Intelligent slope monitoring device based on GPS

Abstract

The utility model discloses a side slope intelligent monitoring device based on a GPS, and relates to the technical field of side slope monitoring. Comprising a side slope monitoring mechanism, the side slope monitoring mechanism comprises a land base layer, one side of the land base layer is connected with a side slope slope, the surface of the land base layer is provided with an intelligent monitoring assembly, the top of the land base layer is provided with a base layer monitoring assembly, and the surface of the side slope slope is provided with a side slope monitoring assembly. The number of the side slope monitoring assemblies is multiple. According to the utility model, on-line monitoring can be carried out on the side slope, accurate on-line monitoring on inclination and settlement conditions of the side slope is facilitated, the accuracy of real-time monitoring on the side slope condition is improved, on-line monitoring can be carried out on the side slope environment, on-line monitoring on the environment nearby the side slope is facilitated, and the monitoring effect on the temperature, the humidity and the rainfall of the environment is improved. And therefore, subsequent corresponding protection operation on the side slope is facilitated.

Description

Technical Field

[0001] The utility model relates to the technical field of slope monitoring, in particular to a slope intelligent monitoring device based on GPS. Background Art

[0002] Slope refers to the slope with a certain slope on both sides of the roadbed to ensure the stability of the roadbed. 1. Classification by cause: It can be divided into artificial slope and natural slope; 2. Classification by stratum lithology: It can be divided into soil slope and rock slope. a: According to the rock structure, it can be divided into: 1 layered structure slope, 2 block structure slope, 3 mesh structure slope; b: According to the relationship between the rock layer inclination and the slope direction, it can be divided into: 1 forward slope, 2 reverse slope, 3 vertical slope. 3. Classification by service life: It can be divided into permanent slope and temporary slope.

[0003] At present, the Chinese patent with the announcement number CN201120150931.1 discloses a slope monitoring device. The utility model is a slope monitoring device, which is very practical for monitoring high and steep slopes, and can not only improve work efficiency but also ensure measurement accuracy. The direction of the aiming device is adjusted by adjusting the screw-in length of the screw, and the aiming device is provided with an L-shaped protective piece to prevent damage to the prism.

[0004] Existing dangerous slopes require corresponding monitoring and protection in life. In the above-mentioned comparative documents, the direction of the aiming device can be adjusted by adjusting the screw-in length of the screw. However, when the above-mentioned device is in use, it is not convenient to accurately monitor the settlement of the slope, and it is not conducive to accurately locating the amplitude and position of the slope settlement, thereby affecting the effect of slope monitoring. In addition, the above-mentioned device is not convenient for monitoring the slope environment, and is not conducive to online monitoring of rainfall and temperature and humidity near the slope, which affects the effect of subsequent monitoring and protection of the slope. Therefore, we need to provide a GPS-based slope intelligent monitoring device. Summary of the invention

[0005] The utility model provides a GPS-based intelligent slope monitoring device, which has the advantages of being able to improve the accuracy of slope settlement monitoring and being able to improve the slope monitoring effect, thereby solving the problems raised in the above-mentioned background technology.

[0006] To achieve the above objectives, the utility model is implemented through the following technical solutions: a GPS-based intelligent slope monitoring device, comprising: a slope monitoring mechanism, the slope monitoring mechanism comprising a land base, one side of the land base is connected to a slope incline, the surface of the land base is provided with an intelligent monitoring component, the top of the land base is installed with a base monitoring component, the surface of the slope incline is installed with a slope monitoring component, and the number of slope monitoring components is multiple, the surface of the slope incline is installed with a temperature and humidity monitoring component, and the surface of the slope incline is installed with a rainfall monitoring component.

[0007] The advantages of the utility model are that the GPS-based intelligent slope monitoring device can perform online monitoring of the slope through the setting of the slope monitoring mechanism, the land base, the slope incline, the intelligent monitoring component, the base monitoring component, the slope monitoring component, the temperature and humidity monitoring component, the rainfall monitoring component and the Beidou GPS satellite, which is conducive to accurately performing online monitoring of the inclination and settlement of the slope, and improving the accuracy of real-time monitoring of the slope condition. At the same time, it can also perform online monitoring of the slope environment, which is conducive to online monitoring of the environment near the slope, and improves the effect of environmental temperature, humidity and rainfall monitoring, thereby facilitating subsequent corresponding protection operations on the slope. BRIEF DESCRIPTION OF THE DRAWINGS

[0008] Figure 1 It is a three-dimensional structural schematic diagram of the utility model;

[0009] Figure 2 It is a side view of the three-dimensional structure of the utility model;

[0010] Figure 3 It is a three-dimensional diagram of the first partial structure of the utility model;

[0011] Figure 4 It is a third partial structural perspective view of the second embodiment of the present invention;

[0012] Figure 5 It is a three-dimensional diagram of the third partial structure of the utility model;

[0013] Figure 6 It is a third perspective view of the fourth partial structure of the utility model;

[0014] Figure 7 It is a third perspective view of the fifth partial structure of the utility model.

[0015] Description of labels:

[0016] 1. Slope monitoring mechanism; 101. Land base; 102. Slope incline; 103. Intelligent monitoring component; 10301. Mounting seat; 10302. Intelligent monitoring host; 10303. Dust cover; 10304. Moving wheel; 10305. Locking piece; 10306. Moving push rod; 104. Base monitoring component; 10401. Base support rod; 10402. Base insertion rod; 10403. Base online monitoring host; 10404. Base signal transmitter and receiver; 10405. First photovoltaic panel; 10406. Base monitoring camera; 105. Slope monitoring component; 10501. Slope Support rod; 10502, slope installation rod; 10503, slope online monitoring host; 10504, slope signal transmitter and receiver; 10505, second photovoltaic panel; 10506, slope monitoring camera; 106, temperature and humidity monitoring component; 10601, first support column; 10602, first plug-in cone; 10603, temperature and humidity monitor; 10604, temperature and humidity signal transmitter and receiver; 107, rainfall monitoring component; 10701, second support column; 10702, second plug-in cone; 10703, rainfall monitor; 10704, rainfall signal transmitter and receiver; 108, Beidou GPS satellite. DETAILED DESCRIPTION

[0017] The following will be combined with the drawings in the practical embodiment to clearly and completely describe the technical solution in the practical embodiment. Obviously, the described embodiment is only a part of the embodiment of the practical embodiment, not all of the embodiments. Based on the embodiment in the practical embodiment, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of this practical embodiment.

[0018] like Figure 1-7As shown: a GPS-based intelligent slope monitoring device includes a slope monitoring mechanism 1, the slope monitoring mechanism 1 includes a land base 101, one side of the land base 101 is connected to a slope inclined surface 102, the surface of the land base 101 is provided with an intelligent monitoring component 103, the top of the land base 101 is installed with a base monitoring component 104, the surface of the slope inclined surface 102 is installed with a slope monitoring component 105, and the number of the slope monitoring components 105 is multiple, the surface of the slope inclined surface 102 is installed with a temperature and humidity monitoring component 106, the surface of the slope inclined surface 102 is installed with a rainfall monitoring component 107, through the slope monitoring The arrangement of the measuring mechanism 1, the land base 101, the slope inclined surface 102, the intelligent monitoring component 103, the base monitoring component 104, the slope monitoring component 105, the temperature and humidity monitoring component 106, the rainfall monitoring component 107 and the Beidou GPS satellite 108 can perform online monitoring of the slope, which is conducive to accurately performing online monitoring of the inclination and settlement of the slope, and improving the accuracy of real-time monitoring of the slope condition. At the same time, it can also perform online monitoring of the slope environment, which is conducive to online monitoring of the environment near the slope, and improves the effect of environmental temperature, humidity and rainfall monitoring, thereby facilitating subsequent corresponding protection operations on the slope.

[0019] like Figure 3 As shown: the intelligent monitoring component 103 includes a mounting seat 10301, an intelligent monitoring host 10302, a dust cover 10303, a moving wheel 10304, a locking plate 10305 and a moving push rod 10306, the mounting seat 10301 is set on the soil base 101, the intelligent monitoring host 10302 is installed on the mounting seat 10301, the dust cover 10303 is rotatably installed on the top of the intelligent monitoring host 10302, and the intelligent monitoring host 10302 is used in conjunction with the Beidou GPS satellite 108, the moving wheels 10304 are fixedly installed at the four corners of the bottom of the mounting seat 10301, the locking plate 10305 is installed on the moving wheel 10304, and the moving push rod 10306 is fixedly connected to one side of the mounting base 10301. Through the setting of the mounting base 10301 and the intelligent monitoring host 10302, the data information of the online monitoring of the Beidou GPS satellite 108 can be received and transmitted, which is beneficial to the record management of various data of the online monitoring of the slope, and improves the effect of the monitoring personnel on the slope data management. Through the setting of the dust cover 10303, the intelligent monitoring host 10302 can be dust-proofed. Through the setting of the moving wheel 10304, the locking plate 10305 and the moving push rod 10306, the monitoring personnel can move and adjust the intelligent monitoring host 10302, thereby improving the convenience of using the device.

[0020] like Figure 4As shown: the grassroots monitoring component 104 includes a grassroots support rod 10401, a grassroots installation rod 10402, a grassroots online monitoring host 10403, a grassroots signal receiver 10404, a first photovoltaic panel 10405 and a grassroots monitoring camera 10406, the grassroots support rod 10401 is set on the land base 101, the grassroots installation rod 10402 is fixedly installed at the bottom end of the grassroots support rod 10401, and the bottom end of the grassroots installation rod 10402 is installed on the land base 101, the grassroots online monitoring host 10403 is installed on the grassroots support rod 10401, the grassroots signal receiver 10404 is installed on the top of the grassroots support rod 10401, and the grassroots signal receiver 10 404 is used in conjunction with the Beidou GPS satellite 108, the first photovoltaic panel 10405 is fixedly mounted on the base support pole 10401, and the base monitoring camera 10406 ​​is mounted on the base support pole 10401. Through the arrangement of the base support pole 10401 and the base installation pole 10402, the base monitoring equipment can be conveniently installed and used. Through the arrangement of the base online monitoring host 10403, the base signal transmitter and receiver 10404, the first photovoltaic panel 10405 and the base monitoring camera 10406, the base slope can be conveniently monitored online, and the base monitoring information can be transmitted to the Beidou GPS satellite 108 in real time, thereby improving the effect of base online monitoring.

[0021] like Figure 7 As shown in the figure, the slope monitoring component 105 includes a slope support rod 10501, a slope insertion rod 10502, a slope online monitoring host 10503, a slope signal transceiver 10504, a second photovoltaic panel 10505 and a slope monitoring camera 10506. The slope support rod 10501 is arranged on the slope inclined surface 102, the slope insertion rod 10502 is fixedly installed at the bottom end of the slope support rod 10501, and the bottom end of the slope insertion rod 10502 is installed on the slope inclined surface 102, the slope online monitoring host 10503 is installed on the slope support rod 10501, the slope signal transceiver 10504 is installed at the top of the slope support rod 10501, and the slope signal transceiver 105 04 is used in conjunction with Beidou GPS satellite 108, the second photovoltaic panel 10505 is fixedly installed on the slope support rod 10501, and the slope monitoring camera 10506 is installed on the slope support rod 10501. Through the setting of the slope support rod 10501 and the slope insertion rod 10502, the slope monitoring equipment can be easily installed and used. Through the setting of the slope online monitoring host 10503, the slope signal transmitter and receiver 10504, the second photovoltaic panel 10505 and the slope monitoring camera 10506, the slope can be monitored in real time, which is beneficial to the online monitoring of the slope settlement and inclination amplitude data, and the slope monitoring data can be transmitted to Beidou GPS satellite 108 in real time.

[0022] like Figure 5 As shown: the temperature and humidity monitoring component 106 includes a first support column 10601, a first plug cone 10602, a temperature and humidity monitor 10603 and a temperature and humidity signal transceiver 10604, the first support column 10601 is arranged on the slope surface 102, the first plug cone 10602 is fixedly connected to the bottom end of the first support column 10601, and the bottom end of the first plug cone 10602 is installed on the slope surface 102, the temperature and humidity monitor 10603 is installed on the first support column 10601, and the temperature and humidity signal transceiver 10604 is installed on the first The top of the support column 10601, and the temperature and humidity signal transmitter 10604 are used in conjunction with the Beidou GPS satellite 108. Through the setting of the first support column 10601 and the first plug-in cone 10602, the temperature and humidity monitoring equipment can be easily installed and used. Through the setting of the temperature and humidity monitor 10603 and the temperature and humidity signal transmitter 10604, the temperature and humidity of the slope environment can be easily monitored online, which is beneficial to real-time monitoring of the temperature and humidity of the slope environment air, and the temperature and humidity monitoring data can be transmitted to the Beidou GPS satellite 108.

[0023] like Figure 6 As shown: the rainfall monitoring component 107 includes a second support 10701, a second plug cone 10702, a rainfall monitor 10703 and a rainfall signal transceiver 10704, the second support 10701 is arranged on the slope surface 102, the second plug cone 10702 is fixedly connected to the bottom end of the second support 10701, and the bottom end of the second plug cone 10702 is installed on the slope surface 102, the rainfall monitor 10703 is installed on the second support 10701, and the rainfall signal transceiver 10704 is installed. It is installed on the top of the second support 10701, and the rainfall signal transmitter 10704 is used in conjunction with the Beidou GPS satellite 108. Through the arrangement of the second support 10701 and the second plug-in cone 10702, the rainfall monitoring equipment can be easily installed and used. Through the arrangement of the rainfall monitor 10703 and the rainfall signal transmitter 10704, the rainfall in the slope environment can be monitored online, which is beneficial to real-time monitoring of the slope rainfall data, and the rainfall data is transmitted to the Beidou GPS satellite 108.

[0024] When in use, the monitoring personnel first install the base monitoring component 104 to the corresponding position on the surface of the land base 101, and then use the base monitoring component 104 to monitor the settlement of the base of the land base 101 and the edge of the slope online, and transmit the data monitored by the base monitoring component 104 to the Beidou GPS satellite 108 in real time. Then, multiple slope monitoring components 105 are inserted into the positions corresponding to the surface of the slope inclined surface 102, so as to monitor the settlement of the bottom, middle and top layers of the slope online, and transmit the settlement data to the Beidou GPS satellite 108 in real time, and then the corresponding temperature monitoring components 105 are installed. The humidity monitoring component 106 and the rainfall monitoring component 107 are inserted into the corresponding positions of the slope inclined surface 102, so as to perform online monitoring of the temperature, humidity and rainfall of the slope environment, and transmit the temperature, humidity and rainfall monitoring data to the Beidou GPS satellite 108. Then the monitoring personnel move the intelligent monitoring component 103 to the operating position, turn the dust cover 10303 to open, and then start the intelligent monitoring host 10302 to connect with the Beidou GPS satellite 108 for wireless signal correspondence, and receive and analyze the online monitoring data, so that the monitoring personnel can take corresponding protective measures for the slope according to the online monitoring data.

[0025] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes within the technical scope disclosed by the present invention according to the technical scheme and the utility model concept of the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A GPS-based intelligent slope monitoring device, characterized in that: include: A slope monitoring mechanism (1), the slope monitoring mechanism (1) comprising a land base (101), one side of the land base (101) being connected to a slope inclined surface (102), an intelligent monitoring component (103) being arranged on the surface of the land base (101), a base monitoring component (104) being installed on the top of the land base (101), a slope monitoring component (105) being installed on the surface of the slope inclined surface (102), and a plurality of slope monitoring components (105) being installed, a temperature and humidity monitoring component (106) being installed on the surface of the slope inclined surface (102), and a rainfall monitoring component (107) being installed on the surface of the slope inclined surface (102).

2. The GPS-based intelligent slope monitoring device according to claim 1, characterized in that: The intelligent monitoring component (103) comprises a mounting seat (10301), an intelligent monitoring host (10302), a dust cover (10303), a moving wheel (10304), a vehicle locking plate (10305) and a moving push rod (10306); the mounting seat (10301) is arranged on a soil base layer (101); the intelligent monitoring host (10302) is mounted on the mounting seat (10301); the dust cover (10303) is rotatably mounted on the top of the intelligent monitoring host (10302); the intelligent monitoring host (10302) is used in conjunction with a Beidou GPS satellite (108); the moving wheels (10304) are fixedly mounted on the four corners of the bottom of the mounting seat (10301); the vehicle locking plate (10305) is mounted on the moving wheels (10304); and the moving push rod (10306) is fixedly connected to one side of the mounting seat (10301).

3. The GPS-based intelligent slope monitoring device according to claim 1, characterized in that: The base monitoring assembly (104) comprises a base support rod (10401), a base insertion rod (10402), a base online monitoring host (10403), a base signal transmitter (10404), a first photovoltaic panel (10405) and a base monitoring camera (10406); the base support rod (10401) is arranged on the soil base (101), the base insertion rod (10402) is fixedly installed at the bottom end of the base support rod (10401), and the bottom end of the base insertion rod (10402) is installed On the land base (101), the base online monitoring host (10403) is installed on the base support pole (10401), the base signal transceiver (10404) is installed on the top of the base support pole (10401), and the base signal transceiver (10404) is used in conjunction with the Beidou GPS satellite (108), the first photovoltaic panel (10405) is fixedly installed on the base support pole (10401), and the base monitoring camera (10406) is installed on the base support pole (10401).

4. The GPS-based intelligent slope monitoring device according to claim 1, characterized in that: The slope monitoring assembly (105) comprises a slope support rod (10501), a slope insertion rod (10502), a slope online monitoring host (10503), a slope signal transmitter (10504), a second photovoltaic panel (10505) and a slope monitoring camera (10506); the slope support rod (10501) is arranged on the slope inclined surface (102), the slope insertion rod (10502) is fixedly installed at the bottom end of the slope support rod (10501), and the bottom end of the slope insertion rod (10502) is installed On the slope surface (102), the slope online monitoring host (10503) is installed on the slope support rod (10501), the slope signal transceiver (10504) is installed on the top of the slope support rod (10501), and the slope signal transceiver (10504) is used in conjunction with the Beidou GPS satellite (108), the second photovoltaic panel (10505) is fixedly installed on the slope support rod (10501), and the slope monitoring camera (10506) is installed on the slope support rod (10501).

5. The GPS-based intelligent slope monitoring device according to claim 1, characterized in that: The temperature and humidity monitoring component (106) comprises a first support column (10601), a first plug-in cone (10602), a temperature and humidity monitor (10603) and a temperature and humidity signal transceiver (10604); the first support column (10601) is arranged on the slope surface (102), the first plug-in cone (10602) is fixedly connected to the bottom end of the first support column (10601), and the bottom end of the first plug-in cone (10602) is installed on the slope surface (102), the temperature and humidity monitor (10603) is installed on the first support column (10601), the temperature and humidity signal transceiver (10604) is installed on the top end of the first support column (10601), and the temperature and humidity signal transceiver (10604) is used in conjunction with the Beidou GPS satellite (108).

6. The GPS-based intelligent slope monitoring device according to claim 1, characterized in that: The rainfall monitoring component (107) comprises a second support (10701), a second plug-in cone (10702), a rainfall monitor (10703) and a rainfall signal transceiver (10704); the second support (10701) is arranged on the slope surface (102), the second plug-in cone (10702) is fixedly connected to the bottom end of the second support (10701), and the bottom end of the second plug-in cone (10702) is installed on the slope surface (102), the rainfall monitor (10703) is installed on the second support (10701), the rainfall signal transceiver (10704) is installed on the top end of the second support (10701), and the rainfall signal transceiver (10704) is used in conjunction with the Beidou GPS satellite (108).

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