High-risk operation control system and method based on identification resolution technology

Abstract

The embodiment of the present application provides a high-risk operation control system and method based on identity resolution technology. The system includes: a safe operation management subsystem for displaying operation approval data and on-site environmental detection data and responding to user approval operations; an edge device for obtaining the operation site video data collected by the video monitoring subsystem for analysis to obtain analysis results; a risk control subsystem for analyzing the data in the system and pushing safety prompt information to the terminal or display screen carried by a third person. The safe operation management subsystem, the edge device and the risk control subsystem are interconnected based on the operation ticket identification to facilitate the query of the information associated with the operation ticket identification in the identity resolution secondary application platform. Through the above solution, the intelligent analysis of the edge device is used to effectively improve the efficiency and timeliness of risk identification. Through the processing of the risk control subsystem, the efficiency and safety of operation control are improved.

Description

Technical Field

[0001] The embodiments of the present application relate to the field of security management technology, and in particular to a high-risk operation management and control system and method based on identity resolution technology. Background Art

[0002] Safety in production is of paramount importance in the petrochemical industry. Operational safety is an important component of personnel behavioral safety in the safety management system. Efforts to improve process supervision and control of operational safety can effectively avoid the occurrence of operational safety accidents.

[0003] Petrochemical companies generally have established safety management systems, but many issues remain: 1. The work permit management system within petrochemical companies is used to manage the application and approval of high-risk work permits. However, this system has been plagued by issues such as proxy signing, alteration of permits, and the absence of responsible personnel from on-site confirmation during the work permit application process. This has resulted in inadequate implementation of the work permit system, inadequate identification of operational risks, and a lack of monitoring during operations. 2. The video surveillance subsystem is a crucial component of safety management in petrochemical companies. However, in actual use, the video surveillance subsystem is manually checked to issue on-site warnings for high-altitude operations that may pose risks. The level of control over high-altitude operations is only related to the location, quantity, clarity, and manually judged monitoring of video surveillance points, resulting in a single control element, incomplete considerations, and the possibility of missed judgments in manual identification; 3. Petrochemical enterprises generally have multiple information systems responsible for different businesses. The data communication between the systems requires the construction of multiple data interfaces between the systems. The relationships between the systems are complex, forming data islands, making it impossible to share data related to the safety of high-altitude operations, and making it difficult to comprehensively consider the operational risks that may be brought about by various safety factors; 4. In the safe construction operation process of petrochemical enterprises, reminders of safety risks are generally given by safety management personnel on-site or sent through text messages. When there is a shortage of manpower or blind spots in monitoring due to human factors, early warning information is prone to delays or even failure to be issued. Summary of the Invention

[0004] The embodiments of the present invention provide a high-risk operation management and control system and method based on identification resolution technology, which realizes intelligent identification and early warning of operation risks.

[0005] In one embodiment, the present application provides a high-risk operation management and control system based on identity resolution technology, the system comprising:

[0006] The safety operation management subsystem is used to store and display operation approval data and on-site environment detection data, and respond to user approval operations on the operation approval data and on-site environment detection data;

[0007] The edge device is used to obtain the operation site video data collected by the video monitoring subsystem, analyze the operation site video data, and obtain analysis results;

[0008] The risk management subsystem is configured to push safety reminder information to a terminal or display screen carried by a third person, based on the work site image information and safety measure detection information regularly transmitted by the terminal carried by the first person, the evaluation results of the on-site environment detection data regularly collected by the terminal carried by the second person, and the analysis results of the edge device, after the approval result obtained by the safe operation subsystem in response to the user's approval operation is approved;

[0009] Among them, the safety operation management subsystem, edge terminal equipment and risk control subsystem are interconnected based on the operation ticket identification, so as to facilitate the subsequent query of the information associated with the operation ticket identification in the secondary application platform of identification resolution.

[0010] In another embodiment, the present application also provides a high-risk operation management method based on identity resolution technology, which is executed by a high-risk operation management system based on identity resolution technology. The system includes: a safe operation management subsystem, an edge device, and a risk management subsystem; the method includes:

[0011] The safety operation management subsystem stores and displays operation approval data and on-site environment detection data, and responds to user approval operations on the operation approval data and on-site environment detection data;

[0012] The edge device obtains the operation site video data collected by the video monitoring subsystem, analyzes the operation site video data, and obtains analysis results;

[0013] After the safety operation subsystem receives an approval result indicating approval from the user, the risk control subsystem pushes a safety reminder message to the terminal or display screen carried by the third person based on the work site image information and safety measure detection information regularly sent by the terminal carried by the first person, the evaluation results of the on-site environment detection data regularly collected by the terminal carried by the second person, and the analysis results of the edge device.

[0014] Among them, the safety operation management subsystem, edge terminal equipment and risk control subsystem are interconnected based on the operation ticket identification, so as to facilitate the subsequent query of the information associated with the operation ticket identification in the secondary application platform of identification resolution.

[0015] The embodiment of the present application provides a high-risk operation control system based on identity resolution technology, which includes: a safe operation management subsystem for storing and displaying operation approval data and on-site environment detection data, and responding to the user's approval operation on the operation approval data and on-site environment detection data; an edge terminal device for obtaining the operation site video data collected by the video monitoring subsystem, analyzing the operation site video data, and obtaining an analysis result; a risk control subsystem for, after the approval result obtained by the safe operation subsystem in response to the user's approval operation is approval, pushing safety prompt information to the terminal or display screen carried by the third person based on the operation site image information and safety measure detection information sent regularly by the terminal carried by the first person, the evaluation results of the on-site environment detection data collected regularly by the terminal carried by the second person, and the analysis results of the edge terminal device. Wherein, the safe operation management subsystem, the edge terminal device and the risk control subsystem are interconnected based on the operation ticket identification, so as to facilitate the subsequent query of the information associated with the operation ticket identification in the identity resolution secondary application platform.

[0016] The high-risk operation management and control system based on identity resolution technology provided in the embodiments of this application is designed based on identity resolution and developed, designed, or written based on industrial interconnection. It includes industrial Internet platform applications, edge-end behavioral intelligent analysis, and identity resolution secondary operation platform applications. All applications of the high-risk operation management and control system based on identity resolution, including the safe operation permit management system, emergency management system, video surveillance subsystem, behavioral intelligent analysis, and operation process management, are implemented through the identity resolution microservice and coding center on the enterprise intranet. The corresponding business process data is stored in the cloud using MySQL / OSS services. The mobile application for handheld terminals is developed as a standalone app and used online via a 5G network connection. Management services are based on the cloud PaaS platform. After a thorough assessment of operation risks based on relevant data, operation applications are approved, and the approval system is improved. Risk assessment of personnel working at height is performed throughout the entire process based on video surveillance and combined with AI image recognition. This makes risk analysis automated, intelligent, and real-time, avoiding misjudgments or omissions caused by manual identification. Integrating relevant data on operating environment safety into the risk management and control subsystem facilitates comprehensive assessment of operation risks. Based on the results of the analysis, the discovered safety risks will be used to send remote warning information to the operators through various devices, which is conducive to informing the operators of the risks in a timely manner and reducing the labor cost of going to the site to warn the operators of the risks.

[0017] The above content of the invention is only an overview of the technical solution of the present invention. In order to more clearly understand the technical means of the present invention, it can be implemented in accordance with the contents of the specification. In order to make the above and other purposes, features and advantages of the present invention more obvious and easy to understand, the specific implementation methods of the present invention are listed below. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 This is a structural diagram of a high-risk operation management and control system based on identity resolution technology provided by an embodiment of the present application;

[0019] Figure 2 This is a structural block diagram of another high-risk operation management and control system based on identity resolution technology provided in an embodiment of the present application;

[0020] Figure 3 This is a functional architecture diagram of a high-risk operation management and control system based on identity resolution technology provided by an embodiment of the present application;

[0021] Figure 4 This is a flowchart of a high-risk operation management method based on identity resolution technology provided in an embodiment of the present application;

[0022] Figure 5 This is a flowchart of the operation provided by the embodiment of the present application;

[0023] Figure 6 This is a data flow diagram for the risk identification and early warning business of personnel working at heights provided in an embodiment of the present application. DETAILED DESCRIPTION

[0024] Exemplary embodiments of the present invention will be described in more detail below with reference to the accompanying drawings. Although exemplary embodiments of the present invention are shown in the accompanying drawings, it should be understood that the exemplary embodiments described herein are merely illustrative of the present invention and are not intended to limit the present invention. Rather, these embodiments are provided to facilitate a more thorough understanding of the present invention and to fully convey the scope of the present invention to those skilled in the art. Furthermore, it should be noted that, for ease of description, the accompanying drawings only illustrate portions relevant to the present invention, rather than all structures.

[0025] Before discussing the exemplary embodiments in more detail, it should be mentioned that some exemplary embodiments are described as processes or methods depicted as flow charts. Although the flow charts describe the various operations (or steps) as sequential processes, many of the operations (or steps) therein can be implemented in parallel, concurrently, or simultaneously. In addition, the order of the various operations can be rearranged. The process can be terminated when its operation is completed, but can also have additional steps not included in the accompanying drawings. The process can correspond to a method, function, procedure, subroutine, subprogram, etc.

[0026] The high-risk operation management and control system and method based on identity resolution technology provided in the embodiments of the present application are described in detail below through the following embodiments and their optional solutions.

[0027] Figure 1 This is a structural diagram of a high-risk operation control system based on identification resolution technology provided by an embodiment of the present application. The technical solution of the embodiment of the present application can be applied to scenarios of intelligent identification and early warning of operation risks. Typically, it can be applied to scenarios of intelligent identification and early warning of high-altitude operation risks. Figure 1 As shown, the high-risk operation management and control system 100 based on identity resolution technology provided in the embodiment of the present application may include:

[0028] The safety operation management subsystem 110 is used to store and display operation approval data and on-site environment detection data, and respond to user approval operations on the operation approval data and on-site environment detection data;

[0029] The edge device 120 is configured to obtain the work site video data collected by the video monitoring subsystem, analyze the work site video data, and obtain analysis results;

[0030] The risk management subsystem 130 is used to push safety prompt information to the terminal or display screen carried by the third person after the approval result obtained by the safe operation subsystem in response to the user's approval operation is approval, based on the work site image information and safety measures detection information sent regularly by the terminal carried by the first person, the evaluation results of the on-site environment detection data collected regularly by the terminal carried by the second person, and the analysis results of the edge device.

[0031] Among them, the safe operation management subsystem 110, edge terminal device 120 and risk control subsystem 130 are interconnected based on the operation ticket identification, so as to facilitate the subsequent query of information associated with the operation ticket identification in the secondary application platform of identification resolution.

[0032] In the embodiment of the present application, the high-risk operation management and control system 100 based on identity resolution technology is designed based on identity resolution, and is developed, designed or written based on industrial interconnection, including industrial Internet platform applications, behavioral intelligent analysis at the edge, and identity resolution secondary operation platform applications. All applications of the high-risk management and control system 100 based on identity resolution, which connects all businesses such as the safe operation permit management system, emergency management system, video surveillance subsystem, behavioral intelligent analysis, and operation process management, are implemented through the identity resolution microservice and coding center of the enterprise intranet, and the corresponding business process data is stored in the Mysql / OSS service in the cloud. The mobile application of the handheld terminal is developed based on an independent APP method, used on the network through a 5G network connection, and the management business is based on the cloud PaaS platform.

[0033] The job approval data in the safe job management subsystem 110 is job-related data used to approve job applications. When a worker applies for a job, they must fill in the job approval data in the safe job management subsystem 110. This data may include the job type, job content, job location, the name of the worker, and the worker's department. Approval personnel review the job approval data entered by the worker in the safe job management subsystem 110 and then approve the job application.

[0034] The on-site environmental monitoring data in the safe operation management subsystem 110 refers to data that requires manual observation, collection, and analysis. Examples include the elevation of the work site, the integrity of cylinder seals, and gas collected from sealed tanks containing liquid chemical products. As will be appreciated, obtaining on-site environmental monitoring data allows personnel to determine whether the work site is safe and meets construction conditions. If not, a safety hazard inspection of the work site is necessary.

[0035] In the safe operation management subsystem 110, the approval personnel review the operation approval data and on-site environmental monitoring data to determine whether the operator is qualified for the operation and whether the operating environment meets the construction conditions. They then issue an approval result for the operator's operation application. The approval process involves the approval personnel reviewing the relevant data and issuing an approval result. The review criteria can be a set of commonly used standards in the field. The approval personnel then issue an approval result based on whether the operation approval data and on-site environmental monitoring data meet these standards.

[0036] The safe operation management subsystem 110 responds to the user's approval operation and displays the approval result on the screen. The displayed approval result can be "approved" or "approved not passed".

[0037] The edge device 120 is a device that can identify and analyze video images through methods such as artificial intelligence, for example, it can be a server.

[0038] The video surveillance subsystem is used to collect video data from the work site. This subsystem can be composed of several cameras or cameras, or smart terminals with camera functions. The work site video data can be data related to the work site environment or videos related to the workers at the work site. The video surveillance subsystem sends the collected work site video data to the edge device 120 for video analysis. The analysis results can include whether the workers' operations are illegal, whether the workers' helmets are worn correctly, and whether there are any dangerous factors at the work site.

[0039] The video surveillance subsystem in the embodiment of the present application can be a system independent of the high-risk operation management and control system 100 based on identity resolution technology, or it can be a subsystem of the high-risk operation management and control system 100 based on identity resolution technology. This embodiment does not limit this.

[0040] When the approval result of the approval personnel in the safe operation management subsystem 110 after the approval of the relevant data is approved, the safe operation management subsystem 110 sends the approved approval result to the risk control subsystem 130 .

[0041] In the embodiment of the present application, once the work application is approved, the operator begins working on-site. During the work process, a staff member monitors and updates the work-related data in real time and sends the updated data to the risk management subsystem 130. After comprehensive analysis of the data, the risk management subsystem 130 sends safety reminder information to the staff member in a certain manner if any abnormality is found.

[0042] Among them, the first person and the second person can be any data collection personnel. The terminal carried by the first person can be a device that can collect and send images and videos, such as a video camera, a camera, etc. The terminal carried by the second person can be a device that can collect chemical and biological information (such as gas) at the work site, such as a handheld gas detector, etc. The work site image information can include work environment image information and worker image information, etc. Safety measures detection information refers to whether the workers have correctly taken the prescribed safety measures during the operation. The third person can be a backstage supervisor or an on-site worker. The terminal carried by the third person refers to a device that can send and receive information, such as a handheld device (walkie-talkie, PDA, etc.), a smart phone, a smart tablet, etc. A display screen refers to a device that can only receive and display information. Safety prompt information can include abnormal factors at the work site and hidden dangers of illegal operations by workers.

[0043] An embodiment of the present application provides a high-risk operation management and control system based on identity resolution technology, the system including: a safe operation management subsystem for storing and displaying operation approval data and on-site environment detection data, and responding to user approval operations on the operation approval data and on-site environment detection data; an edge terminal device for acquiring operation site video data collected by a video monitoring subsystem, analyzing the operation site video data, and obtaining analysis results; a risk management subsystem for the risk management subsystem, for pushing safety prompt information to a terminal or display screen carried by a third person based on the operation site image information and safety measures detection information periodically sent by the terminal carried by the first person, the evaluation results of the on-site environment detection data periodically collected by the terminal carried by the second person, and the analysis results of the edge terminal device after the approval result obtained by the safe operation subsystem in response to the user's approval operation is approved.

[0044] The high-risk operation management and control system 100 based on identification resolution technology provided in this embodiment first fully evaluates the operation risk through relevant data before approving the operation application, and the approval system is perfect. Secondly, the risk judgment of the entire process of personnel working at height is carried out on the basis of video monitoring through the cooperation of AI image recognition, so as to realize the automation, intelligence and real-time of risk analysis, and avoid the misjudgment or omission caused by manual identification. Again, the relevant data on the safety of the working environment are uniformly integrated into the risk management and control subsystem 130, which is conducive to the comprehensive analysis and judgment of the operation risks. Finally, according to the results of the analysis and judgment, the safety risks found will be sent to the operating personnel through various devices. Remote warning information is sent to the operating personnel, which is conducive to timely informing the operating personnel of the risks and reducing the labor cost of going to the site to remind the operating personnel of the risks.

[0045] In an implementable solution of the embodiment of the present application, the solution of the embodiment of the present application can be combined with each optional solution in one or more of the above-mentioned embodiments. In the high-risk operation control system 100 based on identification resolution technology in the embodiment of the present application, the edge terminal device 120 is specifically used for: based on intelligent analysis technology, analyzing the video data of the operation site to obtain analysis results that do not meet the safe operation conditions; wherein, the analysis results that do not meet the safe operation conditions include at least one of the following: the operator is not wearing a safety helmet, is not wearing a safety belt, is climbing high in violation of regulations, there is an open flame in the operation site area, and unrelated personnel break into the operation area. The video data is obtained by a video monitoring subsystem carrying a camera identification, and the video monitoring subsystem includes an automatic warning camera for automatic video collection;

[0046] The camera identifier is associated with the job ticket identifier to ensure that the area corresponding to the area identifier in the job ticket identifier is consistent with the area corresponding to the camera identifier. The intelligent analysis technology includes video AI recognition technology, edge computing technology and big data analysis model technology.

[0047] Among them, the intelligent analysis model refers to a model that can obtain relevant information from the input video image. The intelligent analysis model can be built based on algorithms such as machine learning or deep learning. The embodiment of the present application uses an intelligent analysis model to identify risk factors from the video data of the work site. The intelligent analysis model recognizes the video image based on artificial intelligence technology, which improves the accuracy of recognition and avoids misjudgment or missed judgment caused by manual monitoring, absenteeism, incomplete supervision, attention distraction, fatigue, and missed inspections.

[0048] In the high-risk operation management and control system 100 based on identity resolution technology in the embodiment of the present application, the risk management and control subsystem 130 is further configured to:

[0049] If the work site image information and safety measures detection information sent regularly by the terminal carried by the first person are not received within the first preset time, or if the on-site environment detection data sent regularly by the terminal carried by the second person are not received within the second preset time, a safety reminder message will be pushed to the terminal carried by the third person or the display screen.

[0050] The first preset time and the second preset time can be determined according to actual conditions, for example, the first preset time is set to 1 hour and the second preset time is set to 2 hours. The first preset time and the second preset time can be the same or different.

[0051] When the risk management subsystem 130 detects that the work site image information and safety measures detection information sent regularly by the terminal carried by the first person have not been received within a first preset time interval, or that the on-site environment detection data sent regularly by the terminal carried by the second person have not been received within a second preset time interval, a safety reminder message is pushed to a third person. The third person reminds the first person and / or the second person to upload data to the risk management subsystem 130 in a timely manner based on the safety reminder message. This can avoid the problem of being unable to judge safety hazards based on the updated data.

[0052] In the high-risk operation management and control system 100 based on identity resolution technology in an embodiment of the present application, the risk management and control subsystem 130 is also used to: receive the operation site recovery image after the operation is completed, which is sent by the terminal carried by the first person, and evaluate the recovery status of the operation site based on the operation site recovery image.

[0053] The restoration status of the work site may include whether any work tools are missing, whether the equipment being worked on is intact, etc. The evaluation result may be a graded assessment of the restoration status of the work site, or a score, which is not limited in this embodiment.

[0054] In the high-risk operation management and control system 100 based on identity resolution technology in the embodiment of the present application, the risk management and control subsystem 130 is also used to: store the acceptance results of the fourth person on the operation and the evaluation results of the operator for subsequent user inquiries.

[0055] The fourth person can be any supervisor. The job acceptance results may include information such as whether the equipment being worked on is functioning properly. The evaluation results for the operator indicate satisfaction with the operator's work. The evaluation results can be a score or a rating ranging from very dissatisfied to very satisfied. Other users can subsequently select the operator based on the job acceptance and evaluation results.

[0056] In the high-risk operation control system 100 based on identity resolution technology in the embodiment of the present application, the safe operation management subsystem 110 is specifically used to: display an operation ticket filling interface, and generate an operation ticket for on-site operations based on the filling information entered by the user through the operation ticket filling interface, wherein the operation ticket includes operation approval data.

[0057] Among them, the job ticket is a ticket related to the job, and the job ticket may include safety measures related to the job and job approval data, etc.

[0058] The beneficial effect of the above scheme in the embodiment of the present application is that risk factors are identified from the video data of the work site through the intelligent analysis model. The intelligent analysis model recognizes the video images based on artificial intelligence technology, which improves the accuracy of recognition and avoids misjudgment or missed judgment caused by manual monitoring, lack of supervision, distraction, fatigue, missed inspections and missed alarms. The risk control subsystem detects whether the data collection personnel have uploaded the relevant data in a timely manner. If the data is not updated in a timely manner, the risk control subsystem reminds the data collection personnel to upload the data to the risk control subsystem in a timely manner through a certain method to avoid missing safety hazards due to failure to upload data in a timely manner.

[0059] In an implementable solution of the embodiment of the present application, the solution of the embodiment of the present application can be combined with each optional solution in one or more of the above-mentioned embodiments. In the high-risk operation control system 100 based on identity resolution technology in the embodiment of the present application, the system also includes: a laboratory information management subsystem 140, which is used to obtain on-site environmental detection data regularly collected by the terminal carried by the second person, evaluate the operation site based on the on-site environmental detection data, and send the on-site environmental detection data and evaluation results to the risk control subsystem 130.

[0060] The on-site environmental detection data may be obtained by staff through observation, collection, etc. and then recorded in the laboratory information management subsystem 140 .

[0061] The laboratory information management subsystem 140 receives the on-site environmental detection data collected regularly by the terminal carried by the second person. The laboratory information management subsystem or technical personnel can conduct an experimental evaluation of the on-site environmental detection data according to national standards. The technical personnel manually review and confirm the evaluation results and send the evaluation results to the risk control subsystem 130. The evaluation results may include conclusions on whether the on-site environmental detection data meets the standards and whether the work site meets the working conditions. For example, if the on-site environmental detection data records that the cylinder seal is damaged, the laboratory information management subsystem 140 will evaluate the work site based on this record, obtain an assessment result that the work site has safety hazards, and send this assessment result to the risk control subsystem 130. The laboratory information management subsystem 140 is also used to send the assessment results to the safe operation management subsystem 110. The approval personnel will make an approval operation based on the assessment results to determine whether the work site meets the standards. If it meets the standards, the work can be started; if it does not meet the standards, the work cannot be started.

[0062] In the high-risk operation control system 100 based on identity resolution technology in the embodiment of the present application, the system may also include: an emergency management subsystem 150, which is used to obtain on-site operation condition data and send the on-site operation condition data to the risk control subsystem 130, so that the risk control subsystem 130 pushes safety prompt information to the terminal or display screen carried by a third person based on the on-site operation condition data, wherein the on-site operation condition data includes at least one of on-site video location data, meteorological data, equipment operation data, and gas data. The on-site operation condition data is collected by online detection instruments and transmitted through wired or wireless networks, and the wireless networks include 5G networks.

[0063] Among them, on-site operating condition data refers to data that needs to be obtained through sensors, such as on-site temperature data collected in real time by temperature sensors installed on-site, leaked toxic and harmful gases detected by gas detectors, etc.

[0064] In the embodiment of the present application, the on-site video location data may include the latitude and longitude information of the on-site video, and the meteorological data may include wind speed, wind direction, temperature, humidity, air pressure, etc. The equipment operation data may include the equipment operation time, whether the equipment has failed, the cause of the failure, and whether the equipment has been repaired or maintained, etc. The gas data may include toxic, harmful, or flammable and explosive gases.

[0065] In the high-risk operation management and control system 100 based on the identification resolution technology of the embodiment of the present application, the system further includes: an identification resolution subsystem 160 for recording the operation ticket identification and the operation site data associated with the operation ticket identification.

[0066] The work ticket identifier is used to uniquely identify the work ticket. The work ticket identifier can be numbers, letters, a QR code, etc. The work site data associated with the work ticket identifier can include the on-site environment detection data, work site video data, on-site work condition data, etc.

[0067] For example, Figure 2 This is a structural diagram of another high-risk operation management and control system based on identity resolution technology provided by an embodiment of the present application. It should be noted that, Figure 2 The solution in the embodiment of the present application may include the laboratory information management subsystem 140, the emergency management subsystem 150, and the identity resolution subsystem 160, or may not include the laboratory information management subsystem 140, the emergency management subsystem 150, and the identity resolution subsystem 160, and the solution of the embodiment of the present application may be implemented. The laboratory information management subsystem 140, the emergency management subsystem 150, and the identity resolution subsystem 160 may exist at the same time or in various combinations, and the solution of the embodiment of the present application may be implemented.

[0068] For example, Figure 3 This is a functional architecture diagram of a high-risk operation control system based on identity resolution technology provided by an embodiment of the present application. Figure 3 As shown, the system includes a public support layer, a cloud platform application layer, and an identity resolution application layer. The public support layer includes a basic configuration of microservices, container services, cloud databases, middleware services, and virtual servers. The cloud platform application layer is configured to track and query work tickets, manage work processes, provide alarms during work processes, and analyze the behavior of edge applications. The identity resolution application layer provides an identity resolution application for querying practical work status, construction unit queries, construction unit work evaluation queries, work to be constructed queries, and enterprise construction condition queries. In the identity resolution application, based on enterprise authorization, publicly available information will be registered in the identity resolution secondary operation platform, and a microservice corresponding to the identity resolution secondary operation platform will be formed. Relevant information can be obtained through the platform and official account, including construction work status queries, construction unit queries, construction unit work evaluation queries, and work condition queries for construction.

[0069] like Figure 3 As shown in the figure, the functional architecture of the high-risk operation control system is mainly composed of the above three layers and a total of 6 functional structure designs. The application support layer conducts real-time intelligent analysis of personnel behavior, using artificial intelligence visual models to monitor whether the behavior of height workers violates regulations during operations. The operation process management function block in the application layer is responsible for reviewing all safety factors during on-site operations by height workers and for managing the entire process of on-site completion and acceptance. The operation ticket tracking and query function block in the application layer integrates data such as height operation ticket data, gas monitoring data contained in analytical test results, flammable, explosive, and toxic and harmful gas content, and meteorological monitoring data of the height operation environment. This function block determines the degree of risk by setting safety risk assessment thresholds. If a risk is detected, it triggers an operation process warning. The operation process alarm function block in the application layer transforms the results of risk identification, generating early warning information on production process anomalies and equipment anomalies related to height operations in the first place. The identity resolution secondary node operation platform application function block in the application layer transmits warning information to safety-related parties through different devices in the form of industrial Internet identifiers. It also provides inquiries on height operation safety standards and specifications, construction unit qualification evaluation, and construction status, thereby improving the risk management mechanism for height operations.

[0070] The system uses work tickets, work standards, violation information, construction units, cameras, and card swiping points related to high-risk operations as identification objects, and uses the industrial Internet method to register valuable data during the operation process with the secondary identification resolution node, and obtains data from other companies at the industry secondary node to achieve cross-system and cross-enterprise applications.

[0071] The beneficial effect of the above scheme in the embodiment of the present application is that the laboratory information management subsystem evaluates the work site based on the acquired on-site environmental testing data, can determine in advance whether the work site meets the construction conditions and provide the approval result of the work application, effectively improving the means of safety management and control. By sending the on-site working condition data to the risk control subsystem in real time through the emergency management subsystem, the risk control subsystem can promptly inform the on-site workers of the safety hazards so that the workers can evacuate the work site or eliminate the safety hazards, thereby improving the system's risk identification and early warning capabilities.

[0072] Figure 4 This is a flowchart of the high-risk operation control method based on identity resolution technology provided by the embodiment of the present application. The high-risk operation control method based on identity resolution technology provided by this embodiment can be applied to the scenario of intelligent identification and early warning of operation risks. The method can be specifically executed by a high-risk operation control system based on identity resolution technology, and the system includes: a safe operation management subsystem, an edge terminal device, and a risk control subsystem. See Figure 4 , the method described in the embodiment of the present application specifically includes:

[0073] S110 , the safety operation management subsystem stores and displays the operation approval data and the on-site environment detection data, and responds to the user's approval operation on the operation approval data and the on-site environment detection data.

[0074] S120. The edge device obtains the work site video data collected by the video monitoring subsystem, analyzes the work site video data, and obtains analysis results.

[0075] S130. After the approval result obtained by the safety operation subsystem in response to the user's approval operation is approved, the risk control subsystem pushes safety reminder information to the terminal or display screen carried by the third person based on the work site image information and safety measures detection information regularly sent by the terminal carried by the first person, the evaluation results of the on-site environment detection data regularly collected by the terminal carried by the second person, and the analysis results of the edge device.

[0076] In an embodiment of the present application, the edge device analyzes the work site video data based on an intelligent analysis model to obtain an analysis result that does not meet the safe working conditions; wherein the analysis result that does not meet the safe working conditions includes at least one of the following: the worker is not wearing a safety helmet, is not wearing a safety belt, is climbing at height in violation of regulations, there is an open flame in the work site area, and unrelated personnel have entered the work area.

[0077] The method further includes: the laboratory information management subsystem obtains on-site environmental detection data regularly collected by a terminal carried by the second person, evaluates the work site based on the on-site environmental detection data, and sends the on-site environmental detection data and the evaluation results to the risk control subsystem.

[0078] The method also includes: the emergency management subsystem obtains on-site operating condition data and sends the on-site operating condition data to the risk control subsystem, so that the risk control subsystem pushes safety prompt information to the terminal or display screen carried by a third person based on the on-site operating condition data, wherein the on-site operating condition data includes at least one of on-site video location data, meteorological data, equipment operation data, and gas data.

[0079] The method also includes: if the work site image information and safety measures detection information sent regularly by the terminal carried by the first person are not received within a first preset time interval, or if the on-site environment detection data sent regularly by the terminal carried by the second person are not received within a second preset time interval, the risk management subsystem pushes safety reminder information to the terminal or display screen carried by the third person.

[0080] The method further includes: the risk management subsystem receiving a restored image of the work site after the work is completed, which is sent by the terminal carried by the first person, and evaluating the restoration status of the work site based on the restored image of the work site.

[0081] The method further includes: the risk management and control subsystem storing the fourth person's acceptance result of the operation and the evaluation result of the operator for subsequent query by the user.

[0082] The method further includes: the safety operation management subsystem displays a work ticket filling interface, and generates a work ticket for the on-site operation according to the filling information input by the user through the work ticket filling interface, wherein the work ticket includes operation approval data.

[0083] The method further includes: the identification resolution subsystem recording the job ticket identification and the job site data associated with the job ticket identification.

[0084] For example, Figure 5 This is a flowchart of the operation provided by the embodiment of this application. Figure 5 As shown, the operation process includes the following steps:

[0085] Step 1: Operation application (construction unit, except for the insertion and removal of blind plates, whoever needs it can apply) and approval (local approval and professional approval, professional approval supports hierarchical approval). The high-altitude operation application initiated in the operation ticket management system can determine the operation type, operation content, operation location, construction unit and other information.

[0086] Step 2: Check whether the operation meets the construction conditions. Approved operations require on-site environmental testing, gas and other laboratory analysis. Only when the risks meet the standards can the operation begin.

[0087] Step 3: Before the start of on-site operations, supervisors will go to the site to verify the operations approved by the work ticket management system and those that meet the construction conditions. Based on the real-time meteorological data and equipment operating status information on site, supervisors will take photos of the site using handheld terminals to confirm that all risk factors are normal before starting operations.

[0088] Step 4: After the on-site operation begins, according to safety regulations, the supervisor is required to regularly take pictures of the site using a handheld terminal and regularly confirm whether the safety measures listed in the work ticket are taken correctly according to requirements, and upload the results to the risk management subsystem.

[0089] Step 5: Once the operation begins, the corresponding video surveillance is captured based on the personnel's location at high altitude. An AI analysis model is established at the edge to analyze in real time whether there are violations such as not wearing a helmet, not wearing a safety belt, or climbing violations. The risk control subsystem uses estimated thresholds to assess the risk level in real time. If an anomaly is detected, a notification is immediately sent to relevant personnel via the system platform and handheld terminals, and then to the video surveillance subsystem, enabling the dispatch center to proactively switch to the illegal monitoring screen.

[0090] Step 6: During the on-site construction process, the surrounding environment and other factors are updated. The risk control subsystem is based on meteorological data, equipment data, toxic and hazardous gas leakage monitoring and other factors in real time. Once an abnormality occurs, the risk control subsystem and handheld terminals will immediately push the message to the relevant personnel and push it to the large screen. The person in charge of the area on duty or the authorized person will review the alarm.

[0091] Step 7: Secondary control of on-site operations. According to safety operating regulations, gas detection and on-site environmental inspections are required after a certain period of time (for example, two hours) to ensure safe construction. On-site supervisors are required to report the corresponding results using handheld terminals at specified intervals. If the risk control subsystem detects data anomalies or failure to report in a timely manner, it will immediately send a notification to relevant personnel.

[0092] Step 8: After the on-site work is completed, the on-site supervisor needs to take photos of the site restoration using a handheld terminal and upload the photos to the risk management subsystem. The work supervisor will inspect and accept the work and evaluate the construction unit.

[0093] For example, Figure 6This is a data flow diagram of the personnel height operation risk identification and warning business provided by the embodiment of this application. Figure 6 As shown, the flow diagram includes the following steps:

[0094] Step 1: Based on the high-altitude work ticket logo, the historical evaluation and qualifications of the previous construction parties and workers are reviewed and a work permit is issued.

[0095] Step 2: Before personnel enter the site for high-altitude operations, the laboratory information management subsystem monitors and issues a test report on the concentration of toxic, harmful, flammable, and explosive gases on site; the on-site meteorological monitoring station provides real-time meteorological data on site, and on-site safety supervisors take photos of the site using handheld terminals; data is collected and analyzed in the risk management subsystem, which calculates the safety risks in the current working environment and gives relevant suggestions.

[0096] Step 3: Personnel enter the site for work. Combined with the video stream of the video surveillance subsystem, abnormal behavior analysis of edge devices uses artificial intelligence visual analysis models to identify possible safety risks caused by human factors.

[0097] Step 4: The risk management subsystem automatically analyzes the abnormal behavior of edge devices and combines it with gas and meteorological data warnings. After review by safety management personnel, a risk warning is issued to relevant operators who exceed the risk threshold.

[0098] Step 5: At the end of the operation, the safety management personnel will conduct an acceptance review of the operation.

[0099] Furthermore, before step 1, there are the following steps:

[0100] Basic information of the work ticket filled in by the height workers in the safety work permit management system;

[0101] Furthermore, before step 2, there are the following steps:

[0102] Connect the laboratory data and meteorological information in other systems to the risk management subsystem.

[0103] Furthermore, before step 3, there are the following steps:

[0104] By using pictures of work violations, the artificial intelligence visual analysis model is trained to achieve the required accuracy.

[0105] Furthermore, there are the following steps between step 3 and step 4:

[0106] The analysis conclusions generated from the abnormal behavior analysis of edge equipment personnel are connected to the risk management subsystem.

[0107] Between steps 4 and 5 there are the following steps:

[0108] The safety supervisor will take photos of the on-site operation recovery status and archive them, and determine that the operation process risks are controllable based on the early warning records of the risk control subsystem during the operation.

[0109] An embodiment of the present application provides a high-risk operation control method based on identity resolution technology, the method comprising: a safe operation management subsystem stores and displays operation approval data and on-site environment detection data, and responds to the user's approval operation on the operation approval data and on-site environment detection data; an edge device obtains the operation site video data collected by the video monitoring subsystem, analyzes the operation site video data, and obtains an analysis result; after the approval result obtained by the safe operation subsystem in response to the user's approval operation is approved, the risk control subsystem receives the operation site image information and safety measures detection information sent periodically by the terminal carried by the first person, the on-site environment detection data sent periodically by the terminal carried by the second person, and the analysis result of the edge device, and pushes safety prompt information to the terminal or display screen carried by the third person based on the operation site image information, safety measures detection information, on-site environment detection data, and analysis results.

[0110] The method provided in this embodiment first fully evaluates the operation risks through relevant data before approving the operation application, and the approval system is improved. Secondly, the risk judgment of the entire process of personnel working at height is carried out on the basis of video monitoring through the cooperation of AI image recognition, so as to realize the automation, intelligence and real-time of risk analysis, and avoid the misjudgment or omission caused by manual identification. Thirdly, the relevant data on the safety of the working environment are uniformly integrated into the risk management and control subsystem, which is conducive to the comprehensive analysis and judgment of the operation risks. Finally, according to the results of the analysis and judgment, the safety risks found will be sent to the operating personnel through various devices. Remote warning information is sent to the operating personnel, which is conducive to timely informing the operating personnel of the risks and reducing the labor cost of going to the site to warn the operating personnel of the risks.

[0111] Note that the above are only preferred embodiments of the present invention and the technical principles employed. Those skilled in the art will understand that the present invention is not limited to the specific embodiments described herein, and that various obvious changes, readjustments, and substitutions can be made by those skilled in the art without departing from the scope of protection of the present invention. Therefore, although the present invention has been described in detail through the above embodiments, the present invention is not limited to the above embodiments and may include many other equivalent embodiments without departing from the concept of the present invention. The scope of the present invention is determined by the scope of the appended claims.

Claims

1. A high-risk operation management and control system based on identity resolution technology, characterized in that: The system comprises: The safety operation management subsystem is used to store and display operation approval data and on-site environment detection data, and respond to user approval operations on the operation approval data and on-site environment detection data; The edge device is used to obtain the operation site video data collected by the video monitoring subsystem, analyze the operation site video data, and obtain analysis results; The risk control subsystem is configured to, after the safe operation management subsystem obtains an approval result of the user's approval operation and the approval result is passed, push safety reminder information to the terminal or display screen carried by the third person based on the operation site image information and safety measure detection information regularly sent by the terminal carried by the first person, the evaluation results of the on-site environment detection data regularly collected by the terminal carried by the second person, and the analysis results of the edge device; The safety operation management subsystem, edge devices, and risk control subsystem are interconnected based on the operation ticket identifier, so as to facilitate the subsequent query of the information associated with the operation ticket identifier in the secondary application platform of the identifier resolution; Among them, all applications of the high-risk operation control system based on identity resolution technology, as well as all services of the safe operation management subsystem, emergency management subsystem, video surveillance subsystem, behavioral intelligent analysis, and operation process control, are implemented through the identity resolution microservice and coding center of the enterprise intranet; The safety measures detection information refers to whether the operator has correctly taken the prescribed safety measures during the operation; Among them, the system uses work tickets, work standards, violation information, construction units, cameras, and card swiping points related to high-risk operations as identification objects, and uses the industrial Internet method to register valuable data in the operation process to the secondary node of identity resolution, and obtain data from other companies at the secondary node of the industry to realize cross-system and cross-enterprise applications.

2. The system according to claim 1, wherein: The edge device is specifically used for: Based on intelligent analysis technology, the work site video data is analyzed to obtain an analysis result that does not meet safe working conditions; wherein the analysis result that does not meet safe working conditions includes at least one of the following: the worker is not wearing a safety helmet, is not wearing a safety belt, is climbing at a height in violation of regulations, there is an open flame in the work site area, and an unauthorized person has entered the work area. The video data is acquired by a video monitoring subsystem carrying a camera identifier, and the video monitoring subsystem includes an automatic warning camera for automatically collecting video; The camera identifier is associated with the job ticket identifier to ensure that the area corresponding to the area identifier in the job ticket identifier is consistent with the area corresponding to the camera identifier. The intelligent analysis technology includes video AI recognition technology, edge computing technology and big data analysis model technology.

3. The system according to claim 1, wherein: The system further comprises: The laboratory information management subsystem is used to obtain the on-site environmental detection data collected regularly by the terminal carried by the second person, evaluate the work site based on the on-site environmental detection data, and send the on-site environmental detection data and evaluation results to the risk management subsystem.

4. The system according to claim 1, wherein: The system further comprises: The emergency management subsystem is used to obtain on-site operating condition data and send the on-site operating condition data to the risk control subsystem, so that the risk control subsystem pushes safety prompt information to the terminal or display screen carried by a third person based on the on-site operating condition data, wherein the on-site operating condition data includes at least one of on-site video location data, meteorological data, equipment operation data, and gas data; wherein the on-site operating condition data is collected through online detection instruments and transmitted through a wired or wireless network, and the wireless network includes a 5G network.

5. The system according to claim 1, wherein: The risk management subsystem is also used to: If the work site image information and safety measures detection information sent regularly by the terminal carried by the first person are not received within the first preset time interval, or if the on-site environment detection data sent regularly by the terminal carried by the second person are not received within the second preset time interval, a safety reminder message is pushed to the terminal carried by the third person or the display screen; The risk management subsystem is also used to: receiving a restored image of the work site after the work is completed, sent by the terminal carried by the first person, and evaluating a restoration status of the work site based on the restored image of the work site; The risk management subsystem is also used to: The fourth person's acceptance results of the operation and the evaluation results of the operator are stored for subsequent user inquiries.

6. The system according to claim 1, wherein: The safety operation management subsystem is specifically used to: A work ticket filling interface is displayed, and a work ticket for on-site work is generated according to the filling information input by the user through the work ticket filling interface, wherein the work ticket includes work approval data.

7. The system according to claim 1, wherein: The system further comprises: The identification resolution subsystem is used to record the job ticket identification and the job site data associated with the job ticket identification.

8. The system according to any one of claims 1 to 7, characterized in that The system includes a public support layer, a cloud platform application layer and an identity resolution application layer, wherein: The public support layer includes the basic configuration of microservices, container services, cloud databases, middleware services, and virtual servers; The cloud platform application layer is configured to perform job ticket tracking and query, job process management, job process alarms, and intelligent behavior analysis of edge applications; The identity resolution application layer provides identity resolution applications for practical operation status query, construction unit query, construction unit operation evaluation query, pending operation query and enterprise construction condition query.

9. A high-risk operation management and control method based on identity resolution technology, characterized in that: The method comprises: The safety operation management subsystem stores and displays operation approval data and on-site environment detection data, and responds to user approval operations on the operation approval data and on-site environment detection data; The edge device obtains the operation site video data collected by the video monitoring subsystem, analyzes the operation site video data, and obtains analysis results; After the safety operation management subsystem receives an approval result indicating approval from the user, the risk control subsystem pushes a safety reminder message to the terminal or display screen carried by the third person based on the work site image information and safety measure detection information regularly sent by the terminal carried by the first person, the evaluation results of the on-site environment detection data regularly collected by the terminal carried by the second person, and the analysis results of the edge device. The safety operation management subsystem, edge devices, and risk control subsystem are interconnected based on the operation ticket identifier, so as to facilitate the subsequent query of the information associated with the operation ticket identifier in the secondary application platform of the identifier resolution; All applications of the high-risk operation control system based on identity resolution technology, as well as all services of the safe operation management subsystem, emergency management subsystem, video surveillance subsystem, behavioral intelligent analysis, and operation process control, are implemented through the identity resolution microservice and coding center on the enterprise intranet. The safety measures detection information refers to whether the operator has correctly taken the prescribed safety measures during the operation; Among them, the method also includes: using work tickets, work standards, violation information, construction units, cameras, and card swiping points related to high-risk operations as identification objects, using the industrial Internet method to register valuable data in the operation process to the secondary node of identity resolution, and obtaining data from other companies at the secondary node of the industry to achieve cross-system and cross-enterprise applications.

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