A device for measuring the verticality of photovoltaic concrete pipe piles in mountainous areas

Abstract

The present invention relates to the technical field of verticality measurement of mountain photovoltaic concrete pipe piles, and discloses a device for measuring the verticality of mountain photovoltaic concrete pipe piles. The device comprises a measuring mechanism and a signal receiver, wherein the signal receiver is arranged at the rear side of the measuring mechanism, the measuring mechanism is provided with the mounting ring, six groups of the limit assemblies are evenly installed on the inner side of the mounting ring, the mounting ring is provided with the connecting ring at the circumferential position, six limit blocks are evenly fixedly connected on the inner side of the connecting ring, the adjusting assembly is installed between the mounting ring and the connecting ring, and by setting the measuring mechanism, if the pipe pile is not vertical, the length of the distance coordinate (0, 0) of the center of the circle after the offset received by the sensor endpoint is calculated by the processor, and the length is the offset length, and the processor calculates the inclination angle of the pipe pile through trigonometric functions, and displays the inclination angle on the display screen.

Description

Technical Field

[0001] The invention relates to the technical field of verticality measurement of mountain photovoltaic concrete pipe piles, and in particular to a device for measuring the verticality of mountain photovoltaic concrete pipe piles. Background Art

[0002] During the construction of mountain photovoltaics, the construction process is generally from mountain photovoltaic concrete pipe pile construction to bracket installation, and then photovoltaic module installation. The mountain photovoltaic concrete pipe pile construction includes three processes: measurement and positioning, drilling, and pouring.

[0003] As mentioned above, during the installation of mountain photovoltaics, mountain photovoltaic concrete pipe piles are the foundation of mountain photovoltaic brackets and photovoltaic modules, and the structure must be stable without tilting or shaking. Therefore, for mountain photovoltaic concrete pipe piles, the verticality measurement is a basic process with high requirements.

[0004] In practice, the verticality measurement device for concrete pipe piles uses a plumb line to observe whether the pipe pile is vertical. Moreover, it is not convenient to measure the actual deviation angle value during actual measurement. Specifically, the surface of the pipe pile is prone to deviation or error due to unevenness. Mechanical measurement using other calipers will result in inaccurate measurement values, and multiple measurement operations are cumbersome.

[0005] In order to solve the above problems, this application proposes a device for measuring the verticality of mountain photovoltaic concrete pipe piles. Summary of the invention

[0006] The purpose of the present invention is to provide a mountain photovoltaic concrete pipe pile verticality measuring device to solve the problem that the prior art proposed in the above background technology is inconvenient to measure the value of the actual deviation angle, and the pipe pile surface is prone to unevenness, which causes deviation or error in measurement.

[0007] To achieve the above object, the present invention provides the following technical solutions:

[0008] A device for measuring the verticality of a mountain photovoltaic concrete pipe pile comprises a measuring mechanism and a signal receiver, wherein the signal receiver is arranged at the rear side of the measuring mechanism, the measuring mechanism is equipped with the mounting ring, six groups of the limit assemblies are evenly mounted on the inner side of the mounting ring, the mounting ring is provided with the connecting ring at a circumferential position, six limit blocks are evenly fixedly connected to the inner side of the connecting ring, the adjusting assembly is installed between the mounting ring and the connecting ring, the bracket is fixedly connected to the outer side of the limit assembly, the laser sensor is fixedly connected to the inner side of the bracket, the processor is mounted on the inner side of the signal receiver, and the display screen is fixedly connected to the outer ring of the signal receiver.

[0009] The signal receiver is arranged in a semicircular ring shape, and two signal receivers are rotatably connected to each other via a rotating shaft. The signal receiver includes a plurality of sensor endpoints, and the plurality of sensor endpoints are evenly and tightly arranged on the surface of the signal receiver.

[0010] Furthermore, the limiting assembly includes a sliding seat, a connecting block, a sliding rod, a spring, a roller, and a connecting wheel. Six adaptation grooves are evenly opened on the inner side of the mounting ring, and the sliding seat is slidably connected to the inner side wall of the adaptation groove. A connecting groove is opened on the inner side of the sliding seat, and the connecting block is arranged on the inner side of the connecting groove. The outer side of the connecting block is fixedly connected to the inner side wall of the adaptation groove, the sliding rod is slidably connected to the inner side of the connecting block, and the top and bottom ends of the sliding rod are fixedly connected to the connecting groove. A wheel groove B is opened on the side of the sliding seat close to the connecting ring, and the inner side wall of the wheel groove B is rotatably connected to the connecting wheel through a rotating shaft. A wheel groove A is opened on the side of the sliding seat away from the connecting ring, and the inner side wall of the wheel groove A is rotatably connected to the roller.

[0011] Furthermore, the adjusting assembly includes a mounting frame, a slider, a support plate, a worm, a handle, a worm wheel, a rotating rod, a gear and a rack, the right end of the mounting ring is fixedly connected to the two mounting frames, the support plate is fixedly connected between the right ends of the two mounting frames, the inner side of the support plate is rotatably connected to the worm via a rotating shaft, the bottom end of the worm is fixedly connected to the handle, the left end of the worm is meshed with the worm wheel, the inner side of the worm wheel is fixedly connected to the rotating rod, the rear end face of the rotating rod is fixedly connected to the gear, the top and bottom ends of the rotating rod are respectively fixedly connected to the two mounting frames, the outer side of the connecting ring is fixedly connected to the rack, the rack and the gear are meshed with each other, the slider is fixedly connected to the sides of the two mounting frames close to each other, the front end face and the rear end face of the connecting ring are both provided with limiting grooves, and the outer side of the slider is slidably connected to the corresponding limiting groove.

[0012] Furthermore, the limit block is wedge-shaped, the movement trajectory of the limit block is arc-shaped, the connecting wheel is arranged on the movement trajectory of the limit block, and the outer side of the connecting wheel is slidably connected to the limit block.

[0013] Furthermore, the measuring mechanism is also provided with a pushing mechanism for lifting and lowering the measuring mechanism, the pushing mechanism comprising a pushing seat, a connecting rod, a clamping ring and a pushing rod, the pushing seat is fixedly connected to the left side of the connecting ring, a rotating groove is opened at the left end of the pushing seat, the connecting rod is fixedly connected to the inner side wall of the rotating groove, the clamping ring is sleeved on the outer side of the connecting rod, and the pushing rod is fixedly connected to the outer side of the clamping ring.

[0014] Compared with the prior art, the present invention has the following beneficial effects:

[0015] 1. The present invention provides a measuring mechanism, and closely arranged sensor endpoints are used to receive laser signals emitted by laser sensors. The arrangement of the sensor endpoints is a two-dimensional coordinate axis arrangement, and the coordinate point (0, 0) is set at the center of the signal receiver and on the axis of the pile. The laser sensor transmits a signal on the upper part of the pile and moves around the pile. If the pile is vertical, the signal received by the sensor endpoint should be a circle with a center coordinate of (0, 0). If the pile is not vertical, the signal received by the sensor endpoint should be a circle with a center coordinate of not (0, 0). The processor calculates the length of the distance coordinate (0, 0) from the center of the circle received by the sensor endpoint after the offset, and the length is the offset length. According to the height and offset length of the interval between the laser sensor and the sensor endpoint, the hypotenuse length is calculated by the Pythagorean theorem, that is, the distance between the center of the circle formed by the laser sensor around the circumference and the center of the sensor endpoint is calculated, and then the angle between the hypotenuse and the offset length is calculated according to the sine function, thereby obtaining the tilt angle of the pile, and the measurement accuracy is high.

[0016] 2. The present invention uses a push mechanism to control the connection ring to move up and down through the push rod when in use. The laser sensor sends a laser signal to the sensor end point for reception. If the pile is flat as a whole, the signal on the signal receiver is close to one point. If the pile is not flat, the signal on the signal receiver is relatively scattered. The flatness of the outer wall of the pile is detected according to the distribution of the signal, thereby providing a detection reference and basis for subsequent quality inspection and acceptance work. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the overall structure of a device for measuring the verticality of a photovoltaic concrete pipe pile in a mountain area according to the present invention;

[0018] Figure 2 A schematic diagram of the installation structure of a sensor end point of a mountain photovoltaic concrete pipe pile verticality measurement device according to the present invention;

[0019] Figure 3 It is a schematic diagram of the installation structure of a limit assembly of a mountain photovoltaic concrete pipe pile verticality measurement device of the present invention;

[0020] Figure 4 A schematic diagram of the installation structure of an adjustment component of a mountain photovoltaic concrete pipe pile verticality measurement device according to the present invention;

[0021] Figure 5 It is a schematic diagram of the installation structure of a driving mechanism of a mountain photovoltaic concrete pipe pile verticality measuring device of the present invention;

[0022] In the figure:

[0023] 1. Measuring mechanism; 11. Mounting ring; 12. Limiting assembly; 121. Sliding seat; 122. Connecting block; 123. Sliding rod; 124. Spring; 125. Roller; 126. Connecting wheel; 13. Connecting ring; 14. Limiting block; 15. Adjusting assembly; 151. Mounting frame; 152. Sliding block; 153. Bracket; 154. Worm; 155. Handle; 156. Worm wheel; 157. Rotating rod; 158. Gear; 159. Rack; 16. Bracket; 17. Laser sensor;

[0024] 2. Signal receiver; 21. Sensor endpoint;

[0025] 3. Processor;

[0026] 4. Display screen;

[0027] 5. Pushing mechanism; 51. Pushing seat; 52. Connecting rod; 53. Snap ring; 54. Pushing rod. DETAILED DESCRIPTION

[0028] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0029] The standard parts used in this application can all be purchased from the market, and special-shaped parts can be customized according to the instructions and drawings. The specific connection methods of each part adopt conventional means such as mature bolts, rivets, welding, and bonding in the existing technology, and the components used for circuit connection are all conventional models in the existing technology.

[0030] In the present application document, the processor receives and processes the signal detected by the sensor, which is a conventional and adaptive application of the known control system program, does not involve improvement of the program, and is a conventional technical means of those skilled in the art.

[0031] At the same time, in order to clearly express the connection relationship and working principle between the components and highlight the key points, the drawings in the specification are organized and drawn in the form of simple diagrams. One simple diagram can correspond to a variety of materials and actual external structural shapes.

[0032] See also Figure 1-Figure 5The present invention provides a technical solution: a mountain photovoltaic concrete pipe pile verticality measuring device, comprising a measuring mechanism 1 and a signal receiver 2, the signal receiver 2 is arranged at the rear side of the measuring mechanism 1, a mounting ring 11 is installed on the measuring mechanism 1, six groups of limit assemblies 12 are evenly installed on the inner side of the mounting ring 11, a connecting ring 13 is provided at a circumferential position of the mounting ring 11, six limit blocks 14 are evenly fixedly connected on the inner side of the connecting ring 13, an adjusting assembly 15 is installed between the mounting ring 11 and the connecting ring 13, a bracket 16 is fixedly connected to the outer side of the connecting ring 13, a laser sensor 17 is fixedly connected to the inner side of the bracket 16, and a processing assembly 15 is installed on the inner side of the signal receiver 2. The outer ring of the signal receiver 2 is fixedly connected with a display screen 4. The limit block 14 limits the roller 125 to keep the centers of the connecting ring 13 and the mounting ring 11 on the axial line of the pile. The hand-held push rod 54 rotates around the pile to drive the connecting ring 13 to rotate around. The roller 125 rolls on the pile. The laser sensor 17 on the bracket 16 transmits a laser signal to the signal receiver 2, and the laser signal is received by the signal receiver 2. The closely arranged sensor endpoints 21 are used to receive the laser signal emitted by the laser sensor 17. The processor 3 calculates the inclination angle of the pile through trigonometric functions and displays the inclination angle on the display screen.

[0033] The signal receiver 2 is arranged in a semicircular ring shape, and the two signal receivers 2 are rotatably connected to each other through a rotating shaft. The signal receiver 2 includes a plurality of sensor endpoints 21, and the plurality of sensor endpoints 21 are evenly and closely arranged on the surface of the signal receiver 2. The laser sensor 17 on the bracket 16 transmits a laser signal to the signal receiver 2, and the laser signal is received by the signal receiver 2. The closely arranged sensor endpoints 21 are used to receive the laser signal emitted by the laser sensor 17, and the arrangement of the sensor endpoints 21 is a two-dimensional coordinate axis arrangement, and its coordinate point (0, 0) is set at the center of the circle of the signal receiver 2 and on the axis line of the pipe pile. The laser sensor 17 transmits a signal on the upper part of the pipe pile and moves around the pipe pile. If the pipe If the pile is vertical, the signal received by the sensor endpoint 21 should be a circle with a center coordinate of (0, 0). If the pile is not vertical, the signal received by the sensor endpoint 21 should be a circle with a center coordinate other than (0, 0). The processor calculates the length of the distance coordinate (0, 0) from the center of the circle received by the sensor endpoint 21 after the offset. This length is the offset length. The hypotenuse length is calculated based on the height and offset length between the laser sensor 17 and the sensor endpoint 21 using the Pythagorean theorem, that is, the distance between the center of the offset circle formed by the laser sensor 17 around the circumference and the center of the sensor endpoint 21 is calculated. The angle between the hypotenuse and the offset length is then calculated based on the sine function to obtain the inclination angle of the pile.

[0034] The limiting assembly 12 includes a slide 121, a connecting block 122, a slide rod 123, a spring 124, a roller 125, and a connecting wheel 126. Six adapting grooves are evenly arranged on the inner side of the mounting ring 11. The slide 121 is slidably connected to the inner side wall of the adapting groove. A connecting groove is arranged on the inner side of the slide 121. The connecting block 122 is fixedly connected to the inner side wall of the adapting groove. The slide rod 123 is slidably connected to the inner side of the connecting groove. The top and bottom ends of the slide rod 123 are fixedly connected to the connecting groove. A wheel groove B is arranged on the side of the slide 121 close to the connecting ring 13. The inner side wall of the wheel groove B is rotatably connected to the connecting wheel 126 through a rotating shaft. A wheel groove A is arranged on the side of the slide 121 away from the connecting ring 13. The inner side wall of the wheel groove A is rotatably connected to the roller 125. The rack 159 drives the connecting ring 13 to rotate, and the rotation of the connecting ring 13 drives the limiting block 14 to rotate. The limit block 14 lifts the connecting wheel 126, and the connecting wheel 126 is driven by the limit block 14 so that the slide 121 drives the roller 125 away from the connecting ring 13, and the roller 125 approaches the pipe pile. The limit of the limit block 14 makes the six rollers 125 close to the pipe pile. The worm 154 and the worm wheel 156 have a self-locking characteristic, thereby fixing the adjusted position of the limit block 14 and keeping the roller 125 in contact with the pipe pile. The limit of the roller 125 by the limit block 14 keeps the center of the connecting ring 13 and the mounting ring 11 on the axis line of the pipe pile. The hand-held push rod 54 rotates around the pipe pile, driving the connecting ring 13 to rotate around, and the roller 125 rolls on the pipe pile. The laser sensor 17 on the bracket 16 transmits a laser signal to the signal receiver 2, and the laser signal is received by the signal receiver 2. The closely arranged sensor endpoints 21 are used to receive the laser signal emitted by the laser sensor 17.

[0035] The adjusting assembly 15 comprises a mounting frame 151, a slider 152, a support plate 153, a worm 154, a handle 155, a worm wheel 156, a rotating rod 157, a gear 158 and a rack 159. The right end of the mounting ring 11 is fixedly connected to two mounting frames 151, a support plate 153 is fixedly connected between the right ends of the two mounting frames 151, a worm 154 is rotatably connected to the inner side of the support plate 153 through a rotating shaft, a handle 155 is fixedly connected to the bottom end of the worm 154, a worm wheel 156 is meshed at the left end of the worm 154, a rotating rod 157 is fixedly connected to the inner side of the worm wheel 156, a gear 158 is fixedly connected to the rear end face of the rotating rod 157, the top and bottom ends of the rotating rod 157 are respectively fixedly connected to the two mounting frames 151, a rack 159 is fixedly connected to the outer side of the support plate 153, the rack 159 and the rotating rod 157 are meshed with each other, and the two mounting frames 15 The two sides close to each other are fixedly connected with a slider 152, and the front end surface and the rear end surface of the connecting ring 13 are provided with a limiting groove, and the outer side of the slider 152 is slidably connected with the corresponding limiting groove. When the device is in use, the two signal receivers 2 are rotated and opened to be sleeved on the outer side of the pipe pile, and then the two signal receivers 2 are rotated so that the two signal receivers 2 are merged with each other, and then the push rod 54 is held to sleeve the mounting ring 11 on the outer side of the pipe pile, and then the handle 155 is rotated to drive the worm 154 to rotate on the supporting plate 153, and the worm 154 drives the worm wheel 156 to rotate, and the worm wheel 156 drives the rotating rod 157 to rotate on the mounting frame 151, and the rotating rod 157 drives the gear 158 to rotate, and the gear 158 drives the rack 159, and the rack 159 drives the connecting ring 13 to rotate through the limiting of the two sliders 152 in the sliding groove of the connecting ring 13.

[0036] The limit block 14 is wedge-shaped, and the movement trajectory of the limit block 14 is arc-shaped. The connecting wheel 126 is set on the movement trajectory of the limit block 14. The outer side of the connecting wheel 126 is slidably connected to the limit block 14. The limit block 14 limits the roller 125 so that the centers of the connecting ring 13 and the mounting ring 11 are kept on the axial center line of the pile.

[0037] The measuring mechanism 1 is also provided with a pushing mechanism 5 for lifting the measuring mechanism 1. The pushing mechanism 5 includes a pushing seat 51, a connecting rod 52, a snap ring 53 and a pushing rod 54. The left side of the connecting ring 13 is fixedly connected to the pushing seat 51. A rotating groove is provided at the left end of the pushing seat 51. The inner side wall of the rotating groove is fixedly connected to the connecting rod 52. A snap ring 53 is sleeved on the outer side of the connecting rod 52. The outer side of the snap ring 53 is fixedly connected to the pushing rod 54. Figure 1 and attached Figure 5 As shown, the connecting ring 13 can be controlled to move up and down by the push rod 54, and the laser sensor 17 sends a laser signal to the sensor end point 21 for receiving. If the pile is flat as a whole, the signal on the signal receiver 2 is approximately one point. If the pile is not flat, the signal on the signal receiver 2 is relatively scattered. According to the distribution of the signal, the flatness of the outer wall of the pile is detected.

[0038] It should be understood that: because the unevenness of the pipe pile causes deviations or errors in measuring the inclination angle of the pipe pile, the height of the measuring mechanism 1 should be adjusted to perform multiple measurements and the majority of the results should be taken. If there are slight differences in the majority of the results, such as one or two decimal places, the average value of the majority should be taken to make the measurement of the pipe pile angle more standardized and accurate.

[0039] Working principle:

[0040] When the device is in use, the two signal receivers 2 are rotated and opened, and are sleeved on the outside of the pipe pile. Then, the two signal receivers 2 are rotated so that the two signal receivers 2 merge with each other 17, and then the push rod 54 is held by hand to sleeve the mounting ring 11 on the outside of the pipe pile, and then the handle 155 is rotated to drive the worm 154 to rotate on the support plate 153, and the worm 154 drives the worm wheel 156 to rotate, and the worm wheel 156 drives the rotating rod 157 to rotate on the mounting frame 151, and the rotating rod 157 drives the gear 158 to rotate, and the gear 158 drives the rack 159, and the two sliders 152 are limited in the slide groove of the connecting ring 13. The rack 159 drives the connecting ring 13 to rotate, and the connecting ring 13 rotates to drive the limit block 14 to rotate. The limit block 14 lifts the connecting wheel 126. The connecting wheel 126 is driven by the limit block 14 so that the slide 121 drives the roller 125 away from the connecting ring 13, and the roller 125 approaches the pipe pile. The six rollers 125 are close to the pipe pile through the limit of the limit block 14. The worm 154 and the worm wheel 156 have a self-locking feature, so that the worm wheel 156 will not rotate at will, so that the gear 158 can rotate at will, and the position of the limit block 14 after adjustment is fixed to keep the roller 125 in contact with the pipe pile.

[0041] After fitting, the connecting ring 13 can be propped up by the push rod 54, and the clamping ring 53 and the connecting rod 52 can rotate with each other. The push seat 51 is used to connect the connecting rod 52 to the connecting ring 13. The connecting ring 13 drives the mounting ring 11 to move up and down through the mounting frame 151, and then the limit block 14 limits the roller 125 to keep the center of the connecting ring 13 and the mounting ring 11 on the axis line of the pile. The push rod 54 is held and rotated around the pile to drive the connecting ring 13 to rotate around. The roller 125 rolls on the pile. The laser sensor 17 on the bracket 16 transmits a laser signal to the signal receiver 2, and the laser signal is received by the signal receiver 2. The closely arranged sensor endpoints 21 are used to receive the laser signal emitted by the laser sensor 17, and the arrangement of the sensor endpoints 21 is a two-dimensional coordinate axis arrangement, and its coordinate point (0, 0) is set on the circle of the signal receiver 2. The laser sensor 17 is located on the center of the pile and on the axis of the pile. The laser sensor 17 transmits a signal on the upper part of the pile and moves around the pile. If the pile is vertical, the signal received by the sensor endpoint 21 should be a circle with a center coordinate of (0, 0). If the pile is not vertical, the signal received by the sensor endpoint 21 should be a circle with a center coordinate of not (0, 0). The processor calculates the length of the distance coordinate (0, 0) from the center of the circle after the offset received by the sensor endpoint 21. This length is the offset length. According to the height and offset length of the interval between the laser sensor 17 and the sensor endpoint 21, the hypotenuse length is calculated by the Pythagorean theorem, that is, the distance between the center of the offset circle formed by the laser sensor 17 around the pile and the center of the sensor endpoint 21 is calculated. Then, the angle between the hypotenuse and the offset length is calculated according to the sine function, thereby obtaining the tilt angle of the pile. When in use, the connecting ring 13 is controlled to move up and down by the push rod 54, and the laser sensor 17 sends a laser signal to the sensor end point 21 for receiving. If the pile is flat as a whole, the signal on the signal receiver 2 is approximately one point. If the pile is uneven, the signal on the signal receiver 2 is relatively scattered.

Claims

1. A device for measuring the verticality of photovoltaic concrete piles in mountainous areas, characterized in that: The device comprises a measuring mechanism (1) and a signal receiver (2), wherein the signal receiver (2) is arranged at the rear side of the measuring mechanism (1), a mounting ring (11) is installed on the measuring mechanism (1), a plurality of position limiting components (12) are evenly installed on the inner side of the mounting ring (11), a connecting ring (13) is provided at a circumferential position of the mounting ring (11), a plurality of position limiting blocks (14) are evenly fixedly connected on the inner side of the connecting ring (13), an adjusting component (15) is installed between the mounting ring (11) and the connecting ring (13), a bracket (16) is fixedly connected on the outer side of the connecting ring (13), a laser sensor (17) is fixedly connected on the inner side of the bracket (16), a processor (3) is installed on the inner side of the signal receiver (2), and a display screen (4) is fixedly connected on the outer ring of the signal receiver (2); The signal receiver (2) is arranged in a semicircular ring shape, and the two signal receivers (2) are rotatably connected to each other via a rotating shaft. The signal receiver (2) comprises a plurality of sensor endpoints (21), and the plurality of sensor endpoints (21) are arranged on the surface of the signal receiver (2); The limiting assembly (12) comprises a sliding seat (121), a connecting block (122), a sliding rod (123), a spring (124), a roller (125), and a connecting wheel (126); a plurality of adapting grooves are evenly arranged on the inner side of the mounting ring (11); the sliding seat (121) is slidably connected to the inner side wall of the adapting groove; a connecting groove is arranged on the inner side of the sliding seat (121); the connecting block (122) is arranged on the inner side of the connecting groove; the outer side of the connecting block (122) is connected to the inner side wall of the adapting groove The connecting block (122) is fixedly connected, the inner side of which is slidably connected to the sliding rod (123), the top and bottom ends of the sliding rod (123) are fixedly connected to the connecting groove, the sliding seat (121) is provided with a wheel groove B on a side close to the connecting ring (13), the inner side wall of the wheel groove B is rotatably connected to the connecting wheel (126) via a rotating shaft, and the sliding seat (121) is provided with a wheel groove A on a side away from the connecting ring (13), the inner side wall of the wheel groove A is rotatably connected to the roller (125); The adjustment assembly (15) comprises a mounting frame (151), a slider (152), a support plate (153), a worm (154), a handle (155), a worm wheel (156), a rotating rod (157), a gear (158) and a rack (159); the right end of the mounting ring (11) is fixedly connected to two mounting frames (151); the right ends of the two mounting frames (151) are fixedly connected to the support plate (153); the inner side of the support plate (153) is rotatably connected to the worm (154) via a rotating shaft; the bottom end of the worm (154) is fixedly connected to the handle (155); the left end of the worm (154) is meshed with the worm wheel (156); 56), the rotating rod (157) is fixedly connected to the inner side of the worm wheel (156), the rear end face of the rotating rod (157) is fixedly connected to the gear (158), the top and bottom ends of the rotating rod (157) are respectively fixedly connected to the two mounting frames (151), the outer side of the connecting ring (13) is fixedly connected to the rack (159), the rack (159) and the gear (158) are meshed with each other, the two mounting frames (151) are fixedly connected to the slider (152) on the sides close to each other, the front end face and the rear end face of the connecting ring (13) are both provided with limiting grooves, and the outer side of the slider (152) is slidably connected to the corresponding limiting groove; The limit block (14) is arranged in a wedge shape, the movement track of the limit block (14) is in an arc shape, the connecting wheel (126) is arranged on the movement track of the limit block (14), and the outer side of the connecting wheel (126) is slidably connected to the limit block (14).

2. A mountain photovoltaic concrete pile verticality measuring device according to claim 1, characterized in that: The measuring mechanism (1) is also provided with a pushing mechanism (5) for lifting and lowering the measuring mechanism (1), the pushing mechanism (5) comprising a pushing seat (51), a connecting rod (52), a snap ring (53) and a pushing rod (54), the connecting ring (13) being fixedly connected to the pushing seat (51) on the left side, a rotating groove being provided at the left end of the pushing seat (51), the connecting rod (52) being fixedly connected to the inner side wall of the rotating groove, the connecting rod (52) being sleeved with the snap ring (53) on the outside, and the pushing rod (54) being fixedly connected to the outside of the snap ring (53).

3. A mountain photovoltaic concrete pile verticality measuring device according to claim 1, characterized in that: The limit assemblies (12) are in six groups.

4. A mountain photovoltaic concrete pile verticality measuring device according to claim 3, characterized in that: There are six limit blocks (14).

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