Measurement control device on wind power generation equipment

Abstract

The invention provides a measurement control device on wind power generation equipment. The measurement control device structurally comprises a positioning base, a parallel disc, a supporting column, a measurement connector, a rotary connecting hole, a wind direction measurement net and a temperature measurer. According to the invention, on the basis of the rotating disc and the balancing disc arranged in the splicing area of the supporting column and the measuring connector, the rotating disc and the balancing disc are used for bearing the overall weight of the measuring connector and the wind driven generator, and then four groups of auxiliary rods at the lower edge of the balancing disc can ensure the balance of the edge area according to the solid column and the bottom pulley; the conditions of excessive rotation friction and unstable rotation caused by excessive compression of one side of the rotating disc formed by inclination of one side due to inconsistent weights of peripheral edge components are avoided, and then when the direction of the wind driven generator is adjusted, the solid column of the auxiliary rod can be combined with the bottom pulley to rotate on the edge of the surface layer of the parallel disc along with the rotating disc. And the rotation stability balance of the measurement connector and the wind driven generator is ensured.

Description

Technical Field

[0001] The present invention relates to the technical field of measurement and control of wind power generation equipment, and more specifically to a measurement and control device on a wind power generation equipment. Background Art

[0002] Wind power generation equipment is a device that uses wind energy to generate electricity. It is an important part of clean energy technology and has the advantages of being clean, environmentally friendly, renewable, and widely applicable. However, when using wind power generation equipment, it is necessary to monitor aspects such as wind speed, wind direction, rotational speed, and power through a dedicated measurement and control device. It can determine whether to start or adjust the orientation of the fan according to the characteristics of the measured wind speed and wind direction, so as to maximize the capture of wind energy. At the same time, monitoring the rotational speed of the fan can avoid damage caused by overspeed and ensure the stable output of the generated power. In summary, the inventor found that the existing measurement and control devices mainly have the following defects: When the existing measurement and control device adjusts the orientation of the rotating fan, it usually adjusts the overall position of the fan through a rotating wheel. During the rotation process, since the diameter of the rotating wheel is larger than the top diameter of the support rod, the edge is in a hollow state during rotation. Therefore, it is extremely easy to cause rotational imbalance due to the weight suppression of the top components of the edge, and it is very easy to have continuous friction between the edge on one side and the top edge of the support column, resulting in unsmooth rotation and excessive wear on the bottom side of the rotating wheel. Summary of the Invention

[0003] The technical solution adopted by the present invention to achieve the technical purpose is: A measurement and control device on a wind power generation equipment, the structure of which includes: a positioning base, a parallel disk, a support column, a measurement connector, a rotary connection hole, a wind direction measurement network, a temperature measurer. The upper end of the positioning base coincides with the parallel disk, and the support column is vertically embedded. The measurement connector is installed at the top of the support column and is embedded inside the wind turbine generator and is connected to the rotating slot of the wind turbine generator through the rotary connection hole. The wind direction measurement network is arranged on the top of the measurement connector and penetrates through the upper end of the wind turbine generator. The temperature measurer is installed on the back of the measurement connector and is embedded inside the wind turbine generator through the measurement connector.

[0004] As a further improvement of the present invention, a central disk is also provided in the connection area between the support column and the measurement connector. A rotary restraint column is connected to the center area of the central disk, and a balance disk is arranged at the top of the rotary restraint column and is connected to the bottom of the rotating disk. A connection block is arranged at the upper end of the rotating disk and is fixedly connected to the measurement connector. An auxiliary rod is also connected to the lower edge of the balance disk and is in contact with the surface edge of the parallel disk.

[0005] As a further improvement of the present invention, the auxiliary rod is provided with a locking bolt. The locking bolt penetrates and connects the edge of the balance disk to the center of the convex block, and an overlapping block is welded to the lower end of the convex block. The convex block at the upper end of the overlapping block is embedded in the bottom edge of the balance disk. A solid column is also welded to the lower end of the overlapping block, and an adapter block is connected to the bottom of the solid column to position the pulley. The pulley is embedded in the surface edge of the parallel disk.

[0006] As a further improvement of the present invention, the balance disk and the rotating disk provided between the support column and the measurement connector rotate the measurement connector and the wind turbine in terms of orientation. During the process, the rotation restraint column at the center of the bottom of the balance disk rotates at a fixed point in the central disk area. At the same time, the auxiliary rods at the edge maintain the height around the balance disk by means of the solid columns, and then the pulleys at the bottom adapter blocks slide on the edge of the parallel disk.

[0007] As a further improvement of the present invention, the positioning base coincides with the parallel disk, and the parallel disk is perpendicular to the support column. The measurement connector at the top of the support column, together with the rotary connection hole and the temperature measurer, is embedded in the interior of the wind turbine for electrical connection. The wind direction measurement network is set in a vertical orientation and penetrates the top of the wind turbine.

[0008] As a further improvement of the present invention, a circular rotating groove is opened in the center of the central disk for the rotation restraint column to rotate. The balance disk and the rotating disk have the same diameter and are perpendicular to the rotation restraint column. The connection block is in the form of a convex solid metal. A total of four auxiliary rods are provided at the lower layer edge of the balance disk and are set in four directions.

[0009] As a further improvement of the present invention, an internal thread groove is opened in the center of the convex block. The overlapping block, the convex block, and the solid column are spliced by welding technology. An arc-shaped groove is opened at the bottom layer of the adapter block at the lower end of the solid column for the spherical pulley to rotate.

[0010] As a further improvement of the present invention, the parallel disk is provided with a disk body. A sliding groove is opened at the surface edge of the disk body, and a stress block is arranged in the edge area of the sliding groove and is connected to the edge of the limiting ring provided at the center. A slot is also opened in the center area of the limiting ring. The splicing body is embedded in the inner wall area of the limiting ring through the slot.

[0011] As a further improvement of the present invention, the sliding groove of the disk body is circular to determine the position of the pulley. The edge area of the sliding groove is reinforced and maintained by the stress block. The slot of the limiting ring allows the bottom of the support column to be embedded, and then the support column is fixed by the edge splicing body.

[0012] As a further improvement of the present invention, the splicing body is further provided with an insertion block. The insertion block is fixedly connected to the top of the magnetic attraction block. A support block is connected to the lower end of the magnetic attraction block for fixed connection. A clamping block is further provided at the lower end of the support block to fix the filling block.

[0013] As a further improvement of the present invention, the insertion block penetrates through the inner wall of the limiting ring in a straight line direction and enters the stress block for insertion connection. The magnetic attraction block is arc-shaped and matches the shape of the inner wall of the limiting ring. The support block positions the filling block through the clamping block. The filling block is in a semi-circular solid form and fills the connecting groove at the bottom of the support column.

[0014] As a further improvement of the present invention, the temperature measuring device is further provided with an electric insertion block. The upper end of the electric insertion block is fixedly connected to the lower end of the parallel plate. The parallel plate coincides with the lower layer of the intelligent control box. The upper end of the intelligent control box is connected with an external temperature induction plate. The central area of the front end of the intelligent control box is provided with an internal temperature induction plate and is embedded in the internal area of the measurement connector.

[0015] As a further improvement of the present invention, the electric insertion block is perpendicular to the parallel plate, and the parallel plate has the same area as the lower layer of the intelligent control box. The external temperature induction plate is connected with an anti-rust frame, and the internal temperature induction plate is square-shaped.

[0016] As a further improvement of the present invention, the parallel plate is further provided with an adsorption frame. The adsorption frame covers the edge area of the plate body, and anti-deviation blocks are also welded on the edge area of the surface layer of the plate body. A connection groove is also opened in the center of the plate body for the electric insertion block to be embedded.

[0017] As a further improvement of the present invention, the adsorption frame is rectangular and matches the shape of the plate body. Multiple solid anti-deviation blocks are connected to the edge of the surface layer of the plate body and are vertically embedded in the upper layer position of the support plate provided at the bottom of the measurement connector.

[0018] Compared with the prior art, the present invention has the following beneficial effects: 1. Based on the rotating disk and the balance disk provided in the splicing area of the support column and the measurement connector of the present invention, the rotating disk and the balance disk are used to bear the overall weight of the measurement connector and the wind turbine. Furthermore, the four auxiliary rods at the lower edge of the balance disk can ensure the balance of the edge area according to the solid column and the bottom pulley, avoiding the excessive friction and unstable rotation caused by the excessive pressure on one side of the rotating disk due to the inconsistent weights of the peripheral edge components, resulting in one-sided tilt. When adjusting the orientation of the wind turbine, the solid column of the auxiliary rod can rotate along with the rotating disk on the surface edge of the parallel plate in combination with the bottom pulley, ensuring the rotational stability and balance of the measurement connector and the wind turbine, and avoiding damage caused by excessive pressure on one edge side, so as to effectively improve the use stability of the measurement controller.

[0019] 2. After the further improvement of the present invention from the parallel disk, the sliding groove on the edge of the disk surface can provide an annular sliding space for the bottom pulley of the auxiliary rod. Then, in the form of a ring, it can ensure that the pulley rotates in an annular direction, further improving the rotation stability of the rotating disk. At the same time, the force-bearing block carried on the edge of the sliding groove can maintain the overall shape of the sliding groove, avoiding the phenomenon of one-sided wear and bulge caused by continuous use. Then, the splicing body inside the limiting ring can improve the connection firmness with the bottom of the support column, and the cooperation of the magnetic attraction block and the filling block can effectively make the support column have the characteristic of being detachable.

[0020] 3. After the further improvement of the present invention from the temperature measurer, the electric plug block at the lower end of the parallel plate can be stably electrically connected to the measurement connector. Then, according to the external stability induction plate on the intelligent control box, the external temperature can be monitored in real time. At the same time, by inserting the internal temperature induction plate into the measurement connector and connecting it to the inside of the wind turbine, the effect of internal temperature monitoring is achieved. Thus, through the cooperation of the external temperature induction plate, the temperature inside the wind turbine and the measurement connector can be changed according to the external temperature situation. Through two-way temperature monitoring, the use safety factor of the measurement control device and the wind turbine is improved, and damage caused by abnormal temperature is avoided. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a schematic structural diagram of a measurement control device on a wind power generation device.

[0022] Figure 2 It is a three-dimensional schematic structural diagram after the improvement of the connection component at the top of the support column.

[0023] Figure 3 It is a schematic sectional view of the auxiliary rod after improvement.

[0024] Figure 4 It is a schematic top view of the parallel disk after improvement.

[0025] Figure 5 It is a schematic sectional view of the splicing body after improvement.

[0026] Figure 6 It is a three-dimensional schematic structural diagram of the temperature measurer after improvement.

[0027] Figure 7 It is a schematic top view of the lower layer of the parallel plate after improvement.

[0028] In the figure: positioning base - 1, parallel disk - 2, support column - 3, measurement connector - 4, rotation connection hole - 5, wind direction measurement network - 6, temperature measurer - 7; central disk - 31, rotation restraint column - 32, balance disk - 33, rotating disk - 34, connection block - 35, auxiliary rod - 36; Locking bolt - 361, convex block - 362, overlapping block - 363, solid column - 364, connecting block - 365, pulley - 366; Disk body - 21, sliding groove - 22, stress - receiving block - 23, limiting ring - 24, slot - 25, splicing body - 26; Insert block - 261, magnetic - attracting block - 262, support block - 263, clamping block - 264, filling block - 265; Electric plug - 71, parallel plate - 72, intelligent control box - 73, external temperature induction plate - 74, internal temperature induction plate - 75; Adsorption frame - 721, plate body - 722, anti - deviation block - 723, connecting groove - 724. Specific implementation mode

[0029] The present invention will be further described below with reference to the accompanying drawings: Embodiment

[0030] Figures 1 to 5 As shown: The present invention provides a measurement and control device on a wind power generation device, whose structure includes a positioning base 1, a parallel disk 2, a support column 3, a measurement connector 4, a rotating connection hole 5, a wind direction measurement network 6, and a temperature measurer 7. The upper end of the positioning base 1 coincides with the parallel disk 2, and the support column 3 is vertically embedded. The measurement connector 4 is installed at the top of the support column 3 and is embedded in the interior of the wind turbine and is connected to the rotating groove of the wind turbine through the rotating connection hole 5. The wind direction measurement network 6 is arranged at the top of the measurement connector 4 and penetrates through the upper end of the wind turbine. The temperature measurer 7 is installed on the back of the measurement connector 4 and is embedded in the interior area of the wind turbine through the measurement connector 4.

[0031] Among them, a central disk 31 is further provided in the connection area between the support column 3 and the measurement connector 4. A rotating restraint column 32 is connected to the center area of the central disk 31, and a balance disk 33 is arranged at the top of the rotating restraint column 32 and is connected to the bottom of the rotating disk 34. A connection block 35 is arranged at the upper end of the rotating disk 34 and is fixedly connected to the measurement connector 4. An auxiliary rod 36 is also connected to the lower - layer edge of the balance disk 33 and is in contact with the surface edge of the parallel disk 2.

[0032] Among them, the auxiliary rod 36 is provided with a locking bolt 361. The locking bolt 361 penetrates through the edge of the balance disk 33 and is connected to the center of the convex block 362. The convex block 362 at the lower end of the locking bolt 361 is welded with an overlapping block 363. The convex block 362 at the upper end of the overlapping block 363 is embedded in the bottom edge of the balance disk 33. A solid column 364 is also welded to the lower end of the overlapping block 363. The bottom of the solid column 364 is further connected with a connecting block 365 to position the pulley 366. The pulley 366 is embedded in the surface edge of the parallel disk 2.

[0033] Among them, the balance disk 33 and the rotating disk 34 arranged between the support column 3 and the measuring connector 4 are used to rotate the azimuth of the measuring connector 4 and the wind turbine. During the process, the rotation restraint column 32 at the center of the bottom of the balance disk 33 rotates at a fixed point in the area of the center disk 31. At the same time, the auxiliary rod 36 at the edge uses the solid column 364 to maintain the height around the balance disk 33, and then the pulley 366 of the bottom connecting block 365 slides on the edge of the parallel disk 2.

[0034] Among them, the positioning base 1 coincides with the parallel disk 2, and the parallel disk 2 is perpendicular to the support column 3. The measuring connector 4 at the top of the support column 3 carries the rotary connection hole 5 and the temperature measurer 7 and is embedded in the wind turbine for electrical connection together. The wind direction measuring net 6 is set in the vertical direction and penetrates through the top of the wind turbine.

[0035] Among them, a circular rotating groove is opened in the center of the center disk 31 for the rotation restraint column 32 to rotate. The balance disk 33 and the rotating disk 34 have the same diameter and are perpendicular to the rotation restraint column 32. The connecting block 35 is in the form of a convex solid metal. Four auxiliary rods 36 are provided at the lower edge of the balance disk 33 and are set in four directions.

[0036] Among them, an internal thread groove is opened in the center of the convex block 362. The overlapping block 363, the convex block 362 and the solid column 364 are spliced by welding technology. An arc groove is opened at the bottom layer of the connecting block 365 at the lower end of the solid column 364 for the spherical pulley 366 to rotate.

[0037] Among them, the parallel disk 2 is provided with a disk body 21. A sliding groove 22 is opened at the edge of the surface layer of the disk body 21, and a stress block 23 is arranged in the edge area of the sliding groove 22 and is connected to the edge of the limiting ring 24 arranged at the center. A slot 25 is also opened in the center area of the limiting ring 24. The splicing body 26 is embedded in the inner wall area of the limiting ring 24 through the slot 25.

[0038] Among them, the sliding groove 22 of the disk body 21 is circular to determine the position of the pulley 366. The edge area of the sliding groove 22 is reinforced and maintained by the stress block 23. The bottom of the support column 3 is embedded through the slot 25 of the limiting ring 24, and then the support column 3 is fixed by the edge splicing body 26.

[0039] Among them, the splicing body 26 is also provided with an insertion block 261. The insertion block 261 is fixedly connected to the top of the magnetic attraction block 262. The lower end of the magnetic attraction block 262 is fixedly connected to a support block 263. A clamping block 264 is also arranged at the lower end of the support block 263 to fix the filling block 265.

[0040] Among them, the insertion block 261 penetrates through the inner wall of the limiting ring 24 in a straight line direction and enters the stress block 23 for insertion connection. The magnetic attraction block 262 is arc-shaped and matches the shape of the inner wall of the limiting ring 24. The support block 263 positions the filling block 265 through the clamping block 264. The filling block 265 is in a semi-circular solid form and fills the bottom connecting groove of the support column 3.

[0041] Specific functions and operation procedures of this embodiment: In the present invention, the measurement and control device on the wind power generation equipment can determine the position of the support column 3 through the positioning base 1 and the parallel plate 2, so that the position of the wind power generation equipment can be located through the support column 3 in combination with the measurement connector 4. Then, after the measurement connector 4 is electrically connected to the inside of the wind power generation equipment, it can be spliced with the fan blade rotating shaft of the wind power generation equipment through the rotating connection hole 5, so that its rotation speed can be measured in real time through the rotating connection. At the same time, the wind direction measurement network 6 at the top can determine the flow direction of the wind direction according to the network state. Therefore, the specified receiving wind direction of the wind power generation equipment can be adjusted according to the real-time wind direction. Furthermore, the temperature of the wind power generation equipment can be measured in real time based on the temperature sensor 7, avoiding the overload damage caused by too high temperature. Subsequently, a rotating disk 34 and a balance disk 33 are also provided in the connection area between the support column 3 and the measurement connector 4. The rotating disk 34 can change the overall receiving wind direction position of the measurement connector 4 and the wind power generation equipment by rotating according to the measured wind direction effect of the wind direction measurement network 6 in combination with the power supply and intelligent program of the measurement connector 4. Furthermore, the rotating disk 34 can receive the weight of the overall measurement connector 4 and the wind power generation equipment in combination with the balance disk 33. Then, the rotating restraint column 32 at the bottom center can vertically fall into the center of the support column 3 through the center disk 31, so that the center disk 31 can be spliced with the center of the positioning base 1. Therefore, when the rotating disk 34 drives the balance disk 33 to rotate, it can drive the overall measurement connector 4 and the wind power generation equipment to rotate in parallel through the connecting block 35. During the process, the four auxiliary rods 36 at the bottom edge of the balance disk 33 can slide annularly in the edge area of the surface layer of the parallel plate 2. Therefore, according to the edge load-bearing and specific length support of the auxiliary rods 36, the situation of excessive wear caused by one-sided compression of the top edge of the support column 3 due to the weight on one side of the top of the rotating disk 34 being greater than that on the other side can be avoided, and the situation of one-sided compression caused by inconsistent weights of the measurement connector 4 and the edge of the wind power generation equipment can be avoided, improving the stability effect of changing the receiving orientation. Then, the top of the solid column 364 of the auxiliary rod 36 can be embedded in the bottom edge of the balance disk 33 through the convex block 362 of the overlapping block 363, and then the connection can be completed by embedding and locking the top locking bolt 361 from the top edge of the balance disk 33. Then, the connection block 365 at the lower end of the solid column 364 can determine the position of the pulley 366, so that the pulley 366 will be driven when it is embedded in the edge area of the surface layer of the parallel plate 2 and rotated by the rotating disk 34. Therefore, a stable rotating effect can be achieved, avoiding the phenomenon of inclination and imbalance caused by excessive weight on one side. Subsequently, the disk body 21 of the parallel plate 2 can provide an activity area for the pulley 366 through the annular sliding groove 22 at the surface edge. According to the annular shape, it can be ensured that the pulley 366 can rotate in an annular orientation. During the process, the newly added stress block 23 at the edge of the sliding groove 22 can achieve the effect of strengthening the edge of the sliding groove 22, preventing the deformation of the sliding groove 22 caused by the continuous movement and extrusion of the pulley 366, and improving the use stability of the sliding groove 22.Then, the limiting ring 24 in the central region can combine with the slot 25 and the splicing body 26 on the inner wall to insert the support column 3 in a vertical orientation. Thus, the support block 263 of the splicing body 26 first completes the insertion and adsorption fixation connection with the limiting ring 24 and into the stress block 23 through the interpenetration and adsorption of the arc-shaped magnetic adsorption block 262 and the insertion block 261, enabling the clamping block 264 at the other end of the support block 263 to position the filling block 265. For this reason, the clamping block 264 and the filling block 265 can be inserted into the bottom edge region of the support column 3 while the bottom of the support column 3 is inserted into the slot 25. At the same time, the edge adsorption of the magnetic adsorption block 262 can improve the splicing stability of the support column 3 and form a detachable effect, improving the convenience of disassembly, installation, maintenance in the later stage. Therefore, the service intensity effect of the measurement control device can be further improved. Embodiment

[0042] Figures 6 to 7 as shown: The present invention provides a measurement control device on a wind power generation device, whose structure includes. The temperature measurer 7 is also provided with an electric insertion block 71. The upper end of the electric insertion block 71 is fixedly connected to the lower end of the parallel plate 72. The parallel plate 72 coincides with the lower layer of the intelligent control box 73. The upper end of the intelligent control box 73 is connected to an external temperature induction plate 74. The central region of the front end of the intelligent control box 73 is provided with an internal temperature induction plate 75 and is embedded in the internal region of the measurement connector 4.

[0043] Among them, the electric insertion block 71 and the parallel plate 72 are perpendicular to each other. The parallel plate 72 makes the area of the lower layer of the intelligent control box 73 consistent. The external temperature induction plate 74 is connected with an anti-rust frame. The internal temperature induction plate 75 is square in shape.

[0044] Among them, the parallel plate 72 is also provided with an adsorption frame 721. The adsorption frame 721 covers the edge region of the plate body 722. The edge region of the surface layer of the plate body 722 is also welded with an anti-deviation block 723. A connection groove 724 is also opened in the center of the plate body 722 for the electric insertion block 71 to be inserted.

[0045] Among them, the adsorption frame 721 is rectangular in shape and fits the shape of the plate body 722. Multiple solid anti-deviation blocks 723 are connected to the edge of the surface layer of the plate body 722 and are vertically embedded in the upper position of the support plate provided at the bottom of the measurement connector 4.

[0046] The specific functions and operation processes of this embodiment: In the present invention, the parallel plate 72 of the temperature measurer 7 allows the electrical insertion block 71 to be inserted into the energized plate body at the bottom of the measurement connector 4, enabling the intelligent control box 73 to be stably electrically connected to the measurement connector 4. Subsequently, the external temperature induction plate 74 at the top of the intelligent control box 73 can measure the external temperature in real time. At the same time, the internal temperature induction plate 75 on the front end protrusion can be inserted into the measurement connector 4 and the internal part of the wind power generation equipment to measure the internal temperatures of both. Then, in cooperation with the external temperature induction plate 74, it can adjust the internal temperature balance according to the change of the outdoor temperature, so as to prevent the overload situation caused by the continuous increase of the outdoor temperature and the continuous increase of the internal temperature due to the operation of components, resulting in excessive temperature. Therefore, by simultaneously measuring the internal and external temperatures and setting the temperature adjustment of the internal temperature induction plate 75 by the intelligent control box 73, the temperature limit stability effect of the measurement connector 4 and the wind power generation equipment can be improved. Furthermore, the plate body 722 of the parallel plate 72 can be adsorbed on the surface of the energized plate body at the bottom of the measurement connector 4 according to the edge adsorption frame 721. At the same time, according to the vertical insertion of the edge anti-deviation block 723, the insertion accuracy of the electrical insertion block 71 in the connection slot 724 is improved, preventing the loosening situation after insertion and connection, ensuring that it can be used in a fixed state during operation and avoiding the shaking caused by the wind force.

[0047] Any technical solution using the technical solution of the present invention, or designed by those skilled in the art under the inspiration of the technical solution of the present invention to achieve the above technical effects, shall fall within the protection scope of the present invention.

Claims

1. A measurement and control device for a wind power generation device, the structure of which comprises: A positioning base (1), a parallel disk (2), a support column (3), a measuring connector (4), a rotating connection hole (5), a wind direction measuring network (6), and a temperature measuring device (7), wherein the upper end of the positioning base (1) overlaps with the parallel disk (2) and the support column (3) is embedded in a vertical position, the measuring connector (4) is mounted on the top of the support column (3) and embedded in the interior of the wind turbine and connected to the rotating slot of the wind turbine through the rotating connection hole (5), the wind direction measuring network (6) is arranged on the top of the measuring connector (4) and penetrates the upper end of the wind turbine, and the temperature measuring device (7) is mounted on the back of the measuring connector (4) and embedded in the internal area of ​​the wind turbine through the measuring connector (4), characterized in that: A center disk (31) is also provided in the connection area between the support column (3) and the measuring connector (4); a rotating restraining column (32) is connected to the center area of ​​the center disk (31); a balancing disk (33) is provided on the top of the rotating restraining column (32) and is connected to the bottom of the rotating disk (34); a connecting block (35) is provided on the upper end of the rotating disk (34) and is fixedly connected to the measuring connector (4); an auxiliary rod (36) is also connected to the lower edge of the balancing disk (33) and is in contact with the surface edge of the parallel disk (2); The auxiliary rod (36) is provided with a locking bolt (361), the locking bolt (361) penetrates the edge of the balancing disk (33) and connects to the center of the protrusion (362), and an overlapping block (363) is welded to the lower end of the protrusion (362), the protrusion (362) at the upper end of the overlapping block (363) is embedded in the bottom edge of the balancing disk (33), and a solid column (364) is welded to the lower end of the overlapping block (363), and a connecting block (365) is connected to the bottom of the solid column (364) to position the pulley (366), and the pulley (366) is embedded in the surface edge of the parallel disk (2); The measuring connector (4) and the wind turbine generator are rotated in azimuth by means of a balancing disc (33) and a rotating disc (34) arranged between the supporting column (3) and the measuring connector (4). During the process, the rotating restraining column (32) at the bottom center of the balancing disc (33) rotates at a fixed point in the area of ​​the center disc (31), while the auxiliary rod (36) at the edge maintains the height of the balancing disc (33) around the solid column (364), and then slides on the edge of the parallel disc (2) through the pulley (366) of the bottom connecting block (365).

2. The measurement and control device for wind power generation equipment according to claim 1, characterized in that: The positioning base (1) and the parallel disk (2) overlap with each other, and the parallel disk (2) and the support column (3) are perpendicular to each other. The measuring connector (4) on the top of the support column (3) carries the rotating connection hole (5) and the temperature measuring device (7) and is embedded in the interior of the wind turbine for electrical connection. The wind direction measuring network (6) is set in a vertical position and passes through the top of the wind turbine.

3. The measurement and control device for wind power generation equipment according to claim 1, characterized in that: The center of the center disk (31) is provided with a circular rotating groove to allow the rotating restraining column (32) to rotate. The balancing disk (33) and the rotating disk (34) have the same diameter and are perpendicular to the rotating restraining column (32). The connecting block (35) is in the form of a raised solid metal. Four auxiliary rods (36) are provided on the lower edge of the balancing disk (33) and are set in four directions.

4. The measurement and control device for wind power generation equipment according to claim 1, characterized in that: The center of the protrusion (362) is provided with an internal thread groove, the overlapping block (363) is spliced ​​with the protrusion (362) and the solid column (364) by welding, and the bottom layer of the connecting block (365) at the lower end of the solid column (364) is provided with an arc groove to allow the ball pulley (366) to rotate.

5. The measurement and control device for wind power generation equipment according to claim 1, characterized in that: The parallel disk (2) is provided with a disk body (21), a slide groove (22) is opened on the surface edge of the disk body (21), and a force block (23) is arranged at the edge area of ​​the slide groove (22) and connected to the edge of a limiting ring (24) arranged at the center, and a slot (25) is also opened in the center area of ​​the limiting ring (24), and the splicing body (26) is embedded in the inner wall area of ​​the limiting ring (24) through the slot (25); The slide groove (22) of the disk body (21) is circular in shape to determine the position of the pulley (366); the edge area of ​​the slide groove (22) is reinforced and maintained by a force block (23); the slot (25) of the limiting ring (24) allows the bottom of the support column (3) to be embedded and then the support column (3) is fixed by the edge splicing body (26).

6. The measurement and control device for wind power generation equipment according to claim 5, characterized in that: The splicing body (26) is further provided with an insert block (261), the insert block (261) is fixedly connected to the top of the magnetic block (262), the lower end of the magnetic block (262) is connected to a support block (263) for fixed connection, and the lower end of the support block (263) is further provided with a clamping block (264) for fixing the filling block (265); The insert block (261) penetrates the inner wall of the limiting ring (24) in a straight line and enters the force-bearing block (23) for insertion and connection. The magnetic block (262) is in an arc shape and matches the shape of the inner wall of the limiting ring (24). The support block (263) positions the filling block (265) through the clamping block (264). The filling block (265) is in a semicircular solid shape and fills the bottom connection groove of the support column (3).

7. The measurement and control device for wind power generation equipment according to claim 1, characterized in that: The temperature measuring device (7) is further provided with an electric plug block (71), the upper end of the electric plug block (71) is fixedly connected to the lower end of the parallel plate (72), the parallel plate (72) and the lower layer of the intelligent control box (73) overlap each other, the upper end of the intelligent control box (73) is connected to an external temperature sensing plate (74), and the front center area of ​​the intelligent control box (73) is provided with an internal temperature sensing plate (75) embedded in the internal area of ​​the measuring connector (4); The electric plug block (71) and the parallel plate (72) are perpendicular to each other. The parallel plate (72) makes the lower layer area of ​​the intelligent control box (73) consistent. The external temperature sensing plate (74) is connected to a rust-proof frame. The internal temperature sensing plate (75) is in a square shape.

8. The measurement and control device for wind power generation equipment according to claim 7, characterized in that: The parallel plate (72) is further provided with an adsorption frame (721), the adsorption frame (721) covers the edge region of the plate body (722), and an anti-deflection block (723) is welded to the edge region of the surface layer of the plate body (722), and a connection groove (724) is also opened in the center of the plate body (722) to allow the electric plug block (71) to be embedded; The adsorption frame (721) is in a rectangular shape and matches the shape of the plate body (722). The surface edge of the plate body (722) is connected to a plurality of solid anti-deflection blocks (723) which are vertically embedded in the upper layer of the support plate provided at the bottom of the measuring connector (4).

Images