Boundary tablet top mechanism suitable for Internet of Things engineering monitoring

Abstract

The utility model discloses a boundary tablet top mechanism suitable for Internet of Things engineering monitoring, which comprises a boundary tablet top cover, a connecting frame, a sensor upper box and a sensor lower box, the four side wall surfaces of the boundary tablet top cover are respectively provided with boundary tablet cover connecting holes to be fixedly connected with a boundary tablet, the upper end of the connecting frame is connected with the boundary tablet top cover, and the lower end of the connecting frame is connected with the sensor lower box. The lower end of the connecting frame is connected with the sensor upper box, and the sensor lower box is inserted into the sensor upper box; wherein various sensors are arranged in the sensor upper box and the sensor lower box. The device has the advantages that an original boundary tablet top cover can be flexibly replaced or the device can be directly installed on the top of an existing boundary tablet, installation is easy and convenient, labor and material cost is reduced, and meanwhile the complexity of equipment maintenance is lowered; modularized design is adopted, expansion and upgrading of the system in the later period are facilitated, flexible adjustment can be carried out if sensors need to be replaced or monitoring points need to be added in the future, and it is ensured that the system adapts to technology development and demand changes for a long time.

Description

TECHNICAL FIELD

[0001] The utility model relates to engineering intelligent device technical field, concretely relates to a boundary monument top mechanism suitable for internet of things engineering monitoring. BACKGROUND

[0002] Boundary monuments are usually used to mark boundary positions and indicate the direction of underground pipelines, and are exposed to the outdoors all year round and are mostly located in remote areas. Due to changes in the natural environment and interference from surrounding construction activities, boundary monuments are easily damaged, resulting in the loss of their original marking function. However, due to the wide distribution of boundary monuments and the fact that most of them are located in areas that are difficult for human supervision to cover, traditional manual patrol methods cannot achieve comprehensive and timely monitoring. Therefore, effective management of the status of boundary monuments has always been a difficult problem. Once a boundary monument is damaged or fails and is not discovered in a timely manner, its indication will be reduced, and it may even cause subsequent construction personnel to be unable to accurately determine the location of underground pipelines and underground tunnels, thereby causing damage and triggering a series of chain reactions, resulting in unnecessary economic losses and safety hazards. Therefore, timely and accurate monitoring of the status of boundary monuments, especially in remote and remote areas, is a key problem that needs to be solved.

[0003] To solve this dilemma, an internet of things automated safety monitoring system can be used, which can issue an alarm in a timely manner when the boundary monument experiences abnormal changes by monitoring multiple parameters such as inclination and vibration of the boundary monument. This automated solution not only improves the efficiency of monitoring, but also reduces the pressure and cost of manual patrol. However, although the introduction of automated sensor technology can significantly improve the monitoring effect of boundary monuments, if the traditional boundary monuments are to be replaced on a large scale and intelligent sensors are to be integrated, a large amount of manpower and resources will be required. Therefore, in practical applications, how to efficiently deploy and uniformly supervise these boundary monuments equipped with automated sensors is still a problem that needs to be further studied. SUMMARY

[0004] The utility model aims at according to the deficiency of above -mentioned prior art, provide a kind of boundary monument top mechanism suitable for internet of things engineering monitoring, the boundary monument top mechanism is realized with the fixed connection of boundary monument by boundary monument connecting hole, by the form of mutual insertion of sensor upper box and sensor lower box is realized stable connection, to realize the setting sensor of big space and expandable.

[0005] The utility model realizes the following technical scheme:

[0006] A monument top mechanism suitable for Internet of Things engineering monitoring, characterized in that the monument top mechanism comprises a monument top cover, a connecting frame, a sensor upper box and a sensor lower box, four side wall surfaces of the monument top cover are respectively provided with monument cover connecting holes for fixed connection with a monument, an upper end of the connecting frame is connected with the monument top cover, a lower end of the connecting frame is connected with the sensor upper box, and the sensor lower box is inserted into the sensor upper box; wherein various sensors are arranged in the sensor upper box and the sensor lower box.

[0007] A top surface of the monument top cover is provided with a solar panel connected with and supplying power to each sensor.

[0008] A bottom surface and one end surface of the sensor upper box are in an open state, upper box connecting grooves are formed in the two side inner wall surfaces of the sensor upper box, a top surface and one end surface of the sensor lower box are in an open state, lower box connecting grooves are respectively formed in the two side outer wall surfaces of the sensor lower box, and the sensor lower box is inserted and matched with the upper box connecting grooves of the sensor upper box through the lower box connecting grooves on the two sides.

[0009] The height of the two side wall surfaces of the sensor lower box is 1 / 2 of the sensor upper box.

[0010] An upper box expansion connecting hole is arranged at an end plate of the sensor upper box, and a lower box expansion connecting hole is arranged at an end plate of the sensor lower box.

[0011] The monument top mechanism is inserted into a groove at the top of the monument, and fixed bolts are arranged between the top of the monument and the monument cover connecting holes to realize fixed connection.

[0012] The advantages of the utility model are:

[0013] (1) The intelligent sensors are used to realize automatic monitoring of the state of the monument in a large range, can capture the dynamic changes of the monument in real time, improve the monitoring accuracy and response speed, and ensure that the state of the monument is effectively managed.

[0014] (2) The monitoring system can transmit data to a remote platform in real time, and the management personnel can check the state of the monument at any time through a mobile phone or a computer, and make a timely response, thereby improving the convenience and management efficiency of monitoring.

[0015] (3) The original monument top cover can be replaced flexibly or directly installed on the top of the existing monument, which is simple to install, reduces the labor and material costs, and also reduces the complexity of equipment maintenance.

[0016] (4) The system combines an environmentally friendly and low-energy power supply mode such as a solar panel, does not need to frequently replace batteries, ensures long-term stable operation of the system, and reduces maintenance and operation costs.

[0017] (5) The modular design facilitates the expansion and upgrading of the system in the future. If it is necessary to replace the sensor or add monitoring points in the future, it can be flexibly adjusted to ensure that the system can adapt to technological development and changes in demand in the long term. Attached Figure Description

[0018] Figure 1 This is an exploded view of the boundary marker top mechanism in this utility model;

[0019] Figure 2 This is a three-dimensional perspective view of the boundary marker top mechanism in this utility model;

[0020] Figure 3 This is a schematic diagram of the installation of the boundary marker top mechanism on the boundary marker in this utility model. Detailed Implementation

[0021] The features and other related features of this utility model will be further described in detail below with reference to the accompanying drawings and embodiments, so as to facilitate the understanding of those skilled in the art:

[0022] like Figures 1-3 As shown in the figure, markings 1-12 represent: 1. Boundary marker top cover; 2. Solar panel; 3. Boundary marker cover connecting hole; 4. Connecting frame; 5. Upper sensor box; 6. Lower sensor box; 7. Upper box connecting slot; 8. Upper box expansion connecting hole; 9. Lower box connecting slot; 10. Boundary marker; 11. Fixing bolt; 12.

[0023] Example: Figure 1 , 2 As shown in Figure 3, this embodiment specifically relates to a boundary marker top mechanism suitable for IoT engineering monitoring, including a boundary marker top cover 1, a connecting frame 4, a sensor upper box 5, and a sensor lower box 6. The boundary marker top cover 1 has boundary marker cover connecting holes 3 on its four side walls to be fixedly connected to the boundary marker 11. The upper end of the connecting frame 4 is connected to the boundary marker top cover 1, and the lower end of the connecting frame 4 is connected to the sensor upper box 5. The sensor lower box 6 is inserted into the sensor upper box 5. Various sensors are provided in both the sensor upper box 5 and the sensor lower box 6.

[0024] like Figure 1 , 2 As shown, a solar panel 2 is installed on the top surface of the boundary marker cover 1. The solar panel 2 is used to power the sensors, and its size and power are matched according to the requirements of the selected sensors. As a power supply device, the solar panel 2 can provide continuous and stable power support for the sensors and monitoring system in outdoor environments. With solar power, the system can achieve long-term automatic operation, avoiding the hassle of frequent battery replacements, reducing maintenance costs, and meeting the requirements of green environmental protection.

[0025] like Figure 1 , 2As shown in Figure 3, the top mechanism of the boundary marker is inserted into the groove on the top of the boundary marker 11, and a fixed connection is achieved by setting a fixing bolt 12 between the top of the boundary marker 11 and the connection hole 3 of the boundary marker cover. The size and shape of the boundary marker top cover are adapted to different types of boundary markers 11, so that they can be easily installed and replaced.

[0026] like Figure 1 , 2 As shown, a connecting bracket 4 is connected to the lower end of the boundary marker top cover 1, and the connecting bracket 4 is connected to the upper sensor box 5. The upper sensor box 5 is designed with an upper box connecting slot device 7 that connects to the lower sensor box 6, and an upper box expansion connecting hole 8 for fixing the sensor. The upper box expansion connecting hole 8 can provide one or more interfaces to adapt to various sensor models according to different sensor installation requirements. The lower sensor box 6 has a lower box connecting slot device 9 that connects to the upper sensor box 5, and a lower box expansion connecting hole 10 for fixing the sensor. The upper box connecting slot 7 and the lower box connecting slot 9 are interlocked to firmly connect the upper sensor box 5 and the lower sensor box 6 together, thereby fixing and protecting the sensor. The expansion connecting hole design of the upper sensor box 5 and the lower sensor box 6 allows for the installation of various models and types of sensors, with strong adaptability and flexibility to meet different monitoring needs. Through the expansion connecting hole, users can select the appropriate sensor according to the actual situation and easily install and replace it. It should be noted that the bottom and one end of the upper sensor box 5 are open, and the top and one end of the lower sensor box 6 are open. The height of the two side walls of the lower sensor box 6 is 1 / 2 of that of the upper sensor box 5.

[0027] like Figure 1 , 2 As shown, various sensors are installed in both the upper sensor box 5 and the lower sensor box 6. Equipped with tilt sensors, vibration sensors, and other sensors, multiple parameters such as the tilt and vibration of the boundary marker can be collected in real time. The sensors accurately monitor changes in the boundary marker's state, ensuring that abnormal signals are promptly detected when the boundary marker is affected by external factors and processed through system analysis. This timely feedback mechanism effectively avoids safety hazards caused by boundary marker failure or damage, ensuring that construction or management personnel can respond immediately and preventing the risk of prolonged periods of oblivion.

[0028] The advantages of this embodiment are:

[0029] (1) By using intelligent sensors, the status of boundary markers can be automatically monitored over a wide area. This can capture the dynamic changes of boundary markers in real time, improve the monitoring accuracy and response speed, and ensure that the status of boundary markers is effectively managed.

[0030] (2) The monitoring system can transmit data to the remote platform in real time, and the management personnel can check the status of the monument at any time through mobile phones or computers, and respond in time, improving the convenience and management efficiency of monitoring.

[0031] (3) The original monument top cover can be replaced flexibly or directly installed on the top of the existing monument, which is easy to install, reduces labor and material costs, and also reduces the complexity of equipment maintenance.

[0032] (4) The system combines with solar panels and other environmentally friendly and low-energy power supply methods, which do not need to replace batteries frequently, ensuring the long-term stable operation of the system, reducing maintenance and operation costs.

[0033] (5) Modular design is adopted, which is convenient for the expansion and upgrading of the system in the later stage. In the future, if the sensor needs to be replaced or the monitoring point needs to be increased, it can be adjusted flexibly to ensure that the system can adapt to the development of technology and changes in demand for a long time.

Claims

1. A monument top mechanism suitable for use in Internet of Things engineering monitoring, characterized by The top mechanism of the monument comprises a monument top cover, a connecting frame, an upper sensor box and a lower sensor box, four side walls of the monument top cover are respectively provided with a monument cover connecting hole for fixed connection with the monument, the upper end of the connecting frame is connected with the monument top cover, the lower end of the connecting frame is connected with the upper sensor box, and the lower sensor box is inserted into the upper sensor box; wherein various sensors are arranged in the upper sensor box and the lower sensor box.

2. The monument top mechanism suitable for IoT engineering monitoring according to claim 1, characterized in that The top surface of the monument top cover is provided with a solar panel, the solar panel is connected with and supplies power to each sensor.

3. The monument top mechanism suitable for IoT engineering monitoring according to claim 1, characterized in that The bottom surface and one end surface of the upper sensor box are in an open state, upper box connecting grooves are formed in the two side inner wall surfaces of the upper sensor box, the top surface and one end surface of the lower sensor box are in an open state, lower box connecting grooves are respectively formed in the two side outer wall surfaces of the lower sensor box, and the lower sensor box is inserted and matched with the upper box connecting grooves of the upper sensor box through the lower box connecting grooves on the two sides.

4. The monument top mechanism suitable for engineering monitoring of the Internet of Things according to claim 3, characterized in that The height of the two side wall surfaces of the lower sensor box is 1 / 2 of the height of the upper sensor box.

5. The monument top mechanism suitable for use in an Internet of Things engineering monitoring according to claim 4, characterized in that An upper box expansion connecting hole is arranged at the end plate of the upper sensor box, and a lower box expansion connecting hole is arranged at the end plate of the lower sensor box.

6. The monument top mechanism suitable for IoT engineering monitoring according to claim 1, characterized in that The top mechanism of the monument is inserted into the groove at the top of the monument, and fixed connection is realized by arranging a fixing bolt between the top of the monument and the monument cover connecting hole.

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