Emergency processing system and method for oil and gas field earthquake emergencies

Abstract

The invention relates to the technical field of oil and gas field emergency processing, and discloses an oil and gas field earthquake emergency emergency processing system, which comprises a data collection module used for collecting earthquake information published by an earthquake bureau of a place where a related project is located, and receiving a troubleshooting report sent by each processing department; the information processing module is used for comparing the earthquake information with a set first threshold group and judging whether to output a troubleshooting task instruction and the earthquake information, and is also used for comparing the troubleshooting report of each processing department with a set second threshold group and judging whether to output an alarm event report instruction to the department to which the project belongs; meanwhile, the troubleshooting report is sent to a corresponding storage unit to be stored; and the signal output module is used for sending a corresponding instruction to a corresponding unit. According to the invention, data analysis and processing are carried out through the information processing module according to program setting, links and time for personnel to analyze and process data are reduced, and information processing efficiency is improved.

Description

Technical Field

[0001] The invention relates to the technical field of emergency event processing in oil and gas fields, and in particular to an emergency processing system and method for earthquake emergencies in oil and gas fields. Background Art

[0002] Earthquakes are natural phenomena that generate seismic waves during the rapid release of energy from the earth's crust. The plates on the earth squeeze and collide with each other, causing displacement and rupture at the edges and inside the plates, which is the main cause of earthquakes. The strong vibrations, displacement of earthquake faults and ground deformation caused by seismic waves cause damage to houses, engineering buildings and facilities, damage to items, and personal injuries. If an earthquake occurs in the location of an oil and gas field, it will damage the equipment and facilities of the oil and gas field, and cause accidents such as oil and gas leaks and fires, resulting in casualties and property losses. Therefore, good information collection and emergency response to earthquake emergencies in the location of oil and gas fields can avoid causing greater losses.

[0003] The existing technology mainly relies on the Earthquake Bureau7 to release earthquake news. After receiving the information, the project department will notify the relevant oil and gas field equipment at the earthquake site to check the status of equipment and facilities and the damage. The project department will then decide whether to activate the emergency plan based on the damage to the oil and gas field equipment affected by the earthquake. Personnel are required to collect information, make judgments, and convey disposal instructions throughout the process, which may result in untimely information collection and emergency disposal, causing greater losses. Summary of the invention

[0004] The present invention provides an emergency response system and method for oil and gas field earthquake emergencies, the purpose of which is to notify relevant units to conduct investigation and inspection as soon as possible after an earthquake occurs, and report to the project department in a timely manner, so that the project department can make emergency response in a timely manner to reduce casualties and property losses.

[0005] The present invention is achieved through the following technical solutions:

[0006] An oil and gas field earthquake emergency response system, comprising:

[0007] The data collection module is used to collect earthquake information released by the earthquake bureau in the location of the relevant project, and receive investigation reports sent by various processing departments;

[0008] An information processing module is used to compare the earthquake information with a set first threshold group to determine whether to output a troubleshooting task instruction and earthquake information, and is also used to compare the troubleshooting report of each processing department with a set second threshold group to determine whether to output an instruction to report an alarm event to the department to which the project belongs. If an instruction to report an alarm event is not output to the department to which the project belongs, the troubleshooting task is directly issued to each processing department, and the troubleshooting report is sent to a corresponding storage unit for storage;

[0009] The signal output module is used to send corresponding instructions to corresponding units.

[0010] As an optimization, the data collection module includes data collection sub-module one and data collection sub-module two. The data collection sub-module one is connected to the information database of the earthquake bureau where the relevant project is located, and is used to collect earthquake information released by the earthquake bureau where the relevant project is located; the data collection sub-module two is respectively connected to the hidden danger reporting module and the damaged reporting module, and is used to receive the inspection reports sent by each processing department, wherein the hidden danger reporting module and the damaged reporting module are set on the terminal of each processing department.

[0011] As an optimization, the information processing module includes an information processing sub-module 1 and an information processing sub-module 2. The information processing sub-module 1 is respectively connected to the output end of the data collection sub-module 1 and the output end of the automatic task configuration module, and is used to receive the earthquake information transmitted by the data collection sub-module 1, and compare the earthquake information with the first threshold group configured by the automatic task configuration module to determine whether to output the investigation task instruction and the earthquake information; the information processing sub-module 2 is respectively connected to the output end of the data collection sub-module 2 and the output end of the automatic task configuration module, and is used to receive the investigation report transmitted by the data collection sub-module 2, and compare the investigation report with the second threshold group configured by the automatic task configuration module to determine whether to output the alarm event reporting instruction to the department to which the project belongs. If the alarm event reporting instruction is not output to the department to which the project belongs, the investigation task is directly issued to each processing department, and the investigation report is sent to the corresponding storage unit for storage.

[0012] As an optimization, it also includes an early warning disposal module, which includes an automatic task configuration module 4a and an early warning management module. The automatic task configuration module is used to configure the information of the first threshold group and the second threshold group. The early warning management module is connected to the output end of the information processing sub-module 2, and is used to receive and store the alarm event reporting instructions transmitted by the information processing sub-module 2, and send the alarm event reporting instructions to the terminal of the department to which the project belongs. At the same time, the early warning management module is connected to the output end of the information processing sub-module 2, and is used to store the damage situation reported by the damaged reporting module and the hidden danger situation reported by the hidden danger reporting module.

[0013] As an optimization, the early warning handling module also includes an early warning event management module, which is connected to the input end of the signal output module and is used to directly manually issue an investigation task when the automatic task configuration module has not configured the early warning type of the relevant alarm information.

[0014] As an optimization, a storage module is also included, and the storage module is used to store relevant information of the instructions sent by the signal output module.

[0015] As an optimization, the first threshold group includes the specific address of the relevant project, the address distance threshold and the magnitude threshold.

[0016] As an optimization, the second threshold group includes thresholds for each alarm event level.

[0017] As an optimization, the earthquake information includes occurrence time, epicenter address and magnitude signal.

[0018] The present invention also discloses an emergency treatment method for sudden earthquake events in oil and gas fields, comprising:

[0019] S1. Collect earthquake information released by the Earthquake Bureau, which includes the epicenter location and magnitude signal;

[0020] S2, judging whether the specific address of the project related to the department to which the project belongs is within the range with the epicenter as the center and the diameter as the address distance threshold, and judging whether the magnitude is greater than the magnitude threshold, if both are true, jumping to S3, otherwise, jumping to S7;

[0021] S3. Send the investigation task instructions and earthquake information to the relevant processing departments within the scope, send the earthquake information to the project department at the same time, and collect the investigation reports of the relevant processing departments after the relevant processing departments process them;

[0022] S4, judging the level of the alarm event according to the investigation report, if the level is equal to the corresponding alarm event level threshold, jumping to S5, otherwise, jumping to S6;

[0023] S5. Report to the department to which the project belongs to confirm whether to activate the department-level emergency plan of the project. If so, execute the emergency plan. After processing, jump to S7. Otherwise, jump to S6.

[0024] S6: Issue the investigation task to the relevant departments to organize on-site disposal. After the disposal is completed, jump to S7;

[0025] S7. End.

[0026] Compared with the prior art, the present invention has the following advantages and beneficial effects:

[0027] The present invention automatically collects earthquake messages released by the Earthquake Bureau through a data collection module, and then sends a short message bulletin, eliminating the need for personnel to collect relevant messages and then send notifications, thereby improving the accuracy and timeliness of information collection and communication.

[0028] The information processing module performs data analysis and processing according to program settings, reducing the steps and time for personnel to analyze and process data and improving the efficiency of information processing.

[0029] By analyzing the impact of the earthquake, determining the level of natural disaster emergencies (alarm time), determining the necessity of launching the emergency plan, and taking reasonable handling procedures, and at the same time requiring relevant leaders to authorize the launch of the branch-level emergency plan, we can achieve two-way confirmation of the handling procedures and actual personnel, making the implementation of the emergency plan more formal. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] In order to more clearly illustrate the technical solutions of the exemplary embodiments of the present invention, the following briefly introduces the drawings required for use in the embodiments. It should be understood that the following drawings only illustrate certain embodiments of the present invention and should not be regarded as limiting the scope. For those of ordinary skill in the art, other relevant drawings can be obtained based on these drawings without creative work. In the drawings:

[0031] Figure 1 This is a schematic structural diagram of an emergency response system for oil and gas field earthquake emergencies according to the present invention;

[0032] Figure 2 The present invention provides a flow chart of an emergency treatment method for sudden earthquake events in oil and gas fields.

[0033] Marks and corresponding parts names in the attached drawings:

[0034] 1a-data collection submodule one, 1b-data collection submodule two, 2a-information processing submodule one, 2b-information processing submodule two, 3-signal output module, 4-early warning disposal module, 4a-automatic task configuration module, 4b-early warning event management module, 4c-early warning management module, 5-terminal of the department concerned, 6-terminal of the processing department, 7-earthquake bureau, 8-hidden danger reporting module, 9-damage reporting module, 10-storage module. DETAILED DESCRIPTION

[0035] In order to make the objectives, technical solutions and advantages of the present invention more clearly understood, the present invention is further described in detail below in conjunction with embodiments and drawings. The exemplary embodiments of the present invention and their description are only used to explain the present invention and are not intended to limit the present invention.

[0036] An oil and gas field earthquake emergency response system according to embodiment 1, such as Figure 1 As shown, including:

[0037] The data collection module is used to collect earthquake information released by the earthquake bureau7 in the location of the relevant project, and receive investigation reports sent by various processing departments;

[0038] Specifically, the data collection module includes a data collection submodule 1a and a data collection submodule 1b. The data collection submodule 1a is connected to the information database of the earthquake bureau 7 where the relevant project is located, and is used to collect earthquake information released by the earthquake bureau 7 where the relevant project is located; the data collection submodule 2 1b is respectively connected to the hidden danger reporting module 8 and the damaged reporting module 9, and is used to receive the inspection reports sent by each processing department, wherein the hidden danger reporting module 8 and the damaged reporting module 9 are set on the terminals of each processing department, and the relevant projects here include oil and gas fields, equipment and facilities, projects under construction, etc. The earthquake information released by the earthquake bureau 7 includes the time of occurrence, epicenter location and magnitude.

[0039] An information processing module is used to compare the earthquake information with a set first threshold group to determine whether to output a troubleshooting task instruction, and is also used to compare the troubleshooting report of each processing department with a set second threshold group to determine whether to output an alarm event report instruction to the project department. If the alarm event report instruction is not output to the project department, the troubleshooting task is directly issued to each processing department, and the troubleshooting report is sent to a corresponding storage unit for storage;

[0040] The information processing module includes an information processing submodule 1 2a and an information processing submodule 2b. The information processing submodule 1 2a is connected to the output end of the data collection submodule 1a and the output end of the automatic task configuration module 4a, respectively, and is used to receive the earthquake information transmitted by the data collection submodule 1a, and compare the earthquake information with the first threshold group configured by the automatic task configuration module 4a to determine whether to output the investigation task instruction and the earthquake message; the first threshold group includes the specific address of the relevant project, the address distance threshold and the magnitude threshold;

[0041] The information processing sub-module 2b is respectively connected to the output end of the data collection sub-module 2 1b and the output end of the automatic task configuration module 4a, and is used for receiving the troubleshooting report transmitted by the data collection sub-module 2 1b, and comparing the troubleshooting report with the second threshold group configured by the automatic task configuration module 4a, to determine whether to output an instruction to report the alarm event to the department to which the project belongs, and if not, to output an instruction to report the alarm event to the department to which the project belongs, and sending the troubleshooting report to the corresponding storage unit for storage, the second threshold group includes thresholds for each alarm event level.

[0042] The signal output module 3 is used to send the corresponding instructions to the corresponding units. The SMS instruction sending platform is responsible for sending SMS and instructions to the project department (sent to the department terminal 5) and the relevant personnel of each processing department (processing department terminal 6).

[0043] In this embodiment, the data collection module mainly collects two types of data, one is the epicenter and magnitude in the earthquake message released by the Earthquake Bureau 7, and the other is to collect the affected investigation reports of each affiliated unit. After the data collection module collects the earthquake message released by the Earthquake Bureau 7, the information processing module detects it and judges the epicenter location and magnitude. If the project department (branch) is within 200km of the epicenter, the oil and gas fields, equipment and facilities, projects under construction and other facilities, but the magnitude is above 3.0, the process ends directly; if there are oil and gas fields, equipment and facilities, projects under construction and other facilities under the project department within 200km of the epicenter, but the magnitude is below 3.0, the process ends directly, that is, the present invention is applicable to post-earthquake information collection and emergency disposal when an earthquake of magnitude 3.0 or above occurs, and there are oil and gas fields, equipment and facilities, projects under construction and other facilities under the jurisdiction of the branch within 200km of the epicenter.

[0044] If there are oil and gas fields, equipment and facilities, projects under construction and other facilities within 200km of the epicenter, and the magnitude is above 3.0, the signal output module 3 will receive it and send a quick report text message to the relevant leaders of the branch, the relevant departments of the branch, and the relevant personnel in the oil and gas fields, equipment and facilities, projects under construction and other facilities within 200km of the epicenter, stating the earthquake sending time, epicenter, magnitude and other conditions. At the same time, instructions will be sent to the relevant personnel in the oil and gas fields, equipment and facilities, projects under construction and other facilities within 200km of the epicenter (processing department terminals) to check the affected situation on site.

[0045] It also includes an early warning disposal module 4, which includes an automatic task configuration module 4a and an early warning management module 4c. The automatic task configuration module 4a is used to configure the information of the first threshold group and the second threshold group. The early warning management module 4c is connected to the output end of the information processing sub-module 2b, and is used to receive and store the alarm event reporting instructions transmitted by the information processing sub-module 2b, and send the alarm event reporting instructions to the terminal of the department to which the project belongs. At the same time, the early warning management module 4c is connected to the output end of the information processing sub-module 2b, and is used to store the damage situation reported by the damaged reporting module 9 and the hidden danger situation reported by the hidden danger reporting module 8.

[0046] When the warning event level or disaster impact range changes, the automatic task configuration can be updated in real time. The user of the project department logs in to the system platform, selects the warning disposal module 4, and then edits the automatic configuration task module. After editing the valid configuration information, save it to complete the automatic task configuration editing. When a related alarm event occurs (such as an earthquake or meteorological problems caused by an earthquake, etc.), it will automatically calculate and issue the investigation task to the affected unit.

[0047] The early warning management module 4c is connected to the information processing submodule 2b. When the alarm event report transmitted by the information processing submodule 2b is received, an alarm pop-up window will automatically pop up, and the user of the department to which the project belongs can handle the alarm event.

[0048] By checking the damage information reported by the damage reporting module 9, the handling status of the units affected by the alarm event can be understood.

[0049] When the warning event type configured by the automatic task configuration module 4a is consistent with the alarm type, the user directly enters the "damage situation feedback" page after the task has been issued.

[0050] The early warning handling module 4 also includes an early warning event management module 4b, which is connected to the input end of the signal output module 3 and is used to directly manually issue a troubleshooting task when the automatic task configuration module 4a has not configured the early warning type of the relevant alarm information.

[0051] After an alarm event occurs, a warning pop-up window will pop up. Click the "Process" button to enter the "Warning Management" page, and click "Affected Units" to view the units affected by this warning event; if other units are also affected by the earthquake, check the relevant units.

[0052] When the automatic task configuration module 4a is not configured with the relevant warning type, the user can manually issue the investigation task through the warning event management module 4b. Check the warning feedback: issue the task to the affected unit (processing department), and report the completion status through the damage reporting module 9 and store it in the warning management module 4c. Check the impact of each affected unit of this warning event through the warning management module 4c. You can view the affected units of this warning event through the damage feedback. Click on each unit in the list to locate the completion status of the task of the relevant unit. Click "Details" in the pop-up window to expand the task reporting information. At the same time, the system can also save the completion status locally through the "Generate Report" function.

[0053] It also includes a storage module 10, which is used to store relevant information of the instructions sent by the signal output module 3.

[0054] The SMS sending record is stored in the storage module 10. You can select the type of SMS you want to view and filter the data on the top. You can click on the SMS sending record after an event to see who the event was sent to and what the content was.

[0055] Through the "Damage Report" function, the damage situation of the unit can be reported to the superior unit. The user logs in to enter the system and selects the "Early Warning and Forecast" module. Select all types or select the type to be viewed to enter the earthquake rapid report menu. If damage occurs, click the "Damage Report" button to report the information to the system platform. Click on the affected map details to view the impact range of this warning on the map. When major hidden danger events occur in various regions, the basic situation of the hidden danger can be reported to the dispatching management center through the mini program for review and processing as soon as possible. The user logs in to enter the system and selects the "Hazard Report" module. Click the "Add" button, fill in the hidden danger type and time of occurrence, and upload on-site pictures. Click "Submit" to report the hidden danger information to the system platform.

[0056] When a major disaster occurs in any region, the basic disaster situation can be reported to the system platform for review and processing through the mini program. The user logs in to the system and selects the "Damage Report" module. Click the "Add" button to fill in the damaged unit, damage type, damage time and damage profile. Click "Submit" to report the damage situation to the system platform. The reported disaster information can be viewed by filtering through the "Details in Management" drop-down list.

[0057] When a major emergency disaster occurs in various regions, the basic situation of the emergency incident can be reported to the system platform for review and processing through the mini program. The user logs in to the system and selects the "Damage Report" module. Click the "Add" button to fill in the damaged unit, damage type, damage time and damage profile information. Click "Submit" to report the damage to the system platform.

[0058] Embodiment 2 also discloses a method for emergency response to sudden earthquake events in oil and gas fields, such as Figure 2 As shown, including:

[0059] S1, collecting earthquake information released by the earthquake bureau 7, wherein the earthquake information includes the epicenter location and magnitude signal;

[0060] S2, judging whether the specific address of the project related to the department to which the project belongs is within the range with the epicenter as the center and the diameter as the address distance threshold, and judging whether the magnitude is greater than the magnitude threshold, if both are true, jumping to S3, otherwise, jumping to S7;

[0061] In this embodiment, the address distance threshold is 200Km, and the magnitude threshold is 3.0. That is to say, it is determined whether the specific address of the project related to the department to which the project belongs is within a circle with a diameter of 200Km centered on the epicenter, and the magnitude is greater than 3.0. If both conditions are met, jump to S3, otherwise, end.

[0062] S3. Send the investigation task instructions and earthquake information to the relevant processing departments within the scope, send the earthquake information to the project department at the same time, and collect the investigation reports of the relevant processing departments after the relevant processing departments process them;

[0063] S4, judging the level of the alarm event according to the investigation report, if the level is equal to the corresponding alarm event level threshold, jumping to S5, otherwise, jumping to S6;

[0064] Here, the alarm event level threshold is level III, that is, if the alarm event level is level III, it will jump directly to S6, and if the alarm event level is level I or level II, it will jump to S5;

[0065] S5. Report to the department to which the project belongs to confirm whether to activate the department-level emergency plan of the project. If so, execute the emergency plan. After processing, jump to S7. Otherwise, jump to S6.

[0066] S6: Issue the investigation task to the relevant departments to organize on-site disposal. After the disposal is completed, jump to S7;

[0067] S7. End.

[0068] After the relevant units affected by the earthquake on site check the affected situation, they send a report to the branch company through the data platform to explain the affected situation. After the data collection module collects the report, the information processing module detects and determines the level of the natural disaster emergency event based on the affected situation of the relevant units. If it is a level III natural disaster emergency, the signal output module 3 sends an instruction to the affected unit, and the unit organizes on-site disposal on its own; if it is a level II or level I natural disaster emergency, the signal output module 3 sends a report to the relevant leaders of the branch company and the relevant departments of the branch company, and reports to the relevant leaders of the branch company to confirm whether to activate the branch-level emergency plan. The branch company leader confirms that the branch company and the emergency plan will not be activated, and the signal output module 3 sends an instruction to the affected unit, and the unit organizes on-site disposal on its own; the branch company leader confirms that the branch company and the emergency plan will be activated, and the signal output module 3 sends an instruction to the members of the emergency command group, relevant departments and affected units to activate the branch-level emergency plan and conduct on-site emergency disposal. After the on-site disposal is completed, the plan is closed and the process ends.

[0069] Since my country is one of the countries most seriously affected by natural disasters in the world, severe natural disasters such as floods, droughts, earthquakes, landslides, and mudslides have occurred many times over the years. The project department attaches great importance to natural disaster prevention and control, and has formulated effective disaster prevention, mitigation, and relief policies for each gas mining unit and operating area. In the entire process of disaster reduction, disaster preparedness, emergency response, and recovery and reconstruction, we fully integrate technologies such as artificial intelligence, big data, and the Internet of Things to jointly promote the construction of systems such as disaster monitoring and early warning, rapid acquisition and transmission of disaster information, disaster loss assessment, space technology disaster reduction application, and accurate assessment of post-disaster needs, so as to further enhance the scientific and technological support capabilities for disaster prevention and mitigation.

[0070] Among them, the natural disaster prevention and control management information system optimizes and simplifies existing business processes based on technologies such as the Internet of Things, mobile applications and big data, and uses standardized and quantified work quality standards to effectively guide the basic work of pipeline protection in gas mines and operating areas. By entering data once and using it multiple times, it minimizes the workload of grassroots positions, promotes and drives the improvement of quality and efficiency at levels below the operating area.

[0071] The specific implementation methods described above further illustrate the objectives, technical solutions and beneficial effects of the present invention in detail. It should be understood that the above description is only a specific implementation method of the present invention and is not intended to limit the scope of protection of the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. An emergency response system for oil and gas field earthquake emergencies, characterized in that: include: The data collection module is used to collect earthquake information released by the earthquake bureau in the location of the relevant project, and receive investigation reports sent by various processing departments; An information processing module is used to compare the earthquake information with a set first threshold group to determine whether to output a troubleshooting task instruction and earthquake information, and is also used to compare the troubleshooting report of each processing department with a set second threshold group to determine whether to output an instruction to report an alarm event to the department to which the project belongs. If an instruction to report an alarm event is not output to the department to which the project belongs, the troubleshooting task is directly issued to each processing department, and the troubleshooting report is sent to a corresponding storage unit for storage; The signal output module is used to send corresponding instructions to corresponding units.

2. The oil and gas field earthquake emergency response system according to claim 1, characterized in that: The data collection module includes data collection sub-module 1 and data collection sub-module 2. The data collection sub-module 1 is connected to the information database of the earthquake bureau where the relevant project is located, and is used to collect earthquake information released by the earthquake bureau where the relevant project is located; the data collection sub-module 2 is respectively connected to the hidden danger reporting module and the damaged reporting module, and is used to receive the inspection reports sent by each processing department, wherein the hidden danger reporting module and the damaged reporting module are set on the terminal of each processing department.

3. The oil and gas field earthquake emergency response system according to claim 2, characterized in that: The information processing module includes an information processing submodule 1 and an information processing submodule 2. The information processing submodule 1 is connected to the output end of the data collection submodule 1 and the output end of the automatic task configuration module respectively, and is used to receive the earthquake information transmitted by the data collection submodule 1, and compare the earthquake information with the first threshold group configured by the automatic task configuration module to determine whether to output the investigation task instruction and the earthquake information; the information processing submodule 2 is connected to the output end of the data collection submodule 2 and the output end of the automatic task configuration module respectively, and is used to receive the investigation report transmitted by the data collection submodule 2, and compare the investigation report with the second threshold group configured by the automatic task configuration module to determine whether to output the alarm event reporting instruction to the department to which the project belongs. If the alarm event reporting instruction is not output to the department to which the project belongs, the investigation task is directly issued to each processing department, and the investigation report is sent to the corresponding storage unit for storage.

4. The oil and gas field earthquake emergency response system according to claim 3, characterized in that: It also includes an early warning disposal module, which includes an automatic task configuration module and an early warning management module. The automatic task configuration module is used to configure the information of the first threshold group and the second threshold group. The early warning management module is connected to the output end of the information processing sub-module two, and is used to receive and store the alarm event reporting instructions transmitted by the information processing sub-module two, and send the alarm event reporting instructions to the terminal of the department to which the project belongs. At the same time, the early warning management module is connected to the output end of the information processing sub-module two, and is used to store the damage situation reported by the damaged reporting module and the hidden danger situation reported by the hidden danger reporting module.

5. The oil and gas field earthquake emergency response system according to claim 4, characterized in that: The early warning handling module also includes an early warning event management module, which is connected to the input end of the signal output module and is used to directly manually issue a troubleshooting task when the automatic task configuration module has not configured the early warning type of the relevant alarm information.

6. The oil and gas field earthquake emergency response system according to claim 5, characterized in that: It also includes a storage module, which is used to store relevant information of the instructions sent by the signal output module.

7. The oil and gas field earthquake emergency response system according to claim 1, characterized in that: The first threshold group includes a specific address of the relevant project, an address distance threshold, and a magnitude threshold.

8. The oil and gas field earthquake emergency response system according to claim 1, characterized in that: The second threshold group includes various alarm event level thresholds.

9. The oil and gas field earthquake emergency response system according to claim 1, characterized in that: The earthquake information includes occurrence time, epicenter address and magnitude signal.

10. An emergency response method for oil and gas field earthquake emergencies, characterized in that: include: S1. Collect earthquake information released by the Earthquake Bureau, which includes the epicenter location and magnitude signal; S2, judging whether the specific address of the project related to the department to which the project belongs is within the range with the epicenter as the center and the diameter as the address distance threshold, and judging whether the magnitude is greater than the magnitude threshold, if both are true, jumping to S3, otherwise, jumping to S7; S3. Send the investigation task instructions and earthquake information to the relevant processing departments within the scope, send the earthquake information to the project department at the same time, and collect the investigation reports of the relevant processing departments after the relevant processing departments process them; S4, judging the level of the alarm event according to the investigation report, if the level is equal to the corresponding alarm event level threshold, jumping to S5, otherwise, jumping to S6; S5. Report to the department to which the project belongs and confirm whether to activate the department-level emergency plan of the project. If yes, execute the emergency plan. After processing, jump to S7. Otherwise, jump to S6. S6: Issue the investigation task to the relevant departments to organize on-site disposal. After the disposal is completed, jump to S7; S7. End.

Images