Wind power evolution analysis device oriented to complex terrains

Abstract

The invention discloses a wind power evolution analysis device for complex terrains, which comprises a wind power monitoring shell, a displacement power shell and a connecting steel cable, and has the beneficial effects that the device adopts a point-to-point displacement structure, the structure is erected at two ends of a to-be-measured and analyzed area, and meanwhile, the structure is connected with the connecting steel cable; the device is further provided with a wind power measuring and calculating structure, by means of the unique design, the device can freely move in a target interval, and the wind speed in the area can be flexibly and accurately monitored and deeply analyzed. In the monitoring process, the device can collect a large amount of wind speed related data, comprehensive carding and deep mining are carried out on the data through a big data integration technology, and on the basis, full and systematic analysis can be carried out on wind power evolution in an interval.

Description

Technical Field

[0001] The present invention relates to the technical field of new energy power generation, and particularly to a device for analyzing the evolution of wind power in complex terrains. Background Art

[0002] Wind power, that is, wind power generation, is a renewable energy technology that converts wind energy into electrical energy with the help of wind turbines. Its core principle is to use natural wind to drive the rotation of turbine blades, thereby driving the generator to generate electricity. Analyzing the evolution of wind power is of great significance. It can not only reveal the variation laws of the output power of wind farms over time, seasons, and meteorological conditions, providing data support for power grid dispatching, energy storage configuration, and electricity market transactions, but also optimize the operation and maintenance strategies of wind farms, improving power generation efficiency and reliability. Complex terrains have an obvious impact on the evolution of wind power. Terrains such as mountains and hills will change the wind field distribution, forming complex wind conditions such as turbulence and wind shear, exacerbating the fluctuations of wind power and increasing the difficulty of prediction. Therefore, in the planning, design, and operation of wind farms in complex terrains, terrain factors must be fully considered, and a method combining high-precision numerical simulation and field observation should be adopted to accurately evaluate the characteristics of wind power evolution and ensure the safe and efficient operation of the wind power system. However, in the case of large height differences and long distances, manual measurement and analysis of wind power are inefficient, with many interference factors, which is not conducive to data aggregation and analysis. In response to the above problems, there may already be technical solutions in the existing technology, but this case aims to provide an alternative or replacement technical solution. Summary of the Invention

[0003] The technical solution of the present invention to achieve the above object is: a device for analyzing the evolution of wind power in complex terrains, including: a wind power monitoring housing, a displacement power housing, and a connecting steel cable. The displacement power housing is installed on the wind power monitoring housing, and a point-to-point displacement structure is installed on the connecting steel cable. A wind power measurement structure is installed inside the wind power monitoring housing, and a multi-size steel cable compatibility structure is installed inside the displacement power housing. The wind power measurement structure includes: a monitoring installation groove, a rotation speed monitoring rotating shaft, and a plurality of wind-driven traction blades.

[0004] The monitoring installation groove is opened on the wind power monitoring housing, the rotation speed monitoring rotating shaft is installed in the monitoring installation groove, and a plurality of the wind-driven traction blades are respectively installed on the rotation speed monitoring rotating shaft.

[0005] It should be noted that in the above, first, the point-to-point displacement structure is assumed to be installed on the brackets at the two points that need to be measured. Then, the combined whole of the wind power monitoring housing and the displacement power housing is hung on the connecting cable through the multi-size cable compatibility structure and locked. After that, the dual motors drive the displacement component in a coordinated manner, so that the wind power monitoring housing slowly moves forward on the connecting cable. During the movement of the wind power monitoring housing, the surrounding wind will first pass through the dust-proof net arranged on the monitoring placement groove and blow into the monitoring placement groove, thereby driving the four pneumatic traction blades and pushing the rotation speed monitoring rotating shaft to rotate. The rotation speed sensor arranged in the wind power monitoring housing can infer the wind speed situation and changes in the current area according to the rotation speed of the rotation speed monitoring rotating shaft, and transmit the sorted data to the engineer's notebook or portable work base station through the information communication module arranged in the displacement power housing for real-time storage or analysis. The electric energy generated by the driving of the four pneumatic traction blades can be stored through the energy storage power supply arranged in the displacement power housing and provide power supply for the device to a certain extent.

[0006] Preferably, the multi-size cable compatibility structure includes: a telescopic power motor, a telescopic screw, a hook support block, a pair of inner housing limiting sliding columns, a pair of cable hooks, a pair of insulating coating gaskets, a number of wear-resistant sliding beads, and a telescopic threaded sleeve;

[0007] The telescopic power motor is installed in the displacement power housing, and the telescopic power motor is connected to the telescopic screw. The telescopic screw is inserted into the telescopic threaded sleeve, and the telescopic screw meshes with the telescopic threaded sleeve. The hook support block is installed on the telescopic threaded sleeve. A pair of the inner housing limiting sliding columns are respectively installed on the hook support block. A pair of limiting cooperation sliding grooves are respectively opened in the displacement power housing. A pair of the inner housing limiting sliding columns are respectively connected to the inner side of the displacement power housing through a pair of the limiting cooperation sliding grooves. A pair of the cable hooks are respectively installed on the hook support block, and a pair of the cable hooks are respectively movably inserted into the displacement power housing. A pair of the insulating coating gaskets are respectively installed on a pair of the cable hooks. A number of the wear-resistant sliding beads are respectively installed on a pair of the insulating coating gaskets. A dual-motor coordinated drive displacement component is installed in the displacement power housing;

[0008] It should be noted that in the above, in order to ensure the safe sliding of the wind power monitoring housing and the displacement power housing, different diameters of connecting steel cables may need to be used in different environments. To be compatible with different diameters of connecting steel cables, only a pair of cable hooks need to be hung on the connecting steel cable, so that the insulating coating gaskets on the cable hooks are in close contact with the corresponding wear-resistant sliding beads thereon on the connecting steel cable. Then, the telescopic power motor in the displacement power housing is driven to rotate, so that the telescopic screw rotates in the telescopic thread sleeve, and then the hook supporting block and the inner housing limit sliding column are pushed to rise or fall in coordination, so that a pair of cable hooks gradually contract towards the displacement power housing until a pair of cable hooks are in close contact with the connecting steel cable, and the four wear-resistant sliding beads and the displacement rollers press on the surface of the connecting steel cable, clamping the connecting steel cable tightly. When the displacement rollers are driven by the double-motor coordinated drive displacement assembly, the connecting steel cable will slide slowly along the four wear-resistant sliding beads, so that the displacement power housing and the wind power monitoring housing will move slowly on the connecting steel cable, and the wind speed flow within the displacement range will be measured and analyzed.

[0009] Preferably, the double-motor coordinated drive displacement assembly includes: a pair of transmission gearboxes, a roller transmission rotating shaft, displacement rollers, and a pair of displacement power rotors;

[0010] A pair of the transmission gearboxes are respectively sleeved outside the roller transmission rotating shaft. The roller transmission rotating shaft is installed in the displacement power housing. A pair of the displacement power rotors are respectively installed in the displacement power housing through brackets, and a pair of the displacement power rotors are respectively connected to a pair of the transmission gearboxes. A roller placement through groove is formed in the displacement power housing. The roller transmission rotating shaft is inserted into the displacement rollers, and the displacement rollers are movably inserted into the displacement power housing through the roller placement through groove;

[0011] It should be noted that in the above, a pair of transmission gearboxes are driven by a pair of displacement power rotors, so that the roller transmission rotating shaft and the displacement rollers rotate. The rotating displacement rollers will fit on the surface of the connecting steel cable, and then drive the displacement power housing and the wind power monitoring housing to move forward.

[0012] Preferably, the point-to-point displacement structure includes: a pair of monitoring support rods, a pair of covering rod caps, a pair of locking and reinforcing bolts, a pair of steel cable connectors, a pair of side support columns of the frame, a pair of upper platforms on the columns, a plurality of shock-absorbing springs, and a pair of protective sponge foam boards;

[0013] A pair of the monitoring support rods are respectively connected to a pair of the covering rod caps, a pair of the cable connection heads are respectively connected to the connecting cable, a pair of the locking and reinforcing bolts are respectively screwed and inserted on a pair of the covering rod caps, and a pair of the locking and reinforcing bolts are respectively connected to a pair of the monitoring support rods. A pair of the support columns on the side of the support are respectively installed on a pair of the monitoring support rods, a pair of the platforms on the columns are respectively installed on a pair of the support columns on the side of the support, a plurality of the shock-absorbing springs are respectively installed on a pair of the platforms on the columns, and a plurality of the shock-absorbing springs are respectively connected to a pair of the protective sponge foam boards. A pair of the cable connection heads are respectively connected to a pair of the covering rod caps and a pair of the monitoring support rods;

[0014] It should be noted that, in the above, a pair of the monitoring support rods are respectively assumed between the intervals to be measured, a pair of the cable connection heads at both ends of the connecting cable are respectively clamped between the monitoring support rods and the covering rod caps, and then the corresponding locking and reinforcing bolts are screwed, so that the covering rod caps and the monitoring support rods are closely attached, thereby locking and fixing the cable connection heads. The support columns on the side of the support and the platforms on the columns support a plurality of the shock-absorbing springs and the protective sponge foam boards, so that when the wind power monitoring housing slides to the position of the monitoring support rod, it can avoid directly hitting the surface of the monitoring support rod, thereby avoiding damage to the wind power monitoring housing after being collided. The grounding lead wire arranged on the monitoring support rod can enable the whole device to still avoid lightning strikes even when operating in thunderstorm weather, so that the lightning strike current is conducted to the grounding lead wire through the connecting cable and directly guided into the ground to avoid damaging the device.

[0015] Preferably, a grounding lead wire is arranged on the monitoring support rod;

[0016] Preferably, a rotational speed sensor is arranged in the wind power monitoring housing;

[0017] Preferably, an energy storage power supply is arranged in the displacement power housing;

[0018] Preferably, a dust-proof net is arranged on the monitoring placement groove;

[0019] Preferably, a silica gel friction-increasing fitting layer is arranged on the displacement roller;

[0020] Preferably, an information communication module is arranged in the displacement power housing.

[0021] A wind power evolution analysis device for complex terrains fabricated using the technical solution of the present invention, compared with the prior art: Through a point-to-point displacement structure which is erected at both ends of the area to be measured and analyzed, meanwhile, the device is also equipped with a wind power measurement structure. Thanks to this unique design, the device can achieve free displacement within the target interval and flexibly and accurately monitor and deeply analyze the wind speed in the area; during the monitoring process, the device will collect a large amount of wind speed-related data, and through big data integration technology, comprehensively sort out and deeply mine these data, based on which it can fully and systematically analyze the wind power evolution within the interval; through this series of monitoring and analysis, the device provides solid data support and scientific basis for the subsequent erection of the wind power system. With the analysis results obtained therefrom, the erection work of the wind power system will become more efficient and convenient, which helps to promote the further development of the wind power industry. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 FIG. is a schematic diagram of the main cross-sectional structure of a wind power evolution analysis device for complex terrains according to the present invention.

[0023] Figure 2 FIG. is a schematic diagram of the side cross-sectional structure of a wind power evolution analysis device for complex terrains according to the present invention.

[0024] Figure 3 FIG. is a schematic diagram of the point-to-point displacement structure of a wind power evolution analysis device for complex terrains according to the present invention.

[0025] Figure 4 FIG. is a schematic diagram of the side cross-sectional structure of a wind power evolution analysis device for complex terrains according to the present invention.

[0026] Figure 5 is Figure 1 a partial enlarged schematic diagram of "A" in FIG.

[0027] Figure 6 is Figure 2 a partial enlarged schematic diagram of "B" in FIG.

[0028] Figure 7 is Figure 3 a partial enlarged schematic diagram of "C" in FIG.

[0029] Figure 8 is Figure 4 a partial enlarged schematic diagram of "D" in FIG.

[0030] In the figure: 1. Wind power monitoring housing; 2. Displacement power housing; 3. Connecting steel cable; 4. Monitoring installation groove; 5. Rotation speed monitoring rotating shaft; 6. Pneumatic traction blade; 7. Telescopic power motor; 8. Telescopic screw; 9. Hook supporting block; 10. Inner housing limit sliding column; 11. Steel cable hook; 12. Insulating coating gasket; 13. Wear-resistant sliding bead; 14. Telescopic thread sleeve; 15. Transmission gearbox; 16. Roller transmission rotating shaft; 17. Displacement roller; 18. Displacement power rotor; 19. Monitoring support rod; 20. Cover rod cap; 21. Locking and reinforcing bolt body; 22. Steel cable connector; 23. Side support column of the frame; 24. Upper platform on the column; 25. Shock-absorbing spring; 26. Protective sponge foam board. Detailed implementation mode

[0031] Through the personnel in this field, all the electrical components in this case are connected to their adapted power supplies through wires, and a suitable controller should be selected according to the actual situation to meet the control requirements. For the specific connection and control sequence, refer to the sequence of the electrical components working successively in the following working principle to complete the electrical connection. The detailed connection means are well-known techniques in this field. The following mainly introduces the working principle and process, and will not explain the electrical control.

[0032] Embodiment

[0033] The following specifically describes the present novelty in conjunction with the attached drawings, as Figure 1-8As shown in the figure, a device for analyzing the evolution of wind power for complex terrains includes: a wind power monitoring housing 1, a displacement power housing 2, and a connecting steel cable 3. The displacement power housing 2 is installed on the wind power monitoring housing 1. A point-to-point displacement structure is installed on the connecting steel cable 3. A wind power calculation structure is installed inside the wind power monitoring housing 1. A multi-size steel cable compatible structure is installed inside the displacement power housing 2. The wind power calculation structure includes: a monitoring installation groove 4, a rotation speed monitoring rotating shaft 5, and several pneumatic traction blades 6. The monitoring installation groove 4 is opened on the wind power monitoring housing 1. The rotation speed monitoring rotating shaft 5 is installed in the monitoring installation groove 4. Several pneumatic traction blades 6 are respectively installed on the rotation speed monitoring rotating shaft 5. The multi-size steel cable compatible structure includes: a telescopic power motor 7, a telescopic screw rod 8, a hook supporting block 9, a pair of inner housing limiting sliding columns 10, a pair of steel cable hooks 11, a pair of insulating coating gaskets 12, several wear-resistant sliding beads 13, and a telescopic threaded sleeve 14. The telescopic power motor 7 is installed inside the displacement power housing 2, and the telescopic power motor 7 is connected to the telescopic screw rod 8. The telescopic screw rod 8 is inserted into the telescopic threaded sleeve 14, and the telescopic screw rod 8 meshes with the telescopic threaded sleeve 14. The hook supporting block 9 is installed on the telescopic threaded sleeve 14. A pair of inner housing limiting sliding columns 10 are respectively installed on the hook supporting block 9. A pair of limiting cooperation sliding grooves are respectively opened inside the displacement power housing 2. A pair of inner housing limiting sliding columns 10 are respectively connected to the inner side of the displacement power housing 2 through a pair of limiting cooperation sliding grooves. A pair of steel cable hooks 11 are respectively installed on the hook supporting block 9, and a pair of steel cable hooks 11 are respectively inserted into the displacement power housing 2 movably. A pair of insulating coating gaskets 12 are respectively installed on a pair of steel cable hooks 11. Several wear-resistant sliding beads 13 are respectively installed on a pair of insulating coating gaskets 12. A dual-motor cooperative driving displacement assembly is installed inside the displacement power housing 2. The dual-motor cooperative driving displacement assembly includes: a pair of transmission gearboxes 15, a roller transmission rotating shaft 16, a displacement roller 17, and a pair of displacement power rotors 18. A pair of transmission gearboxes 15 are respectively sleeved outside the roller transmission rotating shaft 16. The roller transmission rotating shaft 16 is installed inside the displacement power housing 2. A pair of displacement power rotors 18 are respectively installed inside the displacement power housing 2 through brackets, and a pair of displacement power rotors 18 are respectively connected to a pair of transmission gearboxes 15. A roller installation through groove is opened on the displacement power housing 2. The roller transmission rotating shaft 16 is inserted into the displacement roller 17. The displacement roller 17 is inserted into the displacement power housing 2 movably through the roller installation through groove.The point-to-point displacement structure includes: a pair of monitoring support rods 19, a pair of covering rod caps 20, a pair of locking and reinforcing bolts 21, a pair of cable connectors 22, a pair of side support columns 23, a pair of upper platform columns 24, a plurality of shock-absorbing springs 25, and a pair of protective sponge foam boards 26; the pair of monitoring support rods 19 are respectively connected to the pair of covering rod caps 20, the pair of cable connectors 22 are respectively connected to the connecting cable 3, the pair of locking and reinforcing bolts 21 are respectively screwed and inserted on the pair of covering rod caps 20, and the pair of locking and reinforcing bolts 21 are respectively connected to the pair of monitoring support rods 19, the pair of side support columns 23 are respectively installed on the pair of monitoring support rods 19, the pair of upper platform columns 24 are respectively installed on the pair of side support columns 23, the plurality of shock-absorbing springs 25 are respectively installed on the pair of upper platform columns 24, and the plurality of shock-absorbing springs 25 are respectively connected to the pair of protective sponge foam boards 26, and the pair of cable connectors 22 are respectively connected to the pair of covering rod caps 20 and the pair of monitoring support rods 19.;

[0034] According to the appendix Figure 1-8It is concluded that first, the point-to-point displacement structure is assumed and installed on the brackets at the two points to be measured. Then, the combined whole of the wind power monitoring housing 1 and the displacement power housing 2 is hung on the connecting cable 3 through the multi-size cable compatibility structure and locked. After that, the dual motors are driven to drive the displacement components in a coordinated manner, so that the wind power monitoring housing 1 slowly moves forward on the connecting cable 3. During the movement of the wind power monitoring housing 1, the surrounding wind will first pass through the dust-proof net arranged on the monitoring placement groove 4 and blow into the monitoring placement groove 4, thereby driving the four pneumatic traction blades 6 and pushing the rotation speed monitoring rotating shaft 5 to rotate. The rotation speed sensor arranged in the wind power monitoring housing 1 can infer the wind speed situation and changes in the current area according to the rotation speed of the rotation speed monitoring rotating shaft 5, and transmit the sorted data to the engineer's notebook or portable work base station through the information communication module arranged in the displacement power housing 2 for real-time storage or analysis. The electric energy generated by the driving of the four pneumatic traction blades 6 can be stored through the energy storage power supply arranged in the displacement power housing 2 and provide power supply for the device to a certain extent; in order to ensure the safe sliding of the wind power monitoring housing 1 and the displacement power housing 2, for different environments, connecting cables 3 with different diameters may need to be used. To be compatible with connecting cables 3 of different diameters, only a pair of cable hooks 11 need to be hung on the connecting cable 3, so that the insulating coating gaskets 12 on the cable hooks 11 and the corresponding wear-resistant sliding beads 13 thereon are closely attached to the connecting cable 3. Then, the telescopic power motor 7 in the displacement power housing 2 is driven to rotate, so that the telescopic screw 8 rotates in the telescopic thread sleeve 14, and then pushes the hook support block 9 and the inner shell limit sliding column 10 to rise or fall in a coordinated manner, so that a pair of cable hooks 11 gradually shrink towards the displacement power housing 2 until a pair of cable hooks 11 are closely attached to the connecting cable 3, so that the four wear-resistant sliding beads 13 and the displacement rollers 17 press on the surface of the connecting cable 3 and tightly clamp the connecting cable 3. When the displacement rollers 17 are driven by the dual motors to drive the displacement components, the connecting cable 3 will slide slowly along the four wear-resistant sliding beads 13, so that the displacement power housing 2 and the wind power monitoring housing 1 slowly displace on the connecting cable 3, and measure and analyze the wind speed flow in the displacement interval; a pair of transmission gearboxes 15 are driven by a pair of displacement power rotors 18, so that the roller transmission rotating shaft 16 and the displacement rollers 17 rotate. The rotating displacement rollers 17 will fit on the surface of the connecting cable 3, and then drive the displacement power housing 2 and the wind power monitoring housing 1 to move forward;A pair of monitoring support rods 19 are respectively assumed between the intervals to be measured. A pair of cable connection heads 22 at both ends of the connecting cable 3 are respectively clamped between the monitoring support rods 19 and the covering rod caps 20. Then, the corresponding locking and reinforcing bolts 21 are screwed to make the covering rod caps 20 fit tightly with the monitoring support rods 19, thereby locking and fixing the cable connection heads 22. The side support columns 23 and the platform on the column 24 support a plurality of shock-absorbing springs 25 and the protective sponge foam board 26, so that when the wind power monitoring housing 1 slides to the position of the monitoring support rod 19, it can avoid directly hitting the surface of the monitoring support rod 19, and further avoid damage to the wind power monitoring housing 1 after being collided. The grounding lead wire provided on the monitoring support rod 19 can enable the entire device to still avoid lightning strikes even when operating in thunderstorm weather, so that the lightning strike current is conducted to the grounding lead wire through the connecting cable 3 and directly guided into the ground to avoid damaging the device.;

[0035] The above technical solution only reflects the preferred technical solution of the technical solution of the present invention. Some changes that those skilled in the art of the present technology may make to some parts thereof all reflect the principle of the present invention and fall within the protection scope of the present invention.

Claims

1. A wind power evolution analysis device for complex terrain, comprising: A wind power monitoring housing, a displacement power housing and a connecting steel cable, wherein the displacement power housing is installed on the wind power monitoring housing, a point-to-point displacement structure is installed on the connecting steel cable, a wind power calculation structure is installed in the wind power monitoring housing, and a multi-size steel cable compatible structure is installed in the displacement power housing, characterized in that the wind power calculation structure includes: a monitoring placement slot, a speed monitoring shaft and a plurality of wind-driven traction blades; The wind power monitoring housing is provided with the monitoring placement groove, the speed monitoring shaft is installed in the monitoring placement groove, and a plurality of the wind-driven traction blades are respectively installed on the speed monitoring shaft.

2. The wind power evolution analysis device for complex terrain according to claim 1, characterized in that: The multi-size steel cable compatible structure comprises: a telescopic power motor, a telescopic screw rod, a hook support block, a pair of inner-shell limit sliding columns, a pair of steel cable hooks, a pair of insulating coated gaskets, a plurality of wear-resistant sliding beads and a telescopic threaded sleeve; The telescopic power motor is installed in the displacement power housing, and the telescopic power motor is connected to the telescopic screw, the telescopic screw is inserted in the telescopic threaded sleeve, and the telescopic screw and the telescopic threaded sleeve are meshed with each other, the hook supporting block is installed on the telescopic threaded sleeve, a pair of in-shell limit sliding columns are respectively installed on the hook supporting block, a pair of limit cooperative sliding grooves are respectively opened in the displacement power housing, a pair of in-shell limit sliding columns are respectively connected to the inner side of the displacement power housing through a pair of limit cooperative sliding grooves, a pair of steel cable hooks are respectively installed on the hook supporting block, and a pair of steel cable hooks are respectively movably inserted into the displacement power housing, a pair of insulating coated gaskets are respectively installed on a pair of steel cable hooks, and a number of wear-resistant sliding beads are respectively installed on a pair of insulating coated gaskets, and a dual-motor cooperatively driven displacement component is installed in the displacement power housing.

3. The wind power evolution analysis device for complex terrain according to claim 2, characterized in that: The dual-motor cooperatively driven displacement assembly comprises: a pair of transmission gear boxes, a roller transmission shaft, a displacement roller and a pair of displacement power rotors; A pair of transmission gear boxes are respectively mounted on the outside of the roller transmission shaft, the roller transmission shaft is installed in the displacement power housing, a pair of displacement power rotors are respectively installed in the displacement power housing through brackets, and a pair of displacement power rotors are respectively connected to a pair of transmission gear boxes, a roller placement groove is opened on the displacement power housing, the roller transmission shaft is inserted into the displacement roller, and the displacement roller is movably inserted into the displacement power housing through the roller placement groove.

4. The wind power evolution analysis device for complex terrain according to claim 3, characterized in that: The point-to-point displacement structure includes: a pair of monitoring rack poles, a pair of covering pole caps, a pair of locking reinforcement bolts, a pair of steel cable connectors, a pair of rack side support columns, a pair of column platforms, a number of shock absorbing springs, and a pair of protective sponge foam plates; A pair of monitoring poles are respectively connected to a pair of covering pole caps, a pair of steel cable connectors are respectively connected to the connecting steel cables, a pair of locking reinforcement bolts are respectively screwed and inserted on a pair of covering pole caps, and a pair of locking reinforcement bolts are respectively connected to a pair of monitoring poles, a pair of frame side support columns are respectively installed on a pair of monitoring poles, a pair of column platforms are respectively installed on a pair of frame side support columns, a number of shock-absorbing springs are respectively installed on a pair of column platforms, and a number of shock-absorbing springs are respectively connected to a pair of protective sponge foam plates, a pair of steel cable connectors are respectively connected to a pair of covering pole caps and a pair of monitoring poles.

5. The wind power evolution analysis device for complex terrain according to claim 4, characterized in that: A grounding lead is arranged on the monitoring rack rod.

6. The wind power evolution analysis device for complex terrain according to claim 5, characterized in that: A rotation speed sensor is arranged in the wind power monitoring housing.

7. The wind power evolution analysis device for complex terrain according to claim 6, characterized in that: An energy storage power source is arranged in the displacement power housing.

8. The wind power evolution analysis device for complex terrain according to claim 7, characterized in that: A dustproof net is arranged on the monitoring placement slot.

9. The wind power evolution analysis device for complex terrain according to claim 8, characterized in that: The displacement roller is provided with a silica gel friction-enhancing bonding layer.

10. The wind power evolution analysis device for complex terrain according to claim 9, characterized in that: An information communication module is arranged in the displacement power housing.

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