purpose of driving the knocking plate and the detection plate to face the test blade respectively.

[0010] Preferably, a timely switching mechanism is provided at the upper end of the test frame on one side of the central rotating shaft, and the switching of the stress state of the test blade is achieved by changing the driving state of the central rotating shaft.

[0011] By adopting the above technical solution, the test blade can use inertia to drive the central shaft to rotate.

[0012] Preferably, the timely switching mechanism includes: a connecting shaft, the connecting shaft is fixedly connected to one end of the central rotating shaft, and a rotating shaft is snap-fittedly installed at one end of the connecting shaft, a clearance groove is provided on the outer surface of one end of the rotating shaft located inside the connecting shaft, and a contact wheel is slidably installed at one end of the rotating shaft located outside the connecting shaft, an electric push rod, a power motor and a load generator are fixedly installed on the upper surface of the test frame, one end of the output shaft of the power motor is fixedly connected to a connecting disk, and one end of the connecting disk is slidably installed with a connecting gear, and one end of the output shaft of the load generator is fixedly connected to a load gear.

[0013] By adopting the above technical solution, the load generator can simulate the deceleration state of the central rotating shaft in actual working conditions.

[0014] Preferably, a spring is connected between the connecting shaft and the rotating shaft, the rotating shaft and the contact wheel are concentrically arranged, and tooth blocks are arranged on the outer surfaces of the contact wheel and the rotating shaft.

[0015] By adopting the above technical solution, the contact wheel can slide relative to the rotating shaft when it is not smoothly engaged with the load gear.

[0016] Preferably, one end of the electric push rod passes through the outer surfaces of both ends of the contact wheel, and one end of the electric push rod located inside the central rotating shaft is rotatably connected to the central rotating shaft.

[0017] By adopting the above technical solution, the electric push rod can drive the central shaft to slide to change the connection state with the power motor and the load generator.

[0018] Preferably, a spring is connected between the connecting disk and the connecting gear, and the connecting gear is meshingly connected to the rotating shaft.

[0019] By adopting the above technical solution, the connecting gear can slide relative to the connecting disk when it is not smoothly engaged with the rotating shaft.

[0020] Preferably, a sliding rod is fixedly provided on the outer surface of the support rod, and a rotating displacement rod is installed on the outer surface of the support rod, and an adjustment motor is fixedly installed on the outer surface of the support rod, an adjustment plate is installed on the outer surfaces of the sliding rod and the displacement rod, and counterweight blocks are fixedly provided on both ends of the adjustment plate, the adjustment plate is slidingly connected to the sliding rod, and the adjustment plate is threadedly connected to the displacement rod, and the rotating shaft of the displacement rod is fixedly connected to the output shaft of the adjustment motor.

[0021] By adopting the above technical solution, the functional ring can keep rotating for a certain period of time without a driving source.

[0022] A working method of a wind turbine blade production detector, the working method comprising the following steps: S1. The test blade is fixedly mounted on the outer surface of the central shaft; S2. The power motor drives the central shaft to rotate. At this time, the electric push rod starts to drive the central shaft to connect with the input shaft of the load generator to drive the load gear to rotate. The actual working condition is simulated through the connection of the load generator; S3. The displacement motor starts to drive the sliding seat guide rail surface to move; S4. The switching motor, the detection motor and the knocking motor are started alternately to drive the knocking plate and the detection plate to knock and detect the deformation of the test blade; S5. The angular displacement sensor monitors and records the angular displacement of the detection plate, and calculates the deformation of the test blade after the impact through the difference in data from the angular displacement sensor twice; S6. The speed of the function ring decreases, and the adjustment motor is started to drive the adjustment plate and the counterweight block to slide toward the central axis on the sliding rod. The law of conservation of angular momentum is used to enable the function ring to maintain a certain speed for a certain period of time during the test.

[0023] Compared with the prior art, the invention has the following beneficial effects: the wind turbine blade production detector: 1. The test blade is installed on the central shaft and driven to rotate, simulating the rotation state of the test blade in actual working conditions to ensure the accuracy of the test results. The dynamic detection mechanism installed on the inner surface of the functional ring is used to achieve real-time detection, further improving the accuracy of the detection; Furthermore, the functional ring is disconnected from the power motor after reaching a predetermined rotation speed, so that the relative motion state between the test blade and the central shaft is switched to the test blade driving the central shaft to rotate, thereby achieving the purpose of simulating actual working conditions and avoiding abnormal test results caused by different force directions at the end of the test blade; Furthermore, the sliding seat is moved on the guide rail, and the guide rail is designed to match the surface shape of the test blade, so that the dynamic detection mechanism can maintain a relatively stable spacing during the rotation process to ensure the accuracy of the detection result; 2. When the function ring loses its power source, the adjustment plate and the counterweight block move toward the central axis. By using the law of conservation of angular momentum, the function ring can maintain a certain speed for a certain period of time during the test without the need for an external power source, thus ensuring the smoothness of the test process; 3. By using a timely switching mechanism, the driving source of the functional ring can be switched without stopping when the rotation speed of the functional ring is insufficient, so that the functional ring can be switched continuously between acceleration and deceleration to improve the overall detection efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 It is a schematic diagram of the overall three-dimensional structure of the present invention; Figure 2 This is a schematic diagram of the three-dimensional structure of the connection between the test stand and the electric push rod of the present invention; Figure 3 It is a schematic diagram of the three-dimensional structure of the connection between the adjustment plate and the counterweight block of the present invention; Figure 4 This is a schematic diagram of the three-dimensional structure of the mounting frame, guide rail and sliding seat connected to the present invention; Figure 5 This is a schematic diagram of the three-dimensional structure of the sliding seat, the displacement wheel and the displacement motor connected to the present invention; Figure 6 This is a schematic diagram of the three-dimensional structure of the connection between the sliding seat and the switching motor of the present invention; Figure 7It is a schematic diagram of the three-dimensional structure of the cross-section surface connecting the test socket and the detection board of the present invention; Figure 8 This is a schematic diagram of the three-dimensional structure of the power motor, the connecting plate and the connecting gear of the present invention; Fig. 9 It is a three-dimensional structural schematic diagram of the cross-section surface of the connection between the connecting shaft and the rotating shaft of the present invention; Fig.10 It is a schematic diagram of the three-dimensional structure of the connection shaft and the clearance groove of the present invention.

[0025] In the figure: 1. test frame; 2. support frame; 3. central rotating shaft; 4. test blade; 5. support rod; 6. functional ring; 7. mounting frame; 8. guide rail; 9. sliding seat; 10. displacement wheel; 11. displacement motor; 12. test seat; 13. detection plate; 14. detection motor; 15. angular displacement sensor; 16. knocking motor; 17. knocking plate; 18. switching motor; 19. connecting shaft; 20. transfer shaft; 21. give way groove; 22. contact wheel; 23. electric push rod; 24. power motor; 25. connecting plate; 26. connecting gear; 27. load generator; 28. load gear; 29. ​​sliding rod; 30. displacement rod; 31. adjustment motor; 32. adjustment plate; 33. counterweight. DETAILED DESCRIPTION

[0026] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0027] See also Figure 1-Figure 10 The present invention provides a technical solution: a wind turbine blade production detector.

[0028] Embodiment 1: This embodiment discloses a test frame 1, a support frame 2 is fixedly provided at one end of the test frame 1, and a rotating central shaft 3 is installed at the upper end of the support frame 2, a test blade 4 is fixedly installed on the outer surface of the central shaft 3 by bolts, a support rod 5 is fixedly provided on the outer surface of the central shaft 3, and a functional ring 6 is fixedly provided at one end of the support rod 5 away from the central shaft 3, and a dynamic detection mechanism is provided on the inner surface of the functional ring 6, and the detection is performed during the rotation of the test blade 4, thereby reducing the influence of different motion states on the detection result; The dynamic detection mechanism includes: a mounting frame 7, the mounting frame 7 is fixedly arranged on the inner surface of the functional ring 6, and a guide rail 8 is fixedly arranged on the surface of the mounting frame 7, and a sliding sliding seat 9 is installed on the outer surface of the guide rail 8, displacement wheels 10 are rotatably installed at both ends of the sliding seat 9, and displacement motors 11 are fixedly installed at both ends of the sliding seat 9, and the output shaft of the displacement motor 11 is rotatably connected with the opposite rotation axis of the displacement wheel 10, a test seat 12 is rotatably installed at one end of the sliding seat 9, and a rotating detection plate 13 and a knocking plate 17 are installed on the outer surfaces of both sides of the test seat 12, a detection motor 14 and a knocking motor 16 are fixedly installed on the outer surface of the test seat 12, an angular displacement sensor 15 is fixedly installed on the outer surface of one end of the test seat 12 opposite to the rotation axis of the detection plate 13, and a switching motor 18 is fixedly installed on the outer surface of the lower end of the sliding seat 9; The outer surface of the displacement wheel 10 is in contact with the outer surface of the guide rail 8, the two ends of the rotating shaft of the detection plate 13 are respectively fixedly connected to the output shaft of the detection motor 14 and the input shaft of the angular displacement sensor 15, the knocking plate 17 drives one end of the rotating shaft to be fixedly connected to the output shaft of the knocking motor 16, and one end of the output shaft of the switching motor 18 is in contact with the outer surface of the test seat 12; During the inspection, the test blade 4 is first fixed to the outer surface of the central shaft 3 at the upper end of the support frame 2 by bolts. When the functional ring 6 and the test blade 4 are driven to rotate, the displacement motors 11 at both ends of the sliding seat 9 start to drive the displacement wheel 10 to rotate, so that the sliding seat 9 moves on the surface of the guide rail 8 on the mounting frame 7. When the sliding seat 9 moves to the specified position, the switching motor 18 drives the test seat 12 to rotate so that the detection plate 13 faces the edge surface of the test blade 4. Then the detection motor 14 starts to drive the detection plate 13 to rotate and contact with the test blade 4 and flip it to reset. At this time, the angular displacement sensor 15 monitors and records the angular displacement of the detection plate 13, and then The switching motor 18 drives the test seat 12 to rotate so that the knocking plate 17 faces the edge surface of the test blade 4, and then the knocking motor 16 starts to drive the knocking plate 17 to rotate, so that it collides with the test blade 4 and flips over to reset. The switching motor 18 drives the test seat 12 to rotate again so that the detection plate 13 faces the edge surface of the test blade 4, and then the detection motor 14 starts to drive the detection plate 13 to rotate, so that it contacts the test blade 4 and flips over to reset. At this time, the angular displacement sensor 15 monitors and records the angular displacement of the detection plate 13. The deformation of the test blade 4 after the impact is calculated through the data difference between the two previous and subsequent angular displacement sensors 15 to achieve the purpose of detecting the strength of the test blade 4.

[0029] Embodiment 2: Based on Embodiment 1, this embodiment discloses that a timely switching mechanism is provided at the upper end of the test frame 1 on one side of the central rotating shaft 3, and the switching of the stress state of the test blade 4 is achieved by changing the driving state of the central rotating shaft 3; The timely switching mechanism includes: a connecting shaft 19, the connecting shaft 19 is fixedly connected to one end of the central rotating shaft 3, and a rotating shaft 20 is mounted on one end of the connecting shaft 19, a clearance groove 21 is provided on the outer surface of one end of the rotating shaft 20 located inside the connecting shaft 19, and a contact wheel 22 is slidably mounted on one end of the rotating shaft 20 located outside the connecting shaft 19, an electric push rod 23, a power motor 24 and a load generator 27 are fixedly mounted on the upper surface of the test stand 1, one end of the output shaft of the power motor 24 is fixedly connected to a connecting disk 25, and one end of the connecting disk 25 is slidably mounted with a connecting gear 26, and one end of the output shaft of the load generator 27 is fixedly connected to a load gear 28; A spring is connected between the connecting shaft 19 and the rotating shaft 20, and the rotating shaft 20 and the contact wheel 22 are concentrically arranged, and the outer surfaces of the contact wheel 22 and the rotating shaft 20 are both provided with tooth blocks; One end of the electric push rod 23 penetrates through the outer surfaces of both ends of the contact wheel 22, and one end of the electric push rod 23 located inside the rotating shaft 20 is rotatably connected to the rotating shaft 20; A spring is connected between the connecting plate 25 and the connecting gear 26, and the connecting gear 26 is meshedly connected with the rotating shaft 20; In the process of driving the central rotating shaft 3 to rotate, the power motor 24 at the upper end of the test frame 1 is started, and the power motor 24 drives the central rotating shaft 20 to rotate through the connecting plate 25 and the connecting gear 26 by meshing with the central rotating shaft 20. The central rotating shaft 20 drives the central rotating shaft 3 to rotate by engaging with the connecting shaft 19, so as to achieve the purpose of driving the functional ring 6 to rotate through the support rod 5. When the rotation speed of the functional ring 6 reaches the standard, the electric push rod 23 starts to drive the central rotating shaft 20 to slide relative to the connecting shaft 19, until the central rotating shaft 20 drives the load gear 28 to rotate through the meshing of the contact wheel 22 and the load gear 28 to drive the input shaft of the load generator 27 to rotate. When the contact wheel 22 is not accurately engaged with the load gear 28, the contact wheel 22 is pressed and slides relative to the central rotating shaft 20 until the contact wheel 22 and the load gear 28 are engaged. The load gear 28 meshes and slides back to its original position under the support of the spring between the intermediate shaft 20. When the speed of the functional ring 6 stabilizes, the electric push rod 23 continues to drive the intermediate shaft 20 to slide, so that the intermediate shaft 20 can be disengaged from the engagement with the connecting gear 26 through the clearance groove 21, so that the central rotating shaft 3 can drive the load gear 28 to rotate through the connection of the load generator 27 to simulate the actual working condition. When the speed of the functional ring 6 is insufficient, the electric push rod 23 drives the intermediate shaft 20 to slide toward the connecting shaft 19, and the connecting gear 26 resumes its engagement with the intermediate shaft 20. When the connecting gear 26 is not accurately engaged with the negative intermediate shaft 20, the connecting gear 26 is pressed to slide relative to the connecting disk 25 until the connecting gear 26 meshes with the intermediate shaft 20 and slides back to its original position under the support of the spring between the connecting disk 25.

[0030] Embodiment 3: Based on Embodiment 1 and Embodiment 2, this embodiment discloses that a sliding rod 29 is fixedly provided on the outer surface of the support rod 5, and a rotating displacement rod 30 is installed on the outer surface of the support rod 5, and an adjustment motor 31 is fixedly installed on the outer surface of the support rod 5, and an adjustment plate 32 is installed on the outer surfaces of the sliding rod 29 and the displacement rod 30, and counterweight blocks 33 are fixedly provided on both ends of the adjustment plate 32, the adjustment plate 32 is slidably connected to the sliding rod 29, and the adjustment plate 32 is threadedly connected to the displacement rod 30, and the rotating shaft of the displacement rod 30 is fixedly connected to the output shaft of the adjustment motor 31; As the speed of the functional ring 6 decreases, the adjustment motor 31 is started to use the threaded connection between the displacement rod 30 and the adjustment plate 32 to drive the adjustment plate 32 and the counterweight block 33 to slide toward the central rotation axis 3 on the sliding rod 29. The law of conservation of angular momentum is used to enable the functional ring 6 to maintain a certain speed for a certain period of time during the test without the need for an external power source, thereby ensuring the smoothness of the detection process.

[0031] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A wind turbine blade production detector, comprising a test frame (1), a support frame (2) being fixedly arranged at one end of the test frame (1), a rotating central shaft (3) being mounted at the upper end of the support frame (2), a test blade (4) being fixedly mounted on the outer surface of the central shaft (3) by bolts, and characterized in that: A support rod (5) is fixedly provided on the outer surface of the central rotating shaft (3), and a functional ring (6) is fixedly provided on one end of the support rod (5) away from the central rotating shaft (3), and a dynamic detection mechanism is provided on the inner surface of the functional ring (6). By performing detection during the rotation of the test blade (4), the influence of different motion states on the detection result is reduced.

2. A wind turbine blade production detector according to claim 1, characterized in that: The dynamic detection mechanism comprises: a mounting frame (7), the mounting frame (7) being fixedly mounted on the inner surface of the functional ring (6), a guide rail (8) being fixedly mounted on the surface of the mounting frame (7), and a sliding seat (9) being mounted on the outer surface of the guide rail (8), displacement wheels (10) being rotatably mounted on both ends of the sliding seat (9), and a displacement motor (11) being fixedly mounted on both ends of the sliding seat (9), and an output shaft of the displacement motor (11) being rotatably connected to a rotating shaft of the displacement wheel (10) facing the mounting frame (7). A test seat (12) is rotatably mounted on one end of the sliding seat (9), and a rotatable detection plate (13) and a knocking plate (17) are mounted on the outer surfaces of both sides of the test seat (12); a detection motor (14) and a knocking motor (16) are fixedly mounted on the outer surface of the test seat (12); an angular displacement sensor (15) is fixedly mounted on the outer surface of one end of the test seat (12) opposite to the rotating shaft of the detection plate (13); and a switching motor (18) is fixedly mounted on the outer surface of the lower end of the sliding seat (9).

3. A wind turbine blade production detector according to claim 2, characterized in that: The outer surface of the displacement wheel (10) is in contact with the outer surface of the guide rail (8); the two ends of the rotating shaft of the detection plate (13) are respectively fixedly connected to the output shaft of the detection motor (14) and the input shaft of the angular displacement sensor (15); the knocking plate (17) drives one end of the rotating shaft to be fixedly connected to the output shaft of the knocking motor (16); and one end of the output shaft of the switching motor (18) is in contact with the outer surface of the test seat (12).

4. A wind turbine blade production detector according to claim 1, characterized in that: A timely switching mechanism is provided at the upper end of the test frame (1) on one side of the central rotating shaft (3), and the switching of the stress state of the test blade (4) is achieved by changing the driving state of the central rotating shaft (3).

5. A wind turbine blade production detector according to claim 4, characterized in that: The timely switching mechanism comprises: a connecting shaft (19), the connecting shaft (19) being fixedly connected to one end of the central rotating shaft (3), and a central rotating shaft (20) being mounted on one end of the connecting shaft (19), a clearance groove (21) being provided on the outer surface of one end of the central rotating shaft (20) located inside the connecting shaft (19), and a contact wheel (22) being slidably mounted on one end of the central rotating shaft (20) located outside the connecting shaft (19), an electric push rod (23), a power motor (24) and a load generator (27) being fixedly mounted on the upper surface of the test stand (1), a connecting disk (25) being fixedly connected to one end of the output shaft of the power motor (24), and a connecting gear (26) being slidably mounted to one end of the connecting disk (25), and a load gear (28) being fixedly connected to one end of the output shaft of the load generator (27).

6. A wind turbine blade production detector according to claim 5, characterized in that: A spring is connected between the connecting shaft (19) and the rotating shaft (20), the rotating shaft (20) and the contact wheel (22) are arranged concentrically, and tooth blocks are arranged on the outer surfaces of the contact wheel (22) and the rotating shaft (20).

7. A wind turbine blade production detector according to claim 5, characterized in that: One end of the electric push rod (23) penetrates through the outer surfaces of both ends of the contact wheel (22), and one end of the electric push rod (23) located inside the central rotating shaft (20) is rotatably connected to the central rotating shaft (20).

8. The wind turbine blade production detector according to claim 5, characterized in that: A spring is connected between the connecting disk (25) and the connecting gear (26), and the connecting gear (26) is meshingly connected to the rotating shaft (20).

9. A wind turbine blade production detector according to claim 1, characterized in that: A sliding rod (29) is fixedly arranged on the outer surface of the support rod (5), and a rotatable displacement rod (30) is installed on the outer surface of the support rod (5), and an adjustment motor (31) is fixedly installed on the outer surface of the support rod (5); an adjustment plate (32) is installed on the outer surfaces of the sliding rod (29) and the displacement rod (30), and counterweight blocks (33) are fixedly arranged at both ends of the adjustment plate (32); the adjustment plate (32) is slidably connected to the sliding rod (29), and the adjustment plate (32) is threadedly connected to the displacement rod (30), and the rotation shaft of the displacement rod (30) is fixedly connected to the output shaft of the adjustment motor (31).

10. A working method of a wind turbine blade production detector according to any one of claims 1 to 9, characterized in that: The working method comprises the following steps: S1. The test blade (4) is fixedly mounted on the outer surface of the central shaft (3); S2. The power motor (24) drives the central shaft (3) to rotate. At this time, the electric push rod (23) starts to drive the central shaft (3) to connect with the input shaft of the load generator (27) to drive the load gear (28) to rotate, and the actual working condition is simulated by connecting the load generator (27); S3. The displacement motor (11) is started to drive the sliding seat (9) and the guide rail (8) to move on the surface; S4. The switching motor (18), the detection motor (14) and the knocking motor (16) are alternately started to drive the knocking plate (17) and the detection plate (13) to knock and detect the deformation of the test blade (4); S5. The angular displacement sensor (15) monitors and records the angular displacement of the detection plate (13), and calculates the deformation of the test blade (4) after being impacted by the difference in data from the angular displacement sensor (15) twice before and after; S6. The speed of the functional ring (6) decreases, and the regulating motor (31) is started to drive the regulating plate (32) and the counterweight (33) to slide on the sliding rod (29) toward the central rotating shaft (3). The law of conservation of angular momentum is used to enable the functional ring (6) to maintain a certain speed of rotation for a certain period of time during the test.

Images