A wind turbine tower foundation reinforcement settlement monitoring device

Abstract

The present invention provides a wind turbine tower foundation reinforcement settlement monitoring device, belonging to the technical field of wind turbine tower settlement monitoring technology, comprising a tower, a protective plate installed on the side of the tower, a monitoring mechanism installed on the protective plate, a device box installed on the upper end of the protective plate, a protective module installed on the exterior of the monitoring mechanism, and a solar energy conversion module installed on the tower. The present invention solves the problem that the laser rangefinder on the existing wind turbine tower foundation reinforcement settlement monitoring device is exposed to the outside world, its surface is easily attracted by stains, and when the stains reach a certain thickness, it will affect the normal monitoring of the device. At the same time, the solar panel on the device can only collect solar energy on one side, the energy collection function is poor, and the utilization rate of solar energy is reduced.

Description

Technical Field

[0001] The present invention belongs to the technical field of wind turbine tower settlement monitoring, and in particular relates to a wind turbine tower foundation reinforcement settlement monitoring device. Background Art

[0002] Wind power generation involves converting the kinetic energy of wind into electrical energy. Wind energy is a clean, pollution-free, renewable energy source that has long been utilized, primarily through windmills for pumping water and grinding flour. However, greater interest has arisen in harnessing the wind to generate electricity. Wind power generation is environmentally friendly and possesses enormous potential, garnering increasing attention worldwide. For coastal islands, grasslands, pastoral areas, mountainous regions, and plateaus, where water and fuel are scarce and transportation is inconvenient, adapting to local conditions for wind power generation is highly suitable and holds great potential. However, during wind turbine operation, the tower may tilt when supported by the ground at different locations, potentially threatening the safe operation of the entire turbine. Therefore, detection devices are installed on the wind turbine tower.

[0003] Prior art CN216593357U discloses a wind turbine tower foundation reinforcement settlement monitoring device, comprising a tower, a monitoring mechanism, and a wind turbine. The monitoring mechanism is located on the right side of the tower, and the wind turbine is fixedly mounted to the top of the tower. The monitoring mechanism includes a fixing plate and a servo motor. A threaded rod is fixedly mounted to the output end of the servo motor, and a mounting base is threadedly connected to the rod body of the threaded rod. A laser rangefinder is fixedly mounted to the bottom of the mounting base. The laser rangefinder in this device is exposed to the outside world, and its surface is easily attracted by stains. When the stains reach a certain thickness, they will affect the normal monitoring of the device. Furthermore, the solar panel on this device can only collect solar energy on one side, resulting in poor energy collection and reduced solar energy utilization. Summary of the Invention

[0004] The present invention provides a wind turbine tower foundation reinforcement settlement monitoring device, which aims to solve the problem that the laser rangefinder on the existing wind turbine tower foundation reinforcement settlement monitoring device is exposed to the outside, and its surface is easily adsorbed with stains. When the stains reach a certain thickness, they will affect the normal monitoring of the device. At the same time, the solar panel on the device can only collect solar energy on one side, the energy collection function is poor, and the utilization rate of solar energy is reduced.

[0005] An embodiment of the present invention provides a wind turbine tower foundation reinforcement settlement monitoring device, comprising a tower, a protective plate installed on the side of the tower, a monitoring mechanism installed on the protective plate, a device box installed on the upper end of the protective plate, a protective module installed on the outside of the monitoring mechanism, and a solar energy conversion module also installed on the tower.

[0006] Furthermore, the protection module includes a second shell fixedly connected to the lower end of the protection plate, the mouth of the second shell is fixedly connected to the lens, and the protection module also includes a rectangular frame fixedly connected to the outside of the lens, and a decontamination module for decontaminating the outer surface of the lens is mounted on the rectangular frame, and the decontamination module can be translated on the rectangular frame;

[0007] The decontamination module includes a pair of vertical pieces that can translate on a rectangular frame, each of the vertical pieces is connected to a variable column, a rotating column that rotates relative to the variable column is arranged on the variable column, a circular disc is arranged on the head end of the rotating column, and tooth openings 1 are reserved at equal intervals on the outer circumference of the circular disc, a rectangular piece is arranged on the edge of the circular disc, and tooth openings 2 are reserved at equal intervals on one side of the rectangular piece, and the rectangular piece is connected to the circular disc via tooth openings 2 and 1. A plurality of suction ports for sucking stains are reserved on the rotating column, and the plurality of suction ports are circumferentially distributed on the peripheral wall of the rotating column, and the suction ports are connected to the inside of the variable column, an arched gathering chamber is reserved at the upper end of the variable column, and the gathering chamber is connected to the suction port, and an anti-fouling shell is arranged on the outside of the rotating column;

[0008] A cleaning cloth for removing stains is arranged on one side of the rotating column, the outer surface of the cleaning cloth and the outer wall surface of the lens are in contact with each other, a power module for driving the cleaning cloth to rotate is arranged inside the cleaning cloth, the power module and the rotating column are linked, a liquid storage box is arranged below the inside of the cleaning cloth, a liquid storage block 1 is arranged inside the liquid storage box, the liquid storage block 1 is in contact with the inner wall surface of the cleaning cloth, a cleaning shell for removing stains on the outer surface of the cleaning cloth is arranged outside the cleaning cloth, the upper wall surface of the cleaning shell is in contact with the outer wall surface of the cleaning cloth, and the cleaning shell is connected to a suction fan;

[0009] The right end of the cleaning cloth is provided with a second liquid storage block for removing excess cleaning water from the outer wall of the lens;

[0010] A groove is arranged between the suction port and the gathering chamber, and several grooves are reserved and arranged at equal intervals toward the peripheral wall of the rotating column. Each groove includes a pipe 1 and a pipe 2 connected to each other. The pipe 2 is arranged facing the axis of the rotating column. The pipe 2 is arranged in the area of ​​the horizontal span of the gathering chamber. The pipe 2 extends from the outside of the rotating column to the inside of the rotating column and is connected to the pipe 1. The suction port passes through the pipe 1, and the number of suction ports on each pipe 1 is greater than or equal to 1.

[0011] Furthermore, translation modules are installed on both sides of the rectangular frame, a pair of the translation modules are arranged face to face, a variable column is installed on each of the translation modules, and a decontamination module is installed between the pair of variable columns.

[0012] Furthermore, the power module includes roller one, roller two, roller three and roller four arranged face to face with each other, roller three and roller four are located at the top and the decontamination cloth wrapped around roller three and roller four is in contact with the lens, roller one and roller two are located at the bottom and the decontamination cloth wrapped around roller one and roller two is facing the lens, the span between roller three and roller four is smaller than the span between roller one and roller two, vertical pieces are installed on the sides of roller three and roller four, and spiral beryllium copper wire is installed between roller three and roller four and the vertical pieces.

[0013] Furthermore, the inside of each of the rollers three and four is connected with a connecting rod, and the connecting rod is installed inside the changing mouth. The horizontal span of the changing mouth is smaller than the vertical span of the changing mouth. The changing mouth is reserved on the vertical piece, and a spiral beryllium copper wire is installed between the upper end of the changing mouth and the connecting rod.

[0014] Furthermore, the upper end of the decontamination shell is wedge-shaped, and an ash suction port is reserved inside the decontamination shell. The ash suction port is connected to the upper end of the decontamination shell, and the ash suction port is connected to the suction fan.

[0015] Furthermore, the solar energy conversion module includes an outer ring fixedly connected to the outer peripheral wall of the tower, two pairs of supporting plates are fixedly connected to the outer peripheral wall of the outer ring, one end of the bottom wall of the supporting plate and the outer ring are fixedly connected via a reinforcement strip, and the solar cell panel is fixedly connected to the upper wall of the supporting plate.

[0016] The beneficial effects of the present invention are:

[0017] 1. The present invention isolates the laser rangefinder in the monitoring mechanism from the outside world through the installation of a protective module, thereby protecting the monitoring mechanism to ensure normal monitoring of the device when in use. At the same time, a rectangular frame is installed on the outside of the lens, and a decontamination module for decontaminating the outer surface of the lens is installed on the rectangular frame. The decontamination module moves horizontally on the rectangular frame; the decontamination module includes a pair of vertical pieces that can move horizontally on the rectangular frame, each vertical piece is connected to a variable column, and a rotating column that rotates relative to the variable column is installed on the variable column, and a disc and a rectangular piece that engage with each other are installed at the head end of the rotating column, and the rectangular piece is connected to the rectangular frame. A plurality of suction ports for sucking stains are reserved on the rotating column, and the plurality of suction ports are circumferentially distributed on the peripheral wall of the rotating column, and the suction port is connected to the inside of the variable column. The upper end of the variable column is connected to the suction port via an arched gathering chamber, and an anti-fouling shell is installed on the outside of the rotating column; one side of the rotating column The cleaning cloth is provided with a cleaning cloth for removing stains, the outer surface of the cleaning cloth and the outer wall surface of the lens are fitted together, and a power module for driving the cleaning cloth to rotate is provided inside the cleaning cloth, and the power module is linked to the rotating column, and a liquid storage box is provided above the inside of the cleaning cloth, and a liquid storage block 1 fitted with the cleaning cloth is provided between the liquid storage box and the cleaning cloth, and a cleaning shell for removing stains on the outer surface of the cleaning cloth is provided outside the cleaning cloth, the upper end of the cleaning shell is fitted with the cleaning cloth, and the cleaning shell is connected to the suction fan; a liquid storage block 2 for removing excess cleaning water on the outer wall surface of the lens is provided on one side of the cleaning cloth, and the cleaning module is controlled to change on the rectangular frame to achieve the purpose of changing the cleaning surface of the lens. During the translation of the cleaning module on the lens, the stains on the lens are removed to ensure the cleanliness of the outer wall surface of the lens, thereby ensuring the normal monitoring of the monitoring mechanism and improving the convenience of use.

[0018] 2. The present invention securely connects two pairs of bearing plates to the outer peripheral wall of the outer ring. One end of the bottom wall of the bearing plate is securely connected to the outer ring via a reinforcing strip, thereby enhancing the stability of the support for the solar cell panel. The solar cell panel is securely connected to the upper wall of the bearing plate, thereby achieving multi-directional absorption of solar energy and improving the utilization rate of solar energy.

[0019] Other features and advantages of the present invention will be described in the following description, and in part will become apparent from the description, or will be understood by practicing the present invention. The purpose and other advantages of the present invention can be realized and obtained through the structures particularly pointed out in the description and the drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0021] Figure 1 This is a schematic diagram of the main structure of an embodiment of the present invention;

[0022] Figure 2 This is a schematic structural diagram of a protection module according to an embodiment of the present invention;

[0023] Figure 3 This is a schematic structural diagram of a decontamination module according to an embodiment of the present invention;

[0024] Figure 4 This is a schematic diagram of the three-dimensional structure of a decontamination module according to an embodiment of the present invention;

[0025] Figure 5 For the embodiment of the present invention Figure 4 Schematic diagram of the main cross-sectional structure;

[0026] Figure 6 For the embodiment of the present invention Figure 4 A side structural diagram of

[0027] Figure 7 For the embodiment of the present invention Figure 5 A schematic diagram of the structure at position M of FIG.

[0028] Figure 8 For the embodiment of the present invention Figure 6 A schematic diagram of the enlarged structure at N;

[0029] Figure 9 For the embodiment of the present invention Figure 1 A schematic diagram of the structure at H is enlarged;

[0030] Reference numerals: 1, tower; 2, protection plate; 3, monitoring mechanism; 4, device box; 5, protection module; 6, solar energy conversion module; 51, lens; 511, rectangular frame; 512, translation module; 513, rectangular piece; 514, disk; 515, variable column; 516, vertical piece; 517, anti-fouling housing; 518, rotating column; 519, gathering chamber; 5110, pipeline 1; 5111, pipeline 2; 5112, connection port; 5113 , roller one; 5114, roller two; 5115, roller three; 5116, roller four; 5117, decontamination cloth; 5118, change port; 5119, decontamination shell; 5120, ash suction port; 5121, liquid storage box; 5122, liquid storage block one; 5123, outer shell one; 5124, liquid storage block two; 5125, connecting rod; 5126, outer shell two; 61, outer ring; 62, bearing plate; 63, reinforcement strip; 64, solar cell panel. DETAILED DESCRIPTION

[0031] In order to make the purpose, technical solution and advantages of the technical solution of the present invention clearer, the technical solution of the embodiment of the present invention will be clearly and completely described below in conjunction with the drawings of specific embodiments of the present invention. The same figure marks in the drawings represent the same components. It should be noted that the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the described 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.

[0032] Reference Figure 1 An embodiment of the present invention proposes a wind turbine tower foundation reinforcement settlement monitoring device, which includes a tower 1, a protective plate 2 is installed on the side of the tower 1, a monitoring mechanism 3 is installed on the protective plate 2, a device box 4 is installed on the upper end of the protective plate 2, a protective module 5 is installed on the outside of the monitoring mechanism 3, and a solar energy conversion module 6 is also installed on the tower 1.

[0033] Reference Figure 2 、 Figure 3 and Figure 4 The protection module 5 includes a second shell 5126 fixedly connected to the lower end of the protection plate 2, and the mouth of the second shell 5126 is fixedly connected to the lens 51. The protection module 5 also includes a rectangular frame 511 fixedly connected to the outside of the lens 51. The lens 51 is mounted inside the rectangular frame 511. A decontamination module for decontaminating the outer surface of the lens 51 is mounted on the rectangular frame 511. The decontamination module can be translated on the rectangular frame 511, so that the decontamination module can be translated on the outer surface of the lens 51; refer to Figure 3 and Figure 4 , translation modules 512 are installed on both sides of the rectangular frame 511. The translation modules 512 can be electric cylinders. A pair of translation modules 512 are arranged face to face. Each translation module 512 is installed with a variable column 515. The variable column 515 is connected to the output end of the translation module 512. A decontamination module is installed between the pair of variable columns 515.

[0034] The decontamination module includes a pair of vertical pieces 516 that can translate on the rectangular frame 511. The pair of vertical pieces 516 are installed between the pair of variable columns 515. The pair of vertical pieces 516 are installed inside the pair of variable columns 515. Each vertical piece 516 is connected to a variable column 515, so that when the variable column 515 can translate on the translation module 512, the pair of vertical pieces 516 can translate on the translation module 512. Figure 5The variable column 515 is provided with a rotating column 518 that rotates relative to the variable column 515. The two ends of the rotating column 518 are respectively passed through a pair of variable columns 515 and extend outward. The head end of the rotating column 518 is provided with a disk 514. The outer circumference of the disk 514 is provided with teeth at equal intervals. The edge of the disk 514 is provided with a rectangular piece 513. The rectangular piece 513 is fixedly connected to the rectangular frame 511 and is provided corresponding to the translation module 512. One side of the rectangular piece 513 is evenly spaced. The second tooth is reserved, and the rectangular piece 513 and the disc 514 are connected through the second tooth and the first tooth. When the variable column 515 is translated on the rectangular frame 511, the disc 514 rotates on the rectangular piece 513, so that the disc 514 pulls the rotating column 518 to rotate relative to the variable column 515. The rotating column 518 is reserved with a plurality of suction ports for sucking stains. The plurality of suction ports are circumferentially distributed on the peripheral wall of the rotating column 518, and the suction ports are connected to the inside of the variable column 515. Figure 7 and Figure 8 The upper end of the variable column 515 is reserved with an arched gathering chamber 519. The gathering chamber 519 is an arched half-circle. The gathering chamber 519 is connected to the suction port. A channel is arranged between the suction port and the gathering chamber 519. Several channels are reserved and are evenly spaced toward the peripheral wall of the rotating column 518. A connection port 5112 is reserved on the gathering chamber 519. The gathering chamber 519 is connected to a blower for removing electric charges through the connection port 5112. The blower can blow out air with electric charges. Each channel includes a pipe 1 5110 and a pipe 2 5110 connected to each other. 1. Pipeline 2 5111 is arranged facing the axis of the rotating column 518. Pipeline 2 5111 is installed in the area of ​​the horizontal span of the gathering chamber 519 to ensure that Pipeline 2 5111 and the gathering chamber 519 are connected. Pipeline 2 5111 extends from the outside of the rotating column 518 to the inside of the rotating column 518 and is connected to Pipeline 1 5110. Pipeline 1 5110 is arranged in the length direction of the rotating column 518. The suction port is reserved on the peripheral wall of the rotating column 518. The suction port passes through Pipeline 1 5110. The number of suction ports on each Pipeline 1 5110 is greater than or equal to 1.

[0035] An anti-fouling shell 517 is installed on the outside of the rotating column 518, and the anti-fouling shell 517 can prevent stains brought by the air flowing in the suction port from flying to the outside of the anti-fouling shell 517.

[0036] Through the above-mentioned structure, when the translation module 512 pulls the variable column 515 to translate toward direction B in the rectangular frame 511, the disc 514 rotates on the rectangular piece 513, and the disc 514 pulls the rotating column 518 to rotate, so that the rotating column 518 rotates relative to the variable column 515, and the several grooves on the rotating column 518 rotate together with the rotating column 518, and the grooves rotate relative to the gathering chamber 519. When the local grooves are located inside the gathering chamber 519, the air flowing in the gathering chamber 519 passes through pipe 2 5111 and pipe 1 5110 in turn, and then is discharged from the suction port and sprayed onto the outer wall of the lens 51. The flowing air can carry electric charges that can neutralize the charges on the outer wall of the lens 51, thereby reducing the adsorption effect of stains on the lens 51, and under the action of the flowing air, the stains are separated from the outer wall of the lens 51. Because the collection chamber 519 is a half-circular arch and the channels are located on the peripheral wall of the rotating column 518, the multiple channels within the collection chamber 519 spray air in multiple directions. As the variable column 515 translates on the lens 51 and the rotating column 518 rotates, the dirt on the outer surface of the lens 51 is subjected to external forces from various directions, thereby separating the dirt from the outer surface of the lens 51. By assembling the lens 51 within the rectangular frame 511, the edges of the lens 51 are protected from the external environment, preventing them from being impacted by foreign objects and ensuring a secure assembly.

[0037] Reference Figure 6A stain removal cloth 5117 for removing stains is installed on one side of the rotating column 518, and the two long sides of the stain removal cloth 5117 are connected to each other. The outer surface of the stain removal cloth 5117 is in contact with the outer wall of the lens 51, and a power module for driving the stain removal cloth 5117 to rotate is installed inside the stain removal cloth 5117. The power module is linked to the rotating column 518 and includes roller 1 5113, roller 2 5114, roller 3 5115 and roller 4 5116, which are arranged face to face with each other. One of the rollers 1 5113, roller 2 5114, roller 3 5115 and roller 4 5116 is linked to the rotating column 518, and roller 3 5115 and roller 4 5116 are linked to each other. The cleaning cloth 5117 located at the top and wound around the roller 3 5115 and the roller 4 5116 is in contact with the lens 51. The roller 1 5113 and the roller 2 5114 are located at the bottom and the cleaning cloth 5117 wound around the roller 1 5113 and the roller 2 5114 is facing the lens 51. The span between the roller 3 5115 and the roller 4 5116 is smaller than the span between the roller 1 5113 and the roller 2 5114, so that the rollers 1 5113, the roller 2 5114, the roller 3 5115 and the roller 4 5116 are arranged in an isosceles quadrilateral. Vertical pieces 516 are installed on the sides of roller three 5115 and roller four 5116. Spiral beryllium copper wires are installed between roller three 5115, roller four 5116 and the vertical pieces 516. A connecting rod 5125 is respectively clamped on the inside of roller three 5115 and roller four 5116. The connecting rod 5125 is installed inside the changing opening 5118. The horizontal span of the changing opening 5118 is smaller than the vertical span of the changing opening 5118. The changing opening 5118 is reserved on the vertical piece 516. A spiral beryllium copper wire is installed between the upper end of the changing opening 5118 and the connecting rod 5125. The two ends of the roller 1 5113 and the roller 2 5114 are both screwed to the vertical piece 516; a liquid storage box 5121 is arranged below the inside of the decontamination cloth 5117, and the liquid storage box 5121 is located between the roller 1 5113 and the roller 2 5114. The liquid storage box 5121 is inside the decontamination cloth 5117, and clean water for washing the face is placed in the liquid storage box 5121. A liquid storage block 1 5122 is arranged inside the liquid storage box 5121. The liquid storage block 1 5122 adopts a high-pressure sealing foam material. The liquid storage block 1 5122 and the inner wall of the decontamination cloth 5117 are sealed. The surface of the decontamination cloth 5117 is fitted with a decontamination shell 5119 for removing stains on the outer surface of the decontamination cloth 5117. The decontamination shell 5119 is located below the liquid storage box 5121. The upper wall of the decontamination shell 5119 fits with the outer wall of the decontamination cloth 5117. The upper end of the decontamination shell 5119 is wedge-shaped. An ash suction port 5120 is reserved inside the decontamination shell 5119. The ash suction port 5120 is connected to the upper end of the decontamination shell 5119, and the decontamination shell 5119 is connected to the suction fan. The ash suction port 5120 is connected to the suction fan.

[0038] Through the above structure, when the rotating column 518 rotates, the rotating column 518 can pull the power module to rotate, and the power module pulls the cleaning cloth 5117 to rotate. The cleaning cloth 5117 moves horizontally on the lens 51. Because the outer wall surface of the cleaning cloth 5117 is in contact with the outer wall surface of the lens 51, the cleaning cloth 5117 moving horizontally on the lens 51 can remove the stains on the outer wall surface of the lens 51. The cleaning cloth 5117 with stains is moved downward by the rotation of the power module. When the stain moves to the bottom of the liquid storage block 5122, the liquid storage block 5122 can stick the clean water in the liquid storage box 5121 to the decontamination cloth 5117, and with the cooperation of the clean water, the stain and the decontamination cloth 5117 are separated. Because the decontamination shell 5119 is located below the liquid storage block 5122 and is connected to the suction fan, the suction force generated by the suction fan can draw the stain from the decontamination cloth 5117 to the dust suction port 5120, thereby enhancing the cleaning performance of the decontamination cloth 5117. The roller three 5115 is movably connected to the roller four 5116 and the vertical piece 516, and a spiral beryllium copper wire is installed between the roller three 5115, the roller four 5116 and the vertical piece 516 to keep the roller three 5115 and the roller four 5116 always at the top to keep the cleaning cloth 5117 in a taut state, ensure the reliability of the rotation of the cleaning cloth 5117, and prevent the roller three 5115, the roller four 5116 and the lens 51 from contacting when hard stains stick to the lens 51, resulting in damage to the lens 51.

[0039] Reference Figure 6 The right end of the decontamination cloth 5117 is provided with a liquid storage block 2 5124 for removing excess cleaning water on the outer wall of the lens 51. The liquid storage block 2 5124 is made of high-pressure sealing foam material. The liquid storage block 2 5124 can fit well with the lens 51 without causing scratches on the outer wall of the lens 51. The liquid storage block 2 5124 is arranged inside the shell 1 5123. The shell 1 5123 is connected to the suction fan, and the suction fan is connected to the liquid storage block 2 5124. The suction fan can extract the cleaning water on the liquid storage block 2 5124 in real time to ensure the water removal function of the liquid storage block 2 5124.

[0040] A rectangular frame 511 is installed on the outside of the lens 51, and a decontamination module for decontaminating the outer surface of the lens 51 is installed on the rectangular frame 511. The decontamination module moves horizontally on the rectangular frame 511. The decontamination module includes a pair of vertical pieces 516 that can move horizontally on the rectangular frame 511. Each vertical piece 516 is connected to a variable column 515. A rotating column 518 that rotates relative to the variable column 515 is installed on the variable column 515. The head end of the rotating column 518 is installed with a disc 514 and a rectangular piece 513 that engage with each other. The sheet 513 is connected to the rectangular frame 511, and a plurality of suction ports for sucking up stains are reserved on the rotating column 518. The plurality of suction ports are circumferentially distributed on the peripheral wall of the rotating column 518. The suction ports are connected to the inside of the variable column 515. The upper end of the variable column 515 is connected to the suction ports via an arched gathering chamber 519. An anti-fouling shell 517 is installed on the outside of the rotating column 518; a stain removal cloth 5117 for removing stains is installed on one side of the rotating column 518. The outer surface of the stain removal cloth 5117 is in contact with the outer wall of the lens 51. The cleaning cloth 5117 is fitted with a power module for driving the cleaning cloth 5117 to rotate. The power module is linked to the rotating column 518. A liquid storage box 5121 is installed above the inside of the cleaning cloth 5117. A liquid storage block 5122 fitted with the cleaning cloth 5117 is installed between the liquid storage box 5121 and the cleaning cloth 5117. A cleaning shell 5119 for removing stains on the outer surface of the cleaning cloth 5117 is installed on the outside of the cleaning cloth 5117. The upper end of the cleaning shell 5119 is connected to the cleaning cloth 5117. 17 are fitted, and the decontamination shell 5119 is connected to the suction fan; a liquid storage block 2 5124 for removing excess cleaning water on the outer wall of the lens 51 is installed on one side of the decontamination cloth 5117. By controlling the decontamination module to change on the rectangular frame 511, the purpose of changing the cleaning surface of the lens 51 is achieved. During the translation of the decontamination module on the lens 51, the stains on the lens 51 are removed to ensure the cleanliness of the outer wall of the lens 51, thereby ensuring the normal monitoring of the monitoring mechanism 3 and improving the convenience of use.

[0041] Reference Figure 1 and Figure 9The solar energy conversion module 6 includes an outer ring 61 fixedly connected to the outer peripheral wall of the tower 1, and two pairs of supporting plates 62 are fixedly connected to the outer peripheral wall of the outer ring 61. One end of the bottom wall of the supporting plate 62 is fixedly connected to the outer ring 61 via a reinforcement strip 63 to enhance the stability of the support for the solar cell panel 64. The solar cell panel 64 is fixedly connected to the upper wall of the supporting plate 62 to achieve multi-directional absorption of solar energy and improve the utilization rate of solar energy. The solar cell panel 64 is electrically connected to the battery in the device box 4, and the battery in the device box 4 is electrically connected to the signal transceiver in the device box 4. The battery in the device box 4 is used to electrically connect the monitoring mechanism 3 and the electrical equipment in the protection module 5. The monitoring mechanism 3 and the protection module 5 are powered by the battery to ensure the operation of the monitoring mechanism 3 and the protection module 5. The signal transceiver in the device box 4 is electrically connected to the data terminal to achieve remote monitoring of the device.

[0042] The basic principles, main features, and advantages of the present invention are shown and described above. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are merely illustrative of the principles of the present invention. Various changes and modifications may be made to the present invention without departing from the spirit and scope of the present invention. Such changes and modifications are intended to fall within the scope of the present invention. The scope of protection claimed in the present invention is defined by the appended claims and their equivalents.

Claims

1. A wind turbine tower foundation reinforcement settlement monitoring device, comprising a tower (1), a protective plate (2) being installed on the side of the tower (1), and a monitoring mechanism (3) being installed on the protective plate (2), characterized in that: A device box (4) is installed on the upper end of the protection plate (2), a protection module (5) is installed outside the monitoring mechanism (3), and a solar energy conversion module (6) is also installed on the tower (1); The protective module (5) includes a second housing (5126) fixedly connected to the lower end of the protective plate (2), the mouth of the second housing (5126) is fixedly connected to the lens (51), and the protective module (5) further includes a rectangular frame (511) fixedly connected to the outside of the lens (51), a decontamination module for decontaminating the outer surface of the lens (51) is mounted on the rectangular frame (511), and the decontamination module can be translated on the rectangular frame (511); The decontamination module comprises a pair of vertical pieces (516) that can be translated on a rectangular frame (511), each of the vertical pieces (516) is connected to a variable column (515), a rotating column (518) that rotates relative to the variable column (515) is installed on the variable column (515), a disk (514) is installed at the head end of the rotating column (518), and teeth are reserved at equal intervals on the outer peripheral surface of the disk (514), and a rectangular piece (513) is installed on the edge of the disk (514), and one side of the rectangular piece (513) is evenly spaced. A second tooth opening is reserved at intervals, and the rectangular piece (513) and the circular disc (514) are connected to each other through the second tooth opening and the first tooth opening. A plurality of suction ports for sucking up dirt are reserved on the rotating column (518), and the plurality of suction ports are circumferentially distributed on the peripheral wall of the rotating column (518). The suction ports are connected to the inside of the variable column (515). An arched gathering chamber (519) is reserved at the upper end of the variable column (515), and the gathering chamber (519) is connected to the suction port. An anti-fouling shell (517) is installed on the outside of the rotating column (518); A stain removal cloth (5117) for removing stains is installed on one side of the rotating column (518). The outer surface of the stain removal cloth (5117) and the outer wall surface of the lens (51) are in contact with each other. A power module for driving the stain removal cloth (5117) to rotate is installed inside the stain removal cloth (5117). The power module and the rotating column (518) are linked. A liquid storage box (5121) is installed below the stain removal cloth (5117). A liquid storage block (5122) is installed inside the liquid box (5121), and the liquid storage block (5122) is in contact with the inner wall of the decontamination cloth (5117). A decontamination shell (5119) for removing stains from the outer surface of the decontamination cloth (5117) is installed outside the decontamination cloth (5117), and the upper wall of the decontamination shell (5119) is in contact with the outer wall of the decontamination cloth (5117). The decontamination shell (5119) is connected to a suction fan. The right end of the cleaning cloth (5117) is provided with a second liquid storage block (5124) for removing excess cleaning water from the outer wall of the lens (51); A groove is arranged between the suction port and the gathering chamber (519), and a number of the grooves are reserved and arranged at equal intervals toward the peripheral wall of the rotating column (518). Each of the grooves includes a pipe one (5110) and a pipe two (5111) connected to each other. The pipe two (5111) is arranged facing the axis of the rotating column (518). The pipe two (5111) is arranged in the area of ​​the horizontal span of the gathering chamber (519). The pipe two (5111) extends from the outside of the rotating column (518) to the inside of the rotating column (518) and is connected to the pipe one (5110). The suction port passes through the pipe one (5110), and the number of suction ports on each pipe one (5110) is greater than or equal to one.

2. The wind turbine tower foundation reinforcement settlement monitoring device according to claim 1, characterized in that: Translation modules (512) are installed on both sides of the rectangular frame (511), and a pair of the translation modules (512) are arranged face to face. A variable column (515) is installed on each translation module (512), and a decontamination module is installed between the pair of variable columns (515).

3. The wind turbine tower foundation reinforcement settlement monitoring device according to claim 1, characterized in that: The power module comprises a roller 1 (5113), a roller 2 (5114), a roller 3 (5115) and a roller 4 (5116) which are arranged face to face with each other, wherein the roller 3 (5115) and the roller 4 (5116) are located at the top and the decontamination cloth (5117) wound around the roller 3 (5115) and the roller 4 (5116) is in contact with the lens (51), and the roller 1 (5113) and the roller 2 (5114) are located at the bottom and wound around the roller 1 (5116). 113) and the decontamination cloth (5117) on the roller two (5114) face the lens (51), the span between the roller three (5115) and the roller four (5116) is smaller than the span between the roller one (5113) and the roller two (5114), vertical pieces (516) are installed on the sides of the roller three (5115) and the roller four (5116), and spiral beryllium copper wires are installed between the roller three (5115) and the roller four (5116) and the vertical pieces (516).

4. The wind turbine tower foundation reinforcement settlement monitoring device according to claim 3, characterized in that: The inside of the roller three (5115) and the roller four (5116) are each connected with a connecting rod (5125), and the connecting rod (5125) is installed inside the changing mouth (5118). The horizontal span of the changing mouth (5118) is smaller than the vertical span of the changing mouth (5118). The changing mouth (5118) is reserved on the vertical plate (516), and a spiral beryllium copper wire is installed between the upper end of the changing mouth (5118) and the connecting rod (5125).

5. The wind turbine tower foundation reinforcement settlement monitoring device according to claim 1, characterized in that: The upper end of the decontamination shell (5119) is wedge-shaped, and an ash suction port (5120) is reserved inside the decontamination shell (5119). The ash suction port (5120) is connected to the upper end of the decontamination shell (5119), and the ash suction port (5120) is connected to the suction fan.

6. The wind turbine tower foundation reinforcement settlement monitoring device according to claim 1, characterized in that: The solar energy conversion module (6) comprises an outer ring (61) fixedly connected to the outer peripheral wall of the tower (1); two pairs of bearing plates (62) are fixedly connected to the outer peripheral wall of the outer ring (61); one end of the bottom wall of the bearing plate (62) and the outer ring (61) are fixedly connected via a reinforcement strip (63); and a solar cell panel (64) is fixedly connected to the upper wall surface of the bearing plate (62).

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