Geological detection system suitable for offshore and specific area water bodies

Abstract

The invention relates to the technical field of geological exploration, and discloses a geological exploration system suitable for offshore and specific regional water bodies, which comprises a data integration unit, a data receiving unit and an intelligent analysis unit, and is characterized in that the data integration unit is used for collecting an environment data set, an equipment data set and a historical data set; the data receiving unit is used for numbering and storing a collected environment data set, an equipment data set and a historical data set, the intelligent analysis unit is used for calculating an environment influence coefficient and an equipment initial precision coefficient, and the judgment module is used for calculating an equipment environment evaluation value and carrying out abnormity judgment on the equipment initial evaluation value. And a signal is sent to the feedback module for feedback under the condition of judging that abnormity exists, so that challenges caused by environmental changes and the initial working state of the equipment can be found in time, the equipment can still operate stably in a severe environment, faults and downtime caused by environmental factors are reduced, and the service life of the equipment is prolonged. And meanwhile, the decline trend of equipment performance can be found in time.

Description

Technical Field

[0001] The present invention relates to the field of geological exploration technology, and in particular to a geological exploration system suitable for offshore and specific regional water bodies. Background Art

[0002] Offshore areas are important reservoirs of oil and natural gas. With the gradual depletion of terrestrial resources, the exploration of marine oil and gas resources has become increasingly important. For example, the Bohai Sea and the East China Sea are rich in oil and gas resources. Geological exploration can determine the location, size, and reserves of oil and gas fields, providing a basis for energy development. In addition to oil and gas resources, offshore areas may also contain other mineral resources, such as placers and phosphates. These mineral resources are of great significance to industrial construction and economic development. Geological exploration can help discover and assess the distribution of these mineral resources. In some coastal areas, groundwater resources are closely linked to offshore waters. Geological exploration can help understand the interaction between groundwater and seawater, providing a scientific basis for the rational use and protection of water resources.

[0003] The harsh marine environment places high demands on detection equipment. Some existing detection equipment will experience performance degradation and increased failure rates in complex marine environments, affecting the smooth progress of detection work. At the same time, the initial evaluation value of the equipment is obtained by evaluating the equipment at a specific point in time. Over time, the performance of the equipment may change, and the initial evaluation value of the equipment may not be able to reflect these changes in a timely manner, resulting in inaccurate assessment of the current status of the equipment, causing interruptions and data loss. Summary of the Invention

[0004] (1) Technical problems solved

[0005] In response to the shortcomings of the existing technology, the present invention provides a geological exploration system suitable for offshore and specific regional water bodies. It has the advantages of helping to promptly discover the challenges brought about by environmental changes and the initial working status of the equipment, ensuring that the equipment can still maintain stable operation in harsh environments, reducing failures and downtime caused by environmental factors, and promptly discovering the decline trend of equipment performance.

[0006] (2) Technical solution

[0007] To achieve the above-mentioned objectives, the present invention provides the following technical solution: a geological exploration system applicable to offshore and specific regional water bodies, comprising a data integration unit, a data receiving unit, and an intelligent analysis unit, wherein the data integration unit is used to collect environmental data sets, equipment data sets, and historical data sets; the data receiving unit is used to number and store the collected environmental data sets, equipment data sets, and historical data sets; the intelligent analysis unit is used to calculate the environmental impact coefficient and the equipment initial accuracy coefficient; the data integration unit, the data receiving unit, and the intelligent analysis unit share data with a determination module via a network;

[0008] The determination module is used to calculate the equipment environment evaluation value and the equipment initial evaluation value according to the environmental impact coefficient and the equipment initial accuracy coefficient. The determination module makes an abnormality determination based on the calculation results of the equipment environment evaluation value and the equipment initial evaluation value, and sends a signal to the feedback module if it is determined that an abnormality exists;

[0009] The feedback module includes a display module and an alarm unit. The display module displays the determination result, and the alarm unit is used to issue an alarm.

[0010] Preferably, the environmental data set includes wind and wave intensity, salinity, humidity, temperature, water pressure, and impact force, and the numbering expression of the environmental data set is:

[0011] Hj=Hfq,Hyd,Hsd,Hwd,Hsy,Hcj

[0012] In the expression, Hj represents the environmental data set, and Hfq, Hyd, Hsd, Hwd, Hsy, and Hcj represent wind and wave intensity, salinity, humidity, temperature, water pressure, and impact force, respectively.

[0013] Preferably, the device data set includes voltage, current, resistance, device temperature, vibration value, signal strength, signal quality, and response time. The numbering expression of the device data set is:

[0014] Sj=Sdy, Sdl, Sdz, Swd, Szd, Sxq, Sxz, Sxy

[0015] In the expression, Sj represents the device data set, and Sdy, Sdl, Sdz, Swd, Szd, Sxq, Sxz, and Sxy represent voltage, current, resistance, device temperature, vibration value, signal strength, signal quality, and response time, respectively.

[0016] Preferably, the historical data set includes historical safety environment values and historical average equipment parameter values, and the numbering expression of the historical data set is:

[0017] Ls=Lhj c , Lsbs

[0018] In the expression, Ls represents the historical data set, Lhj c represents the maximum safety value of the historical environment, and the subscript c represents the specific parameters of the maximum safety value of the historical environment, including wind and wave intensity, salinity, humidity, temperature, water pressure, and impact force. s The subscript s represents the historical maximum device parameter value, and the subscript s represents the specific parameter of the historical maximum device parameter value, including voltage, current, resistance, device temperature, vibration value, signal strength, signal quality, and response time.

[0019] Preferably, the calculation formula of the environmental impact coefficient is:

[0020]

[0021] Where Hy represents the environmental impact coefficient, I σ represents the data collection response time during the data collection process of the data integration unit, and I represents the historical maximum data collection response time during the data collection process of the data integration unit. Represents the impact of the data integration unit in the data acquisition process, Hj i Represents the i-th environmental parameter in the environmental data set, Lhj i Represents the maximum safety value of the historical environment corresponding to the i-th environmental parameter in the maximum safety value of the historical environment, ω i Represents the weight of the i-th environmental parameter.

[0022] Preferably, the calculation formula of the initial accuracy coefficient of the equipment is:

[0023]

[0024] Where Sy represents the initial accuracy coefficient of the equipment, I σ represents the data collection response time during the data collection process of the data integration unit, and I represents the historical maximum data collection response time during the data collection process of the data integration unit. Represents the impact of the data integration unit in the data acquisition process, Sj i Represents the parameter of the i-th device in the device data set, Lsb i Represents the historical maximum device parameter value corresponding to the i-th device parameter. Represents the weight of the i-th device parameter.

[0025] Preferably, the calculation formula of the equipment environment evaluation value is:

[0026]

[0027] Where Ph represents the equipment environment assessment value, Represents the set of all parameters in the device dataset, Represents the parameters of the equipment under the influence of the environment, which is the equipment environmental assessment value.

[0028] Preferably, the calculation formula for the initial evaluation value of the equipment is:

[0029]

[0030] Where Ps represents the initial evaluation value of the equipment, Represents the set of all parameters in the device dataset, It represents the parameters of the equipment under the influence of the initial accuracy of the equipment, that is, the initial evaluation value of the equipment.

[0031] Preferably, when the calculated result of the device environment evaluation value is greater than the device environment evaluation threshold, it means that the current environment will affect the use of the device, and an environmental abnormality signal is sent to the feedback module for feedback.

[0032] Preferably, when the calculation result of the initial evaluation value of the device is greater than the initial evaluation threshold of the device, it means that an abnormality has occurred in the current operation of the device, and a device abnormality signal is sent to the feedback module.

[0033] Compared with the existing technology, the present invention provides a geological exploration system suitable for offshore and specific regional water bodies, which has the following beneficial effects:

[0034] 1. By comprehensively considering multiple environmental factors such as wind and wave intensity, salinity, humidity, temperature, water pressure, and impact force, the present invention can fully reflect the impact of the current marine environment on the detection equipment, help to promptly discover the challenges brought by environmental changes, ensure that the equipment can still maintain stable operation in harsh environments, and reduce failures and downtime caused by environmental factors.

[0035] 2. By comprehensively considering multiple parameters of the device, such as voltage, current, resistance, device temperature, vibration value, signal strength, signal quality, and response time, the present invention can accurately reflect the initial working status of the device, promptly detect the decline trend of device performance, and ensure that the device has reached the optimal working state before being put into use, thereby reducing problems such as detection interruption and data loss caused by device failure, and helping to promptly detect problems such as device performance degradation or increased failure rate. BRIEF DESCRIPTION OF THE DRAWINGS

[0036] Figure 1 Schematic diagram of the system of the present invention. DETAILED DESCRIPTION

[0037] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0038] See also Figure 1 , a geological exploration system suitable for offshore and specific regional water bodies, including a data integration unit, a data receiving unit and an intelligent analysis unit. The data integration unit is used to collect environmental data sets, equipment data sets and historical data sets, and the data receiving unit is used to number and save the collected environmental data sets, equipment data sets and historical data sets;

[0039] The environmental data set includes wind and wave intensity, salinity, humidity, temperature, water pressure, and impact force. The numbering expression of the environmental data set is:

[0040] Hj=Hfq,Hyd,Hsd,Hwd,Hsy,Hcj

[0041] In the expression, Hj represents the environmental data set, and Hfq, Hyd, Hsd, Hwd, Hsy, and Hcj represent wind and wave intensity, salinity, humidity, temperature, water pressure, and impact force, respectively. These multiple environmental parameters fully reflect the current environmental conditions in offshore and specific regional waters, providing a strong data reference basis for equipment analysis.

[0042] The device data set includes voltage, current, resistance, device temperature, vibration value, signal strength, signal quality, and response time. The numbering expression of the device data set is:

[0043] Sj=Sdy, Sdl, Sdz, Swd, Szd, Sxq, Sxz, Sxy

[0044] In the expression, Sj represents the device data set, and Sdy, Sdl, Sdz, Swd, Szd, Sxq, Sxz, and Sxy represent voltage, current, resistance, device temperature, vibration value, signal strength, signal quality, and response time, respectively. These multiple device parameters fully reflect the initial state of the device.

[0045] The historical data set includes historical safety environment values and historical average equipment parameter values. The number expression of the historical data set is:

[0046] Ls=Lhj c , Lsb s

[0047] In the expression, Ls represents the historical data set, Lhj crepresents the maximum safety value of the historical environment, and the subscript c represents the specific parameters of the maximum safety value of the historical environment, including wind and wave intensity, salinity, humidity, temperature, water pressure, and impact force. s Represents the historical maximum device parameter value. The subscript s represents the specific parameter of the historical maximum device parameter value, including voltage, current, resistance, device temperature, vibration value, signal strength, signal quality, and response time. Historical data provides a reference for subsequent calculations. Combined with historical substantive data, the accuracy and reliability of the analysis results are improved.

[0048] The intelligent analysis unit is used to calculate the environmental impact coefficient and the initial accuracy coefficient of the equipment;

[0049] The calculation formula of environmental impact coefficient is:

[0050]

[0051] Where Hy represents the environmental impact coefficient, I σ represents the data collection response time during the data collection process of the data integration unit, and I represents the historical maximum data collection response time during the data collection process of the data integration unit. Represents the impact of the data integration unit in the data acquisition process, Hj i Represents the i-th environmental parameter in the environmental data set, Lhj i Represents the maximum safety value of the historical environment corresponding to the i-th environmental parameter in the maximum safety value of the historical environment, ω i represents the weight of the i-th environmental parameter;

[0052] By considering multiple environmental factors such as wind and wave intensity, salinity, humidity, temperature, water pressure, and impact force, the environmental impact coefficient can fully reflect the impact of the current marine environment on the detection equipment, thereby more accurately judging the existence of potential risks and considering the impact during the data collection process, thereby improving the accuracy and credibility of the data calculation and collection process;

[0053] The calculation formula for the initial accuracy coefficient of the equipment is:

[0054]

[0055] Where Sy represents the initial accuracy coefficient of the equipment, I σ represents the data collection response time during the data collection process of the data integration unit, and I represents the historical maximum data collection response time during the data collection process of the data integration unit. Represents the impact of the data integration unit in the data acquisition process, Sj i Represents the parameter of the i-th device in the device data set, Lsb i Represents the historical maximum device parameter value corresponding to the i-th device parameter. Represents the weight of the i-th device parameter;

[0056] By combining voltage, current, resistance, device temperature, vibration value, signal strength, signal quality, and response time, it can accurately reflect the initial accuracy status of the device and make pre-judgments of the device in advance, thus avoiding malfunctions caused by problems with the device itself during the detection process, affecting the detection progress, and causing data errors. It also considers the impact of the data collection process, thereby improving the accuracy and credibility of the data calculation and collection process.

[0057] The data integration unit, the data receiving unit and the intelligent analysis unit share data with the judgment module through the network;

[0058] The determination module is used to calculate the equipment environmental assessment value and the equipment initial assessment value according to the environmental impact coefficient and the equipment initial accuracy coefficient;

[0059] The calculation formula for the equipment environment assessment value is:

[0060]

[0061] Where Ph represents the equipment environment assessment value, Represents the set of all parameters in the device dataset, Represents the parameters of the equipment under the influence of the environment, that is, the equipment environmental assessment value;

[0062] The equipment environmental assessment value comprehensively reflects the impact of the current marine environment on the detection equipment by taking into account multiple environmental factors such as wind and wave intensity, salinity, humidity, temperature, water pressure, and impact force. This helps to promptly identify challenges brought about by environmental changes, ensure that the equipment can maintain stable operation in harsh environments, and reduce failures and downtime caused by environmental factors.

[0063] The calculation formula for the initial evaluation value of the equipment is:

[0064]

[0065] Where Ps represents the initial evaluation value of the equipment, Represents the set of all parameters in the device dataset, Represents the parameters of the equipment under the influence of the initial accuracy of the equipment, that is, the initial evaluation value of the equipment;

[0066] The initial evaluation value of the device comprehensively considers multiple parameters such as the device's voltage, current, resistance, device temperature, vibration value, signal strength, signal quality, and response time. It can accurately reflect the device's initial working status and promptly identify any decline in device performance, ensuring that the device has reached optimal working condition before being put into use. This reduces problems such as detection interruptions and data loss caused by device failures, and helps to promptly identify issues such as device performance degradation or increased failure rates.

[0067] The judgment module makes an abnormality judgment based on the equipment environment evaluation value and the equipment initial evaluation value calculation results, and sends a signal to the feedback module if it is judged that an abnormality exists;

[0068] When the calculated result of the device environment assessment value is greater than the device environment assessment threshold, it means that the current environment will affect the use of the device, and an environmental abnormality signal is sent to the feedback module for feedback;

[0069] When the calculated result of the device initial evaluation value is greater than the device initial evaluation threshold, it means that there is an abnormality in the current device operation process, and a device abnormality signal is sent to the feedback module;

[0070] The feedback module includes a display module and an alarm unit. The display module displays the determination result, and the alarm unit is used to issue an alarm.

[0071] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. A geological exploration system suitable for offshore and specific regional water bodies, characterized by: It includes a data integration unit, a data receiving unit and an intelligent analysis unit. The data integration unit is used to collect environmental data sets, equipment data sets and historical data sets. The data receiving unit is used to number and save the collected environmental data sets, equipment data sets and historical data sets. The intelligent analysis unit is used to calculate the environmental impact coefficient and the equipment initial accuracy coefficient. The data integration unit, data receiving unit and intelligent analysis unit share data with the judgment module through the network; The determination module is used to calculate the equipment environment evaluation value and the equipment initial evaluation value according to the environmental impact coefficient and the equipment initial accuracy coefficient. The determination module makes an abnormality determination based on the calculation results of the equipment environment evaluation value and the equipment initial evaluation value, and sends a signal to the feedback module if it is determined that an abnormality exists; The feedback module includes a display module and an alarm unit. The display module displays the determination result, and the alarm unit is used to issue an alarm.

2. The geological exploration system applicable to offshore and specific regional water bodies according to claim 1, characterized in that: The environmental data set includes wind and wave intensity, salinity, humidity, temperature, water pressure, and impact force. The numbering expression of the environmental data set is: Hj=Hfq,Hyd,Hsd,Hwd,Hsy,Hcj In the expression, Hj represents the environmental data set, and Hfq, Hyd, Hsd, Hwd, Hsy, and Hcj represent wind and wave intensity, salinity, humidity, temperature, water pressure, and impact force, respectively.

3. The geological exploration system applicable to offshore and specific regional water bodies according to claim 2, characterized in that: The device data set includes voltage, current, resistance, device temperature, vibration value, signal strength, signal quality, and response time. The numbering expression of the device data set is: Sj=Sdy, Sdl, Sdz, Swd, Szd, Sxq, Sxz, Sxy In the expression, Sj represents the device data set, and Sdy, Sdl, Sdz, Swd, Szd, Sxq, Sxz, and Sxy represent voltage, current, resistance, device temperature, vibration value, signal strength, signal quality, and response time, respectively.

4. The geological exploration system applicable to offshore and specific regional water bodies according to claim 3 is characterized by: The historical data set includes historical safety environment values and historical average equipment parameter values. The numbering expression of the historical data set is: Ls=Lhj c 、Lsb s In the expression, Ls represents the historical data set, Lhj c represents the maximum safety value of the historical environment, and the subscript C represents the specific parameters of the maximum safety value of the historical environment, including wind and wave intensity, salinity, humidity, temperature, water pressure, and impact force. s Represents the historical maximum device parameter value. The subscript s represents the specific parameter of the historical maximum device parameter value, including voltage, current, resistance, device temperature, vibration value, signal strength, signal quality, and response time.

5. The geological exploration system applicable to offshore and specific regional water bodies according to claim 4 is characterized in that: The calculation formula of the environmental impact coefficient is: Where Hy represents the environmental impact coefficient, I σ represents the data collection response time during the data collection process of the data integration unit, and I represents the historical maximum data collection response time during the data collection process of the data integration unit. Represents the impact of the data integration unit in the data acquisition process, Hj i Represents the i-th environmental parameter in the environmental data set, Lhj i Represents the maximum safety value of the historical environment corresponding to the i-th environmental parameter in the maximum safety value of the historical environment, ω i Represents the weight of the i-th environmental parameter.

6. The geological exploration system applicable to offshore and specific regional water bodies according to claim 5, characterized in that: The calculation formula of the initial accuracy coefficient of the equipment is: Where Sy represents the initial accuracy coefficient of the equipment, I σ represents the data collection response time during the data collection process of the data integration unit, and I represents the historical maximum data collection response time during the data collection process of the data integration unit. Represents the impact of the data integration unit in the data acquisition process, Sj i Represents the parameter of the i-th device in the device data set, Lsb i Represents the historical maximum device parameter value corresponding to the i-th device parameter. Represents the weight of the i-th device parameter.

7. The geological exploration system applicable to offshore and specific regional water bodies according to claim 6, characterized in that: The calculation formula of the equipment environment evaluation value is: Where Ph represents the equipment environment assessment value, Represents the set of all parameters in the device dataset, It represents the parameters of the equipment under the influence of the environment, which is the equipment environmental assessment value.

8. The geological exploration system applicable to offshore and specific regional water bodies according to claim 7, characterized in that: The calculation formula for the initial evaluation value of the equipment is: Where Ps represents the initial evaluation value of the equipment, Represents the set of all parameters in the device dataset, It represents the parameters of the equipment under the influence of the initial accuracy of the equipment, that is, the initial evaluation value of the equipment.

9. The geological exploration system applicable to offshore and specific regional water bodies according to claim 8, characterized in that: When the calculated result of the device environment evaluation value is greater than the device environment evaluation threshold, it means that the current environment will affect the use of the device, and an environmental abnormality signal is sent to the feedback module for feedback.

10. The geological exploration system applicable to offshore and specific regional water bodies according to claim 9, characterized in that: When the calculated result of the initial evaluation value of the device is greater than the initial evaluation threshold of the device, it means that an abnormality has occurred in the current operation of the device, and a device abnormality signal is sent to the feedback module.

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