An intelligent gas valve fault emergency disposal center platform and method

Abstract

The application discloses an intelligent gas valve fault emergency disposal center platform and method, and belongs to the field of gas valve operation and maintenance. The application solves the problem that the existing gas valve is difficult to solve the fault due to the untimely scheduling of the emergency event in the use process. The intelligent gas valve fault emergency disposal center platform and method, the supervision center system comprises a supervision computer and a fault emergency processing system, the fault emergency processing system comprises an emergency computer, the supervision center system further comprises a regular maintenance module, and the fault emergency processing system further comprises a large database. Through the fault emergency processing system, multi-party linkage is established in the first time for the emergency event, the emergency disposal process of the intelligent center is started, and the maintenance personnel are distributed tasks, so that the best fault processing efficiency is achieved.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of gas valve operation and maintenance, in particular to an intelligent gas valve fault emergency disposal center platform and method. BACKGROUND

[0002] The gas valve is a new type of safety supporting device for gas pipeline engineering. It is used to cut off, connect and adjust the gas in the pipeline, has good control characteristics and sealing performance, and is suitable for various gas medium pipelines such as city gas, liquefied petroleum gas, natural gas and oxygen. The driving forms include manual, worm gear transmission, electric, pneumatic, hydraulic, electric-hydraulic linkage and other actuators, which can realize remote control and automatic operation.

[0003] With the growth of social economy, the application of gas pipeline energy transmission is growing, and a large number of long-distance gas pipelines are laid, and the problem of pipeline safety protection is increasingly prominent.

[0004] In the use process of the gas valve, the following defects often exist:

[0005] 1. In daily cooperation and command scheduling, due to the untimely scheduling of emergencies, the lack of understanding of the scene, and the difficulty of the management party in remotely guiding the solution of problems in real time.

[0006] 2. The pipeline is buried underground and mostly avoids populated areas, and the geographical environment is relatively poor. The traditional operation and maintenance management mainly relies on manual inspection, meter reading and manual operation, the data acquisition period is very long, real-time monitoring and analysis cannot be achieved, and accident risks cannot be prevented.

[0007] In view of these defects, it is necessary to design an intelligent gas valve fault emergency disposal center platform and method. SUMMARY

[0008] The purpose of the present application is to provide an intelligent gas valve fault emergency disposal center platform and method, which can solve the problem that the gas valve in the prior art is difficult to solve the fault due to the untimely scheduling of emergencies in the use process.

[0009] To achieve the above-mentioned objectives, the present invention provides the following technical solutions: an intelligent gas valve fault emergency handling center platform, comprising a metering workstation, a valve control station, a compression relay station and a supervision center system, the supervision center system comprising a supervision computer and a fault emergency handling system, the supervision center system being bidirectionally connected to a communication base station, the supervision center system being used for remote IoT monitoring of the intelligent gas valves of the metering workstation, the valve control station and the compression relay station, the output end of the supervision computer being connected to the input end of the fault emergency handling system, the fault emergency handling system comprising an emergency computer, the output end of the emergency computer being respectively connected to the input ends of a dispatching task module, a main intercom and a smart phone, the dispatching task module being used for intelligently allocating fault emergency handling work, the fault emergency handling system establishing a multi-party linkage emergency handling process for sudden emergency events, the supervision center system further comprising a regular maintenance module, the regular maintenance module being used to formulate a cycle table for maintenance work, the fault emergency handling system further comprising a large database, the large database being used to manage timely data of the emergency repair handling center.

[0010] Preferably, the metering workstation, valve control station and compression relay station all include sensor components, instrument components, actuator components, detector components, video monitoring equipment and access control system components. The sensor components, instrument components, actuator components, detector components, video monitoring equipment and access control system components are used for multi-directional monitoring of the working data of the metering workstation, valve control station and compression relay station. The sensor components include pressure sensors, temperature sensors, leakage sensors, flow sensors and tidal current sensors.

[0011] Preferably, the output ends of the sensor component, instrument component, actuator component, detector component, video monitoring equipment and access control system component are all connected to the input end of the valve Internet of Things device, the communication base station is bidirectionally connected to the valve Internet of Things device, and the valve Internet of Things device converts the data information of the sensor component, instrument component, actuator component, detector component, video monitoring equipment and access control system component and sends it to the Internet.

[0012] Preferably, the communication base station is bidirectionally connected to the cloud server platform and the computing center server respectively, the output end of the computing center server is connected to the input end of the supervision center system, the computing center server is used to encrypt platform data and upload it to the cloud, the computing center server is bidirectionally connected to the management computer, and the management computer is used to adjust the data parameters of the supervision center system.

[0013] Preferably, the communication base station is bidirectionally connected to the wireless communication terminal, the cloud server platform is bidirectionally connected to the storage module, the cloud server platform synchronizes operation and maintenance data in real time, and the wireless communication terminal is used to receive system tasks for patrol management, defect management and emergency repair.

[0014] Preferably, the output end of the monitoring computer is connected to the input end of the alarm device, the alarm device includes a speaker, an alarm light and a dial alarm module, and the alarm device is used for on-site alarms of the metering workstation, valve control station and compression relay station, and the monitoring computer is bidirectionally connected to the periodic maintenance module, and there are several periodic maintenance modules, and the several periodic maintenance modules all include a cleaning module, a detection and analysis module, a maintenance module, a test module and an inspection robot, the cleaning module is used to record data on cleaning gas valves, the detection and analysis module detects and analyzes gas valve components and records data, the maintenance module is used to manage maintenance data of gas valve components, the test module is used to test gas valves and record experimental data, and the inspection robot is used for intelligent inspection of the pipeline status of metering workstations, valve control stations and compression relay stations.

[0015] Preferably, the fault emergency processing system includes a GPS satellite, the output end of the GPS satellite is connected to the input end of the communication base station, the GPS satellite is used to locate the intelligent gas valve, the communication base station is bidirectionally connected to the emergency computer, the emergency computer is used to receive the location information of the faulty gas valve, the emergency computer is bidirectionally connected to the big database, the big database sends the emergency management information to the emergency computer management, the dispatching task module is used to receive the command information of the emergency computer, there are several smart phones, and several of the smart phones are used to receive the dispatching task information, the output end of the main intercom is connected to the input end of the auxiliary intercom, there are several auxiliary intercoms, and several of the auxiliary intercoms transmit the communication information of the emergency processing to the main intercom, and the main intercom sends the communication information to the emergency computer.

[0016] Preferably, the dispatch task module also includes fault emergency data, the output end of the fault emergency data is connected to the input end of the fault level planning, the output end of the fault level planning is connected to the input end of the emergency repair personnel arrangement information, and the input end of the emergency repair personnel arrangement information is connected to the output end of the dispatch management operation end, the dispatch management operation end is bidirectionally connected to the wireless transmission module, the output end of the wireless transmission module is connected to the input end of the emergency repair personnel communication end, the output end of the emergency repair personnel communication end is connected to the input end of the GPS positioning module, and the output end of the GPS positioning module is connected to the input end of the wireless transmission module.

[0017] Preferably, the large database includes rescue vehicle data, rescue tool data, rescue equipment data, rescue personnel data and rescue route data, and the rescue vehicle data, rescue tool data, rescue equipment data, rescue personnel data and rescue route data are connected to the real-time statistics module, the real-time statistics module is used to record data information of fault emergency disposal, and the real-time statistics module is connected to the wireless transmission module, and the rescue vehicle data includes vehicle type information, vehicle driver information and vehicle location information, and the rescue tool data includes tool parameter information, and the rescue equipment data includes equipment specification information, equipment operation method and equipment safety information, and the rescue route data includes route planning information and vehicle driving information.

[0018] A method for handling an intelligent gas valve fault emergency handling center platform includes the following steps:

[0019] Step 1: Install sensor components, instrument components, actuator components, detector components, video monitoring equipment and access control system components in the metering workstation, valve control station and compression relay station to monitor the working status of the gas valve;

[0020] Step 2: Connect the sensor components, instrument components, actuator components, detector components, video monitoring equipment and access control system components to the network through the valve Internet of Things device. The staff adjusts and processes the data of the computing center server through the operation management computer, sets the corresponding values, monitors the abnormal data, receives the data information through the computing center server, and the computing center server sends the data information to the monitoring center system;

[0021] Step 3: In the supervision center system, the gas valves are regularly maintained and inspected through the cleaning module, detection and analysis module, maintenance module, test module, and inspection robot. The data is uploaded to the network in a timely manner through the valve IoT device. If abnormal data is generated, the gas valve position is promptly located through GPS satellites, and task commands are quickly assigned through the dispatch task module.

[0022] Step 4: Collect statistics on the gas valve fault information, quickly plan the fault level, locate the repair personnel's communication terminal through the GPS positioning module, and send it to the dispatch management operation terminal through the wireless transmission module;

[0023] Step 5: Synchronize the rescue vehicle data, rescue tool data, rescue equipment data, rescue personnel data and rescue route data in the emergency computer. Through the emergency computer and management personnel statistics, formulate a corresponding emergency response plan. Through the dispatch management operation terminal, the rescue personnel arrangement information can be quickly formulated according to the rescue personnel information and location.

[0024] Compared with the prior art, the present invention has the following beneficial effects:

[0025] 1. This intelligent gas valve fault emergency response center platform and method connects the intelligent gas valve to the Internet of Things, which can be easily managed remotely. The monitoring data can be centrally managed through the supervision computer, and various maintenance tasks can be organized and assigned. The fault emergency response system establishes multi-party linkage for the first time for emergency events, and starts the emergency response process of the smart center to achieve pre-emptive prevention and protection, in-process emergency response, and post-event traceability optimization. Equipment maintenance and management are carried out through regular maintenance modules. The safe use cycle of the equipment is the most core investment in the pipeline system. Clear and secure communication and joint mobile management are carried out to maximize the value of the equipment. The working model, parameter model, reliability model, business model, and fault model of the intelligent valve are established through the dispatching task module. According to the data information of the large database, the emergency repair tasks are promptly and intelligently assigned. It has wide adaptability and high work efficiency. Through the accumulation of data and precise positioning of business needs, it provides intelligent valves and various process links and the overall industry, and assigns tasks to maintenance personnel to achieve the best fault handling efficiency.

[0026] 2. This intelligent gas valve fault emergency response center platform and method uses pressure sensors, temperature sensors, leakage sensors, flow sensors, tidal current sensors and other sensor terminals to detect and analyze the parameters of the gas carrier in the pipeline and generate data, ultimately forming a multifunctional monitoring module. Through real-time monitoring and communication of valve equipment systems through valve actuator components, valve instrument components, valve sensor components, etc., equipment parameter data is obtained, and a remote operation supervision module that can monitor, record and control the equipment system is realized, realizing remote real-time monitoring and management. It can collect, transmit, store and analyze parameters such as temperature, pressure, leakage, flow, tidal current, control, and on-site video of metering workstations, valve control stations and compression relay stations in real time, thereby improving management effects.

[0027] 3. This intelligent gas valve fault emergency response center platform and method monitors the working status of the gas valve in real time through sensor components, instrument components, actuator components, detector components, video monitoring equipment and access control system components, and regularly maintains and inspects the gas valve through cleaning modules, detection and analysis modules, maintenance modules, test modules and inspection robots, and uploads data to the network in a timely manner through valve Internet of Things devices. If abnormal data is generated, the gas valve position can be located in time through GPS satellites, the gas valve data can be managed through emergency computers, and task commands can be quickly assigned through the dispatching task module to achieve the best fault emergency response effect and improve work quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 It is a schematic diagram of the principle of the present invention;

[0029] Figure 2 Schematic diagram of the principle of the supervision center system of the present invention;

[0030] Figure 3 Schematic diagram of the principle of the fault emergency processing system of the present invention;

[0031] Figure 4 This is a principle block diagram of the dispatch task module of the present invention;

[0032] Figure 5 This is a principle block diagram of the large database of the lower mold of the present invention.

[0033] In the figure: 1. Metering workstation; 2. Valve control station; 3. Compression relay station; 401. Sensor component; 402. Instrument component; 403. Actuator component; 404. Detector component; 405. Video monitoring equipment; 406. Access control system component; 5. Valve Internet of Things device; 6. Communication base station; 7. Cloud server platform; 8. Computing center server; 9. Management computer; 10. Supervision center system; 101. Supervision computer; 102. Alarm device; 103. Regular maintenance module; 1041. Cleaning module; 1042. Detection and analysis module; 1043. Maintenance module; 1044. Test module; 1045. Inspection robot; 11. Wireless communication terminal; 12. Storage module; 13. Fault emergency processing system; 131. GPS satellite; 132. Emergency computer; 133. Dispatching task module; 134. Main intercom; 135. Auxiliary intercom; 136. Smart phone; 137. Big database. DETAILED DESCRIPTION

[0034] 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.

[0035] See also Figure 1 - Figure 3The application discloses an intelligent gas valve fault emergency disposal center platform which comprises a metering workstation 1, a valve control station 2, a compression relay station 3 and a supervision center system 10, wherein the supervision center system 10 comprises a supervision computer 101 and a fault emergency processing system 13, the supervision center system 10 is bidirectionally connected with a communication base station 6, the supervision center system 10 is used for remotely and networkedly monitoring the intelligent gas valves of the metering workstation 1, the valve control station 2 and the compression relay station 3, the output end of the supervision computer 101 is connected with the input end of the fault emergency processing system 13, the intelligent gas valves are networked, remote management can be conveniently carried out, the supervision computer 101 can centrally manage monitoring data and organize and distribute various maintenance tasks, the fault emergency processing system 13 can first establish multi-party linkage for a sudden emergency event, start an emergency disposal process of the intelligent center, and realize pre-prevention guarantee, in-process emergency disposal and post-tracing optimization, the fault emergency processing system 13 comprises an emergency computer 132, the output end of the emergency computer 132 is connected with the input end of a task dispatching module 133, a main interphone 134 and a smart phone 136 respectively, the task dispatching module 133 is used for intelligently distributing fault emergency disposal work, the task dispatching module 133 establishes a work model, a parameter model, a reliability model, a business model and a fault model of the intelligent valve, accurately positions through data accumulation and business demand, provides the intelligent valve with each process link and the whole of the industry, and distributes tasks to maintenance personnel, so that the best fault processing efficiency is achieved, the fault emergency processing system 13 establishes an emergency disposal process of multi-party linkage for a sudden emergency event, the supervision center system 10 further comprises a regular maintenance module 103, the regular maintenance module 103 is used for formulating a cycle period table of maintenance work, equipment maintenance management is carried out through the regular maintenance module 103, the safe use period of the equipment is the most core investment of the pipeline system, clear and safe communication and joint maneuvering management are good, and the equipment value is maximized, the fault emergency processing system 13 further comprises a large database 137, the large database 137 is used for managing timely data of the emergency repair disposal center, according to data information of the large database 137, the emergency repair tasks are intelligently distributed in time, the adaptability is wide, and the work efficiency is high.

[0036] Further, the metering station 1, the valve control station 2 and the compression relay station 3 each comprise a sensor assembly 401, an instrument assembly 402, an actuator assembly 403, a detector assembly 404, a video monitoring device 405 and an access control system assembly 406, which are used to monitor the working data of the metering station 1, the valve control station 2 and the compression relay station 3 in multiple directions. The sensor assembly 401 comprises a pressure sensor, a temperature sensor, a leakage sensor, a flow sensor and a tide sensor. The gas carrier in the pipeline is detected and analyzed by the sensors such as the pressure sensor, the temperature sensor, the leakage sensor, the flow sensor and the tide sensor, and data is formed. Finally, a multifunctional monitoring module is formed. The valve equipment system is monitored and communicated in real time by the valve actuator assembly 403, the valve instrument assembly 402 and the valve sensor assembly 401, and the equipment parameter data is obtained. The remote operation monitoring module of the equipment system is realized, which can be monitored, recorded and controlled. Remote real-time monitoring and management are realized. The temperature, pressure, leakage, flow, tide, control, on-site video and other parameters of the metering station 1, the valve control station 2 and the compression relay station 3 can be collected, transmitted, stored and analyzed in real time, and the management effect is improved.

[0037] Further, the output ends of the sensor assembly 401, the instrument assembly 402, the actuator assembly 403, the detector assembly 404, the video monitoring device 405 and the access control system assembly 406 are connected with the input end of the valve Internet of Things device 5. The communication base station 6 is bidirectionally connected with the valve Internet of Things device 5. The valve Internet of Things device 5 converts and sends the data information of the sensor assembly 401, the instrument assembly 402, the actuator assembly 403, the detector assembly 404, the video monitoring device 405 and the access control system assembly 406 to the Internet. The data information of the detection assembly can be uploaded to the network. The data can be downloaded through the communication equipment. Remote monitoring and control can be carried out. Customers can conveniently repair, check the detailed information of the equipment and operation and maintenance reports, track the operation and maintenance process, intelligently manage and meet the needs of customers.

[0038] Further, the communication base station 6 is bidirectionally connected with the cloud server platform 7 and the computing center server 8. The output end of the computing center server 8 is connected with the input end of the supervision center system 10. The computing center server 8 is used to encrypt platform data and upload it to the cloud. The computing center server 8 is bidirectionally connected with the management computer 9. The management computer 9 is used to adjust the data parameters of the supervision center system 10. The staff can adjust and process the data of the computing center server 8 by operating the management computer 9, and can set corresponding values to fully supervise abnormal data. The supervision center system 10 effectively realizes intelligent management of gas valves and intelligent processing of emergency failures of gas valves, and improves the working quality.

[0039] Furthermore, the communication base station 6 is bidirectionally connected to the wireless communication terminal 11, and the cloud server platform 7 is bidirectionally connected to the storage module 12. Data information is stored through the storage module 12, and the cloud server platform 7 can be accessed through the wireless communication terminal 11 to download data information and remotely query data. The cloud server platform 7 synchronizes operation and maintenance data in real time, and the wireless communication terminal 11 is used to receive system tasks for patrol management, defect management and emergency repair.

[0040] Furthermore, the output end of the monitoring computer 101 is connected to the input end of the alarm device 102, the alarm device 102 includes a speaker, an alarm light and a dial alarm module, and the alarm device 102 is used for on-site alarms of the metering workstation 1, the valve control station 2 and the compression relay station 3, and the monitoring computer 101 is bidirectionally connected to the regular maintenance module 103, and the regular maintenance module 103 is provided with several, and the several regular maintenance modules 103 include a cleaning module 1041, a detection and analysis module 1042, a maintenance module 1043, a test module 1044 and an inspection robot 1045, and the cleaning module 1041 is used to record The data of cleaning gas valves is recorded, the detection and analysis module 1042 detects and analyzes the gas valve components and records the data, the maintenance module 1043 is used to manage the maintenance data of the gas valve components, the test module 1044 is used to test the gas valve and record the experimental data, and the inspection robot 1045 is used for intelligent inspection of the pipeline status of the metering workstation 1, the valve control station 2 and the compression relay station 3. The regular inspection module 103 periodically provides accurate operation and maintenance data to improve the working effect of the management center platform, which is conducive to long-term work, thoughtful maintenance and timely elimination of defects, so that the equipment is always in the best operating state and improves equipment performance.

[0041] Furthermore, the fault emergency processing system 13 includes a GPS satellite 131, the output end of the GPS satellite 131 is connected to the input end of the communication base station 6, the GPS satellite 131 is used to locate the intelligent gas valve, the communication base station 6 is bidirectionally connected to the emergency computer 132, the emergency computer 132 is used to receive the location information of the faulty gas valve, the emergency computer 132 is bidirectionally connected to the big database 137, the big database 137 sends the emergency management information to the emergency computer 132 for management, the dispatch task module 133 is used to receive the command information of the emergency computer 132, a number of smart phones 136 are provided, and a number of smart phones 136 are used to receive the dispatch task information, the output end of the main intercom 134 is connected to the input end of the auxiliary intercom 135, and a number of auxiliary intercoms 135 are provided, and a number of auxiliary intercoms 135 send the emergency processing The communication information is transmitted to the main intercom 134, and the main intercom 134 sends the communication information to the emergency computer 132. The working status of the gas valve is monitored in real time through the sensor component 401, the instrument component 402, the actuator component 403, the detector component 404, the video monitoring equipment 405 and the access control system component 406. The gas valve is regularly maintained and inspected through the cleaning module 1041, the detection and analysis module 1042, the maintenance module 1043, the test module 1044 and the inspection robot 1045, and the data is uploaded to the network in time through the valve Internet of Things device 5. If abnormal data is generated, the gas valve position can be located in time through the GPS satellite 131, the gas valve data can be managed through the emergency computer 132, and the task command can be quickly assigned through the dispatching task module 133 to achieve the best fault emergency processing effect and improve work quality.

[0042] See also Figure 4 The dispatch task module 133 also includes fault emergency data. The output end of the fault emergency data is connected to the input end of the fault level planning. The fault level is formulated through the fault level planning to facilitate the scheduling of maintenance personnel and maintenance equipment. The output end of the fault level planning is connected to the input end of the emergency repair personnel arrangement information, and the input end of the emergency repair personnel arrangement information is connected to the output end of the dispatch management operation end. The dispatch management operation end is bidirectionally connected to the wireless transmission module. The output end of the wireless transmission module is connected to the input end of the emergency repair personnel communication end. The output end of the emergency repair personnel communication end is connected to the input end of the GPS positioning module. The output end of the GPS positioning module is connected to the input end of the wireless transmission module. The fault information of the gas valve can be counted and the fault level can be quickly planned. The emergency repair personnel communication end of the maintenance personnel can be located through the GPS positioning module and sent to the dispatch management operation end through the wireless transmission module. The dispatch management operation end can quickly formulate emergency repair personnel arrangement information according to the emergency repair personnel information and location, thereby performing task allocation, effectively improving work quality, and improving the efficiency of maintenance and repair.

[0043] See also Figure 5 The big database 137 includes rescue vehicle data, rescue tool data, rescue equipment data, rescue personnel data and rescue route data. The rescue vehicle data, rescue tool data, rescue equipment data, rescue personnel data and rescue route data are connected to the real-time statistics module. The real-time statistics module is used to record data information of emergency handling of faults, and the real-time statistics module is connected to the wireless transmission module. The wireless transmission module sends real-time information to the emergency computer 132. The emergency computer 132 quickly searches the data information to formulate the best emergency handling plan. The rescue vehicle data includes vehicle type information, vehicle driver information and vehicle location information, and the rescue tool data includes tool parameter information, and the rescue equipment data includes equipment specification information, equipment operation method and equipment safety information, and the rescue route data includes route planning information and vehicle driving information. The rescue vehicle data, rescue tool data, rescue equipment data, rescue personnel data and rescue route data are synchronized in the emergency computer 132. Through the emergency computer 132 and management personnel statistics, a corresponding emergency handling plan is formulated to facilitate the improvement of the efficiency of fault maintenance and repair.

[0044] See also Figure 1 - Figure 5 A method for handling an intelligent gas valve fault emergency handling center platform includes the following steps:

[0045] Step 1: Install sensor assembly 401, instrument assembly 402, actuator assembly 403, detector assembly 404, video monitoring equipment 405 and access control system assembly 406 in metering workstation 1, valve control station 2 and compression relay station 3 to monitor the working status of the gas valve;

[0046] Step 2: The sensor component 401, the instrument component 402, the actuator component 403, the detector component 404, the video monitoring device 405 and the access control system component 406 are connected to the network through the valve Internet of Things device 5. The staff adjusts and processes the data of the computing center server 8 through the operation management computer 9, sets corresponding values, monitors abnormal data, receives data information through the computing center server 8, and the computing center server 8 sends the data information to the monitoring center system 10;

[0047] Step 3: In the monitoring center system 10, the cleaning module 1041, the detection and analysis module 1042, the maintenance module 1043, the test module 1044, and the inspection robot 1045 are used to regularly perform maintenance and inspection on the gas valve. The data is uploaded to the network in a timely manner through the valve IoT device 5. If abnormal data is generated, the gas valve position is promptly located via the GPS satellite 131, and a task command is quickly assigned via the dispatching task module 133.

[0048] Step four: the fault information of gas valve is counted, the fault level is quickly planned, the communication end of the repair personnel is positioned through the GPS positioning module, and the wireless transmission module is sent to the order management operation end;

[0049] Step five: the rescue vehicle data, rescue tool data, rescue equipment data, rescue personnel data and rescue route data are synchronized in the emergency computer 132, the corresponding emergency disposal plan is made through the emergency computer 132 and the management personnel, and the repair personnel arrangement information can be quickly made according to the repair personnel information and position through the order management operation end.

[0050] In summary, the intelligent gas valve fault emergency disposal center platform and method installs sensor components 401, instrument components 402, actuator components 403, detector components 404, video monitoring devices 405 and access control system components 406 in the metering workstation 1, valve control station 2 and compression relay station 3 to monitor the working state of the gas valve. The sensor components 401, instrument components 402, actuator components 403, detector components 404, video monitoring devices 405 and access control system components 406 are connected to the network through the valve Internet of Things device 5. The staff adjusts and processes the data of the computing center server 8 by operating the management computer 9, sets the corresponding values, supervises the abnormal data, receives the data information through the computing center server 8, sends the data information to the supervision center system 10 through the pressure sensor, temperature sensor, leakage sensor, flow sensor, tide sensor and other sensing terminals, realizes parameter detection and analysis of the gas carrier of the pipeline and forms data, and finally forms a multifunctional monitoring module. Through real-time monitoring and communication of the valve actuator components 403, valve instrument components 402, valve sensor components 401 and other valve equipment systems, equipment parameter data is obtained, a remote operation supervision module that can monitor, record and control the equipment system is realized, remote real-time monitoring and management are realized, and parameters such as temperature, pressure, leakage, flow, tide, control and on-site video of the metering workstation 1, valve control station 2 and compression relay station 3 can be collected, transmitted, stored and analyzed in real time, the management effect is improved, and the supervision center system 10 is realized. Through the cleaning module 1041, the detection and analysis module 1042, the maintenance module 1043, the test module 1044 and the inspection robot 1045, the gas valve is regularly maintained and repaired, the data is uploaded to the network in time through the valve Internet of Things device 5, if abnormal data occurs, the GPS satellite 131 is used to locate the position of the gas valve in time, and the task command is quickly distributed through the task distribution module 133. The fault information of the gas valve is counted, the fault level is quickly planned, the communication end of the repair personnel of the repair personnel can be positioned through the GPS positioning module, and the wireless transmission module is sent to the task distribution management operation end. According to the repair personnel information and position, the repair personnel arrangement information can be quickly developed through the task distribution management operation end, so as to perform task distribution, effectively improve the work quality, improve the efficiency of maintenance and repair, synchronize the rescue vehicle data, rescue tool data, rescue equipment data, rescue personnel data and rescue route data in the emergency computer 132, and develop the corresponding emergency disposal plan through the emergency computer 132 and the management personnel. The staff is contacted through the smart phone 136 to quickly enter the fault emergency disposal work.

[0051] It should be noted that, in this document, relational terms such as first and second, etc., are used only to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the terms "comprises," "comprising," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that includes a list of elements includes not only those elements but also other elements not explicitly listed, or elements inherent to such process, method, article, or apparatus.

[0052] 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. An intelligent gas valve fault emergency handling center platform, comprising a metering workstation (1), a valve control station (2), a compression relay station (3) and a supervision center system (10), characterized in that: The supervisory center system (10) includes a supervisory computer (101) and a fault emergency processing system (13). The supervisory center system (10) is bidirectionally connected to a communication base station (6). The supervisory center system (10) is used for remote IoT monitoring of the intelligent gas valves of the metering workstation (1), the valve control station (2) and the compression relay station (3). The output end of the supervisory computer (101) is connected to the input end of the fault emergency processing system (13). The fault emergency processing system (13) includes an emergency computer (132). The output end of the emergency computer (132) is respectively connected to the dispatching task module ( 133), the main intercom (134) and the input end of the smart phone (136) are connected, the dispatching task module (133) is used to intelligently distribute the fault emergency disposal work, the fault emergency disposal system (13) establishes a multi-party linkage emergency disposal process for sudden emergency events, the supervision center system (10) also includes a regular maintenance module (103), the regular maintenance module (103) is used to formulate a cycle table for maintenance work, the fault emergency disposal system (13) also includes a large database (137), the large database (137) is used to manage timely data of the emergency repair disposal center; The metering workstation (1), valve control station (2) and compression relay station (3) all include a sensor component (401), an instrument component (402), an actuator component (403), a detector component (404), a video monitoring device (405) and an access control system component (406), wherein the sensor component (401) includes a pressure sensor, a temperature sensor, a leakage sensor, a flow sensor and a tidal current sensor; The output ends of the sensor component (401), the instrument component (402), the actuator component (403), the detector component (404), the video monitoring device (405) and the access control system component (406) are all connected to the input end of the valve Internet of Things device (5), the communication base station (6) is bidirectionally connected to the valve Internet of Things device (5), and the valve Internet of Things device (5) converts the data information of the sensor component (401), the instrument component (402), the actuator component (403), the detector component (404), the video monitoring device (405) and the access control system component (406) and sends it to the Internet; The fault emergency processing system (13) includes a GPS satellite (131), the output end of the GPS satellite (131) is connected to the input end of the communication base station (6), the GPS satellite (131) is used to locate the intelligent gas valve, the communication base station (6) is bidirectionally connected to the emergency computer (132), the emergency computer (132) is used to receive the location information of the faulty gas valve, the emergency computer (132) is bidirectionally connected to the big database (137), and the big database (137) sends the emergency management information to the emergency computer (132) for management. The dispatch task module (133) is used to receive command information from the emergency computer (132); a plurality of smart phones (136) are provided, and the plurality of smart phones (136) are used to receive dispatch task information; the output end of the main intercom (134) is connected to the input end of the auxiliary intercom (135); a plurality of auxiliary intercoms (135) are provided, and the plurality of auxiliary intercoms (135) transmit emergency processing communication information to the main intercom (134); and the main intercom (134) sends the communication information to the emergency computer (132).

2. The intelligent gas valve fault emergency handling center platform according to claim 1 is characterized by: The sensor assembly (401), the instrument assembly (402), the actuator assembly (403), the detector assembly (404), the video monitoring device (405) and the access control system assembly (406) are used for multi-directional monitoring of working data of the metering workstation (1), the valve control station (2) and the compression relay station (3).

3. The intelligent gas valve fault emergency handling center platform according to claim 2 is characterized by: The dispatch task module (133) also includes fault emergency data, the output end of the fault emergency data is connected to the input end of the fault level planning, the output end of the fault level planning is connected to the input end of the emergency repair personnel arrangement information, and the input end of the emergency repair personnel arrangement information is connected to the output end of the dispatch management operation end, the dispatch management operation end is bidirectionally connected to the wireless transmission module, the output end of the wireless transmission module is connected to the input end of the emergency repair personnel communication end, the output end of the emergency repair personnel communication end is connected to the input end of the GPS positioning module, and the output end of the GPS positioning module is connected to the input end of the wireless transmission module.

4. The intelligent gas valve fault emergency handling center platform according to claim 3 is characterized by: The communication base station (6) is bidirectionally connected to the cloud server platform (7) and the computing center server (8), respectively. The output end of the computing center server (8) is connected to the input end of the supervision center system (10). The computing center server (8) is used to encrypt platform data and upload it to the cloud. The computing center server (8) is bidirectionally connected to the management computer (9), and the management computer (9) is used to adjust the data parameters of the supervision center system (10).

5. The intelligent gas valve fault emergency handling center platform according to claim 4 is characterized by: The communication base station (6) is bidirectionally connected to the wireless communication terminal (11), the cloud server platform (7) is bidirectionally connected to the storage module (12), the cloud server platform (7) synchronizes operation and maintenance data in real time, and the wireless communication terminal (11) is used to receive system tasks for patrol management, defect management and emergency repair.

6. The intelligent gas valve fault emergency handling center platform according to claim 5 is characterized by: The output end of the supervisory computer (101) is connected to the input end of the alarm device (102), the alarm device (102) includes a speaker, an alarm light and a dial alarm module, and the alarm device (102) is used for on-site alarms of the metering workstation (1), the valve control station (2) and the compression relay station (3), and the supervisory computer (101) is bidirectionally connected to the regular maintenance module (103), and the regular maintenance module (103) is provided with a plurality of them, and the plurality of regular maintenance modules (103) each include a cleaning module (1041), a detection and analysis module (104 2), a maintenance module (1043), a test module (1044) and an inspection robot (1045), wherein the cleaning module (1041) is used to record data on cleaning gas valves, the detection and analysis module (1042) detects and analyzes gas valve components and records data, the maintenance module (1043) is used to manage maintenance data of gas valve components, the test module (1044) is used to test gas valves and record experimental data, and the inspection robot (1045) is used to intelligently inspect the pipeline status of the metering workstation (1), the valve control station (2) and the compression relay station (3).

7. The intelligent gas valve fault emergency handling center platform according to claim 6 is characterized by: The large database (137) includes rescue vehicle data, rescue tool data, rescue equipment data, rescue personnel data and rescue route data. The rescue vehicle data, rescue tool data, rescue equipment data, rescue personnel data and rescue route data are connected to a real-time statistics module. The real-time statistics module is used to record data information of emergency handling of faults. The real-time statistics module is connected to a wireless transmission module. The rescue vehicle data includes vehicle type information, vehicle driver information and vehicle location information. The rescue tool data includes tool parameter information. The rescue equipment data includes equipment specification information, equipment operation method and equipment safety information. The rescue route data includes route planning information and vehicle driving information.

8. A method for handling intelligent gas valve fault emergency handling center platform according to claim 7, characterized in that: The steps include: Step 1: Installing a sensor assembly (401), an instrument assembly (402), an actuator assembly (403), a detector assembly (404), a video monitoring device (405) and an access control system assembly (406) in the metering workstation (1), the valve control station (2) and the compression relay station (3) to monitor the working status of the gas valve; Step 2: Connect the sensor component (401), the instrument component (402), the actuator component (403), the detector component (404), the video monitoring device (405) and the access control system component (406) to the network through the valve Internet of Things device (5); the staff adjusts and processes the data of the computing center server (8) through the operation management computer (9), sets corresponding values, monitors abnormal data, receives data information through the computing center server (8), and the computing center server (8) sends the data information to the monitoring center system (10); Step 3: In the monitoring center system (10), the cleaning module (1041), the detection and analysis module (1042), the maintenance module (1043), the test module (1044) and the inspection robot (1045) are used to regularly perform maintenance and inspection on the gas valve, and the data is uploaded to the network in a timely manner through the valve Internet of Things device (5). If abnormal data is generated, the position of the gas valve is promptly located through the GPS satellite (131), and the task command is quickly assigned through the dispatching task module (133); Step 4: Collect statistics on the gas valve fault information, quickly plan the fault level, locate the repair personnel's communication terminal through the GPS positioning module, and send it to the dispatch management operation terminal through the wireless transmission module; Step 5: Synchronize the rescue vehicle data, rescue tool data, rescue equipment data, rescue personnel data and rescue route data in the emergency computer (132), and formulate a corresponding emergency response plan through the emergency computer (132) and management personnel statistics. The dispatch management operation terminal can quickly formulate the repair personnel arrangement information according to the repair personnel information and location.

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