Geological exploration result data collection and utilization method and system

Abstract

The invention discloses a geological exploration result data collection and utilization method and system, and relates to the technical field of geological exploration, and the system comprises an environment early warning end, a data comparison end, and an updating and supplementing end. The environment early warning end is used for judging whether current environment parameters influence data acquisition stability or not in real time and adjusting a geological exploration data acquisition strategy in real time; the data comparison end is used for predicting a geological exploration result by comparing whether multiple channels and multiple features corresponding to the multi-source data are repeated or not in real time; and the updating and supplementing end is used for reflecting the latest geological condition in time by judging whether the geological exploration data is timely or not in real time. According to the geological exploration result data collection and utilization method and system, whether normal proceeding of data collection work is affected during geological exploration is judged in real time, the situation that data of partial areas cannot be collected or cannot be completely collected is avoided, the situation that the geological exploration data are disordered and lost during collection is avoided, the timeliness of data collection and utilization is guaranteed, and the working efficiency is improved. And the latest geological condition can be reflected in time.

Description

Technical Field

[0001] The present invention relates to the field of geological exploration technology, and in particular to a method and system for collecting and utilizing geological exploration results data. Background Art

[0002] The collection and utilization of geological exploration results data is a systematic project involving multiple links and aspects. Geological exploration personnel conduct field observation, measurement and recording of geological phenomena, stratigraphic structures, rock minerals, etc., including using geological compasses, GPS locators and other tools to determine the geographical location and orientation, using geological hammers, magnifying glasses and other tools to collect rock specimens, and measuring the thickness and occurrence of strata. Through geophysical methods such as seismic exploration, gravity exploration, magnetic exploration, and electrical exploration, information on underground geological structures and structures is obtained. For example, in seismic exploration, seismic waves are artificially excited and reflected wave signals are received. After processing and interpretation, information such as the depth, morphology and rock properties of underground strata is obtained.

[0003] At present, there are some deficiencies in the collection and utilization of geological exploration results data: 1. When conducting geological exploration in the field, severe weather conditions such as heavy rain or strong winds, as well as complex terrain such as high mountains or river canyons, may affect the normal progress of data collection, resulting in the inability to collect data in some areas or incomplete collection, affecting the accuracy of geological exploration results data collection and utilization; 2. The existing technology lacks a platform that can achieve seamless integration and management of multi-source data, which makes it easy for data to be confused and lost during storage, transmission and processing, affecting the efficiency of data utilization; 3. With the continuous progress of exploration work and the continuous generation of new data, the original data needs to be updated and supplemented in a timely manner, but in actual work, the data is often not updated in a timely manner, resulting in poor timeliness of the data, which cannot reflect the latest geological conditions, affecting the collection and utilization of geological exploration results data.

[0004] Therefore, a method and system for collecting and utilizing geological exploration results data is proposed to solve the above problems. Summary of the invention

[0005] The main purpose of the present invention is to provide a method and system for collecting and utilizing geological exploration results data to solve the problems raised in the above background.

[0006] To achieve the above-mentioned purpose, the technical solution adopted by the present invention is: a method and system for collecting and utilizing geological exploration results data, including an environmental early warning terminal, a data comparison terminal and an update and supplement terminal; The environmental warning terminal is used to set the scope of the field geological exploration area and divide the corresponding area into multiple areas, collect environmental parameters in real time and combine them with the corresponding topography and landforms, judge in real time whether the current environmental parameters affect the stability of data collection, and adjust the geological exploration data collection strategy in real time according to the standard environmental parameter model of geological exploration; The data comparison terminal is used to collect multi-source data in the geological exploration process in real time after determining that the data collection is abnormal, and set the multi-channels and multi-features corresponding to the multi-source data, and compare the multi-channels and multi-features corresponding to the multi-source data in real time to see if they are repeated, predict the geological exploration results, and realize seamless integration and management of multi-source data; The updating and supplementing terminal is used to receive multi-channel and multi-feature geological exploration data in real time, and to judge whether the geological exploration data is timely in real time. In the judgment process, the geological exploration prediction results are combined to timely reflect the latest geological conditions.

[0007] The environmental early warning terminal includes a geological acquisition module, a positioning acquisition module and an environmental early warning module; The geological acquisition module includes a region setting unit and a multi-region acquisition unit; The area setting unit is used to set the area range for collecting and utilizing geological exploration data, and divide the area range for collecting and utilizing geological exploration data into a plurality of areas, each area corresponding to a landform; The multi-region acquisition unit is used to acquire geological exploration data in multiple regions in real time through a data acquisition instrument, and to arrange the geological exploration data in multiple regions in sequence using Arabic numerals, wherein the sequence numbers are arranged in ascending order.

[0008] The positioning acquisition module includes an environment acquisition unit and a topographical unit; The environment acquisition unit is used to detect geological exploration environmental parameters within the corresponding area in real time through environmental monitoring equipment, and the environmental monitoring equipment includes earthquake monitoring equipment, landslide monitoring equipment, mud-rock flow monitoring equipment, ground subsidence monitoring equipment, volcanic eruption monitoring equipment, temperature sensor, humidity sensor and light sensor; The topography unit is used to detect the topography in the corresponding area in real time through geological exploration equipment, and the geological exploration equipment includes a level, a theodolite, a rangefinder, a seismograph, a gravimeter, a magnetometer, a total station and a three-dimensional laser scanner.

[0009] The environmental warning module includes a data impact unit, an impact warning unit, an exploration strategy unit and a strategy adjustment unit; The data impact unit is used to combine environmental parameters with topography and geomorphology, and calculate the impact of environment and topography on geological exploration in real time through a calculation formula. The calculation formula is as follows: ; in, and They are the data of environmental parameters and topographic parameters, and are the mean values ​​of environmental parameters and topographic parameters, Linear parameters representing the impact of environment and topography on geological exploration; The impact warning unit is used to set the standard value of the impact of environment and topography on geological exploration. Calculate the difference with the standard value. If the difference is less than or equal to 1, it means that the environment and topography have no effect on geological exploration. If the difference is greater than 1, it means that the environment and topography have an effect on geological exploration. The system will be reported and a voice alarm will be issued through the voice alarm. The exploration strategy unit is used to adjust the standard environmental parameter model of geological exploration in real time according to the influencing linear parameters, and the standard environmental parameter model is determined according to the geological exploration conditions corresponding to the topography; The strategy adjustment unit is used to determine the environment adjustment parameters according to the geological exploration conditions corresponding to the terrain and landforms, and the environment adjustment parameters set different geological exploration environment requirements for different terrain and landforms.

[0010] The data comparison end includes a multi-source data module, a multi-source corresponding module and a repeated comparison module; The multi-source data module includes a multi-source acquisition unit and an information exchange unit; The multi-source acquisition unit is used to acquire multi-source data in the geological exploration process in real time, wherein the multi-source data includes underground structure detection by seismic waves, underground electrical structure detection by electromagnetic waves, surface images within the corresponding area acquired by satellites, physical property data of underground rock formations acquired by logging tools, and geological and geophysical information of exploration activities; The information intercommunication unit is used to realize the networking and intercommunication of multi-source data through the Internet of Things.

[0011] The multi-source corresponding module includes a channel corresponding unit and a feature corresponding unit; The channel corresponding unit is used to arrange the multi-source data into multi-channel serial numbers by Arabic numerals, and arrange them in ascending order; The feature corresponding unit is used to arrange the multi-source data into multi-feature serial numbers using Arabic numerals, and arrange them in ascending order.

[0012] The duplicate comparison module includes a duplicate comparison unit and a data early warning unit; The duplication comparison unit is used to compare in real time whether the multi-channels and multi-features corresponding to the multi-source data are repeated. The comparison method is as follows: Calculate the duplication degree of corresponding multi-channel data and multi-feature data in multi-source data : ; in, and It is The first feature vectors, No. The weight of each channel, is a duplicate detection function, which usually returns 1 (duplicate) or 0 (no duplicate); Set the standard threshold, if If it is greater than or equal to the standard threshold, it means that the data is repeated. If it is less than the standard threshold, it means that the data is not repeated; The data early warning unit is used to send a voice alarm signal to the reporting system when data is repeated, and delete and crush the repeated data through the data crushing function.

[0013] The updating and supplementing end includes a data receiving module, a data judging module, a geological prediction module and a geological updating module; The data receiving module is used to receive multi-channel and multi-feature geological exploration data in real time through a data receiver; The data judgment module is used to collect geological exploration data within the corresponding area in real time through a data acquisition instrument, and calculate the time range difference of the data reflecting the geological conditions in real time according to the display time of the geological exploration data. If the time range difference is less than 2 hours, it means that the data is updated in time and is the latest geological condition. If the time range is greater than or equal to 2 hours, it means that the data is not updated in time and is not the latest geological condition.

[0014] The geological prediction module is used to collect data for geological exploration of corresponding environmental parameters within the regional scope through GIS technology, and receive data update judgment results in real time, set standard environmental parameters for geological exploration, and predict geological exploration results. The method is as follows: The difference between the environmental parameters in the corresponding area and the standard environmental parameters is calculated. If the difference = ±3, it is judged that the environmental parameters are approaching the safe value. If the difference is >3 or <-3, it is judged that the environmental parameters exceed the safe value, and an environmental warning is issued. One day is counted as one cycle. The environmental parameters of geological exploration in the corresponding area are predicted based on the environmental parameters of three cycles. If the average values ​​of the environmental parameters of the three cycles all exceed the standard environmental parameters, it is judged that the geological exploration data collection execution in the corresponding area is abnormal; The geological update module includes a geological update unit and an update data evaluation unit; The geological update unit is used to update the geological exploration data in real time through the geological exploration prediction results, and record them in real time through the data recorder; The update data evaluation unit is used to evaluate the geological exploration data collection and utilization results in real time according to the geological exploration data collection prediction results. If the geological exploration data collection is performed normally, the evaluation result is good; if the geological exploration data collection is performed abnormally, the evaluation result is poor.

[0015] A method for collecting and utilizing geological exploration results data comprises the following steps: Step 1: Configure the IP address information of the geological exploration remote control area server; Step 2: Enter the environmental warning terminal, collect field geological exploration data in real time, and collect environmental parameters in real time in combination with the corresponding topography and landforms to determine whether the current environmental parameters affect the stability of data collection. If abnormal, the reporting system will issue a voice alarm and combine it with the standard environmental parameter model of geological exploration; Step 3: Enter the data comparison terminal, determine the data collection anomaly, collect multi-source data in the geological exploration process in real time, set the multi-channels and multi-features corresponding to the multi-source data, and compare the multi-channels and multi-features corresponding to the multi-source data in real time to see if they are repeated; Step 4: Enter the update and supplement terminal, receive multi-channel and multi-feature geological exploration data in real time, and judge in real time whether the geological exploration data is timely and whether it is the latest geological situation, so as to ensure the effectiveness and timeliness of geological exploration data collection and utilization.

[0016] The present invention has the following beneficial effects: 1. In the present invention, by setting an environmental early warning terminal, when collecting and utilizing geological exploration results data, by real-time judging whether the current environmental parameters affect the stability of data collection, when conducting geological exploration in the field, the environmental parameters and topography can be combined to real-time predict severe weather such as rainstorms or strong winds, as well as complex topography such as high mountains or river canyons. The two can be combined to judge in real time whether the geological exploration affects the normal progress of data collection, thereby avoiding the inability to collect data in some areas or incomplete collection, and increasing the accuracy of geological exploration results data collection and utilization.

[0017] 2. In the present invention, by setting a data comparison terminal, when collecting and utilizing geological exploration results data, multi-source data in the geological exploration process is collected in real time, and multi-channels and multi-features corresponding to the multi-source data are compared in real time to see if they are repeated, so that multi-source data can be seamlessly integrated and managed during geological exploration. Through real-time comparison of multi-channels and multi-features, confusion and loss during geological exploration data collection can be avoided, further improving the utilization efficiency of geological exploration data.

[0018] 3. In the present invention, by setting an update and supplement terminal, when collecting and utilizing geological exploration results data, it is possible to judge in real time whether the geological exploration data is timely and whether it is the latest geological situation. In the judgment process, the geological exploration prediction results are combined, so that when the geological exploration data is collected and utilized, the real-time update and real-time judgment of the data can be guaranteed, the timeliness of data collection and utilization can be guaranteed, the latest geological situation can be reflected in time, and the collection and utilization effect of geological exploration results data can be further improved. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 A schematic diagram of the system architecture of a method and system for collecting and utilizing geological exploration results data according to the present invention; Figure 2 A schematic diagram of the structure of an environmental warning terminal of a method and system for collecting and utilizing geological exploration results data according to the present invention; Figure 3 A schematic diagram of the structure of a data comparison end of a geological exploration results data collection and utilization method and system of the present invention; Figure 4 The present invention is a schematic diagram of the architecture of an update and supplement end of a method and system for collecting and utilizing geological exploration results data. DETAILED DESCRIPTION

[0020] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further explained below in conjunction with specific implementation methods.

[0021] Embodiment 1 Please refer to Figure 1-Figure 2 As shown: A method and system for collecting and utilizing geological exploration results data, including an environmental early warning terminal, a data comparison terminal and an update and supplement terminal; The environmental warning terminal is used to set the scope of the field geological exploration area and divide the corresponding area into multiple areas, collect environmental parameters in real time and combine them with the corresponding topography to determine whether the current environmental parameters affect the stability of data collection in real time, and adjust the geological exploration data collection strategy in real time according to the standard environmental parameter model of geological exploration; The data comparison terminal is used to collect multi-source data in the geological exploration process in real time after determining that the data collection is abnormal, and to set the multi-channels and multi-features corresponding to the multi-source data, and to compare the multi-channels and multi-features corresponding to the multi-source data in real time to see if they are repeated, predict the geological exploration results, and realize the seamless integration and management of multi-source data; The update and supplement terminal is used to receive multi-channel and multi-feature geological exploration data in real time, and to judge whether the geological exploration data is timely in real time. In the judgment process, the geological exploration prediction results are combined to timely reflect the latest geological conditions.

[0022] The environmental early warning terminal includes a geological acquisition module, a positioning acquisition module and an environmental early warning module; The geological acquisition module includes a region setting unit and a multi-region acquisition unit; The area setting unit is used to set the area range for collecting and utilizing geological exploration data, and divide the area range for collecting and utilizing geological exploration data into multiple areas, each area corresponding to a landform; The multi-region acquisition unit is used to collect geological exploration data in multiple regions in real time through a data acquisition instrument, and to arrange the geological exploration data in multiple regions in sequence using Arabic numerals, with the sequence numbers being arranged in ascending order.

[0023] The positioning acquisition module includes an environment acquisition unit and a terrain and geomorphology unit; The environment acquisition unit is used to detect the geological exploration environmental parameters within the corresponding area in real time through environmental monitoring equipment, which includes earthquake monitoring equipment, landslide monitoring equipment, mud-rock flow monitoring equipment, ground subsidence monitoring equipment, volcanic eruption monitoring equipment, temperature sensors, humidity sensors and light sensors; The topography unit is used to detect the topography within the corresponding area in real time through geological exploration equipment. The geological exploration equipment includes levels, theodolites, rangefinders, seismographs, gravimeters, magnetometers, total stations and three-dimensional laser scanners.

[0024] The environmental warning module includes a data impact unit, an impact warning unit, an exploration strategy unit, and a strategy adjustment unit; The data impact unit is used to combine environmental parameters with topography and geomorphology, and calculate the impact of environment and topography on geological exploration in real time through a calculation formula. The calculation formula is as follows: ; in, and They are the data of environmental parameters and topographic parameters, and are the mean values ​​of environmental parameters and topographic parameters, Linear parameters representing the impact of environment and topography on geological exploration; The impact warning unit is used to set the standard value of the impact of environment and topography on geological exploration. Calculate the difference with the standard value. If the difference is less than or equal to 1, it means that the environment and topography have no effect on geological exploration. If the difference is greater than 1, it means that the environment and topography have an effect on geological exploration. The system will be reported and a voice alarm will be issued through the voice alarm. The exploration strategy unit is used to adjust the standard environmental parameter model of geological exploration in real time according to the influencing linear parameters. The standard environmental parameter model is determined according to the geological exploration conditions corresponding to the topography; The strategy adjustment unit is used to determine the environmental adjustment parameters according to the geological exploration conditions corresponding to the terrain and landforms. The environmental adjustment parameters set different geological exploration environmental requirements for different terrain and landforms. According to the standard environmental parameter model of geological exploration, the geological exploration data collection strategy is adjusted in real time. When conducting geological exploration in the field, the environmental parameters and terrain and landforms can be combined to predict in real time severe weather such as heavy rain or strong winds, as well as complex terrain and landforms such as high mountains or river canyons. The two can be combined to determine in real time whether the geological exploration affects the normal progress of data collection, avoid the inability to collect data in some areas or incomplete collection, and increase the accuracy of data collection and utilization of geological exploration results.

[0025] Embodiment 2 Please refer to Figure 3 As shown: Based on the first embodiment, the data comparison end includes a multi-source data module, a multi-source corresponding module and a duplicate comparison module; The multi-source data module includes a multi-source acquisition unit and an information exchange unit; The multi-source acquisition unit is used to collect multi-source data in the geological exploration process in real time. The multi-source data includes underground structure detection through seismic waves, underground electrical structure detection through electromagnetic waves, surface images within the corresponding area acquired through satellites, physical property data of underground rock formations acquired through logging tools, and geological and geophysical information of exploration activities; The information intercommunication unit is used to realize the networking and intercommunication of multi-source data through the Internet of Things.

[0026] The multi-source correspondence module includes a channel correspondence unit and a feature correspondence unit; The channel corresponding unit is used to arrange the multi-source data into multi-channel serial numbers by Arabic numerals, and arrange them in ascending order; The feature corresponding unit is used to arrange the multi-source data into multi-feature serial numbers using Arabic numerals and arrange them in ascending order.

[0027] The duplicate comparison module includes a duplicate comparison unit and a data early warning unit; The duplicate comparison unit is used to compare the multi-channel and multi-feature corresponding to the multi-source data in real time to see if they are repeated. The comparison method is as follows: Calculate the duplication degree of corresponding multi-channel data and multi-feature data in multi-source data : ; in, and It is The first feature vectors, No. The weight of each channel, is a duplicate detection function, which usually returns 1 (duplicate) or 0 (no duplicate); Set the standard threshold, if If it is greater than or equal to the standard threshold, it means that the data is repeated. If it is less than the standard threshold, it means that the data is not repeated; The data warning unit is used to report duplicate data to the system to send out a voice alarm signal, and delete and crush duplicate data through the data shredding function. During the storage, transmission and processing of data, real-time comparison of multiple channels and multiple features can be used to avoid confusion and loss during geological exploration data collection, further improving the utilization efficiency of geological exploration data.

[0028] Embodiment 3 Please refer to Figure 4 As shown: Based on the first embodiment, the update and supplement end includes a data receiving module, a data judgment module, a geological prediction module and a geological update module; The data receiving module is used for receiving multi-channel and multi-feature geological exploration data in real time through a data receiver; The data judgment module is used to collect geological exploration data within the corresponding area in real time through the data acquisition instrument, and calculate the time range difference of the data reflecting the geological conditions in real time according to the display time of the geological exploration data. If the time range difference is less than 2 hours, it means that the data is updated in time and is the latest geological condition. If the time range is greater than or equal to 2 hours, it means that the data is not updated in time and is not the latest geological condition.

[0029] The geological prediction module is used to collect geological exploration data for the corresponding environmental parameters within the regional scope through GIS technology, and receive data update judgment results in real time, set standard environmental parameters for geological exploration, and predict geological exploration results. The method is as follows: The difference between the environmental parameters in the corresponding area and the standard environmental parameters is calculated. If the difference = ±3, it is judged that the environmental parameters are approaching the safe value. If the difference is >3 or <-3, it is judged that the environmental parameters exceed the safe value, and an environmental warning is issued. One day is counted as one cycle. The environmental parameters of geological exploration in the corresponding area are predicted based on the environmental parameters of three cycles. If the average values ​​of the environmental parameters of the three cycles all exceed the standard environmental parameters, it is judged that the geological exploration data collection execution in the corresponding area is abnormal; The geological update module includes a geological update unit and an update data evaluation unit; The geological update unit is used to update the geological exploration data in real time through the geological exploration prediction results, and record them in real time through the data recorder; The updated data evaluation unit is used to evaluate the results of geological exploration data collection and utilization in real time according to the prediction results of geological exploration data collection. If the geological exploration data collection is executed normally, the evaluation result is good. If the geological exploration data collection is executed abnormally, the evaluation result is poor. The geological exploration prediction results are combined in the judgment process to ensure the effectiveness and timeliness of geological exploration data collection and utilization in real time. When geological exploration data is collected and utilized, real-time updating and real-time judgment of data can be guaranteed, the timeliness of data collection and utilization can be guaranteed, the latest geological conditions can be reflected in time, and the collection and utilization effect of geological exploration results data can be further improved.

[0030] In the present invention, a method and system for collecting and utilizing geological exploration results data are provided. When the system is in operation, the IP address information of the geological exploration remote control area server is first configured; the environmental warning terminal is entered, and the field geological exploration data is collected in real time, and the environmental parameters are collected in real time in combination with the terrain and landforms corresponding to the positioning, and it is judged whether the current environmental parameters affect the stability of data collection. If abnormal, the reporting system issues a voice alarm, and in combination with the standard environmental parameter model of geological exploration, the field geological exploration area range is set, and the corresponding area range is divided into multiple areas, and the geological exploration data is collected in real time, and the environmental parameters are collected in combination with the terrain and landforms corresponding to the positioning, and it is judged in real time whether the current environmental parameters are abnormal. Whether it affects the stability of data collection, according to the standard environmental parameter model of geological exploration, the geological exploration data collection strategy is adjusted in real time, so that when conducting geological exploration in the field, the environmental parameters and topography can be combined to predict in real time the severe weather such as rainstorms or strong winds, as well as complex topography such as high mountains or river canyons. The two are combined to judge in real time whether the geological exploration affects the normal progress of data collection, avoid the inability to collect data in some areas or incomplete collection, and increase the accuracy of data collection and utilization of geological exploration results; enter the data comparison end, after judging the data collection anomaly, collect multi-source data in the geological exploration process in real time, and set the multi-channel and multi-feature corresponding to the multi-source data, so as to realize The multi-channels and multi-features corresponding to the multi-source data are compared in real time to see if they are repeated. After judging that the data collection is abnormal, the multi-source data in the geological exploration process is collected in real time, and the multi-channels and multi-features corresponding to the multi-source data are set. The multi-channels and multi-features corresponding to the multi-source data are compared in real time to see if they are repeated, so as to ensure that the data collected by geological exploration in the corresponding area are authentic and valid, so that the multi-source data can be seamlessly integrated and managed during geological exploration. At the same time, during the storage, transmission and processing of data, the real-time comparison of multi-channels and multi-features can avoid confusion and loss during geological exploration data collection, thereby further improving the utilization efficiency of geological exploration data. Entering the update and supplement end, through real-time It receives multi-channel and multi-feature geological exploration data in real time, and judges in real time whether the geological exploration data is timely and whether it is the latest geological situation, so as to ensure the effectiveness and timeliness of geological exploration data collection and utilization. By receiving multi-channel and multi-feature geological exploration data in real time, and judging in real time whether the geological exploration data is timely and whether it is the latest geological situation, the geological exploration prediction results are combined in the judgment process to ensure the effectiveness and timeliness of geological exploration data collection and utilization in real time. When geological exploration data is collected and utilized, real-time updating and real-time judgment of data can be guaranteed, so as to ensure the timeliness of data collection and utilization, timely reflect the latest geological situation, and further improve the collection and utilization effect of geological exploration results data.

[0031] The above shows and describes the basic principles and main features of the present invention and the advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention to be protected. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. A geological exploration results data collection and utilization system, characterized in that: The system includes an environmental early warning terminal, a data comparison terminal and an update and supplement terminal; The environmental warning terminal is used to set the scope of the field geological exploration area and divide the corresponding area into multiple areas, collect environmental parameters in real time and combine them with the corresponding topography and landforms, judge in real time whether the current environmental parameters affect the stability of data collection, and adjust the geological exploration data collection strategy in real time according to the standard environmental parameter model of geological exploration; The data comparison terminal is used to collect multi-source data in the geological exploration process in real time after determining that the data collection is abnormal, and set the multi-channels and multi-features corresponding to the multi-source data, and compare the multi-channels and multi-features corresponding to the multi-source data in real time to see if they are repeated, predict the geological exploration results, and realize seamless integration and management of multi-source data; The updating and supplementing terminal is used to receive multi-channel and multi-feature geological exploration data in real time, and to judge whether the geological exploration data is timely in real time. In the judgment process, the geological exploration prediction results are combined to timely reflect the latest geological conditions.

2. The system according to claim 1, characterized in that: The environmental early warning terminal includes a geological acquisition module, a positioning acquisition module and an environmental early warning module; The geological acquisition module includes a region setting unit and a multi-region acquisition unit; The area setting unit is used to set the area range for collecting and utilizing geological exploration data, and divide the area range for collecting and utilizing geological exploration data into a plurality of areas, each area corresponding to a landform; The multi-region acquisition unit is used to acquire geological exploration data in multiple regions in real time through a data acquisition instrument, and to arrange the geological exploration data in multiple regions in sequence using Arabic numerals, wherein the sequence numbers are arranged in ascending order.

3. The system according to claim 2, characterized in that: The positioning acquisition module includes an environment acquisition unit and a topographical unit; The environment acquisition unit is used to detect geological exploration environmental parameters within the corresponding area in real time through environmental monitoring equipment, and the environmental monitoring equipment includes earthquake monitoring equipment, landslide monitoring equipment, mud-rock flow monitoring equipment, ground subsidence monitoring equipment, volcanic eruption monitoring equipment, temperature sensor, humidity sensor and light sensor; The topography unit is used to detect the topography in the corresponding area in real time through geological exploration equipment, and the geological exploration equipment includes a level, a theodolite, a rangefinder, a seismograph, a gravimeter, a magnetometer, a total station and a three-dimensional laser scanner.

4. The system according to claim 3, characterized in that: The environmental warning module includes a data impact unit, an impact warning unit, an exploration strategy unit and a strategy adjustment unit; The data impact unit is used to combine environmental parameters with topography and geomorphology, and calculate the impact of environment and topography on geological exploration in real time through a calculation formula. The calculation formula is as follows: ； in, and They are the data of environmental parameters and topographic parameters, and are the mean values ​​of environmental parameters and topographic parameters, Linear parameters representing the impact of environment and topography on geological exploration; The impact warning unit is used to set the standard value of the impact of environment and topography on geological exploration. Calculate the difference with the standard value. If the difference is less than or equal to 1, it means that the environment and topography have no effect on geological exploration. If the difference is greater than 1, it means that the environment and topography have an effect on geological exploration. The system will be reported and a voice alarm will be issued through the voice alarm. The exploration strategy unit is used to adjust the standard environmental parameter model of geological exploration in real time according to the influencing linear parameters, and the standard environmental parameter model is determined according to the geological exploration conditions corresponding to the topography; The strategy adjustment unit is used to determine the environment adjustment parameters according to the geological exploration conditions corresponding to the terrain and landforms, and the environment adjustment parameters set different geological exploration environment requirements for different terrain and landforms.

5. The system according to claim 1, characterized in that: The data comparison end includes a multi-source data module, a multi-source corresponding module and a repeated comparison module; The multi-source data module includes a multi-source acquisition unit and an information exchange unit; The multi-source acquisition unit is used to acquire multi-source data in the geological exploration process in real time, wherein the multi-source data includes underground structure detection by seismic waves, underground electrical structure detection by electromagnetic waves, surface images within the corresponding area acquired by satellites, physical property data of underground rock formations acquired by logging tools, and geological and geophysical information of exploration activities; The information intercommunication unit is used to realize the networking and intercommunication of multi-source data through the Internet of Things.

6. The system according to claim 5, characterized in that: The multi-source corresponding module includes a channel corresponding unit and a feature corresponding unit; The channel corresponding unit is used to arrange the multi-source data into multi-channel serial numbers by Arabic numerals, and arrange them in ascending order; The feature corresponding unit is used to arrange the multi-source data into multi-feature serial numbers using Arabic numerals, and arrange them in ascending order.

7. The system according to claim 6, characterized in that: The duplicate comparison module includes a duplicate comparison unit and a data early warning unit; The duplication comparison unit is used to compare in real time whether the multi-channels and multi-features corresponding to the multi-source data are repeated. The comparison method is as follows: Calculate the duplication degree of corresponding multi-channel data and multi-feature data in multi-source data : ； in, and It is The first feature vectors, No. The weight of each channel, is a duplicate detection function, which usually returns 1 (duplicate) or 0 (no duplicate); Set the standard threshold, if If it is greater than or equal to the standard threshold, it means that the data is repeated. If it is less than the standard threshold, it means that the data is not repeated; The data early warning unit is used to send a voice alarm signal to the reporting system when data is repeated, and delete and crush the repeated data through the data crushing function.

8. The system according to claim 1, characterized in that: The updating and supplementing end includes a data receiving module, a data judging module, a geological prediction module and a geological updating module; The data receiving module is used to receive multi-channel and multi-feature geological exploration data in real time through a data receiver; The data judgment module is used to collect geological exploration data within the corresponding area in real time through a data acquisition instrument, and calculate the time range difference of the data reflecting the geological conditions in real time according to the display time of the geological exploration data. If the time range difference is less than 2 hours, it means that the data is updated in time and is the latest geological condition. If the time range is greater than or equal to 2 hours, it means that the data is not updated in time and is not the latest geological condition.

9. The system according to claim 8, characterized in that: The geological prediction module is used to collect data for geological exploration of corresponding environmental parameters within the regional scope through GIS technology, and receive data update judgment results in real time, set standard environmental parameters for geological exploration, and predict geological exploration results. The method is as follows: The difference between the environmental parameters in the corresponding area and the standard environmental parameters is calculated. If the difference = ±3, it is judged that the environmental parameters are approaching the safe value. If the difference is >3 or <-3, it is judged that the environmental parameters exceed the safe value, and an environmental warning is issued. One day is counted as one cycle. The environmental parameters of geological exploration in the corresponding area are predicted based on the environmental parameters of three cycles. If the average values ​​of the environmental parameters of the three cycles all exceed the standard environmental parameters, it is judged that the geological exploration data collection execution in the corresponding area is abnormal; The geological update module includes a geological update unit and an update data evaluation unit; The geological update unit is used to update the geological exploration data in real time through the geological exploration prediction results, and record them in real time through the data recorder; The update data evaluation unit is used to evaluate the geological exploration data collection and utilization results in real time according to the geological exploration data collection prediction results. If the geological exploration data collection is performed normally, the evaluation result is good; if the geological exploration data collection is performed abnormally, the evaluation result is poor.

10. A method for collecting and utilizing geological exploration results data according to any one of claims 1 to 9, characterized in that: The following steps are involved: Step 1: Configure the IP address information of the geological exploration remote control area server; Step 2: Enter the environmental warning terminal, collect field geological exploration data in real time, and collect environmental parameters in real time in combination with the corresponding topography and landforms to determine whether the current environmental parameters affect the stability of data collection. If abnormal, the reporting system will issue a voice alarm and combine it with the standard environmental parameter model of geological exploration; Step 3: Enter the data comparison terminal, determine the data collection anomaly, collect multi-source data in the geological exploration process in real time, set the multi-channels and multi-features corresponding to the multi-source data, and compare the multi-channels and multi-features corresponding to the multi-source data in real time to see if they are repeated; Step 4: Enter the update and supplement terminal, receive multi-channel and multi-feature geological exploration data in real time, and judge in real time whether the geological exploration data is timely and whether it is the latest geological situation, so as to ensure the effectiveness and timeliness of geological exploration data collection and utilization.

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