High formwork displacement monitoring device

Abstract

The utility model discloses a high formwork displacement monitoring device, and relates to the field of building construction, the high formwork displacement monitoring device comprises a signal monitoring device and a monitoring reflection device, the signal monitoring device is supported by a support member, the signal monitoring device is provided with a signal monitor, and the signal monitor is horizontally arranged by the signal monitoring device; the monitoring reflection device is arranged corresponding to the position of the signal monitor and used for receiving a signal of the monitoring annunciator and feeding back the signal to the signal monitor, real-time and accurate monitoring of settlement displacement of the high formwork can be achieved through the signal monitoring device and the monitoring reflection device, and the displacement condition of the high formwork can be comprehensively reflected.

Description

Technical Field

[0001] This application relates to the field of building construction, and in particular to a high formwork displacement monitoring device. Background Technology

[0002] In the construction industry, high-formwork (i.e., tall formwork support systems) is a temporary support structure used in construction processes such as concrete pouring, and is widely used in large-scale engineering projects such as bridges and high-rise buildings. Because high-formwork systems bear enormous construction loads, their structural stability directly affects construction safety and project quality. During concrete pouring, the formwork may shift or deform due to factors such as load changes, foundation settlement, and construction vibrations. If these factors are not detected and addressed in a timely manner, they can potentially lead to serious safety accidents such as formwork collapse, causing personal injury and property damage.

[0003] Currently, monitoring the displacement of high-support formwork mainly relies on regular manual inspections and traditional monitoring methods. Manual inspections have significant limitations. On the one hand, the inspection frequency is limited, making it impossible to grasp the displacement of high-support formwork in real time. On the other hand, manual inspections are greatly affected by subjective factors; different inspectors may have different judgment standards, leading to inaccurate monitoring results. Traditional monitoring methods, such as using instruments like levels and theodolites, can provide displacement data to some extent, but these instruments are complex to operate, require professional personnel, and the measurement process is time-consuming, making real-time, continuous monitoring difficult.

[0004] With the continuous development of technology, although some automated monitoring equipment has emerged, many problems still exist in practical applications. Some monitoring equipment can only provide displacement information in one direction, which cannot fully reflect the actual displacement of high formwork; the installation and commissioning process of some equipment is complicated, requiring a lot of manpower and time, increasing construction costs; and some equipment has poor stability and is easily affected by external environmental factors, resulting in inaccurate monitoring data and failing to provide reliable protection for construction safety.

[0005] Furthermore, existing high-formwork displacement monitoring devices also have shortcomings in signal monitoring and reception. During installation and use, the signal monitoring devices are easily affected by the construction environment, causing them to tilt and resulting in inaccurate monitoring signals. On the other hand, the monitoring reflector may fail to accurately receive signals from the signal monitor due to its own instability, affecting the feedback and processing of monitoring results. Therefore, developing a displacement monitoring device that can monitor high-formwork displacement in real time, accurately, and comprehensively, and that is easy to install and has good stability, is of significant practical importance. Utility Model Content

[0006] To address the problems existing in the prior art, this utility model provides a high formwork displacement monitoring device, comprising:

[0007] A signal monitoring device is supported by a support member, and a signal monitor is installed on the signal monitoring device. The signal monitor is horizontally installed through the signal monitoring device.

[0008] A monitoring reflection device is set up corresponding to the location of the signal monitor, and is used to receive the signal from the signal monitor and feed it back to the signal monitor.

[0009] Optionally, in some embodiments of this application, the signal monitoring device includes:

[0010] A monitoring box has a receiving cavity inside, a rotating shaft is provided inside the receiving cavity, a signal monitor is mounted on the rotating shaft, and the signal monitor rotates through the rotating shaft;

[0011] A horizontal monitoring device is installed on the monitoring box, and the horizontal monitoring device monitors the tilt angle of the monitoring box;

[0012] A horizontal adjustment device is installed on the monitoring box. The horizontal adjustment device is connected to the rotating shaft. The horizontal adjustment device adjusts the rotating shaft to drive the signal monitor to perform horizontal adjustment.

[0013] Optionally, in some embodiments of this application, a movable slot is provided on the monitoring box corresponding to the position of the horizontal monitoring device, the horizontal monitoring device is located in the movable slot, and the horizontal monitoring device includes:

[0014] A movable block is disposed within the movable slot, and the movable block moves linearly within the movable slot under the action of gravity.

[0015] A resistor is arranged along the linear direction of the moving groove, and the moving block moves on the resistor.

[0016] Optionally, in some embodiments of this application, the resistive element, the moving block, and the leveling device are electrically connected;

[0017] The resistive element and the moving block constitute a tilt sensor. The tilt sensor outputs a signal that drives the horizontal adjustment device to adjust the level of the signal monitor via the control unit.

[0018] Optionally, in some embodiments of this application, a limiting member is provided in the moving groove along the moving direction of the moving block. The two ends of the limiting member are fixed at the two ends of the moving groove. The moving block is sleeved on the limiting member and slides on the limiting member.

[0019] Optionally, in some embodiments of this application, a through slot is provided on the monitoring box corresponding to the position of the signal monitor. The through slot is vertically arranged and communicates with the receiving cavity. A first limiting part is provided on both sides of the through slot. A second limiting part is provided on the signal monitor corresponding to the position of the first limiting part. The second limiting part abuts against the first limiting part. The signal monitor is limited by the first limiting part and the second limiting part.

[0020] Optionally, in some embodiments of this application, the first limiting part is configured as an arc-shaped structure, and a contact surface is configured on the second limiting part facing the first limiting part. The contact surface is configured as an arc-shaped structure, and the center of the arc-shaped structure of the contact surface coincides with the center of the arc-shaped structure of the first limiting part. The contact surface abuts against the first limiting part.

[0021] The axis of the rotating shaft passes through the common center of the first limiting part and the second limiting part, so that the contact surface always fits the first limiting part when the signal monitor rotates around the axis.

[0022] Optionally, in some embodiments of this application, the monitoring reflection device includes:

[0023] A support frame is provided, on which a reflector is provided. A rotary bearing is provided on the support frame. The reflector is rotatably connected to the support frame through the rotary bearing. The reflector receives the signal from the signal monitor and returns the signal to the signal monitor.

[0024] A stabilizing component is disposed at the bottom of the reflector, and the stabilizing component drives the reflector to be vertically positioned.

[0025] Optionally, in some embodiments of this application, the stabilizing component includes a counterweight and a hydraulic damper. The counterweight is sleeved on the bottom of the reflector via a connecting rod, and the two ends of the hydraulic damper are respectively connected to the reflector and the support frame.

[0026] Optionally, in some embodiments of this application, the leveling device is provided with a driving member, the output end of which is connected to the rotating shaft, and the driving member drives the rotating shaft to rotate the signal monitor.

[0027] Compared with the prior art, the beneficial effects of this utility model are as follows:

[0028] 1. The signal monitoring device sends out a signal, and the monitoring and reflecting device receives and reflects the signal back to the signal monitoring device. The settlement height is determined by the position of the signal transmitted to the monitoring and reflecting device, so as to realize the real-time and accurate monitoring of the settlement displacement of the high formwork and comprehensively reflect the displacement of the high formwork.

[0029] 2. An automatic leveling system is constructed using a level monitoring device, a control unit, and a leveling adjustment device. When the monitoring box tilts due to foundation settlement, the moving block moves on the resistive element to change the resistance value. The control unit dynamically monitors the current change and drives the leveling adjustment device to rotate its shaft, adjusting the signal monitor to a stable level state in real time, avoiding tilting, ensuring monitoring effectiveness, and reducing errors.

[0030] 3. The signal monitor is limited by the first limiting part on both sides of the through slot and its own second limiting part. Both of them adopt an arc structure design, and the axis of rotation passes through the common center. This ensures that the contact surface of the signal monitor is always in contact with the first limiting part during rotation, which increases contact stability, ensures smooth rotation, and reduces shaking error. Attached Figure Description

[0031] To more clearly illustrate the technical solutions in the embodiments of this application, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0032] Figure 1 This is a schematic diagram of the overall structure of the high formwork displacement monitoring device provided in the embodiments of this application;

[0033] Figure 2 This is a schematic diagram of the overall structure of the monitoring box provided in the embodiments of this application;

[0034] Figure 3 This is a schematic diagram of the internal structure of the monitoring box provided in the embodiments of this application;

[0035] Figure 4 This is a schematic diagram of the overall structure of the monitoring reflection device provided in the embodiments of this application.

[0036] Explanation of reference numerals in the attached figures:

[0037] 100. Signal monitoring device; 110. Signal monitor; 120. Monitoring box; 121. Receiving cavity; 122. Rotating shaft; 123. Moving groove; 124. Through groove; 125. First limiting part; 126. Second limiting part; 127. Abutting surface; 130. Horizontal monitoring device; 131. Moving block; 132. Resistor; 133. Limiting part; 140. Horizontal adjustment device; 200. Monitoring reflection device; 210. Support frame; 211. Rotary bearing; 212. Reflector; 220. Stabilizing component; 221. Counterweight; 223. Connecting rod; 222. Hydraulic damper; 300. Support component. Detailed Implementation

[0038] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of this application. It is understood that the accompanying drawings are provided for reference and illustration only, and are not intended to limit this application. The connection relationships shown in the accompanying drawings are only for clear description and do not limit the connection method.

[0039] Specifically, such as Figures 1-4 As shown in the figure, this application provides a high formwork displacement monitoring device, which includes a signal monitoring device 100 and a monitoring reflection device 200. The signal monitoring device 100 sends a corresponding signal to the monitoring reflection device 200, and the monitoring reflection device 200 receives the transmitted signal and returns it to the signal monitoring device 100, thereby realizing the monitoring of the settlement displacement of the high formwork.

[0040] Specifically, the two devices mentioned above include:

[0041] The signal monitoring device 100 is vertically supported by the support member 300. The height of the support member 300 is fixed and measurable, thus determining the height of the signal monitoring device 100. The signal monitoring device 100 is equipped with a signal monitor 110, which includes a signal transmitter and a signal receiver. The signal transmitter transmits a monitoring signal to the monitoring reflection device 200. The monitoring reflection device 200 receives the monitoring signal and reflects it back to the signal receiver. The settlement height is determined by the position of the signal transmitted to the monitoring reflection device 200, which facilitates settlement measurement.

[0042] A monitoring box 120 is provided on the signal monitoring device 100. A receiving cavity 121 is provided inside the monitoring box 120. A rotating shaft 122 is arranged horizontally inside the receiving cavity 121. The rotating shaft 122 is located in the middle of the receiving cavity 121. A horizontal adjustment device 140 is provided at one end of the rotating shaft 122. In this embodiment, the horizontal adjustment device 140 is configured as a driving component, specifically a servo motor. The output end of the servo motor is rotatably connected to the rotating shaft 122, so that the servo motor drives the rotating shaft 122 to rotate.

[0043] A signal monitor 110 is mounted on the rotating shaft 122. The signal monitor 110 is horizontally adjusted by the horizontal adjustment device 140 to improve the monitoring effect of the signal monitor 110.

[0044] In the above, in order to facilitate the horizontal setting of the control signal monitor 110, a horizontal monitoring device 130 is provided on the monitoring box 120, and a moving groove 123 is horizontally provided on the monitoring box 120 corresponding to the position of the horizontal monitoring device 130, and the horizontal monitoring device 130 is located in the moving groove 123.

[0045] The horizontal monitoring device 130 includes a moving block 131, which is placed in a moving groove 123 and moves linearly within the moving groove 123 by the force of gravity.

[0046] A resistor 132 is provided at the bottom of the moving slot 123. The resistor 132 is a long strip structure and is linearly arranged along the bottom of the moving slot 123. The moving block 131 moves on the resistor 132, so that the moving block 131 and the resistor 132 are connected during the movement. The resistance value is adjusted according to the distance moved. To facilitate the formation of a circuit loop, a control unit is provided. The control unit is connected to the resistor 132 and the moving block 131 to form an electronic circuit. The current is adjusted by moving the moving block 131 on the resistor 132.

[0047] In the above structure, the weight of the moving block 131 itself is mainly applied by the tilt of the monitoring box 120. Specifically, in the existing high-modulus structure, a certain tilt phenomenon will occur due to the settlement of the foundation. The tilted monitoring box 120 causes the moving block 131 to tilt and move in the downward direction. During the movement, the resistance of the resistor 132 changes. Since the moving block 131 will continue to slide on the resistor 132 due to the tilt, in order to avoid the horizontal adjustment of the monitoring box 120, in this embodiment, the control unit monitors the current magnitude dynamically. When the moving block 131 starts to move and the current changes, the control unit dynamically adjusts the horizontal adjustment device 140 according to the current change, so that the horizontal adjustment device 140 rotates the rotating shaft 122. Since the signal monitor 110 is fixedly installed on the rotating shaft 122, the stable horizontal state of the signal monitor 110 can be adjusted in real time during rotation to avoid the signal monitor 110 tilting.

[0048] In the above, to facilitate the adjustment of the leveling device 140, the signal monitor 110 is in a horizontal state in the initial state. The horizontal state is determined by visual judgment using two mutually perpendicular bubble levels set on the signal monitor 110, so that the signal monitor 110 reaches a certain level of horizontality. At the same time, in the initial state, the moving block 131 on the monitoring box 120 is kept in the center position of the moving slot 123, and the resistor 132 at this position is initialized so that the resistance value changes when the moving block 131 moves can be easily monitored by the control unit.

[0049] In the above, the resistor 132 and the moving block 131 constitute a tilt sensor. The tilt sensor output signal drives the horizontal adjustment device 140 to adjust the signal monitor 110 horizontally via the control unit.

[0050] In the above structure, in order to facilitate the movement of the movable block 131 on the point resistor 132, a limiting member 133 is provided in the moving groove 123 along the moving direction of the movable block 131. The two ends of the limiting member 133 are fixed at the two ends of the moving groove 123. The movable block 131 is sleeved on the limiting member 133 and slides on the limiting member 133.

[0051] A through slot 124 is also provided on the monitoring box 120. The through slot 124 is vertically arranged on the monitoring box 120 and connects to the receiving cavity 121. The through slot 124 is set to correspond to the signal monitor 110 so that the signal monitor 110 can rotate around the rotation axis 122 in the through slot 124.

[0052] A first limiting part 125 is provided on both sides of the through groove 124, and a second limiting part 126 is provided on the signal monitor 110 corresponding to the first limiting part 125. The first limiting part 125 abuts against the second limiting part 126. The signal monitor 110 is limited by the first limiting part 125 and the second limiting part 126 to ensure that the signal monitor 110 will not deviate from the preset trajectory during rotation. In this embodiment, the first limiting part 125 and the second limiting part 126 are designed with an arc-shaped structure. A contact surface 127 is provided on the second limiting part 126 corresponding to the position of the first limiting part 125. The contact surface 127 is also designed with an arc-shaped structure. The center position of the arc structure of the contact surface 127 coincides with the center position of the arc structure of the first limiting part 125, so that the contact surface 127 can always contact the first limiting part 125 during the rotation of the signal monitor 110. This design not only increases the stability of the contact, but also ensures the stability of the signal monitor 110 during the rotation process and reduces the error caused by shaking.

[0053] In this application, since the signal monitor 110 rotates around the rotating shaft 122, in order to facilitate continuous contact and abutment between the first limiting part 125 and the second limiting part 126, the axis of the rotating shaft 122 passes through the common center of the first limiting part 125 and the second limiting part 126, so that the abutment surface 127 always fits against the first limiting part 125 when the signal monitor 110 rotates around the shaft.

[0054] In this embodiment of the application, the first limiting part 125 is a limiting plate, which is disposed on both sides of the through groove 124 and abuts against the through groove 124. The end of the limiting plate away from the through groove 124 is configured with an arc-shaped structure.

[0055] The second limiting part 126 is also configured as a limiting plate. The limiting plate has an overall arc structure and is set perpendicular to the position of the signal monitor 110.

[0056] Furthermore, to ensure the stability of the signal monitor 110 during rotation, the first limit part 125 and the second limit part 126 are both made of high-strength, wear-resistant materials, such as stainless steel or alloy steel, to improve their service life and durability.

[0057] In practical implementation, the configuration of the monitoring reflection device 200 is also crucial. In this embodiment, the monitoring reflection device 200 includes a support frame 210, a reflector plate 212, and a stabilizing component 220. A rotary bearing 211 is mounted on the support frame 210, and the reflector plate 212 is rotatably connected to the support frame 210 via the rotary bearing 211, allowing the reflector plate 212 to rotate flexibly to receive signals from the signal monitor 110 and reflect them back. Simultaneously, to ensure the stability of the reflector plate 212 when receiving signals, the stabilizing component 220 is positioned at the bottom of the reflector plate 212, keeping it vertical and preventing it from tilting or swaying due to external forces.

[0058] In the above structure, the stabilizing component 220 includes a counterweight 221 and a hydraulic damper 222. The counterweight 221 is sleeved on the bottom of the reflector 212 via a connecting rod 223. The two ends of the hydraulic damper 222 are connected to the reflector 212 and the support frame 210, respectively.

[0059] In the above, the hydraulic damper 222 is vertically arranged, with one end connected to the bottom of the reflector 212 and the other end connected to the rotary bearing 211 on the support frame 210.

[0060] In the above structure, a scale is provided on the reflector 212 along the vertical direction.

[0061] It is worth noting that the high formwork displacement monitoring device in this embodiment also has the advantages of convenient installation and simple operation. All components of the device can be assembled using simple bolt or snap-fit ​​connections, eliminating the need for complex installation and debugging processes and allowing for rapid deployment. Furthermore, the device's user interface is concise and clear; users can easily complete the monitoring of high formwork displacement by simply following the operating steps in the instruction manual.

[0062] In summary, the high formwork displacement monitoring device provided in this application embodiment has the ability to monitor the displacement of high formwork in real time, accurately and comprehensively. It is also easy to install, has good stability, and can significantly improve the safety and quality of building construction.

[0063] The above embodiments are only used to illustrate the technical methods of this utility model and are not intended to limit it. Although this utility model has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical methods of this utility model without departing from the spirit and scope of the technical methods of this utility model.

Claims

1. A high form displacement monitoring device, characterized by, The utility model relates to a signal monitoring device, the signal monitoring device is supported through the support, and the signal monitoring device is provided with the signal monitor, and the signal monitor is horizontally arranged through the signal monitoring device, and the signal monitor is arranged on the rotating shaft in the accommodating cavity of the monitoring box, and the signal monitor is arranged on the rotating shaft, and the signal monitor is rotated through the rotating shaft, and the horizontal monitoring device is arranged on the monitoring box, and the horizontal monitoring device monitors the inclination angle of the monitoring box, and the horizontal adjusting device is arranged on the monitoring box, and the horizontal adjusting device is connected with the rotating shaft, and the horizontal adjusting device adjusts the rotating shaft to drive the signal monitor to carry out the horizontal adjustment. The utility model relates to a signal monitoring device, the signal monitoring device is supported through the support, and the signal monitoring device is provided with the signal monitor, and the signal monitor is horizontally arranged through the signal monitoring device, and the signal monitor is arranged on the rotating shaft in the accommodating cavity of the monitoring box, and the signal monitor is arranged on the rotating shaft, and the signal monitor is rotated through the rotating shaft, and the horizontal monitoring device is arranged on the monitoring box, and the horizontal monitoring device monitors the inclination angle of the monitoring box, and the horizontal adjusting device is arranged on the monitoring box, and the horizontal adjusting device is connected with the rotating shaft, and the horizontal adjusting device adjusts the rotating shaft to drive the signal monitor to carry out the horizontal adjustment. The utility model relates to a signal monitoring device, the signal monitoring device is supported through the support, and the signal monitoring device is provided with the signal monitor, and the signal monitor is horizontally arranged through the signal monitoring device, and the signal monitor is arranged on the rotating shaft in the accommodating cavity of the monitoring box, and the signal monitor is arranged on the rotating shaft, and the signal monitor is rotated through the rotating shaft, and the horizontal monitoring device is arranged on the monitoring box, and the horizontal monitoring device monitors the inclination angle of the monitoring box, and the horizontal adjusting device is arranged on the monitoring box, and the horizontal adjusting device is connected with the rotating shaft, and the horizontal adjusting device adjusts the rotating shaft to drive the signal monitor to carry out the horizontal adjustment.

2. The high form displacement monitoring device of claim 1, wherein, The utility model relates to a signal monitoring device, the signal monitoring device is supported through the support, and the signal monitoring device is provided with the signal monitor, and the signal monitor is horizontally arranged through the signal monitoring device, and the signal monitor is arranged on the rotating shaft in the accommodating cavity of the monitoring box, and the signal monitor is arranged on the rotating shaft, and the signal monitor is rotated through the rotating shaft, and the horizontal monitoring device is arranged on the monitoring box, and the horizontal monitoring device monitors the inclination angle of the monitoring box, and the horizontal adjusting device is arranged on the monitoring box, and the horizontal adjusting device is connected with the rotating shaft, and the horizontal adjusting device adjusts the rotating shaft to drive the signal monitor to carry out the horizontal adjustment. The utility model relates to a signal monitoring device, the signal monitoring device is supported through the support, and the signal monitoring device is provided with the signal monitor, and the signal monitor is horizontally arranged through the signal monitoring device, and the signal monitor is arranged on the rotating shaft in the accommodating cavity of the monitoring box, and the signal monitor is arranged on the rotating shaft, and the signal monitor is rotated through the rotating shaft, and the horizontal monitoring device is arranged on the monitoring box, and the horizontal monitoring device monitors the inclination angle of the monitoring box, and the horizontal adjusting device is arranged on the monitoring box, and the horizontal adjusting device is connected with the rotating shaft, and the horizontal adjusting device adjusts the rotating shaft to drive the signal monitor to carry out the horizontal adjustment. The utility model relates to a signal monitoring device, the signal monitoring device is supported through the support, and the signal monitoring device is provided with the signal monitor, and the signal monitor is horizontally arranged through the signal monitoring device, and the signal monitor is arranged on the rotating shaft in the accommodating cavity of the monitoring box, and the signal monitor is arranged on the rotating shaft, and the signal monitor is rotated through the rotating shaft, and the horizontal monitoring device is arranged on the monitoring box, and the horizontal monitoring device monitors the inclination angle of the monitoring box, and the horizontal adjusting device is arranged on the monitoring box, and the horizontal adjusting device is connected with the rotating shaft, and the horizontal adjusting device adjusts the rotating shaft to drive the signal monitor to carry out the horizontal adjustment. The utility model relates to a signal monitoring device, the signal monitoring device is supported through the support, and the signal monitoring device is provided with the signal monitor, and the signal monitor is horizontally arranged through the signal monitoring device, and the signal monitor is arranged on the rotating shaft in the accommodating cavity of the monitoring box, and the signal monitor is arranged on the rotating shaft, and the signal monitor is rotated through the rotating shaft, and the horizontal monitoring device is arranged on the monitoring box, and the horizontal monitoring device monitors the inclination angle of the monitoring box, and the horizontal adjusting device is arranged on the monitoring box, and the horizontal adjusting device is connected with the rotating shaft, and the horizontal adjusting device adjusts the rotating shaft to drive the signal monitor to carry out the horizontal adjustment.

3. A high form displacement monitoring device according to claim 2, wherein, The utility model relates to a signal monitoring device, the signal monitoring device is supported through the support, and the signal monitoring device is provided with the signal monitor, and the signal monitor is horizontally arranged through the signal monitoring device, and the signal monitor is arranged on the rotating shaft in the accommodating cavity of the monitoring box, and the signal monitor is arranged on the rotating shaft, and the signal monitor is rotated through the rotating shaft, and the horizontal monitoring device is arranged on the monitoring box, and the horizontal monitoring device monitors the inclination angle of the monitoring box, and the horizontal adjusting device is arranged on the monitoring box, and the horizontal adjusting device is connected with the rotating shaft, and the horizontal adjusting device adjusts the rotating shaft to drive the signal monitor to carry out the horizontal adjustment. The utility model relates to a signal monitoring device, the signal monitoring device is supported through the support, and the signal monitoring device is provided with the signal monitor, and the signal monitor is horizontally arranged through the signal monitoring device, and the signal monitor is arranged on the rotating shaft in the accommodating cavity of the monitoring box, and the signal monitor is arranged on the rotating shaft, and the signal monitor is rotated through the rotating shaft, and the horizontal monitoring device is arranged on the monitoring box, and the horizontal monitoring device monitors the inclination angle of the monitoring box, and the horizontal adjusting device is arranged on the monitoring box, and the horizontal adjusting device is connected with the rotating shaft, and the horizontal adjusting device adjusts the rotating shaft to drive the signal monitor to carry out the horizontal adjustment. The utility model relates to a signal monitoring device, the signal monitoring device is supported through the support, and the signal monitoring device is provided with the signal monitor, and the signal monitor is horizontally arranged through the signal monitoring device, and the signal monitor is arranged on the rotating shaft in the accommodating cavity of the monitoring box, and the signal monitor is arranged on the rotating shaft, and the signal monitor is rotated through the rotating shaft, and the horizontal monitoring device is arranged on the monitoring box, and the horizontal monitoring device monitors the inclination angle of the monitoring box, and the horizontal adjusting device is arranged on the monitoring box, and the horizontal adjusting device is connected with the rotating shaft, and the horizontal adjusting device adjusts the rotating shaft to drive the signal monitor to carry out the horizontal adjustment.

4. The high form displacement monitoring device of claim 3, wherein, The utility model relates to a signal monitoring device, the signal monitoring device is supported through the support, and the signal monitoring device is provided with the signal monitor, and the signal monitor is horizontally arranged through the signal monitoring device, and the signal monitor is arranged on the rotating shaft in the accommodating cavity of the monitoring box, and the signal monitor is arranged on the rotating shaft, and the signal monitor is rotated through the rotating shaft, and the horizontal monitoring device is arranged on the monitoring box, and the horizontal monitoring device monitors the inclination angle of the monitoring box, and the horizontal adjusting device is arranged on the monitoring box, and the horizontal adjusting device is connected with the rotating shaft, and the horizontal adjusting device adjusts the rotating shaft to drive the signal monitor to carry out the horizontal adjustment. The utility model relates to a signal monitoring device, the signal monitoring device is supported through the support, and the signal monitoring device is provided with the signal monitor, and the signal monitor is horizontally arranged through the signal monitoring device, and the signal monitor is arranged on the rotating shaft in the accommodating cavity of the monitoring box, and the signal monitor is arranged on the rotating shaft, and the signal monitor is rotated through the rotating shaft, and the horizontal monitoring device is arranged on the monitoring box, and the horizontal monitoring device monitors the inclination angle of the monitoring box, and the horizontal adjusting device is arranged on the monitoring box, and the horizontal adjusting device is connected with the rotating shaft, and the horizontal adjusting device adjusts the rotating shaft to drive the signal monitor to carry out the horizontal adjustment.

5. A high form displacement monitoring device according to claim 4, wherein, The utility model relates to a signal monitoring device, the signal monitoring device is supported through the support, and the signal monitoring device is provided with the signal monitor, and the signal monitor is horizontally arranged through the signal monitoring device, and the signal monitor is arranged on the rotating shaft in the accommodating cavity of the monitoring box, and the signal monitor is arranged on the rotating shaft, and the signal monitor is rotated through the rotating shaft, and the horizontal monitoring device is arranged on the monitoring box, and the horizontal monitoring device monitors the inclination angle of the monitoring box, and the horizontal adjusting device is arranged on the monitoring box, and the horizontal adjusting device is connected with the rotating shaft, and the horizontal adjusting device adjusts the rotating shaft to drive the signal monitor to carry out the horizontal adjustment.

6. The high form displacement monitoring device of claim 2, wherein, The utility model relates to a signal 7. A high form displacement monitoring device according to claim 6, wherein, ​ ​ 8. The high form displacement monitoring device of claim 1, wherein, ​ A support frame is provided with a reflecting plate, a rotating bearing is arranged on the support frame, the reflecting plate is rotationally connected with the support frame through the rotating bearing, the reflecting plate receives a signal of the signal monitor and returns the signal to the signal monitor; A stabilizing assembly is arranged at a bottom position of the reflecting plate, and the stabilizing assembly drives the reflecting plate to be vertically arranged.

9. A high form displacement monitoring device according to claim 8, wherein, The stabilizing assembly comprises a counterweight and a hydraulic damper, the counterweight is sleeved on the bottom of the reflecting plate through a connecting rod, and two ends of the hydraulic damper are connected with the reflecting plate and the support frame respectively.

10. The high form displacement monitoring device of claim 2, wherein, The horizontal adjusting device is provided with a driving member, an output end of the driving member is connected with the rotating shaft, and the driving member drives the rotating shaft to rotate the signal monitor.

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