WO2018205123A1

WO2018205123A1 - Landslide mass dynamic monitoring method and system

Info

Publication number: WO2018205123A1
Application number: PCT/CN2017/083550
Authority: WO
Inventors: 胡梓楷; 林程博; 胡高价
Original assignee: 深圳华博高科光电技术有限公司
Priority date: 2017-05-09
Filing date: 2017-05-09
Publication date: 2018-11-15
Also published as: CN108496348A

Abstract

A landslide mass dynamic monitoring method and system. The landslide mass dynamic monitoring method comprises the following steps: performing real-time on-site camera monitoring on each landslide mass to be monitored, and performing a plurality of slope environment surveillances on each landslide mass to collect a plurality of slope environment parameters on site, the plurality of slope environment surveillances at least comprising landslide mass slope surveillance; and displaying location information of each landslide mass and a plurality of slope environment parameters collected on site on a corresponding camera monitoring image of a command monitoring center (231) in pane tag insertion fashion separately. The landslide mass dynamic monitoring method and system can achieve all-weather uninterrupted comprehensive slope environment surveillance of each landslide mass remotely; moreover, the slope environment surveillance information can be read intuitively and visually so that it is convenient for a monitoring personnel to master the on-site environmental conditions of each landslide mass at any time and make emergency processing according to the site conditions in time.

Description

Landslide body dynamic monitoring method and system

Technical field

The invention relates to the technical field of slope environment monitoring, in particular to a method and a system for dynamically monitoring a landslide body.

Background technique

With the development of population, economy and social level, along with global climate change and abnormal crustal movement, in recent years, the frequency and degree of damage of various geological disasters have increased significantly, bringing huge to the world. Casualties and economic losses. In China, landslide disasters account for the largest proportion, the widest distribution, and the damage is very serious. Therefore, it is of great significance to do a good job in the prevention and control of landslide disasters.

In the prevention and control of landslide hazards, the natural environment of landslide hidden danger points is complex, and the infrastructure conditions are relatively difficult, mostly in inaccessible areas. In addition to the fact that cracks are easier to perform manually, internal deformation, other surface deformations, and groundwater level observations are difficult to observe in time. Once an abnormal state occurs, the hidden danger point should be discovered and disposed of in time, otherwise it may cause serious consequences.

Summary of the invention

The technical problem to be solved by the present invention is to provide a dynamic monitoring method and system for a landslide body, which can realize an all-weather uninterrupted comprehensive slope environment monitoring for each landslide body remotely, and at the same time, various slope environment monitoring information is intuitively read. Visually, it provides great convenience for the monitoring personnel to control the on-site environmental conditions of each landslide body at any time and to make emergency response according to the situation on site.

To achieve the above object, the present invention provides a landslide body dynamic monitoring method, and the landslide body dynamic monitoring method comprises the following steps: performing real-time on-site camera monitoring for each landslide body to be monitored, and performing each landslide body A variety of slope environment monitoring, to collect a variety of slope environmental parameters on site, The various slope environment monitoring includes at least landslide slope monitoring; the position information of each landslide body and the various slope environment parameters collected in the field are displayed in real time in the form of pane label insertion in the command and control center. On the camera monitor screen.

Preferably, the location information includes a monitoring device installation location, a monitoring device name, a monitoring device level, and a monitoring device remark information, and the plurality of slope environment monitoring further includes surface displacement monitoring of the landslide body, rainfall monitoring around the landslide body, and landslide Any of several types of soil moisture monitoring and groundwater level monitoring.

Preferably, the landslide body dynamic monitoring method further comprises the steps of: remotely docking the command monitoring center to know each landslide in real time by viewing or checking a corresponding camera monitoring screen of each landslide body anytime and anywhere. Body slope monitoring information.

Preferably, the landslide body dynamic monitoring method further comprises the steps of: preset an alarm threshold value of each of the slope body environmental parameters, and the slope environment parameter collected at any field exceeds a corresponding preset alarm valve. After the value, the corresponding warning processing is performed.

Preferably, the landslide body dynamic monitoring method further comprises the following steps: performing evaluation analysis and mathematical statistics on the slope environment monitoring information of each of the landslide bodies, and automatically generating various slope environment data reports.

Preferably, the landslide body dynamic monitoring method further comprises the following steps: organically combining the slope environment monitoring information of each of the landslide bodies with the GIS map to implement the monitoring center for each of the landslide bodies. GIS positioning environmental monitoring management.

In addition, in order to achieve the above object, the present invention further provides a landslide body dynamic monitoring system, the landslide body dynamic monitoring system includes: a field monitoring acquisition module, which is used for real-time on-site camera monitoring of each landslide body that needs to be monitored, and Performing a plurality of slope environment monitoring on each of the landslide bodies to collect a plurality of slope environment parameters on the spot, the plurality of slope environment monitoring at least including landslide body slope monitoring; and a label generation insertion module for each Position information of the landslide body and various slopes collected on site The environmental parameters are displayed in real time on the corresponding camera monitoring screen of the command and control center in the form of pane label insertion.

Preferably, the landslide body dynamic monitoring system further comprises a remote query module, configured to remotely dock the command and control center, to learn each time in real time by viewing or checking the corresponding camera monitoring screen of each landslide body anytime and anywhere. The slope environment monitoring information of the landslide body.

Preferably, the landslide body dynamic monitoring system further comprises an early warning processing module, configured to preset an alarm threshold of each of the slope environment parameters, and the slope environment parameters collected at any site exceed the corresponding pre-preparation After the alarm threshold is set, the corresponding early warning processing is performed.

Preferably, the landslide body dynamic monitoring system further comprises a data report generating module, configured to perform evaluation analysis and mathematical statistics on the slope environment monitoring information of each of the landslide bodies, and automatically generate various slope environment data reports.

Preferably, the landslide body dynamic monitoring system further includes a GIS positioning management module, configured to organically combine the slope environment monitoring information of each of the landslide bodies with the GIS map to implement the monitoring center for each of the GIS positioning environment monitoring and management of landslide body.

The invention provides a dynamic monitoring method and system for landslide body, which performs real-time on-site camera monitoring for each landslide body, and performs various slope environment monitoring for each landslide body to collect various slope environment parameters on site. So that the command and control center can remotely monitor all the landslides in an all-weather uninterrupted comprehensive slope environment to know the current slope environment of each landslide body in real time, and because it will position the position of each landslide body and The various slope environment parameters collected in the field are inserted into the pane labels respectively. The form of the input is displayed in real time on the corresponding camera monitoring screen of the command and control center, so that the various slope environment monitoring information can be read and visualized visually, and the monitoring personnel can control the environmental condition of the slope body of each landslide body at any time and according to the scene situation. Providing emergency response provides great convenience.

DRAWINGS

In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings used in the embodiments or the description of the prior art will be briefly described below. Obviously, the drawings in the following description are only It is a certain embodiment of the present invention, and other drawings can be obtained from those skilled in the art without any inventive labor.

FIG. 1 is a flow chart of a method for dynamically monitoring a landslide body according to a first embodiment of the present invention.

2 is a structural block diagram of a landslide body dynamic monitoring system according to a second embodiment of the present invention.

FIG. 3 is a structural block diagram of a specific implementation manner of a landslide body dynamic monitoring system according to a third embodiment of the present invention.

detailed description

The specific embodiments of the present invention are further described below in conjunction with the accompanying drawings. It is to be noted that the description of the embodiments is intended to facilitate the understanding of the invention, but is not intended to limit the invention. Further, the technical features involved in the various embodiments of the present invention described below may be combined with each other as long as they do not constitute a conflict with each other.

As shown in FIG. 1 , a first embodiment of the present invention provides a method for dynamically monitoring a landslide body, which specifically includes the following steps:

Step S1: Perform real-time on-site camera monitoring for each landslide body to be monitored, and perform various slope environment monitoring for each landslide body to collect various slope environmental parameters on site, and multiple slope environment monitoring includes at least landslide Body slope monitoring.

Specifically, the high-definition camera can realize real-time on-site camera monitoring for each landslide body that needs to be monitored, and simultaneously collect and record the sound, image and video data of the current monitoring point in real time, so as to facilitate remote monitoring and subsequent data query. In the real-time on-site camera monitoring of each landslide body, in order to facilitate the monitoring personnel to grasp the slope environment condition of each landslide body at any time, it is necessary to carry out various slope environment monitoring for each landslide body to collect various kinds on site. Slope environmental parameters, a variety of slope environment monitoring at least including landslide slope monitoring, specifically through the tilt sensor to achieve the accuracy of the tilt sensor using quartz pendulum to the Earth's gravity component to solve the object's horizontal tilt angle, built-in 32-bit The microprocessor is combined with a 32-bit high-precision analog-to-digital converter to perform high-subdivision sampling of the weak current-to-tilt ratio signal at the front end, and simultaneously output the lateral tilt angle X of the motion carrier; the longitudinal tilt angle Y; and the vertical azimuth angle Z. The internal integrated 3-axis accelerometer and 3-axis angular rate inertial unit integrate the angular rate of the object and multi-model data fusion with the attitude angle to update the horizontal azimuth output in real time with an accuracy of 0.001 degrees. It reaches 0.0002 degrees.

In addition, in order to carry out more comprehensive slope environment monitoring for each slope body, the various slope environment monitoring also includes surface displacement monitoring of the landslide body, rainfall monitoring around the landslide body, soil moisture monitoring of the landslide body and groundwater level monitoring. Any number.

Step S2: displaying the position information of each landslide body and various slope environment parameters collected in the field in real time on the corresponding camera monitoring screen of the command and control center in the form of pane label insertion.

Specifically, the location information includes a monitoring device installation location, a monitoring device name, a monitoring device level, and a monitoring device remark information. After the location information is formed into a data pane, the pane is inserted by default and displayed in the command monitoring center. The lower left corner of the camera monitoring screen, and the various slope environment parameters collected in the field can form a plurality of business card labels respectively, and then the label insertion mode is displayed by default in the upper left corner of the corresponding camera monitoring screen of the command monitoring center. During the actual monitoring process, the monitoring personnel can drag the display position of the data pane and the business card label, adjust the data pane and the business card label as needed. The transparency of the sign, etc., such data information is superimposed in the designated area of the image, and transmitted to the server and the designated user of the command and control center together with the monitoring video. In this way, the various slope environment monitoring information is visually and visually read, which provides great convenience for the monitoring personnel to control the on-site environmental condition of each landslide body at any time and timely make emergency treatment according to the site situation.

Step S3: remotely docking the command and control center to obtain the real-time monitoring information of the slope body of each landslide body by watching or checking the corresponding camera monitoring screen of each landslide body anytime and anywhere.

Specifically, the command and control center can authorize the remote user to view the monitoring data of the command and control center by means of authorization, so that remote users such as relevant departments can remotely connect and command the monitoring center, and realize and command at the remote end. The information exchange of the monitoring center acquires the monitoring data of the command and control center to obtain the real-time monitoring information of the slope body of each landslide body by watching or checking the corresponding camera monitoring screen of each landslide body anytime and anywhere.

Step S4: preset the alarm threshold of each slope environment parameter, and perform corresponding early warning processing after the slope environment parameter collected at any scene exceeds the corresponding preset alarm threshold.

Specifically, the user can preset the alarm threshold of each slope environment parameter according to actual needs, so that when the slope environment parameter obtained by any field exceeds the corresponding preset alarm threshold, the front end program will be The corresponding warning processing will be carried out according to the user settings, such as starting the sound and light alarm alarm, warning the surrounding pedestrians/vehicles to pay attention to safety. It can also set multi-level alarm mechanism at the same time, such as support software pop-up window alarm, mail alarm, SMS alarm and other functions.

Step S5: performing evaluation analysis and mathematical statistics on the slope environment monitoring information of each landslide body, and automatically generating various slope environment data reports.

Specifically, the command and control center may perform evaluation analysis and mathematical statistics on the slope environment monitoring information fed back by each landslide body. The slope body environment monitoring information includes the position information of the landslide body, and various types of the landslide body collected on site. Slope environmental parameters and audio and video data collected on the landslide body Etc., through the evaluation analysis and mathematical statistics of the original monitoring data and the post-audit data, various slope environmental data reports can be automatically generated, including various environmental data reports for each landslide body and various reports for reporting to the land and resources departments. Reports and data sheets. The monitoring personnel can open multiple reporting interfaces at the same time, change the interface as needed, and facilitate the comparison of data. The results of data review and review are on one interface, and have two or three-dimensional visualization images to realize image screening of data. Set the regular pie chart, column chart, curve chart and other graphic production in the report.

Step S6: organically combine the slope environment monitoring information of each landslide body with the GIS map to realize the monitoring and management of the GIS positioning environment performed by the monitoring center for each landslide body.

Specifically, the combination of environmental monitoring and GIS application environment monitoring data analysis system can integrate basic geographic information data, environmental thematic spatial data and associated environmental management business data, and monitor the slope environment monitoring information and GIS map of each landslide body. Through organic combination, the “one map” management of environmental information can be realized, so that the monitoring center can carry out GIS positioning environment monitoring and management for each landslide body. In this way, the environmental conditions of the slopes in the whole jurisdiction will be displayed in front of the managers in an unobstructed manner, and the environmental monitoring department will provide comprehensive and non-blind area monitoring and management of the slope environment for the entire jurisdiction, and provide efficient data support services.

As shown in FIG. 2, a second embodiment of the present invention provides a landslide body dynamic monitoring system 100. The landslide body dynamic monitoring system 100 includes a field monitoring acquisition module 110, a tag generation insertion module 120, a remote query module 130, and an early warning processing module. 140. The data report generation module 150 and the GIS location management module 160.

The on-site monitoring and collecting module 110 is mainly used for real-time on-site camera monitoring of each landslide body to be monitored, and performing various slope environment monitoring for each landslide body to collect various slope environment parameters on site, which is more The slope environment monitoring includes at least the slope monitoring of the landslide body, and a more comprehensive slope environment monitoring is carried out for each slope body. The various slope environment monitoring also includes surface displacement monitoring of the landslide body, rainfall monitoring around the landslide body, and landslide. Any of several types of soil moisture monitoring and groundwater level monitoring. The sign generation insertion module 120 is mainly used to display the position information of each landslide body and various slope environment parameters collected in the field in real time in the form of pane label insertion on the corresponding camera monitoring screen of the command monitoring center. The information includes monitoring equipment installation location, monitoring equipment name, monitoring equipment level, and monitoring equipment remark information. The remote query module 130 is mainly used for remote docking command and monitoring center to obtain real-time monitoring information of the slope environment of each landslide body by viewing or checking the corresponding camera monitoring screen of each landslide body anytime and anywhere. The early warning processing module 140 is mainly used for presetting the alarm threshold of each slope environment parameter, and performing corresponding early warning processing after the slope environment parameter collected at any scene exceeds the corresponding preset alarm threshold. The data report generation module 150 is mainly used for evaluating, analyzing, and counting statistics of the slope environment monitoring information of each landslide body, and automatically generating various environmental data reports. The GIS positioning management module 160 is mainly used for organically combining the slope environment monitoring information of each of the landslide bodies with the GIS map, so as to realize the GIS positioning environment monitoring and management of each landslide body by the monitoring center.

When working, firstly, real-time on-site camera monitoring is performed on each landslide body to be monitored by the on-site monitoring and acquisition module 110, and each landslide body includes slope monitoring of the landslide body, surface displacement monitoring of the landslide body, and rainfall monitoring around the landslide body. Various slope environment monitoring, landslide soil moisture monitoring and groundwater level monitoring, to collect a variety of corresponding slope environmental parameters in the field, and then the label generation insertion module 120 will pre-edit the position of each landslide body. The information and the various slope environment parameters collected in the field are displayed in real time on the corresponding camera monitoring screen of the command and control center in the form of pane label insertion. At this time, the remote docking command monitoring center can be realized through the remote query module 130. The environment monitoring information of the slope body of each landslide body is obtained in real time by viewing or checking the corresponding camera monitoring screen of each landslide body anytime and anywhere. When the environmental parameters collected by any field of each landslide body exceed the corresponding preset alarm threshold, the early warning processing module 140 performs corresponding early warning processing. The data report generation module 150 performs evaluation analysis and mathematical statistics on the slope environment monitoring information of each landslide body. Automatically generate various environmental data reports so that the monitoring personnel can better control the slope environment of the monitoring area. In addition, the GIS positioning management module 160 organically combines the slope environment monitoring information of each landslide body with the GIS map, so that the monitoring center can perform GIS positioning environment monitoring management for each landslide body.

As shown in FIG. 3, a third embodiment of the present invention provides a specific implementation of a landslide body dynamic monitoring system 200. The actual landslide body dynamic monitoring system 200 includes a front end acquisition layer 210, an intermediate transmission layer 220, and a back end application layer 230. .

The front-end acquisition layer 210 is used for comprehensive environmental monitoring of the current landslide body, including a solar power supply module 211, a high-definition camera module 212, a slope environment data collection module 213, a front-end local storage module 214, and an early warning management module. 215, an audible and visual alarm 216 and a voice broadcast module 217.

Specifically, the solar power module 211 is composed of a solar cell module, a controller, an inverter, a battery pack, etc., and the solar power supply module 211 can realize power supply to all the power devices in the front-end acquisition layer 210. An emerging renewable energy source, which is rich in resources, can be used free of charge, without transportation, has no pollution to the environment, and is especially suitable for areas that are not convenient for lead or no electricity. The slope environment data acquisition module 213 can perform various slope environment monitoring on the current landslide body including landslide slope monitoring, landslide surface displacement monitoring, rainfall monitoring around the landslide body, soil moisture monitoring of the landslide body and groundwater level monitoring. In order to collect a variety of slope environment parameters in the field, these data can be superimposed in the designated area of the monitoring interface image, and transmitted back to the back-end application layer 230 simultaneously with the monitoring video, as the main basis for the subsequent application work. The high-definition camera module 212 can collect the sound and image video data of the current landslide body in real time, and can perform real-time live camera monitoring on the current landslide body, and the monitoring screen supports the pane label insertion, so that the monitoring screen can be directly in the form of a pane label. The position information of the current landslide body and the plurality of slope environment parameters collected by the slope environment data collection module 213 are inserted. The location information includes monitoring equipment installation location, monitoring equipment name, monitoring equipment level, and monitoring equipment remarks. Information, the location information forms a data pane, and then is displayed by default in the lower left corner of the corresponding camera monitoring screen by means of pane insertion, and multiple slope environment parameters collected in the field can respectively form multiple business card labels. After that, the label insertion method is displayed by default in the upper left corner of the corresponding camera monitoring screen. During the actual monitoring process, the monitoring personnel can drag the display position of the data pane and the business card label, adjust the transparency of the data pane and the business card label, etc. as needed, and such data information is superimposed on the designated area of the image and transmitted together with the monitoring video. Apply layer 230 to the backend. The front-end local storage module 214 locally stores the audio and video data, the environmental parameter data, the operation log and other data information collected by each landslide body by locally installing the SD card or the hard disk, so that the back-end application layer 230 can remotely play back and download. The alarm management module 215 can preset the alarm threshold of each slope environment parameter, so that when the slope environment parameter obtained by any field exceeds the corresponding preset alarm threshold, the early warning management module 215 will The user setting performs corresponding early warning processing, such as starting the sound and light alarm 216 alarm, alerting the surrounding pedestrian/vehicle to pay attention to safety, or pushing the current alarm information to the backend application layer 230 to implement software pop-up window alarm, mail alarm, and short message. Multi-level alarm settings such as alarms. The sound and light alarm 216 is used for linkage alarm activation with the early warning management module 215 to alert the surrounding pedestrians to the safety through the voice information and the optical information, and the sound and light alarm 216 can be manually turned on. For example, the slope environment data acquisition module 213 monitors the current landslide body inclination change and the soil moisture is loose. When there is a danger of landslide, the sound and light alarm 216 will emit a strong light and a "slope danger, please do not approach" voice broadcast. The voice broadcast module 217 is configured to receive and play the voice broadcast transmitted by the backend application layer 230 for use in emergency situations, popularize security knowledge, periodically play environmental parameters, and the like.

The intermediate transport layer 220 is configured to implement various data interaction connections between the front-end acquisition layer 210 and the back-end application layer 230, and provide high-quality transmission channels for various data streams to ensure secure and reliable transmission of data streams. Specifically, it may be an optical intranet built by the project itself or a 3G, 4G, WiFi wireless network, a satellite wireless network, a city optical network, and an intelligent slope environment monitoring system formed by using MPLS VPN and P2P technologies. Network.

The back-end application layer 230 is configured to provide a monitoring service to the monitoring personnel to remotely know the environmental monitoring information of each landslide body, so as to present the user with specialized and personalized specific business processes and tools, and provide various business interactions, responses, and users. Linkage is an external manifestation of specific business. The backend application layer 230 mainly includes a command monitoring center 231 and a mobile client 232.

Specifically, the command and control center 231 can visually display the slope environment monitoring information required by the monitoring personnel, and can provide a window for the user to retrieve resources, perform operations, and implement a business response, so as to implement sub-control management and meet the number of roads. Long-term image environment data monitoring. The data system of the command and control center 231 integrates multiple application interfaces, including the Webservice interface, the P2P protocol interface, the RSTP access interface, and the HTTP access interface, to facilitate the upper-layer application for service integration management, and to support third-party applications to utilize the existing interface of the system for secondary Development. The data system of the Command and Control Center 231 provides environmental data analysis functions, providing comprehensive multi-level environmental data services for environmental management, government decision-making and environmental information disclosure. It can evaluate and analyze the slope environment monitoring information fed back by each landslide body. And mathematical statistics, the slope environment monitoring information includes the position information of the landslide body, various slope environment parameters collected on the landslide body, and audio and video data collected on the landslide body, etc., through the original monitoring data and The post-audit data is evaluated and analyzed by mathematical statistics. It can automatically generate various slope environmental data reports, including various slope environmental data reports for each landslide body and various reports and data sheets for reporting to the land and resources department. The monitoring personnel can open multiple reporting interfaces at the same time, change the interface as needed, and facilitate the comparison of data. The results of data review and review are on one interface, and have two or three-dimensional visualization images to realize image screening of data. Set the regular pie chart, column chart, curve chart and other graphic production in the report. The data system of the Command and Control Center 231 provides GIS positioning function. The combination of environmental monitoring and GIS application environment monitoring data analysis system can integrate basic geographic information data, environmental thematic spatial data and associated environmental management business data, and each landslide body Environmental monitoring information and GIS maps The organic combination can realize the “one map” management of environmental information, so that the monitoring center can monitor and manage the GIS positioning environment for each landslide body. In this way, the environmental conditions of the slopes in the whole jurisdiction will be displayed in front of the managers in an unobstructed manner, and the environmental monitoring department will provide comprehensive and non-blind area monitoring and management of the slope environment for the entire jurisdiction, and provide efficient data support services. The data system of the Command and Control Center 231 provides video wall and speaker functions, which can display and display the audio and video data and slope environment monitoring information of each landslide body in all directions, support video playback, and screen display the main control console working interface and data. Analysis page. The data system of the command and control center 231 provides the back-end video array storage function, which realizes 24-hour uninterrupted video storage of fixed monitoring points, so that the playback and download backup can be retrieved at any time. The data system of the command and control center 231 provides the storage function of the slope environment parameters, the slope environment information data is stored separately, the built-in fixed report format, and the report customization function of various formats is supported, and the memory mode is supported, and the report one-key generation is supported. It can generate various reports and data table formats of the national and land resources departments, which can be backed up for viewing or other purposes. The data system of the Command and Control Center 231 provides a cloud storage function. The user can activate the cloud storage function according to the requirements. After the activation, the audio and video real-time video storage, the slope environment monitoring data, and the operation log can be stored for authorized users to remotely download and use related data.

The mobile client 232 is installed with a corresponding program authorized by the system. Through the mobile client 232, the remote user such as the relevant department can obtain the monitoring data of the command and control center through the remote docking command and control center, and then watch it by anytime or anywhere. Check the corresponding camera monitoring screen of each landslide body to know the slope environment monitoring information of each landslide body in real time.

The embodiments of the present invention have been described in detail above with reference to the drawings, but the invention is not limited to the described embodiments. It will be apparent to those skilled in the art that various changes, modifications, substitutions and variations of the embodiments are possible without departing from the spirit and scope of the invention.

Claims

A method for dynamically monitoring a landslide body, characterized in that the method for dynamically monitoring a landslide body comprises the following steps:

Real-time on-site camera monitoring is performed for each landslide body to be monitored, and various slope environment monitoring is performed for each landslide body to collect various slope environment parameters on site, and the plurality of slope environment monitoring includes at least Landslide slope monitoring;

The position information of each of the landslide bodies and the various slope environment parameters collected in the field are displayed in real time on the corresponding camera monitoring screen of the command and control center in the form of pane label insertion.
The landslide body dynamic monitoring method according to claim 1, wherein the location information comprises a monitoring device installation location, a monitoring device name, a monitoring device level, and a monitoring device remark information, and the plurality of slope environment monitoring further includes Any of several types of landslide body surface displacement monitoring, rainfall monitoring around landslide bodies, soil moisture monitoring of landslide bodies, and groundwater level monitoring.
The method for dynamically monitoring a landslide body according to claim 1, wherein the landslide body dynamic monitoring method further comprises the steps of: remotely docking the command and control center to view or inspect each of the landslide bodies at any time and any place. The corresponding camera monitoring screen is used to obtain the slope environment monitoring information of each of the landslide bodies in real time.
The landslide body dynamic monitoring method according to any one of claims 1 to 3, wherein the landslide body dynamic monitoring method further comprises the steps of: preset an alarm threshold value of each of the slope body environmental parameters, and The environmental parameters of the slope obtained at a site are beyond the corresponding preset alarm thresholds and then subjected to corresponding early warning processing.
The landslide body dynamic monitoring method according to any one of claims 1 to 3, wherein the landslide body dynamic monitoring method further comprises the following steps: evaluating and analyzing the slope body environment monitoring information of each of the landslide bodies and Mathematical statistics, automatically generate a variety of slope environmental data reports.
The method for dynamically monitoring a landslide body according to any one of claims 1 to 3, characterized in that the sliding The slope body dynamic monitoring method further comprises the following steps: organically combining the slope environment monitoring information of each of the landslide bodies with the GIS map to realize the GIS positioning environment monitoring and management of each of the landslide bodies by the monitoring center; .
A landslide body dynamic monitoring system, characterized in that the landslide body dynamic monitoring system comprises:

The on-site monitoring and acquisition module is used for real-time on-site camera monitoring of each landslide body to be monitored, and performs various slope environment monitoring for each of the landslide bodies to collect various slope environment parameters on site, The slope environment monitoring includes at least the slope monitoring of the landslide body;

The label generation insertion module is configured to display the position information of each of the landslide bodies and the plurality of slope environment parameters collected in the field in real time on the corresponding camera monitoring screen of the command and control center in the form of pane label insertion.
The landslide body dynamic monitoring system according to claim 7, wherein the location information comprises a monitoring device installation location, a monitoring device name, a monitoring device level, and a monitoring device remark information, and the plurality of slope environment monitoring further includes Any of several types of landslide body surface displacement monitoring, rainfall monitoring around landslide bodies, soil moisture monitoring of landslide bodies, and groundwater level monitoring.
The landslide body dynamic monitoring system according to claim 7, wherein the landslide body dynamic monitoring system further comprises a remote query module for remotely docking the command and monitoring center to view or inspect each of the places by anytime and anywhere. The corresponding camera monitoring screen of the landslide body is used to obtain the slope environment monitoring information of each of the landslide bodies in real time.
The landslide body dynamic monitoring system according to any one of claims 7-9, wherein the landslide body dynamic monitoring system further comprises an early warning processing module, configured to preset an alarm threshold of each of the slope body environmental parameters. And after the environmental parameters of the slope obtained at any scene exceed the corresponding preset alarm threshold, the corresponding early warning processing is performed.
A landslide body dynamic monitoring system according to any one of claims 7-9, wherein said The landslide body dynamic monitoring system further comprises a data report generating module, which is used for evaluating and analyzing the mathematical monitoring information of the slope body of each landslide body, and automatically generating various slope environment data reports.
The landslide body dynamic monitoring system according to any one of claims 7-9, wherein the landslide body dynamic monitoring system further comprises a GIS positioning management module, configured to monitor the slope environment of each of the landslide bodies. The GIS map is organically combined with the GIS map to realize the GIS positioning environment monitoring and management of each of the landslide bodies by the monitoring center.