Safety production digitization system and method

By deconstructing production and living scenarios into basic control units, deploying sensing and control intelligent agents and management intelligent agents, and assembling a management cloud platform, the problems of long cycle, high cost, and poor universality of digital safety production systems have been solved, achieving efficient and refined safety production management.

CN121458047APending Publication Date: 2026-02-03HUAZHONG UNIV OF SCI & TECH
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Patent Information

Application Number
CN202511578341.1
Authority / Receiving Office
CN · China
Patent Type
Applications(China)
Current Assignee / Owner
Filing Date
2025-10-31
Publication Date
2026-02-03

AI Technical Summary

Technical Problem

Existing digital safety production systems face problems such as long development cycles, high costs, and poor universality, making it difficult to adapt to the safety production management and control needs of multiple scenarios, multiple sources, and multiple parameters.

Method used

The production and living scenarios are deconstructed into multiple basic control units, and intelligent sensing agents are deployed for real-time monitoring and early warning. Comprehensive analysis and decision-making are carried out through management agents, and assembly management cloud platforms are used to form a universal safety production management system that is applicable across industries.

Benefits of technology

It has achieved high efficiency, precision and universality in safety production management, reduced the cycle and cost of digital systems, and improved the efficiency and reliability of management platforms.

✦ Generated by Eureka AI based on patent content.

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Abstract

The invention discloses a safety production digitization system and method, and belongs to the field of intelligent control, and the system carries out the state sensing, regulation and control of a management and control basic unit through a sensing control agent, and calls a corresponding type and number of management agents according to the type and number of a deconstructed scene basic unit through an assembly agent. A cloud platform for virtual scene safety production management is reconstructed, the risk state is comprehensively managed through a management agent according to the historical monitoring value and the current monitoring value of the risk characteristic parameter of the management and control basic unit, and the overall risk state of the scene is analyzed through the cloud platform. The system provided by the invention has universality in technology, specialization and intelligence in manufacturing and large-scale application, and lays a foundation for safety production digitization.
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Description

TECHNICAL FIELD

[0001] The present application belongs to the field of intelligent control, and more particularly, relates to a safe production digitization system and method. BACKGROUND

[0002] Safety accident risk is one of the major factors that endanger the healthy development of the national economy, and strengthening safety production management has become the consensus of governments, enterprises in various industries and fields, and the public. Digitization has become an important means of safety production risk prevention and control. Limited by the differences in the scenes of safety production enterprises in various industries and fields, safety production digitization is facing the dilemma of professional barriers, long cycle, and high cost.

[0003] Based on engineering science and safety science, safety production risk hidden danger prevention and control shows a promising prospect for realizing long-term safety production; using modern information technology to realize the universalization of safety risk hidden danger prevention and control has become a consensus. SUMMARY

[0004] In view of the above defects or improvement needs of the prior art, the present application provides a safe production digitization system and method, thereby solving the problems of long cycle, high cost, and poor universality of existing safety production management and control digitization.

[0005] To achieve the above-mentioned purpose, according to the first aspect of the present application, a safe production digitization system is provided, comprising: a sensing and control intelligent agent, a management intelligent agent, an equipment intelligent agent, and a scene management cloud platform; The sensing and control intelligent agent is used to collect the monitoring values of various risk characteristic parameters of a basic control unit, and to give a warning when the monitoring value of any risk characteristic parameter exceeds the corresponding safety threshold; wherein the basic control unit is obtained by deconstructing a production and living scene; one sensing and control intelligent agent is arranged for one basic control unit; The equipment intelligent agent is used to call a management intelligent agent corresponding to each basic control unit according to the types and quantities of the basic control units, and to perform one-to-one communication connection between the management intelligent agent and the sensing and control intelligent agent of each basic control unit; The management intelligent agent is used to determine the risk state of the basic control unit according to the historical monitoring values and the current monitoring values of the various risk characteristic parameters and to give a warning; The scene management cloud platform is used to determine the risk state of the whole scene according to the risk states of the basic control units and to give a warning.

[0006] According to the second aspect of the present application, a safe production digitization method is provided, comprising: The production and life scene is decomposed into a plurality of basic control units, and a corresponding sensing and control intelligent agent is arranged for each basic control unit; the sensing and control intelligent agent is used for collecting monitoring values of each risk characteristic parameter in the basic control unit, and giving a warning when the monitoring value of any risk characteristic parameter exceeds a corresponding safety threshold; According to the types and quantities of the basic control units, a management intelligent agent corresponding to each basic control unit is called, and the management intelligent agent is in one-to-one communication connection with the sensing and control intelligent agent of each basic control unit; the management intelligent agent is used for determining a risk state of the basic control unit according to historical monitoring values and current monitoring values of the risk characteristic parameters and giving a warning; According to the risk states of the basic control units, a risk state of the whole scene is determined and a warning is given.

[0007] According to a third aspect of the present application, an electronic device is provided, comprising: a computer readable storage medium and a processor; The computer readable storage medium is used for storing executable instructions; The processor is used for reading the executable instructions stored in the computer readable storage medium, and executing the method according to the second aspect.

[0008] According to a fourth aspect of the present application, a computer readable storage medium is provided, the computer readable storage medium stores computer instructions, and the computer instructions are used for making a processor execute the method according to the second aspect.

[0009] According to a fifth aspect of the present application, a computer program product is provided, comprising a computer program or instructions, and the computer program or instructions are executed by a processor to realize the method according to the second aspect.

[0010] Overall, compared with the prior art, the above technical solutions conceived by the present application can achieve the following beneficial effects: The present application is directed to the problems of long digitalization cycle, high cost and poor universality of safety production control caused by multi-scenarios, multi-source and multi-parameter of safety production factors, multi-modal of safety production state and multi-level and cross-department of safety production control in the safety production digitalization. The present application proposes to deconstruct the safety production control of physical scene from top to bottom into multiple control basic units with universality, reconstruct the informationization platform of safety production control of virtual scene from bottom to top, and define the basic unit of safety production digitalization management with universality as digitalization gene, including: control basic unit, such as safety production regulation and control material flow / energy flow circuit, safety production risk control key section / surface / segment, etc.; sensing and control agent: a device for sensing and controlling the state of the control basic unit; management agent: a software module for comprehensive analysis, evaluation and decision of the state of the control basic unit based on the identification data sent by the sensing and control agent; assembly agent: a tool for assembling the management agent into a safety production management platform according to the structure of safety production industry / field / enterprise / department / production scene. The control basic unit is the basic unit of safety production physical world regulation and control, the management agent is the basic unit of safety production management virtual world, the sensing and control agent bridges the physical world and the virtual world, and the assembly agent is a tool for manufacturing in the virtual world. The four digitalization genes have the characteristics of universality across industries and fields, and the number is countable, which is convenient for professional and fine manufacturing, and the assembly agent greatly improves the efficiency of manufacturing safety production management digitalization platform based on the management agent. Therefore, the safety production scene digitalization platform software for unlimited industry and field enterprise is provided, and the universal and efficient and high-reliable gene module and tool are provided. BRIEF DESCRIPTION OF DRAWINGS

[0011] Figure 1 The enterprise safety production structure decomposition schematic diagram provided for the embodiment of the present application is shown in the figure; Figure 2 The safety production digitalization system structure schematic diagram provided for the embodiment of the present application is shown in the figure; Figure 3 The control basic unit type and risk characteristic parameter schematic diagram provided for the embodiment of the present application is shown in the figure; Figure 4 The sensing and control agent structure schematic diagram provided for the embodiment of the present application is shown in the figure; Figure 5 The management agent structure schematic diagram provided for the embodiment of the present application is shown in the figure; Figure 6 The assembly agent structure schematic diagram provided for the embodiment of the present application is shown in the figure; Figure 7 The cloud platform assembly process schematic diagram based on the digitalization gene provided for the embodiment of the present application is shown in the figure. DETAILED DESCRIPTION

[0012] In order to make the objects, technical solutions and advantages of the present application clearer, the present application will be further described in detail below with reference to the drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present application and not to limit the present application. In addition, the technical features involved in the various embodiments of the present application described below can be combined with each other as long as they do not conflict with each other.

[0013] For the convenience of understanding, first, the related definitions are explained as follows: Scene: the general term of production and life activities and their places; Risk characteristic parameter: refers to a variable that can reflect the change characteristics of the safety risk state of the production and life activity object.

[0014] The embodiment of the present application provides a kind of safe production digitization system, including: sensing control agent, management agent, assembly agent and scene management cloud platform; The sensing control agent is used to collect the monitoring value of each risk characteristic parameter in basic control unit, and prewarning is carried out when the monitoring value of any risk characteristic parameter exceeds the corresponding safety threshold;Wherein, the basic control unit is obtained by deconstructing production and life scene;One basic control unit is laid out one sensing control agent; The equipment intelligent agent is used to call the management agent corresponding to each basic control unit according to the type and quantity of each basic control unit, and is connected with the sensing control agent of each basic control unit in one-to-one correspondence communication; The management agent is used to determine the risk state of the basic control unit according to the historical monitoring value and the current monitoring value of the risk characteristic parameter and prewarning; The scene management cloud platform is used to determine the risk state of the whole scene according to the risk state of each basic control unit and prewarning.

[0015] Preferably, the sensing control agent includes real-time data sensing unit, first control module, wireless sending unit, data identification unit and prewarning unit; The real-time data sensing unit is used to collect the monitoring value of each risk characteristic parameter in the basic control unit, and the first control module is used to prewarning through the prewarning unit when the monitoring value of any risk characteristic parameter exceeds the corresponding safety threshold;The wireless sending unit is used to send the monitoring value of each risk characteristic parameter to the corresponding management agent.

[0016] Preferably, the sensing control agent further includes data identification unit, which is used to add data identification to the monitoring value;The data identification includes scene code, basic control unit code, sensing control agent code and risk characteristic parameter type code in turn.

[0017] Preferably, the sensing and controlling intelligent agent further comprises a management and control execution unit, configured to regulate any risk characteristic parameter according to safety specifications when the monitored value of the risk characteristic parameter exceeds the corresponding safety threshold.

[0018] Preferably, the equipment intelligent agent comprises: a man-machine interactive platform model building unit, configured to decompose a production and life scene into a plurality of basic management and control units; a cloud platform component module intelligent coding module, configured to code the basic management and control units and the production and life scene; a management intelligent agent warehouse, configured to store various management intelligent agents; a cloud platform assembly quick hand, configured to call corresponding types of management intelligent agents from the management intelligent agent warehouse according to the types and quantities of the basic management and control units, code the management intelligent agents, and form a scene management cloud platform by connecting the management intelligent agents with the sensing and controlling intelligent agents of the basic management and control units one by one; a visual intelligent agent warehouse, configured to provide a visual window of the management intelligent agents.

[0019] Preferably, the basic management and control unit is a material flow / energy flow regulation loop of process production; or, a key section / surface / segment of safety production risk management and control; or, a segment of spatial environment safety monitoring.

[0020] The system provided by the application decomposes a physical scene into a series of basic management and control units, performs state sensing and regulation on the basic management and control units through sensing and controlling intelligent agents, calls corresponding types and quantities of management intelligent agents according to the types and quantities of the decomposed scene basic units through the assembly intelligent agent, reconstructs a virtual scene safety production management cloud platform, comprehensively manages the risk state of the basic management and control units according to the historical and current monitored values of the risk characteristic parameters of the basic management and control units through the management intelligent agents, and analyzes the overall risk state of the scene through the cloud platform.

[0021] The quantities and types of the basic management and control units of different scenes may be the same or different, but the parameters of each type of basic management and control unit are the same, so that the corresponding sensing and controlling intelligent agents and management intelligent agents are universal.

[0022] The application decomposes a production and life scene into a plurality of homogenous and indivisible units--basic management and control units, such as a material flow / energy flow regulation loop of process production, a key section of civil engineering structure safety monitoring, and a segment of spatial environment monitoring. Figure 1As shown. These basic units of safety production control are combined and reconstructed according to the number of loops required by the process, workflow, workshop, and enterprise, and the real-time status control units of the loops, forming a safety production control platform with corresponding management levels. Therefore, the basic control units, sensing and control intelligent agents, management intelligent agents, and equipment intelligent agents are the genes of digital safety production in various industry scenarios, such as... Figure 2 As shown.

[0023] It possesses digital genes for safe production with cross-industry and field scenario characteristics, including basic control units, sensing and control intelligent agents, management intelligent agents, and assembly intelligent agents.

[0024] The basic control units are loops for regulating the state of material / energy flow in production scenarios, key sections for safety monitoring of engineering structures, and areas for monitoring the spatial environment. They are the carriers of digital safety production and the basic units of the physical world. For example... Figure 3 As shown.

[0025] Sensing and control intelligent agents are intelligent devices that enable real-time sensing, analysis, evaluation, control, data identification, and wireless transmission of the basic unit gene state, bridging the physical and virtual worlds.

[0026] The management agent receives historical and current monitoring values ​​of risk characteristic parameters wirelessly transmitted by the sensing and control agent, and performs time-domain analysis, evaluation, and control decisions on the status of the basic control unit. The management agent is a software module and is the basic unit of the virtual world.

[0027] The assembly intelligent agent uses the management intelligent agent as a component and is assembled into a comprehensive safety production management platform for processes, workflows, workshops, and enterprises according to the basic unit combination relationship of scenario control. The basic control unit serves as the carrier for managing the safety production situation in various scenarios. A top-down scenario structure decomposition method is adopted to form a relationship model between the safety production situation (i.e., risk state) y of an industry-specific enterprise scenario and the risk state xj of the basic control unit. The risk status xj of the basic control unit is the monitoring value of the status of each parameter pji in the loop. function The intelligent sensor module that monitors the status of multiple risk parameters of the basic control unit in real time, provides early warnings of parameter exceedances, identifies and wirelessly transmits real-time parameter data, constitutes the sensing and control intelligent agent of the basic control unit. It acquires the parameter status value (pjit) of the basic control unit and issues warnings when parameters exceed limits. The software module that receives historical and current monitoring values ​​of the risk characteristic parameters of the basic control unit and performs comprehensive analysis, evaluation, and decision-making control is the management intelligent agent of the basic control unit, used to acquire the risk status of the basic control unit. .

[0028] The scene safety production management cloud platform is assembled and managed by intelligent agents to form the safety production management cloud platform of the process, the flow, the workshop and the enterprise according to the scene loop relationship model obtained by top-down decomposition, from loop to process / component to flow / structure to workshop to enterprise. The tool for assembling and managing the intelligent agent is the assembly intelligent agent. The assembly intelligent agent automatically calls and identifies the management intelligent agent to form the management cloud platform at each level.

[0029] The sensing and control intelligent agent brain is a control module, the carrier is a single-chip microcomputer plus an embedded software model, and the connection unit includes a real-time data sensing unit, a real-time data analysis and decision unit, a loop control command execution unit, a parameter adaptation scene unit, a data identification unit and a wireless sending unit. The sensitive element of the real-time data sensing unit senses the parameter state of the basic unit in real time, the real-time data analysis and decision unit identifies the over-limit parameter and issues a control command, and the loop control command execution unit receives the control signal to drive the actuator to execute. As shown in Figure 4 .

[0030] The management intelligent agent brain is a control module, the carrier is a basic unit state control main program, and the subprograms include a data listening unit, a basic unit multi-risk characteristic parameter big data analysis unit, a basic unit state optimization decision unit, a control instruction issuing unit, an intelligent agent identification unit, an intelligent combination interface unit and a data management unit. As shown in Figure 5 .

[0031] As shown in Figure 6 , the assembly intelligent agent brain is a control module, the carrier is a safety production cloud platform assembly main program, and the subprograms include: A man-machine interactive platform model building unit for decomposing the safety production scene into basic control units; A cloud platform component module intelligent coding unit for coding the basic control units and the scene; A cloud platform assembly quick hand for calling the management intelligent agents of the corresponding type from the management intelligent agent warehouse and assigning codes to the management intelligent agents according to the management loop and the scene code; A visual intelligent agent warehouse for providing a management visual window A management intelligent agent warehouse for storing various management intelligent agents.

[0032] In the system of the embodiment system of the present application, the sensing and control intelligent agent is a hardware module with universality and can be mass-produced; the management intelligent agent and the assembly intelligent agent are software modules, the management intelligent agent and the sensing and control intelligent agent form a mirror relationship, provide the digital modules of the basic control units for the management cloud platform at each level, and realize ubiquitous control.

[0033] It is worth mentioning that the management agent can analyze the historical monitoring values and the current monitoring values of the risk characteristic parameters wirelessly transmitted by the sensing and control agent by using any existing data analysis method to determine the risk state of the management and control basic unit. For example, the real-time fusion method for process production safety multi-modal multi-parameter monitoring data disclosed in the Chinese patent with application number CN202410368109.4 is used to calculate the multi-modal fusion risk state coefficient of the management and control basic unit at the current time, and the risk state level of the management and control basic unit at the current time is determined according to the numerical interval in which the multi-modal fusion risk state coefficient is located, and a hierarchical early warning is performed.

[0034] The cloud platform can analyze and warn the risk state level of the whole scene by using any existing data analysis method.

[0035] For example, similar to the real-time fusion method for process production safety multi-modal multi-parameter monitoring data disclosed in the Chinese patent with application number CN202410368109.4, weights are assigned to each management and control basic unit, and a weighted calculation is performed on the multi-modal fusion risk state coefficient of each management and control basic unit to obtain the risk coefficient of the whole scene. The risk coefficient level of the whole scene and the corresponding numerical interval are pre-divided, and the risk state level of the whole scene at the current time is determined according to the numerical interval in which the risk coefficient of the whole scene is located, and a hierarchical early warning is performed.

[0036] The embodiment of the present application provides a safe production digitization method, comprising: The production and life scene is decomposed into a plurality of basic management and control units, and corresponding sensing and control agents are arranged for each basic management and control unit. The sensing and control agent is used to collect the monitoring values of each risk characteristic parameter of the basic management and control unit, and a warning is performed when the monitoring value of any risk characteristic parameter exceeds the corresponding safety threshold; According to the types and quantities of each basic management and control unit, a management agent corresponding to each basic management and control unit is called, and is in one-to-one communication connection with the sensing and control agent of each basic management and control unit. The management agent is used to determine the risk state of the basic management and control unit according to the historical monitoring values and the current monitoring values of the risk characteristic parameters, and performs a warning; The risk state of the whole scene is determined according to the risk state of each basic management and control unit, and a warning is performed.

[0037] The digitization gene application provided by the embodiment of the present application comprises the following steps: 1) deploying a sensing and control agent according to the process procedure loop requirements and adapting the loop parameters; 2) selecting a management agent matching the sensing and control agent of the process procedure loop; 3) calling a combination assembly according to the types and quantities of the process procedure loop to form a cloud platform for process management. As shown in the following figure. Figure 7

[0038] ​The system provided by the embodiment of the present application is further described below by taking the production safety integrated management and control of a certain chemical product polymerization process as an example.

[0039] I. The process management and control loop (i.e. the basic unit of management and control) of a typical process is as follows: (1) Material flow / energy flow management and control loop 1) Feeding kettle feeding process: Material flow loop 1: feeding kettle electronic liquid level meter + feeding control pump; Material flow loop 2, feeding kettle electronic liquid level meter + mixed material discharge pump; Energy flow loop 1: feeding temperature + cooling water control pump.

[0040] 2) Reaction kettle polymerization reaction process Material flow loop 1: reaction kettle liquid level + mixed material feeding control pump; Material flow loop 2: reaction kettle liquid level + finished product discharge control pump; Energy flow loop 1: reaction temperature + water vapor regulating proportional valve; Energy flow loop 2: nitrogen flow duration + nitrogen regulating proportional valve; Energy flow loop 3: reaction kettle pressure + compressed air regulating proportional valve.

[0041] 3) Flow-through process: Energy flow loop 1: heat exchanger temperature + hot steam regulating proportional valve.

[0042] 4) Fluidization process: Energy flow loop 1: heat exchanger temperature + hot steam regulating proportional valve.

[0043] (2) Typical equipment safety management and control loop includes: 1) Feeding kettle equipment The overall structure is supported by steel structure, and the safety management and control loop thereof is: Support beam midspan key section loop: the state is strain, and the actuator is an over-limit warning light; Overall safety loop: the state is two-way tilt, and the actuator is an over-limit warning light.

[0044] 2) Reaction kettle equipment The overall structure is supported by steel structure, and the safety management and control loop thereof is: Support beam midspan key section loop: the state is strain, and the actuator is an over-limit warning light; Overall safety loop: the state is two-way tilt, and the actuator is an over-limit warning light.

[0045] 3) Flow-through equipment The overall structure is supported by steel structure, and the safety management and control loop thereof is: Whole safety loop: state is uneven settlement, actuator is over-limit warning light.

[0046] 4) vulcanization equipment Whole sitting, its safety control loop is: Whole safety loop: state is uneven settlement, actuator is over-limit warning light.

[0047] (3) plant structure safety control loop has: Plant structure key section loop: state is strain / crack / degree of disturbance, actuator is over-limit warning light; Whole stability loop of plant structure: state is tilt / compared to uneven settlement, actuator is over-limit warning light.

[0048] (4) typical space section environment safety control loop has: Section environment loop: state is harmful and toxic gas, flammable and combustible gas, actuator is over-limit warning light.

[0049] (5) control loop type summary Material flow / energy flow control loop: liquid level / flow / pressure / duration, actuator is proportional valve; Equipment safety control loop: state is strain / tilt / uneven settlement, actuator is warning light; Structure safety key section control loop: state is strain / crack / degree of disturbance, actuator is warning light; Space section environment control loop: state is harmful and toxic gas, flammable and combustible gas, actuator is over-limit warning light.

[0050] II. Typical sensing and control intelligent agent Sensing and control characteristics corresponding to control loop: 1) Material flow / energy flow sensing: state quantity is monitored by liquid level meter / pressure gauge, counter monitors flow, clock monitors duration, actuator is electrically adjusted proportional valve.

[0051] 2) Equipment safety sensing: state quantity is monitored by strain / tilt / displacement sensor, actuator is warning light.

[0052] 3) Structure safety sensing: state quantity is monitored by strain / displacement meter, actuator is warning light.

[0053] 4) Space section environment sensing: state quantity is monitored by corresponding gas sensor, actuator is warning light.

[0054] The four control loop state sensing control parameters are different, but the signals of the sensing control parameter states can be unified as current or voltage or logic quantity through the transmitter, therefore, the control loop parameter state is taken as the standard of the electronic signal, the parameter and signal relationship model is embedded in the sensing control agent adaptation scene application, in the specific application, the adaptation scene is formed by selecting and confirming the identification, and the universal sensing control agent is formed.

[0055] In the design and manufacture of the sensing control agent, the safety state real-time intelligent monitoring mother machine, method and system disclosed in the Chinese patent with the application number CN202211448968.1 can be referred to, to realize real-time collaborative sensing control of multiple sources and multiple parameters.

[0056] III. Typical management agent The management agent software module is paired with the sensing control agent and can be used alone, and is designed with a module combination interface and a module identification function, so that it can be easily combined and assembled as a basic unit of a large platform system.

[0057] IV. Integrated control cloud platform for chemical polymerization process production safety

[0058] Develop temperature / pressure / strain / displacement / liquid level / gas and other parameter sensing control agents with current or voltage as the standard signal, and logic quantity and tilt / vibration MEMS sensors and other multi-parameter sensing control agents, each sensing control agent can sense not less than 4 parameters / measuring points, and a management software agent is programmed accordingly. Deploy the sensing control agent, combine the process multi-loop management agent software module, and form a process and flow production safety integrated control cloud platform.

[0059] An electronic device is provided in an embodiment of the present application, including: a computer readable storage medium and a processor; The computer readable storage medium is used to store executable instructions; The processor is used to read the executable instructions stored in the computer readable storage medium, and execute the method according to any one of the above embodiments.

[0060] An embodiment of the present application provides a computer readable storage medium, which stores computer instructions, and the computer instructions are used to make a processor execute the method according to any one of the above embodiments.

[0061] An embodiment of the present application provides a computer program product, including a computer program or instructions, which are executed by a processor to realize the method according to any one of the above embodiments.

[0062] Those skilled in the art can easily understand that the above description is only the preferred embodiment of the present application, and is not intended to limit the present application. Any modification, equivalent replacement and improvement made within the spirit and principle of the present application shall be included in the protection scope of the present application.

Claims

1. A safety production digitization system, characterized in that, Comprise: a sensing control agent, a management agent, an equipment agent, and a scene management cloud platform; the sensing control agent is used to collect monitoring values of various risk characteristic parameters in a basic control unit, and to give a warning when the monitoring value of any risk characteristic parameter exceeds the corresponding safety threshold; wherein the basic control unit is obtained by deconstructing a production and living scene; one sensing control agent is arranged for one basic control unit; the equipment agent is used to call a management agent corresponding to each basic control unit according to the type and number of the basic control units, and to connect the management agent with the sensing control agent of each basic control unit in a one-to-one correspondence; the management agent is used to determine the risk state of the basic control unit according to the historical monitoring values and the current monitoring values of the various risk characteristic parameters, and to give a warning; the scene management cloud platform is used to determine the risk state of the whole scene according to the risk states of the basic control units, and to give a warning.

2. The system of claim 1, wherein, The sensing control agent comprises a real-time data sensing unit, a first control module, a wireless sending unit, a data identification unit, and a warning unit; the real-time data sensing unit is used to collect monitoring values of various risk characteristic parameters in the basic control unit, and the first control module is used to give a warning through the warning unit when the monitoring value of any risk characteristic parameter exceeds the corresponding safety threshold; the wireless sending unit is used to send the monitoring values of the various risk characteristic parameters to the corresponding management agent.

3. The system of claim 2, wherein, The sensing control agent further comprises a data identification unit, which is used to add a data identification to the monitoring values; the data identification comprises a scene code, a basic control unit code, a sensing control agent code, and a risk characteristic parameter type code in sequence.

4. The system of claim 2, wherein, The sensing control agent further comprises a control execution unit, which is used to regulate according to safety specifications when the monitoring value of any risk characteristic parameter exceeds the corresponding safety threshold.

5. The system of claim 1, wherein, The equipment agent comprises: a man-machine interactive platform model building unit, which is used to decompose a production and living scene into multiple basic control units; a cloud platform component module intelligent coding module, which is used to code the basic control units and the production and living scene; a management agent warehouse, which is used to store various management agents; a cloud platform assembly quick hand, which is used to call the management agents of corresponding types from the management agent warehouse according to the type and number of the basic control units, code them, connect them with the sensing control agents of the basic control units in a one-to-one correspondence, and form a scene management cloud platform; a visualized agent warehouse, which is used to provide a visual window of the management agents.

6. The system of any one of claims 1 to 5, wherein, The basic control unit is a material flow / energy flow regulation loop of a process production; or, a key section / surface / segment of safety production risk control; or, a segment of spatial environment safety monitoring.

7. A method for digitalizing safety production, characterized in that, Comprise: deconstructing a production and living scene into multiple basic control units, and arranging corresponding sensing control agents for the basic control units; the sensing control agent is used to collect monitoring values of various risk characteristic parameters in the basic control unit, and to give a warning when the monitoring value of any risk characteristic parameter exceeds the corresponding safety threshold; According to the type and quantity of each basic control unit, a management intelligent agent corresponding to each basic control unit is called, and is in one-to-one correspondence with the sensing and control intelligent agent of each basic control unit; the management intelligent agent is used for determining the risk state of the basic control unit according to the historical monitoring value and the current monitoring value of the risk characteristic parameters and giving a warning; According to the risk state of each basic control unit, the risk state of the whole scene is determined and a warning is given.

8. An electronic device, comprising: Comprise: A computer readable storage medium and a processor; The computer readable storage medium is used for storing executable instructions; The processor is used for reading the executable instructions stored in the computer readable storage medium and executing the method of claim 7.

9. A computer-readable storage medium, characterized in that, The computer readable storage medium stores computer instructions, and the computer instructions are used for making the processor execute the method of claim 7.

10. A computer program product comprising computer programs or instructions, characterized in that, The computer program or instructions are executed by the processor to realize the method of claim 7.

Citation Information

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