Wind power blade mold clamping mechanism with adjustable adaptation range and clamping method

Abstract

The invention relates to the technical field of wind power blade mold positioning, and discloses a wind power blade mold clamping mechanism with an adjustable adaptation range and a clamping method.The wind power blade mold clamping mechanism comprises a blade mold body, the blade mold body is fixedly installed at the top of a positioning clamping support through bolts, and an outer side positioning cavity is further fixed to the side wall of the bottom of the blade mold body; the blade mold further comprises auxiliary positioning blocks which are installed on the inner side wall of the blade mold body at equal intervals in an embedded mode, an installation support and a positioning support are fixed in an outer side positioning cavity under the auxiliary positioning blocks, a telescopic rod piece is rotationally connected into the installation support, and the tail end of an output shaft of the telescopic rod piece is fixed to the center of the back face of each auxiliary positioning block. Meanwhile, the positioning bracket penetrates through the back surface of the auxiliary positioning block. Positioning of the blade mold and clamping and positioning of the demolding structure in the mold are achieved, the driving range of clamping and positioning application of the demolding structure is conveniently adjusted, and rapid demolding of the wind power blade is achieved.

Description

Technical Field

[0001] The invention relates to the technical field of wind turbine blade mould positioning, and in particular to a wind turbine blade mould clamping mechanism and a clamping method with an adjustable adaptation range. Background Art

[0002] Wind turbine blade moulds are basic components used in the preparation and forming of wind turbine blades. First, the wind turbine blade mould is clamped and positioned before use. For the preparation of the same wind turbine blade, the wind turbine blade mould is divided into two parts, and the hot-melt materials for wind turbine blade preparation are hoisted and poured using lifting equipment. After the upper and lower moulds have respectively completed half of the forming process of the wind turbine blade, the upper and lower moulds and the corresponding wind turbine blades are docked and assembled to achieve the initial forming of the wind turbine blade.

[0003] Due to its large size and constant overall size, the wind turbine blade mold needs to be equipped with a corresponding clamping mechanism, that is, a base structure for mold shaping, etc., when it is used. At the same time, since the wind turbine blade is formed in the mold, in order to facilitate the overall demoulding of the wind turbine blade and prevent it from being partially damaged during the demoulding process due to local adhesion and adsorption tension, some wind turbine blade molds will also be equipped with a demoulding structure during preparation and use. The demoulding structure is further positioned by the clamping mechanism, so that when the wind turbine blade mold is demoulded later, the demoulding structure can be driven by the clamping mechanism to achieve rapid demoulding application; Then, when the existing clamping mechanism drives the demoulding structure to separate the wind turbine blade from the mold, the general method used is to use vibration to achieve the separation between the wind turbine blade and the mold through vibration conduction. However, in actual use, due to the large volume of the wind turbine blade and the mold, only vibration is used to separate the two. The external vibration force weakens quickly during the conduction process, the wind turbine blade and the mold are separated slowly, and there are many residual adhesion positions after separation, which makes it difficult to adjust the application range and frequency of the demoulding structure drive work.

[0004] In view of the above problems, it is urgent to carry out innovative design based on the original wind turbine blade mold clamping mechanism. Summary of the invention

[0005] The purpose of the present invention is to provide a wind turbine blade mold clamping mechanism and a clamping method with an adjustable adaptation range, so as to solve the problems of the existing wind turbine blade mold clamping mechanism proposed in the above background technology, which only uses vibration to achieve the separation of the two. The vibration external force is weakened at a fast rate during the transmission process, the separation speed of the wind turbine blade and the mold is slow, and there are many residual adhesion positions after separation, which makes it difficult to adjust the application range and frequency of the demolding structure drive work.

[0006] To achieve the above-mentioned purpose, the present invention provides the following technical solution: a wind turbine blade mold clamping mechanism with an adjustable adaptation range, comprising: The blade mold body is fixedly mounted on the top of the positioning clamping support by bolts, and an outer positioning cavity is also fixed on the bottom side wall of the blade mold body; It also includes: auxiliary positioning blocks, which are embedded and installed on the inner side wall of the blade mold body at equal intervals, and a mounting bracket and a positioning bracket are fixed in the outer positioning cavity directly below the auxiliary positioning block, a telescopic rod is rotatably connected in the mounting bracket, and the end of the output shaft of the telescopic rod is fixed to the center of the back of the auxiliary positioning block, and the positioning bracket and the back of the auxiliary positioning block are intersected; The elastic member is arranged in the telescopic rod, and an air flow vibrator is arranged on the outer wall of the telescopic rod. An air flow conveying component is also arranged in the outer positioning cavity, and the air flow conveying component drives the auxiliary positioning block to vibrate and exhaust.

[0007] Preferably, the outer side of the auxiliary positioning block and the inner side of the blade mold body are both arranged as curved surface structures, the two curved surface structures are arranged coplanarly, and the auxiliary positioning block is coaxially fixed with the telescopic rod, and the telescopic rod is connected to the mounting bracket through the central axis and the bearing to form a relative rotation structure.

[0008] Preferably, the mounting bracket is arranged in a "U"-shaped structure, and the middle part of the "U"-shaped mounting bracket is parallel to the bottom of the telescopic rod, with a reserved spacing, and the two are positioned by magnetic adsorption.

[0009] Preferably, the positioning bracket and the auxiliary positioning block are telescopically mounted, and the end of the positioning bracket on the curved surface side of the auxiliary positioning block is an inverted truncated cone structure, and the inverted truncated cone end of the positioning bracket is fittedly connected to the curved side wall of the auxiliary positioning block.

[0010] Preferably, the telescopic rod is hollowed out, and the interior of the telescopic rod is connected to the interior of the outer positioning cavity through the hollow hole, and there is a difference in metal material and thermal expansion coefficient between the inner side and the outer side of the spiral of the elastic member inside the telescopic rod.

[0011] Preferably, the airflow conveying component comprises a flow-guiding threaded tube movably installed and penetrating the outer wall of the positioning cavity; At the same time, a guide sliding rod is fixedly arranged on the inner side of the outer positioning cavity along its coaxial direction, a cover body bracket is slidably installed on the outer side of the guide sliding rod, a multi-directional solenoid valve is fixed at the bottom of the cover body bracket, the multi-directional solenoid valve is connected with the guide threaded pipe, and exhaust holes are arranged on the left and right sides of the multi-directional solenoid valve, and the direction of the exhaust hole is the same as the direction of the guide sliding rod; The outer side of the guide sliding rod is set as a rectangular structure, and the rectangular outer wall of the guide sliding rod and the cover body bracket are in radial engagement and axial fit sliding connection, and the two are weakly magnetically adsorbed and positioned.

[0012] Preferably, an airbag ring is movably mounted on the cover body bracket, a film is arranged between the airbag ring and the outer side of the cover body bracket, and the connection between the airbag ring and the cover body bracket is arranged as an annular structure, an elastic airbag is arranged inside the cover body bracket, and the airbag ring is connected with the elastic airbag, the cover body bracket and the multi-directional solenoid valve and the inside of the guide threaded tube in sequence.

[0013] Preferably, the elastic airbag is arranged in a strip-shaped structure, and two ends of the elastic airbag are respectively fixedly connected to the inside of the cover body support and the annular structure of the airbag ring.

[0014] Preferably, a photoelectric sensor is disposed in the middle of the cover body bracket and the middle of the mounting bracket, and the two photoelectric sensors are distributed correspondingly, and an exhaust port is also disposed in the middle of the cover body bracket.

[0015] Furthermore, the present invention also discloses a clamping method of a wind turbine blade mold clamping mechanism, and the specific method is as follows: S1: First, the blade mold body is supported by a positioning clamping support, the positioning clamping support is composed of a pipe-type truss structure, and bolts are used to clamp and install the blade mold body; S2: Secondly, auxiliary positioning blocks embedded and installed at equal intervals are arranged on the blade mold body to form a complete mold structure, and the auxiliary positioning blocks are positioned by mounting brackets, telescopic rods and positioning brackets to prevent the auxiliary positioning blocks from loosening during the molding and manufacturing of the wind turbine blades; S3: An airflow conveying component and an airflow vibrator are set at the same time. When the pressurized airflow is introduced, the telescopic rod vibrates at a high frequency under the vibration and elastic action of the elastic component, and the positioning and flip-type shaking of the auxiliary positioning block are adjusted to release the positioning clamping state of the auxiliary positioning block, thereby realizing the demolding of the formed wind turbine blade on the blade mold body.

[0016] Compared with the prior art, the beneficial effects of the present invention are as follows: the wind turbine blade mold clamping mechanism and clamping method with adjustable adaptation range realizes the positioning of the blade mold and the clamping positioning of the demoulding structure inside the mold, facilitates the adjustment of the driving range of the demoulding structure clamping positioning application, and realizes the rapid demoulding of the wind turbine blade. The specific contents are as follows: 1. Through the magnetic effect between the telescopic rod and the mounting bracket, the positioning of the telescopic rod is realized under normal conditions. At the same time, an elastic member is arranged inside the telescopic rod, so that the auxiliary positioning block in the demoulding structure component can support the positioning and limit the position under the action of the positioning bracket to achieve its stable clamping and positioning effect. When the demoulding is applied, the high-temperature airflow can shrink the elastic member inside the telescopic rod and separate the auxiliary positioning block from the positioning bracket, release the positioning state of the auxiliary positioning block, and make the auxiliary positioning block swing and vibrate under the action of the airflow, and discharge the airflow to achieve the rapid demoulding of the wind turbine blade; Furthermore, the inverted truncated cone structure of the positioning bracket is set, when the positioning bracket releases the limiting state of the auxiliary positioning block, the auxiliary positioning block can swing and vibrate along the rotating axis node installed by the telescopic rod, which will not affect the vibration demoulding use of the auxiliary positioning block. At the same time, the elastic member itself also has an elastic effect, which improves the vibration demoulding efficiency of the auxiliary positioning block. 2. By setting the guide sliding rod and the cover body bracket, the multi-directional solenoid valve discharges airflow in different directions, and utilizing the reverse thrust force of the airflow discharge, the cover body bracket and the airbag ring and other components thereon are moved, and the guide sliding rod and the cover body bracket are used for sliding and magnetic positioning to achieve the positioning of the cover body bracket and the exhaust structure thereon, and realize the directional discharge of pressurized gas. The auxiliary positioning block is driven to shake and discharge gas through the clamping structure of the corresponding part, so as to realize the rapid demoulding operation; Furthermore, an airbag ring movably installed on the outside of the cover body bracket can, when pressurized gas is introduced into the interior of the cover body bracket and discharged through the exhaust port on the cover body bracket, the air pressure can realize the movement and expansion of the airbag ring, so that it wraps the clamping mechanism at the corresponding position and the back position of the auxiliary positioning block. The pressurized discharged gas causes the auxiliary positioning block to vibrate at a high frequency, and the gas is discharged from the gap where the auxiliary positioning block is located, filling the gap between the blade mold body and the wind turbine blade, expanding the gap between the two, and realizing rapid demolding of the wind turbine blade. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the front structure of the present invention; Figure 2 This is a schematic diagram of the back structure of the outer positioning cavity of the present invention; Figure 3 This is a schematic diagram of the front structure of the outer positioning cavity installation of the present invention; Figure 4 This is a schematic diagram of the auxiliary positioning block installation structure of the present invention; Figure 5 This is a schematic diagram of the front structure of the installation of the telescopic rod and the auxiliary positioning block of the present invention; Figure 6 This is a schematic diagram of the back structure of the telescopic rod and the auxiliary positioning block of the present invention; Figure 7 This is a schematic diagram of the cover support installation structure viewed from above of the present invention; Figure 8 This is a schematic diagram of the top view of the cover support installation structure of the present invention; Fig. 9 This is a schematic diagram of the installation distribution structure of the elastic airbag of the present invention; Fig.10 This is a schematic diagram of the distribution structure of the positioning bracket of the present invention; Fig.11 This is a schematic diagram of the internal structure of the telescopic rod of the present invention; Fig.12 This is a schematic diagram of the positioning bracket structure of the present invention.

[0018] In the figure: 1. blade mold body; 2. positioning clamping support; 3. outer positioning cavity; 4. auxiliary positioning block; 5. mounting bracket; 6. telescopic rod; 601, air flow vibrator; 7. positioning bracket; 8. elastic member; 9. guide sliding rod; 10. cover bracket; 11. multi-directional solenoid valve; 12. guide threaded pipe; 13. airbag ring; 14. elastic airbag; 15. photoelectric sensor. DETAILED DESCRIPTION

[0019] 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.

[0020] Example 1: Please refer to Figure 1-Figure 4 The present invention provides a technical solution: a wind turbine blade mold clamping mechanism with an adjustable adaptation range, comprising: a blade mold body 1, which is fixedly mounted on the top of a positioning clamping support 2 by bolts, and an outer positioning cavity 3 is also fixed on the bottom side wall of the blade mold body 1; In the present technical solution, the positioning of the blade mold body 1 is achieved by utilizing the positioning clamping support 2 and the action of bolts. Due to the production and manufacturing size requirements of wind turbine blades, their overall size is constant, so the length and size of the blade mold body 1 are also synchronously constant. The positioning clamping support 2 is provided to achieve the positioning and assembly of the blade mold body 1, which is convenient for the subsequent docking and assembly of the formed wind turbine blades.

[0021] It also includes: an auxiliary positioning block 4, which is embedded and installed on the inner side wall of the blade mold body 1 at equal intervals, and a mounting bracket 5 and a positioning bracket 7 are fixed in the outer positioning cavity 3 directly below the auxiliary positioning block 4, and a telescopic rod 6 is rotatably connected in the mounting bracket 5, and the end of the output shaft of the telescopic rod 6 is fixed to the center of the back of the auxiliary positioning block 4, and the positioning bracket 7 and the back of the auxiliary positioning block 4 are penetrated; an elastic member 8 is arranged in the telescopic rod 6, and an air flow vibrator 601 is arranged on the outer side wall of the telescopic rod 6, and an air flow vibrator 601 is also arranged in the outer positioning cavity 3. The airflow conveying component drives the auxiliary positioning block 4 to vibrate and exhaust; the outer side of the auxiliary positioning block 4 and the inner side of the blade mold body 1 are both set as curved surface structures, and the two curved surface structures are set in the same plane, and the auxiliary positioning block 4 is coaxially fixed with the telescopic rod 6, and the telescopic rod 6 is connected with the mounting bracket 5 through the central axis and the bearing to form a relative rotation structure; the mounting bracket 5 is set in a "U"-shaped structure, and the middle part of the "U" shape of the mounting bracket 5 is parallel to the bottom of the telescopic rod 6, and a spacing is reserved, and the two are magnetically adsorbed and positioned; In the above technical solution, the auxiliary positioning block 4 belongs to the demoulding application mechanism used in the present mold, and forms a complete wind turbine blade manufacturing mold with the blade mold body 1. At the same time, the installation of the auxiliary positioning block 4 requires clamping and positioning due to the need to realize subsequent demoulding. The auxiliary positioning block 4 is installed and limited by the clamping and positioning mechanism to prevent the deviation of the wind turbine blade preparation molding due to loosening during use. The clamping mechanism includes auxiliary positioning components such as a telescopic rod 6 and a positioning bracket 7. The telescopic rod 6 and its internal elastic member 8 are used to realize the reverse push of the auxiliary positioning block 4. Limiting, under the penetration action of the positioning bracket 7 and the auxiliary positioning block 4, the auxiliary positioning block 4 is stably positioned and will not loosen. At the same time, the use of airflow conveying components can be utilized. Under the action of airflow, the telescopic rod 6 can be telescoped and shaken, and the limited state of the auxiliary positioning block 4 can be released, so that it can oscillate with different amplitudes due to the change in the size of wind airflow. The telescopic rod 6 and the mounting bracket 5 are relatively flipped due to vibration, so that the auxiliary positioning block 4 is separated from the formed wind turbine blade, and pressurized airflow is introduced at the position where the two are separated to achieve rapid separation between the wind turbine blade and the mold.

[0022] In the above technical scheme, it is further disclosed that the positioning bracket 7 and the auxiliary positioning block 4 are telescopically movable through-mounted, and the end of the positioning bracket 7 located on the curved surface side of the auxiliary positioning block 4 is an inverted truncated cone structure, and the inverted truncated cone end of the positioning bracket 7 is fitted and connected with the curved surface side wall of the auxiliary positioning block 4; by adopting this technical scheme, when the auxiliary positioning block 4 is clamped due to positioning by the clamping mechanism, it is directly limited by the positioning bracket 7, and when the auxiliary positioning block 4 moves downward due to the contraction of the telescopic rod 6, the auxiliary positioning block 4 is directly contacted by the positioning bracket 7 in a limited state, and at the same time, it will not affect the shaking of the auxiliary positioning block 4, which is driven by the extension and contraction of the telescopic rod 6 caused by the airflow and the relative flipping action between the telescopic rod 6 and the mounting bracket 5.

[0023] At the same time, in this embodiment, a clamping method of the wind turbine blade mold clamping mechanism is also disclosed, and the specific method is as follows: S1: First, the blade mold body 1 is supported by the positioning clamping support 2. The positioning clamping support 2 is normally composed of a pipe-type truss structure, and bolts are used to clamp and install the blade mold body 1; S2: Secondly, auxiliary positioning blocks 4 are embedded and installed at equal intervals on the blade mold body 1 to form a complete mold structure, and the auxiliary positioning blocks 4 are positioned by the mounting bracket 5, the telescopic rod 6 and the positioning bracket 7 to prevent the auxiliary positioning blocks 4 from loosening during the molding and manufacturing of the wind turbine blade; S3: An airflow conveying component and an airflow vibrator 601 are set at the same time. When the pressurized airflow is introduced, the telescopic rod 6 vibrates at a high frequency under the vibration and elastic action of the elastic member 8, and the positioning and flip-type shaking of the auxiliary positioning block 4 are adjusted to release the positioning and clamping state of the auxiliary positioning block 4, thereby realizing the demolding of the formed wind turbine blade on the blade mold body 1.

[0024] Embodiment 2: Based on Embodiment 1, the present invention further discloses a method and technical solution for how the clamping mechanism can realize the rapid separation of the mold and the wind turbine blade through the position of the auxiliary positioning block 4, and the specific contents are as follows: The telescopic rod 6 is hollowed out, and the interior of the telescopic rod 6 is connected with the interior of the outer positioning cavity 3 through the hollow hole, and there is a difference in the metal material and thermal expansion coefficient between the inner and outer sides of the spiral of the elastic member 8 inside the telescopic rod 6; in this technical scheme, an elastic member 8 of different materials is firstly arranged. Due to the difference in thermal expansion coefficients of metals, when the pressurized and high-temperature airflow is introduced into the outer positioning cavity 3 through the airflow conveying component, due to the hollowing out of the telescopic rod 6, the airflow can directly cause the elastic member 8 to deform and shrink, so that the contraction of the telescopic rod 6 drives the auxiliary positioning block 4 to move and change its position. At the same time, in order to improve the thermal contraction efficiency of the elastic member 8, it can be made of a memory metal with high heat sensitivity; at the same time, the difference in gas flow rate introduced by the airflow conveying component can achieve the shaking of the telescopic rod 6 due to the elastic reaction force of the elastic member 8 itself under the impact of airflows of different speeds.

[0025] The airflow conveying component includes a guide threaded tube 12 movably installed on the outer wall of the positioning cavity 3; at the same time, a guide sliding rod 9 is fixedly arranged on the inner side of the outer positioning cavity 3 along its coaxial direction, and a cover body bracket 10 is slidably installed on the outer side of the guide sliding rod 9, and a multi-directional electromagnetic valve 11 is fixed at the bottom of the cover body bracket 10, and the multi-directional electromagnetic valve 11 is connected with the guide threaded tube 12, and exhaust holes are arranged on the left and right sides of the multi-directional electromagnetic valve 11, and the exhaust holes are oriented in the same direction as the guide sliding rod 9; the outer side of the guide sliding rod 9 is arranged in a rectangular structure, and the rectangular outer wall of the guide sliding rod 9 and the cover body bracket 10 are radially engaged and axially fitted. The sliding connection, and the two are weakly magnetically adsorbed and positioned; the cover body bracket 10 is movable An airbag ring 13 is installed, a film is arranged between the airbag ring 13 and the outer side of the cover body bracket 10, and the connection between the airbag ring 13 and the cover body bracket 10 is arranged as an annular structure, an elastic airbag 14 is arranged in the cover body bracket 10, and the airbag ring 13 and the elastic airbag 14, the cover body bracket 10 and the multi-directional solenoid valve 11 and the guide threaded tube 12 are sequentially connected; the elastic airbag 14 is arranged in a strip structure, and the two ends of the elastic airbag 14 are respectively connected to the inside of the cover body bracket 10 and the annular structure of the airbag ring 13 in a through-connected fixed connection; the middle part of the cover body bracket 10 and the middle part of the mounting bracket 5 are both provided with photoelectric sensors 15, and the two photoelectric sensors 15 are arranged correspondingly, and the middle part of the cover body bracket 10 is also provided with an exhaust port; In the above technical scheme, since the outer positioning cavity 3 corresponds to a plurality of auxiliary positioning blocks 4, in order to improve the stability and efficiency of the airflow introduced into the airflow conveying component, the airflow can be accurately aligned with the auxiliary positioning block 4 required for demolding according to the use needs. By adopting this technical scheme, firstly, an external computer numerical control device is used to control the exhaust of the corresponding exhaust hole on the multi-directional solenoid valve 11. Under the reverse thrust of the gas, the cover body bracket 10 is moved axially along the guide sliding rod 9 to change the positioning of the cover body bracket 10. At the same time, the signal transmission of the photoelectric sensor 15 is utilized. When the photoelectric sensor 15 in the middle of the cover body bracket 10 is coaxially corresponding to the photoelectric sensor 15 in the middle of the mounting bracket 5 of the corresponding auxiliary positioning block 4, the photoelectric sensor 15 receives the photoelectric signal and transmits it to the external computer numerical control device, which is convenient for artificial control of the positioning state of the cover body bracket 10, and The gas is again introduced into the cover body bracket 10 and the airbag ring 13 through the multi-directional solenoid valve 11 through the guide threaded tube 12, so that the airbag ring 13 moves and expands, and the airbag ring 13 and the film connected thereto are used to wrap the corresponding back side of the auxiliary positioning block 4 and the clamping mechanism on the back side, so that the airflow discharged from the exhaust port in the middle of the cover body bracket 10 is directly introduced into the auxiliary positioning block 4, reducing the airflow escape, and making the back structure of the auxiliary positioning block 4 receive the airflow impact more stably, realizing the contraction of the telescopic rod 6 and the positioning movement and shaking of the auxiliary positioning block 4, and at the same time, an airflow vibrator 601 is also arranged on the outside of the auxiliary positioning block 4, so that the shaking frequency and range of the auxiliary positioning block 4 are directly regulated by the airflow, so as to realize the demoulding of the wind turbine blade, and at the same time, most of the airflow is introduced into the contact surface between the mold and the wind turbine blade through the gap between the auxiliary positioning blocks 4, so as to improve the demoulding efficiency of the wind turbine blade.

[0026] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A wind turbine blade mold clamping mechanism with an adjustable adaptation range, comprising: A blade mold body (1) is fixedly mounted on the top of a positioning clamping support (2) by means of bolts, and an outer positioning cavity (3) is also fixed on the bottom side wall of the blade mold body (1); It is characterized by further comprising: The auxiliary positioning block (4) is embedded and installed at equal intervals on the inner side wall of the blade mold body (1), and a mounting bracket (5) and a positioning bracket (7) are fixed in the outer positioning cavity (3) directly below the auxiliary positioning block (4), a telescopic rod (6) is rotatably connected in the mounting bracket (5), the output shaft end of the telescopic rod (6) is fixed to the center of the back side of the auxiliary positioning block (4), and the positioning bracket (7) and the back side of the auxiliary positioning block (4) are penetrated; The elastic member (8) is arranged in the telescopic rod (6), and an air flow vibrator (601) is arranged on the outer wall of the telescopic rod (6). An air flow conveying component is also arranged in the outer positioning cavity (3), and the air flow conveying component drives the auxiliary positioning block (4) to vibrate and exhaust.

2. According to claim 1, a wind turbine blade mold clamping mechanism with adjustable adaptability range is characterized in that: The outer side of the auxiliary positioning block (4) and the inner side of the blade mold body (1) are both arranged as curved surface structures, and the two curved surface structures are arranged coplanarly, and the auxiliary positioning block (4) and the telescopic rod (6) are coaxially fixed, and the telescopic rod (6) is connected to the mounting bracket (5) through a central axis and a bearing to form a relatively rotating structure.

3. The wind turbine blade mold clamping mechanism with adjustable adaptability range according to claim 2 is characterized in that: The mounting bracket (5) is arranged in a "U"-shaped structure, and the middle part of the "U"-shaped mounting bracket (5) is parallel to the bottom of the telescopic rod (6), with a reserved spacing, and the two are positioned by magnetic adsorption.

4. A wind turbine blade mold clamping mechanism with adjustable adaptability range according to any one of claims 1 to 3, characterized in that: The positioning bracket (7) and the auxiliary positioning block (4) are telescopically mounted to penetrate each other, and the end of the positioning bracket (7) located on one side of the curved surface of the auxiliary positioning block (4) is an inverted truncated cone-shaped structure, and the inverted truncated cone-shaped end of the positioning bracket (7) is fitted and connected to the curved side wall of the auxiliary positioning block (4).

5. The wind turbine blade mold clamping mechanism with adjustable adaptability range according to claim 1, characterized in that: The telescopic rod (6) is hollowed out, and the interior of the telescopic rod (6) and the interior of the outer positioning cavity (3) are connected through the hollow hole, and there is a difference in metal material and thermal expansion coefficient between the inner side of the spiral and the outer side of the spiral of the elastic member (8) inside the telescopic rod (6).

6. The wind turbine blade mold clamping mechanism with adjustable adaptability range according to claim 1, characterized in that: The airflow conveying component comprises a flow-guiding threaded tube (12) movably installed and penetrating the outer wall of the positioning cavity (3); At the same time, a guide sliding rod (9) is fixedly arranged on the inner side of the outer positioning cavity (3) along the coaxial direction thereof, a cover bracket (10) is slidably mounted on the outer side of the guide sliding rod (9), a multi-directional electromagnetic valve (11) is fixed on the bottom of the cover bracket (10), the multi-directional electromagnetic valve (11) is connected to the guide threaded pipe (12), and exhaust holes are arranged on both sides of the multi-directional electromagnetic valve (11), and the exhaust holes face in the same direction as the guide sliding rod (9); The outer side of the guide sliding rod (9) is arranged as a rectangular structure, and the rectangular outer wall of the guide sliding rod (9) and the cover body bracket (10) are in radial engagement and axial fit sliding connection, and the two are weakly magnetically adsorbed and positioned.

7. The wind turbine blade mold clamping mechanism with adjustable adaptability range according to claim 6, characterized in that: An airbag ring (13) is movably mounted on the cover support (10), a film is provided between the airbag ring (13) and the outer side of the cover support (10), and the connection between the airbag ring (13) and the cover support (10) is provided as an annular structure, an elastic airbag (14) is provided inside the cover support (10), and the airbag ring (13) and the elastic airbag (14), the cover support (10), the multi-directional electromagnetic valve (11) and the guide threaded tube (12) are sequentially connected.

8. The wind turbine blade mold clamping mechanism with adjustable adaptability range according to claim 7, characterized in that: The elastic airbag (14) is arranged in a strip-shaped structure, and the two ends of the elastic airbag (14) are respectively connected to the inside of the cover body support (10) and the annular structure of the airbag ring (13) in a through-and-through fixed manner.

9. A wind turbine blade mold clamping mechanism with adjustable adaptability range according to any one of claims 6-8, characterized in that: A photoelectric sensor (15) is disposed in the middle of the cover body bracket (10) and the middle of the mounting bracket (5), and the two photoelectric sensors (15) are disposed correspondingly therebetween. An exhaust port is also disposed in the middle of the cover body bracket (10).

10. The wind turbine blade mold clamping mechanism with adjustable adaptability range according to claim 1, characterized in that: A clamping method of a wind turbine blade mold clamping mechanism is also disclosed, and the specific method is as follows: S1: First, the blade mold body (1) is supported by a positioning clamping support (2), the positioning clamping support (2) is normally composed of a pipe-type truss structure, and bolts are used to clamp and install the blade mold body (1); S2: Secondly, auxiliary positioning blocks (4) are provided on the blade mold body (1) and embedded with equal spacing to form a complete mold structure, and the auxiliary positioning blocks (4) are positioned by means of the mounting bracket (5), the telescopic rod (6) and the positioning bracket (7) to prevent the auxiliary positioning blocks (4) from loosening during the molding and manufacturing of the wind turbine blade; S3: An airflow conveying component and an airflow vibrator (601) are provided at the same time. When the pressurized airflow is introduced, the telescopic rod (6) vibrates at a high frequency under the action of vibration and elasticity of the elastic member (8), thereby adjusting the positioning and flipping vibration of the auxiliary positioning block (4), releasing the positioning clamping state of the auxiliary positioning block (4), and realizing demoulding of the formed wind turbine blade on the blade mold body (1).

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