Security management system, methods, equipment, storage media, information processing cloud platform

Abstract

This disclosure provides a security management system, including: an information processing cloud platform and at least one mobile terminal connected to the information processing cloud platform; the mobile terminal is used to send scene description parameters to the information processing cloud platform, the scene description parameters including scene parameters, device security parameters, and user parameters corresponding to the mobile terminal; the information processing cloud platform is used to receive the scene description parameters sent by the mobile terminal, determine the scene in which the mobile terminal is located and the corresponding security management process according to the scene parameters, evaluate the security status of devices and / or personnel in the scene in which the mobile terminal is located according to the device security parameters and the scene parameters, and determine the correlation between the user corresponding to the mobile terminal and the scene in which the mobile terminal is located according to the user parameters, and when the correlation is greater than a preset threshold, group the user corresponding to the mobile terminal into a work group that manages the scene in which the mobile terminal is located, and send the security management process to all mobile terminals in the work group.

Description

Technical Field

[0001] This disclosure relates to the field of production and daily life safety protection, and in particular to a safety management system, method, device, storage medium, and information processing cloud platform. Background Technology

[0002] Safety is an eternal theme for enterprises. Currently, the vast majority of high-risk and potentially fatal operations in Chinese enterprises remain uncontrollable, and major and serious accidents cannot be completely controlled. The safety situation in most enterprises is still quite severe.

[0003] To improve safety in production, enterprises have done a great deal of work in terms of technical and management methods for accident prevention, as well as automated control systems, resulting in continuous improvements in equipment and automation levels. In particular, replacing humans with machines and reducing human labor through process improvements have become important directions for current and future safety production efforts. Some large enterprises both domestically and internationally have already made positive attempts, using robots, automated production control systems, industrial video surveillance, and detection devices to monitor production data, equipment operation status, and personnel status, implementing automated operation, online security management, and safety monitoring.

[0004] This approach suffers from problems such as complex equipment and facilities, high costs, significant technical difficulties, poor integration and coordination between different systems, and an inability to achieve full coverage. More importantly, safety management systems and methods that replace humans with machines or reduce human labor through process improvements treat humans as the opposite of safe production. They mechanically use the replacement or reduction of human labor as the goal and means, lacking systems and methods that integrate humans and machines. They fail to leverage the crucial role of humans as the main body and most important factor in safe production, and cannot organically combine human initiative, enthusiasm, responsibility, creativity, and flexibility with automated operation and control.

[0005] Furthermore, because automated control systems that replace humans with machines and reduce human labor through process improvements place high demands on funding, enterprise information management, construction time, and the internal and external environment of the enterprise, not only can large enterprises with abundant funds and technical strength not achieve full coverage and no blind spots in automated control, but it is even more difficult for the vast number of small and medium-sized enterprises that lack funds and technical strength to establish automated control systems. Summary of the Invention

[0006] This disclosure provides a security management system, method, device, storage medium, and information processing cloud platform, establishing a security management system and method that organically combines personnel, hardware, and software, maximizing the utilization of existing resources and the maximum participation of personnel, with broad coverage, high integration, low cost, and strong practicality.

[0007] In a first aspect, this disclosure provides a security management system, including: an information processing cloud platform and at least one mobile terminal connected to the information processing cloud platform;

[0008] The mobile terminal is used to send scene description parameters to the information processing cloud platform. The scene description parameters include scene parameters, device security parameters, and user parameters corresponding to the mobile terminal.

[0009] The information processing cloud platform is used to receive scene description parameters sent by the mobile terminal, determine the scene in which the mobile terminal is located and the corresponding security management process based on the scene parameters, evaluate the security status of devices and / or personnel in the scene in which the mobile terminal is located based on the device security parameters and scene parameters, and determine the correlation between the user corresponding to the mobile terminal and the scene in which the mobile terminal is located based on the user parameters. When the correlation is greater than a preset threshold, the user corresponding to the mobile terminal is grouped into a work group that manages the scene in which the mobile terminal is located, and the security management process is sent to all mobile terminals in the work group.

[0010] In conjunction with the first aspect, in the first possible implementation of the first aspect, the security management system provided by this disclosure further includes: a scene perception unit, used to collect scene description parameters of the scene in which the mobile terminal is located, and send the scene description parameters to the information processing cloud platform.

[0011] In conjunction with the first possible implementation of the first aspect, in the second possible implementation of the first aspect, the scene perception unit includes a collection subunit, a sending subunit, and a human-computer interaction interface. The collection subunit is used to collect scene parameters and device security parameters of the scene in which the mobile terminal is located. The sending subunit is used to send the scene parameters and device security parameters of the scene in which the mobile terminal is located to the information processing cloud platform. The human-computer interaction interface is used to receive input instructions.

[0012] In conjunction with the first aspect, in the third possible implementation of the first aspect, the information processing cloud platform is further configured to generate and send to the mobile terminal a dynamic risk map describing the safety status of various devices and / or personnel in the scene in which the mobile terminal is located, based on the scenario description parameters.

[0013] In conjunction with the third possible implementation of the first aspect, in the fourth possible implementation of the first aspect, the information processing cloud platform is further configured to generate and send warning information to the mobile terminal when it is determined that there are devices and / or personnel with substandard security conditions in the scenario in which the mobile terminal is located, based on the scenario description parameters.

[0014] In conjunction with the third or fourth possible implementation of the first aspect, in the fifth possible implementation of the first aspect, the information processing cloud platform, based on the scenario description parameters, when determining that there are devices and / or personnel with substandard security conditions in the scenario where the mobile terminal is located, is also used to generate and send workflow instructions to the mobile terminal for the devices and / or personnel with substandard security conditions.

[0015] The mobile terminal is also configured to receive the workflow instruction to instruct the mobile terminal to monitor the completion progress of the task specified by the workflow instruction.

[0016] In conjunction with the fifth possible implementation of the first aspect, in the sixth possible implementation of the first aspect, the workflow instruction includes at least one of the following: work trajectory recording instruction, task reminder instruction, and node control instruction.

[0017] In conjunction with the first aspect, in the seventh possible implementation of the first aspect, the information processing cloud platform is further configured to determine the emergency rescue equipment in the scene where the mobile terminal is located based on the scene description parameters, and generate and send to the mobile terminal an emergency rescue equipment and facility map describing the location of each emergency rescue equipment in the working group corresponding to the scene where the mobile terminal is located.

[0018] In conjunction with the seventh possible implementation of the first aspect, in the eighth possible implementation of the first aspect, the information processing cloud platform is further configured to generate sharing instructions and sharing status for each emergency rescue equipment and facility in the working group, and to set the at least one emergency rescue equipment and facility to a sharing status upon receiving a sharing instruction for at least one of the emergency rescue equipment and facilities.

[0019] In conjunction with the seventh or eighth possible implementation of the first aspect, in the ninth possible implementation of the first aspect, the information processing cloud platform is further configured to, when receiving an unlocking instruction for emergency rescue equipment and facilities in a shared state, authorize the terminal device that sent the unlocking instruction with the usage rights and instructions for use of the emergency rescue equipment and facilities in a shared state.

[0020] In conjunction with any of the seventh to ninth possible implementations of the first aspect, in the tenth possible implementation of the first aspect, the information processing cloud platform is further configured to push emergency rescue equipment and facilities near the location of the mobile terminal to the mobile terminal when receiving a sudden signal.

[0021] In conjunction with the first aspect, in the eleventh possible implementation of the first aspect, the user parameters include at least one of the following: user identifier, user characteristic attributes corresponding to the scenario, and user permissions.

[0022] In conjunction with the first aspect, in the twelfth possible implementation of the first aspect, the scene parameters include at least one of the following: scene label, element parameters, temperature parameters, humidity parameters, gas parameters, smoke parameters, and on-site personnel identification parameters, location parameters, fatigue physiological parameters, and working status parameters.

[0023] In conjunction with the first aspect, in the thirteenth possible implementation of the first aspect, the information processing cloud platform is further used to generate security information and security situation reports corresponding to the scenario in which the mobile terminal is located, based on the scenario description parameters.

[0024] In conjunction with the thirteenth possible implementation of the first aspect, in the fourteenth possible implementation of the first aspect, the information processing cloud platform is further configured to send the security information and security situation analysis report indicated by the security information display instruction to the mobile terminal when it receives the security information display instruction sent by the mobile terminal.

[0025] In conjunction with the thirteenth or fourteenth possible implementation of the first aspect, in the fifteenth possible implementation of the first aspect, the security information includes at least one of the following: current overall security situation, risk warning, security hazards, security tasks, operation management, equipment information, emergency rescue equipment sharing information, and working group members.

[0026] In conjunction with the first aspect, in the sixteenth possible implementation of the first aspect, the information processing cloud platform is further configured to receive a security control instruction sent by the mobile terminal, the security control instruction including operations on the scenario description parameters.

[0027] In conjunction with the sixteenth possible implementation of the first aspect, in the seventeenth possible implementation of the first aspect, the security control instructions include at least one of the following: check-in operation for work group members, multimedia form upload operation for security issues, standardized operation operation, establishment of security tasks operation, communication operation for work group members, sharing operation of rescue facilities and equipment, and sharing operation of internal data and information within the work group.

[0028] Secondly, this disclosure provides a security management method applied to an information processing cloud platform, the method comprising:

[0029] Receive scene description parameters sent by the mobile terminal, the scene description parameters including scene parameters, device security parameters and user parameters corresponding to the mobile terminal;

[0030] The scenario and corresponding security management process of the mobile terminal are determined based on the scenario parameters. The security status of the equipment and / or personnel in the scenario of the mobile terminal is evaluated based on the device security parameters and scenario parameters. The correlation between the user corresponding to the mobile terminal and the scenario of the mobile terminal is determined based on the user parameters. When the correlation is greater than a preset threshold, the user corresponding to the mobile terminal is grouped into a work group that manages the scenario of the mobile terminal, and the security management process is sent to all mobile terminals grouped into the work group.

[0031] In conjunction with the second aspect, in the first possible implementation of the second aspect, scene description parameters sent by the scene perception unit are received.

[0032] In conjunction with the second aspect, in the second possible implementation of the second aspect, the security management method further includes: generating and sending to the mobile terminal a dynamic risk map of the security status of each device and / or person in the scenario in which the mobile terminal is located, based on the scenario description parameters.

[0033] In conjunction with the second possible implementation of the second aspect, in the third possible implementation of the second aspect, the security management method further includes: based on the scenario description parameters, when it is determined that there are devices and / or personnel with substandard security conditions in the scenario where the mobile terminal is located, generating and sending workflow instructions to the mobile terminal for the devices and / or personnel with substandard security conditions; wherein, the workflow instructions include at least one of the following: work trajectory recording instructions, task reminder instructions, and node control instructions.

[0034] In conjunction with the second aspect, in the fourth possible implementation of the second aspect, the safety management method further includes: determining the emergency rescue equipment in the scene where the mobile terminal is located based on the scene description parameters, generating and sending to the mobile terminal an emergency rescue equipment facility map describing the location of each emergency rescue equipment in the working group corresponding to the scene where the mobile terminal is located.

[0035] In conjunction with the fourth possible implementation of the second aspect, in the fifth possible implementation of the second aspect, the safety management method further includes: generating sharing instructions and sharing states for each emergency rescue equipment and facility in the working group, and setting the at least one emergency rescue equipment and facility to a sharing state upon receiving a sharing instruction for at least one of the emergency rescue equipment and facilities.

[0036] In conjunction with the fourth or fifth possible implementation of the second aspect, the sixth possible implementation of the second aspect further includes:

[0037] When an unlocking command is received for emergency rescue equipment and facilities in a shared state, the terminal device that sent the unlocking command is granted access to and instructions for use of the shared emergency rescue equipment and facilities.

[0038] In conjunction with the fifth possible implementation of the second aspect, the seventh possible implementation of the second aspect further includes the following security management methods:

[0039] Upon receiving an emergency signal, the system pushes information about nearby emergency rescue equipment and facilities to the mobile terminal.

[0040] In conjunction with the second possible implementation of the second aspect, in the eighth possible implementation of the second aspect, the security management method further includes: generating and sending a warning message to the mobile terminal when it is determined that there are devices and / or personnel with substandard security conditions in the scenario in which the mobile terminal is located; and / or

[0041] When it is determined that there are devices and / or personnel with substandard security conditions in the scenario where the mobile terminal is located, a workflow instruction is generated and sent to the mobile terminal for the devices and / or personnel with substandard security conditions, so as to instruct the mobile terminal to monitor the completion progress of the task specified by the workflow instruction.

[0042] In conjunction with the second aspect, in the ninth possible implementation of the second aspect, the security management method further includes: generating security information and a security status report corresponding to the scenario in which the mobile terminal is located based on scenario description parameters.

[0043] In conjunction with the ninth possible implementation of the second aspect, the tenth possible implementation of the second aspect further includes: upon receiving a security information display instruction sent by the mobile terminal, sending the security information and security status report indicated by the security information display instruction to the mobile terminal.

[0044] In conjunction with the second aspect, in the eleventh possible implementation of the second aspect, the security management method further includes: receiving a security control instruction sent by the mobile terminal, the security control instruction including an operation on the scenario description parameters.

[0045] Thirdly, this disclosure provides an electronic device, including:

[0046] Memory, used to store at least one machine instruction;

[0047] A processor for loading the at least one machine instruction that causes the processor to perform the method as described in the second aspect or any of the first to eleventh methods of the second aspect.

[0048] Fourthly, this disclosure provides a machine-readable storage medium having machine instructions stored thereon, which, when executed by a processor, implement the method as described in the second aspect or any one of the first to eleventh aspects of the second aspect.

[0049] Fifthly, this disclosure provides an information processing cloud platform, including:

[0050] The receiving program module is used to receive scene description parameters sent by the mobile terminal. The scene description parameters include scene parameters, device security parameters, and user parameters corresponding to the mobile terminal.

[0051] The processing module is used to determine the scene where the mobile terminal is located and the corresponding security management process based on the scene parameters, evaluate the security status of the equipment and / or personnel in the scene where the mobile terminal is located based on the device security parameters and scene parameters, determine the correlation between the user corresponding to the mobile terminal and the scene where the mobile terminal is located based on the user parameters, and when the correlation is greater than a preset threshold, group the user corresponding to the mobile terminal into a work group that manages the scene where the mobile terminal is located, and send the security management process to all mobile terminals in the work group.

[0052] In conjunction with the fifth aspect, in the first possible implementation of the fifth aspect, the receiving program module is further configured to: receive scene description parameters sent by the scene perception unit.

[0053] In conjunction with the fifth aspect, in the second possible implementation of the fifth aspect, the processing module is further configured to: generate and send to the mobile terminal a dynamic risk map of the safety status of various devices and / or personnel in the scene in which the mobile terminal is located, based on the scene description parameters.

[0054] In conjunction with the second possible implementation of the fifth aspect, in the third possible implementation of the fifth aspect, the processing module is further configured to: generate and send a warning message to the mobile terminal when it is determined that there are devices and / or personnel with substandard security conditions in the scenario in which the mobile terminal is located; and / or

[0055] When it is determined that there are devices and / or personnel with substandard security conditions in the scenario where the mobile terminal is located, it is also used to generate and send a workflow instruction to the mobile terminal for the devices and / or personnel with substandard security conditions, so as to instruct the mobile terminal to monitor the completion progress of the task specified by the workflow instruction.

[0056] In conjunction with the fifth aspect, in the fourth possible implementation of the fifth aspect, the processing module is further configured to: generate security information and security status report corresponding to the scenario in which the mobile terminal is located based on the scenario description parameters.

[0057] In conjunction with the fourth possible implementation of the fifth aspect, in the fifth possible implementation of the fifth aspect, the receiving program module is further configured to: when receiving the security information display instruction sent by the mobile terminal, send the security information and security status report indicated by the security information display instruction to the mobile terminal.

[0058] In conjunction with the fifth aspect, in a sixth possible implementation of the fifth aspect, the receiving program module is further configured to: receive a security control instruction sent by the mobile terminal, the security control instruction including operations on the scenario description parameters.

[0059] This disclosure enables the identification and grouping of mobile terminal users (who may be mobile terminal holders) within a certain area into the same workgroup based on scene description parameters. The security management process is then sent to all mobile terminals grouped into that workgroup, allowing all users within that workgroup to participate. By dynamically matching and networking relevant personnel within a scene, this disclosure maximizes human initiative, leverages existing resources, and maximizes personnel participation. It offers broad coverage, high integration, low cost, and strong practicality, filling gaps and vulnerabilities in traditional security management and automated control systems, achieving comprehensive, seamless, and end-to-end security management. Attached Figure Description

[0060] To more clearly illustrate the technical solutions in the embodiments of this disclosure or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of this disclosure. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0061] Figure 1 This is a schematic diagram illustrating the composition of a security management system provided in certain embodiments of this disclosure;

[0062] Figure 2 This is a schematic diagram illustrating the composition of a security management system provided in some other embodiments of this disclosure;

[0063] Figure 3 This is a schematic diagram illustrating the composition of a security management system provided in certain embodiments of this disclosure;

[0064] Figure 4 This is a schematic diagram of a security management system provided for certain embodiments of the present disclosure;

[0065] Figure 5 This is a flowchart of a security management method according to certain embodiments of this disclosure;

[0066] Figure 6 This is a flowchart of a security management method according to some other embodiments of this disclosure;

[0067] Figure 7 This is a program module diagram of an information processing cloud platform according to certain embodiments of this disclosure. Detailed Implementation

[0068] To make the objectives, technical solutions, and advantages of the embodiments of this disclosure clearer, the technical solutions of the embodiments of this disclosure will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this disclosure, and not all embodiments. Based on the embodiments of this disclosure, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this disclosure.

[0069] The terminology used in the embodiments of this application is for the purpose of describing particular embodiments only and is not intended to limit the application. The singular forms “a,” “said,” and “the” used in the embodiments of this application and the appended claims are also intended to include the plural forms, and “multiple” generally includes at least two unless the context clearly indicates otherwise.

[0070] Please see Figure 1 This disclosure provides a security management system, including: an information processing cloud platform and at least one mobile terminal connected to the information processing cloud platform. The information processing cloud platform has preset scenario models and corresponding security management processes. The scenarios corresponding to the scenario models are determined based on scenario description parameters, showing a correspondence between the scenarios and the security management processes. The working principles of the information processing cloud platform and the mobile terminal are as follows.

[0071] The mobile terminal is used to send scene description parameters to the information processing cloud platform. The scene description parameters include scene parameters, device security parameters, and user parameters corresponding to the mobile terminal.

[0072] The mobile terminal includes, but is not limited to, smartphones, tablets, and other portable or wearable smart devices with network and / or communication capabilities and operational functions. It is equipped with terminal software, a UI interface for interacting with the information management cloud platform, and expandable interface modules. The mobile terminal can integrate a scene perception unit to actively acquire the scene description parameters, and can also receive externally input scene description parameters through a human-machine interface. Specifically, it can receive scene description parameters collected by an external scene perception unit, or it can receive scene description parameters input by a user through a human-machine interaction interface.

[0073] User parameters may include at least one of the following: user identifier, user characteristic attributes corresponding to the scene, and user permissions. The user identifier may be a unique ID composed of letters, numbers, and / or symbols, a unique barcode or QR code (e.g., a visual QR code) generated based on preset information, or preset unique authentication information, such as biometric data (fingerprint, iris, facial image), or ID card information. User characteristic attributes (e.g., location) may refer to attributes corresponding to the scene, which can be used to determine whether the scene in which the mobile terminal is located is consistent with the scene corresponding to the user. If they are consistent, the user is considered a member of the work group for that scene; if they are inconsistent, the user is considered not a member of the work group for that scene. User permissions may be the user's work permissions, such as administrator or ordinary work group member.

[0074] Scene parameters may include at least one of the following: scene label, element parameters, temperature parameters, humidity parameters, gas parameters, smoke parameters, and on-site personnel identification parameters, location parameters, fatigue physiological parameters, and work status parameters. The scene label can be a scene identifier to distinguish different scenes, such as: workshop, production line, location, activity, 001, etc. Element parameters can be chemical elements and preset concentrations, such as: sulfur (S), mercury (Hg). Gas parameters can be gases in the air and preset concentrations, such as: carbon monoxide (CO), ozone (O3). Identification parameters can be user identifiers, personnel information, etc. Fatigue physiological parameters can be working hours, current physical health status, rest time during work, etc. Work status parameters can be work diligence, accuracy rate, task completion rate, get off work hours, behavioral standards, or the degree to which behavior is / is not permitted, and the manner in which it is / is not permitted, etc. Among these parameters, the elemental, temperature, humidity, gas, and smoke parameters can each have their own preset thresholds. When these parameters are not higher than their respective preset thresholds, the scene parameters are considered normal, and the scene's safety status meets the standards. When these parameters are higher than their respective preset thresholds, the scene parameters are considered abnormal, and the scene's safety status does not meet the standards.

[0075] Similarly, the identification parameters, location parameters, fatigue physiological parameters, and work status parameters of on-site personnel can each have their own preset thresholds. When these parameters are not higher than their respective preset thresholds, the parameters of the scenario are considered normal, and the safety status of the personnel in that scenario meets the standards. When these parameters exceed their respective preset thresholds, the parameters of the scenario are considered abnormal, and the safety status of the personnel in that scenario does not meet the standards.

[0076] Equipment safety parameters may include at least one of the following: equipment identification, model, type, location parameters, temperature parameters, and operating status (including but not limited to stress, vibration, pressure, voltage, power, frequency, overload, undervoltage, and leakage). The temperature parameter and operating status may each have their own preset thresholds. When the temperature parameter or operating status is not higher than its corresponding preset threshold, the equipment safety parameters are considered normal, the equipment is operating normally, and its safety condition meets the standards. When the temperature parameter or operating status is higher than its corresponding preset threshold, the equipment safety parameters are considered abnormal, and the equipment's safety condition does not meet the standards.

[0077] The information processing cloud platform is used to receive scene description parameters sent by the mobile terminal, determine the scene in which the mobile terminal is located and the corresponding security management process based on the scene parameters, and determine the correlation between the user corresponding to the mobile terminal and the scene in which the mobile terminal is located based on the user parameters. When the correlation is greater than a preset threshold, the user corresponding to the mobile terminal is grouped into a work group managing the scene in which the mobile terminal is located, and the security management process is sent to all mobile terminals grouped into the work group. The information processing cloud platform is also used to assess the security status of devices and / or personnel in the scene in which the mobile terminal is located based on the device security parameters and scene parameters.

[0078] Among them, the degree of relevance refers to the closeness of the connection between the user corresponding to the mobile terminal and the scene. Specifically, it can be determined by judging other user parameters such as location, identity authentication or specific status and parameters based on pre-set conditions to determine whether the user corresponding to the mobile terminal has a strong degree of relevance to the scene in which the mobile terminal is located, and thus ultimately determine whether the user corresponding to the mobile terminal is a member of the work group in the scene in which the mobile terminal is located or whether it corresponds to the corresponding scene.

[0079] Among them, the user corresponding to the mobile terminal can be the mobile terminal holder, who can work as a member of the working group in the corresponding scenario after being analyzed, authenticated and associated by the information processing cloud platform.

[0080] In this embodiment of the disclosure, the information processing cloud platform can assess the security status of devices and / or personnel in the scene where the mobile terminal is located based on the device security parameters and scene parameters. Therefore The following are some situations:

[0081] (1) The information processing cloud platform assesses the safety status of the device in the scene where the mobile terminal is located based on the device safety parameters and scene parameters. For example, the safety status of the device in the scene where the mobile terminal is located can be assessed by the temperature parameter and working status in the device safety parameters and the element parameters, humidity parameters, gas parameters, and smoke parameters in the scene parameters.

[0082] (2) The information processing cloud platform assesses the safety status of personnel in the scene where the mobile terminal is located based on the device safety parameters and scene parameters. For example, the safety status of personnel in the scene where the mobile terminal is located can be assessed by the temperature parameter and working status parameter in the device safety parameters and the identification parameters, location parameters, fatigue physiological parameters, and working status parameters of on-site personnel in the scene parameters.

[0083] (3) The information processing cloud platform assesses the safety status of the equipment and personnel in the scene where the mobile terminal is located based on the equipment safety parameters and scene parameters. For example, the safety status of the equipment in the scene where the mobile terminal is located can be assessed based on the temperature parameters and working status parameters in the equipment safety parameters and the element parameters, humidity parameters, gas parameters, and smoke parameters in the scene parameters. The safety status of the personnel in the scene where the mobile terminal is located can be assessed based on the identification parameters, location parameters, fatigue physiological parameters, and working status parameters of the on-site personnel in the scene parameters.

[0084] (4) The information processing cloud platform assesses the safety status of the devices in the scene where the mobile terminal is located based on the device safety parameters. For example, the safety status of the devices in the scene where the mobile terminal is located can be assessed through the temperature parameter and the working status in the device safety parameters.

[0085] (5) The information processing cloud platform assesses the safety status of personnel in the scene where the mobile terminal is located based on the device safety parameters. For example, the safety status of personnel in the scene where the mobile terminal is located can be assessed through the temperature parameter and working status in the device safety parameters.

[0086] (6) The information processing cloud platform assesses the safety status of the equipment and personnel in the scene where the mobile terminal is located based on the equipment safety parameters. For example, the safety status of the equipment and personnel in the scene where the mobile terminal is located can be assessed through the temperature parameter and working status in the equipment safety parameters.

[0087] (7) The information processing cloud platform assesses the safety status of the equipment in the scene where the mobile terminal is located based on the scene parameters. For example, the safety status of the equipment in the scene where the mobile terminal is located can be assessed through the element parameters, temperature parameters, humidity parameters, gas parameters, and smoke parameters in the scene parameters.

[0088] (8) The information processing cloud platform assesses the safety status of personnel in the scene where the mobile terminal is located based on the scene parameters. For example, the safety status of personnel in the scene where the mobile terminal is located can be assessed through the identification parameters, location parameters, fatigue physiological parameters, and work status parameters of on-site personnel in the scene parameters.

[0089] (9) The information processing cloud platform assesses the safety status of the equipment and personnel in the scene where the mobile terminal is located based on the scene parameters. For example, the safety status of the equipment in the scene where the mobile terminal is located can be assessed by the element parameters, temperature parameters, humidity parameters, gas parameters, and smoke parameters in the scene parameters, and the safety status of the personnel in the scene where the mobile terminal is located can be assessed by the identification parameters, location parameters, fatigue physiological parameters, and working status parameters of the on-site personnel in the scene parameters.

[0090] This disclosure enables the identification and grouping of mobile terminal users (who may be mobile terminal holders) within a certain area into the same workgroup based on scene description parameters. The security management process is then sent to all mobile terminals grouped into that workgroup, allowing all users within that workgroup to participate. By dynamically matching and networking relevant personnel within a scene, this disclosure maximizes human initiative, leverages existing resources, and maximizes personnel participation. It offers broad coverage, high integration, low cost, and strong practicality, filling gaps and vulnerabilities in traditional security management and monitoring systems, achieving comprehensive and seamless security management.

[0091] In some of the optional embodiments described above, the information processing cloud platform is further configured to generate and send to the mobile terminal a dynamic risk and hazard map describing the safety status of each device and / or personnel in the scene in which the mobile terminal is located, based on the scene description parameters. The dynamic risk and hazard map may describe the device safety parameters and scene parameters. For example, based on the location parameters of the device safety parameters and combined with the scene parameters, a scene map containing device and personnel information is drawn. The scene map includes prominently marked locations of the devices, and the description of the scene map specifies the device information, such as model, temperature parameters, operating status (including but not limited to stress, vibration, pressure, voltage, power, frequency, overload, undervoltage, leakage, etc.), and whether it is normal, as well as personnel information, such as identification parameters, location parameters, fatigue physiological parameters, and working status parameters of on-site personnel. Through the embodiments of this disclosure, the safety status of each device and / or personnel in the scene in which the mobile terminal is located can be clearly observed. Furthermore, GPS can be combined to provide mobile terminal users with the nearest navigation routes and methods to reach various devices and / or personnel in the scene map. This can enable them to reach any device and / or personnel in the scene map more quickly, improve work efficiency, and reduce delays in overall work caused by some staff members' lack of knowledge of road conditions and methods.

[0092] In some of the optional embodiments described above, the information processing cloud platform is further configured to generate and send warning information to the mobile terminal when it determines that there are devices and / or personnel with substandard security conditions in the scene where the mobile terminal is located. When the information processing cloud platform determines that the security conditions of the corresponding devices and / or personnel are substandard based on device security parameters and scene parameters, it sends warning information to the mobile terminal. The warning information includes the device security parameters and scene parameters corresponding to the devices and / or personnel with substandard security conditions, so as to quickly locate the devices and / or personnel with substandard security conditions.

[0093] In some of the optional embodiments described above, when the information processing cloud platform determines, based on the scenario description parameters, that there are devices and / or personnel in the scenario where the mobile terminal is located that have substandard security conditions, it is further configured to generate and send workflow instructions to the mobile terminal for the devices and / or personnel with substandard security conditions. The mobile terminal is also configured to receive the workflow instructions to instruct the mobile terminal to monitor the completion progress of the tasks specified by the workflow instructions.

[0094] The safety management process includes scenario description parameters for equipment and / or personnel whose safety conditions are substandard, as well as tasks generated for these substandard equipment and / or personnel, and workflow instructions for monitoring and managing these tasks. The workflow instructions include at least work trajectory recording instructions, task reminder instructions, and node control instructions. The work trajectory recording instructions are used to set and record the work trajectory based on the generated tasks. The task reminder instructions are used to monitor the task completion progress. The node control instructions are used to set and control workflow nodes based on the generated tasks. It should be understood that the process can also include equipment safety scenario description parameters for equipment and / or personnel whose safety conditions are compliant, as well as tasks and workflow instructions generated for these compliant equipment and / or personnel.

[0095] In some of the optional embodiments described above, the information processing cloud platform is further configured to generate security information and a security situation report corresponding to the scenario in which the mobile terminal is located, based on scenario description parameters. Optionally, the information processing cloud platform is further configured to send the security information and security situation report indicated by the security information display instruction to the mobile terminal when it receives a security information display instruction from the mobile terminal. The security information includes at least one of the following: current overall security situation, risk warning, security risks, security tasks, operation management and operation methods, equipment information, emergency rescue equipment sharing information, and work group members. Based on the equipment security parameters and scenario parameters, it is possible to determine which equipment and / or personnel have problems corresponding to equipment and / or personnel whose security status is substandard, thereby enabling the generation of risk warnings and security risks, as well as a security situation report describing the status and situation of equipment and / or personnel whose security status is substandard, based on the information of these problematic equipment and / or personnel. It should be understood that a security situation report can describe the overall security status of equipment and / or personnel in a scenario, and generate a security situation report based on the overall security status of equipment and / or personnel in the scenario. For example, when the information processing cloud platform detects that the security status of work group member A in the scenario is up to standard, but the security status of fire extinguisher A is not up to standard, a security situation report is generated stating "Fire extinguisher A is found to be in a substandard security status" and "Work group member A is in a standard security status".

[0096] Simultaneously, to eliminate risk warnings and safety hazards, corresponding safety management processes can be generated for equipment and / or personnel whose safety conditions do not meet standards. This includes generating corresponding tasks (i.e., safety tasks) and workflow instructions for monitoring and managing the specific content of these safety tasks. As can be seen from the above, safety management processes can be considered as the operational management and management methods for task content.

[0097] In some of the optional embodiments described above, the information processing cloud platform is further configured to receive security control instructions sent by the mobile terminal, the security control instructions including operations related to the scenario description parameters. The security control instructions include at least one of the following: check-in operations for work group members, multimedia form upload operations for security issues, standardized operation operations, establishment of security tasks, communication operations among work group members, sharing operations of rescue facilities and equipment, and sharing operations of internal work group data and information.

[0098] Optionally, the embodiments of this disclosure may employ workflow collaborative management technology to complete the corresponding functions of the above-mentioned safety management process and safety control instructions, such as the check-in function of work group members, the multimedia form upload function for safety issues, the standardized operation function, the function of establishing safety tasks, the communication function of work group members, the function of sharing rescue facilities and equipment, and the function of sharing internal data and information of the work group.

[0099] In some of the above optional embodiments, the information processing cloud platform is further configured to determine the emergency rescue equipment in the scene where the mobile terminal is located based on the scene description parameters, and generate and send to the mobile terminal an emergency rescue equipment facility map describing the location of each emergency rescue equipment in the working group corresponding to the scene where the mobile terminal is located.

[0100] Specifically, the emergency rescue equipment and facilities in the scenario can be determined based on the type in the equipment safety parameters.

[0101] Next, based on the location parameters in the equipment safety parameters, the locations of each emergency rescue equipment and facility are determined. Combined with the scene parameters, an emergency rescue equipment and facility map is drawn, containing all the equipment and facilities. The map prominently displays the locations of the emergency rescue equipment, and the description of the map includes information about the equipment, such as model, temperature parameters, operating status (including but not limited to stress, vibration, pressure, voltage, power, frequency, overload, undervoltage, leakage, etc.), and whether it is functioning normally.

[0102] In the current situation, although emergency rescue equipment and facilities are available in various public areas, their locations cannot be quickly determined. Through the embodiments of this disclosure, the locations of all emergency rescue equipment and facilities in the scene where the mobile terminal is located can be clearly observed at a glance.

[0103] In this embodiment, members of the same workgroup can generally see the locations of various emergency rescue equipment and facilities in the scene where the mobile terminal is located. However, members of other workgroups cannot see these locations. For example, based on the device safety parameters in the scene parameters sent by mobile terminal 1, an emergency rescue equipment and facility map is generated. Members of the same workgroup as the user corresponding to mobile terminal 1 can see the locations of various emergency rescue equipment and facilities in the map, while members not in the same workgroup as the user corresponding to mobile terminal 1 cannot see these locations. To address this issue, optionally, the information processing cloud platform further generates sharing instructions and sharing states for each emergency rescue equipment and facility in the workgroup, and sets the at least one emergency rescue equipment and facility to a shared state upon receiving a sharing instruction for at least one of the emergency rescue equipment and facilities. This allows sharing with other workgroup members outside the current workgroup, enabling them to also see the locations of various emergency rescue equipment and facilities in the scene where the mobile terminal is located.

[0104] When working group members need to manage or use emergency rescue equipment and facilities, they can send unlock commands through terminal devices (e.g., mobile terminals). Unlock commands can be authenticated passwords, fingerprints, etc. The information processing cloud platform is also used to, upon receiving an unlock command for emergency rescue equipment and facilities in a shared state, authorize the terminal device that sent the unlock command with access to and instructions for use of the shared equipment and facilities.

[0105] It should be understood that the terminal device can be a smartphone, a tablet, or other mobile electronic product or other electronic terminal, and this application does not impose any particular limitation.

[0106] In the event of an emergency requiring the immediate use of emergency rescue equipment, to prevent users from being unable to find the equipment due to a lack of understanding of the situation or panic, this embodiment of the disclosure makes further improvements. The information processing cloud platform is further configured to, upon receiving a search command for the first emergency rescue equipment facility, draw a route map from the location information of the first emergency rescue equipment facility to the location of the terminal device that sent the search command, and send the drawn route map and usage instructions to the terminal device that sent the search command. For example, if terminal device A sends a search command for a fire extinguisher (emergency rescue equipment facility) to the information processing cloud platform, after the information processing cloud platform locates the fire extinguisher, it draws a route map from the fire extinguisher's location to the location of terminal device A, and sends the route map and usage instructions to terminal device A, so that the owner of terminal device A can quickly find and use the fire extinguisher. Alternatively, in this embodiment of the disclosure, when the information processing cloud platform receives an emergency signal such as a fire alarm, it can push information about emergency rescue equipment and facilities near the location of the mobile terminal to the mobile terminal. This embodiment can directly push information about emergency rescue equipment and facilities near the location of a work group member to their mobile terminal, enabling the work group member to quickly understand the surrounding emergency rescue equipment and facilities. Optionally, a route map from the work group member's location to the nearest emergency rescue equipment and facility can be drawn and sent to the work group member's mobile terminal, enabling the work group member to quickly reach and use the nearest emergency rescue equipment and facility. The first emergency rescue equipment and facility can be any one of the various emergency rescue devices.

[0107] exist Figure 2In some embodiments of this disclosure shown, unlike the embodiments described above, the security management system further includes a scene perception unit, used to collect scene description parameters of the scene in which the mobile terminal is located, and send the scene description parameters to the information processing cloud platform. A detailed explanation of the scene description parameters can be found above.

[0108] Scene awareness is an emerging intelligent technology that leverages advanced sensor networks such as the Internet of Things (IoT) and computer equipment to acquire, fuse, and analyze various important environmental information in real time, and automatically determine environmental conditions based on relevant knowledge. After collecting and analyzing information from sensors and other sources, the scene in which a mobile terminal is located can be identified by the computer. Even the historical behavior records of the user corresponding to the mobile terminal within a certain period of time can be perceived. Through big data analysis and intelligent decision-making systems, users can be provided with "what you need" security information and security services.

[0109] The scene perception unit can perform on-site personnel identification (including but not limited to confirming identity information through personnel's biometric data), fatigue and physiological factor monitoring, perception and control capability monitoring, and location monitoring; it can also identify, monitor the location, and monitor the working status (including but not limited to stress, vibration, pressure, voltage, power, frequency, overload, undervoltage, and leakage) of equipment in the scene (broadly including machines, energy, raw materials, and products); and it can perform element identification, temperature monitoring, humidity monitoring, gas monitoring, and smoke monitoring of the environment in the scene. "On-site personnel" refers to all personnel present on-site, including mobile terminal holders and non-mobile terminal holders. Optionally, the scene perception unit can monitor the above-mentioned parameters involving people, equipment, and the environment through technologies such as Bluetooth, QR codes, RFID, WiFi, mobile geographic information systems (GIS), location-based services (LBS), video cameras, various sensors, and iBeacon.

[0110] The information processing cloud platform can integrate and aggregate the characteristics of mobile terminal users, devices in the mobile terminal's environment, and mobile terminal users or holders in different scenarios to find the correlation between them and determine the degree of correlation. It can issue corresponding security management processes to mobile terminals according to the scenario, automatically control and adjust the security status of devices in the scenario according to changes in the scenario, and control and adjust the security status of people in the scenario through workflow instructions and task management.

[0111] In an optional embodiment, the scene perception unit includes a data acquisition subunit and a data transmission subunit. The data acquisition subunit and the data transmission subunit are installed in areas such as equipment, facilities, raw materials or tools, and connection devices on-site, and are used for data acquisition and positioning, data reading, information reception, user authentication, recording of associated information, and uploading / submitting equipment technical information and operating parameters to the mobile terminal. It consists of a sensor network and its accessories, with open interfaces, allowing for flexible docking or deployment in various areas of the scene.

[0112] Optionally, the scene perception unit further includes a human-computer interaction interface for receiving input commands. Specifically, the scene perception unit provides the user with an operation interface related to the current scene. This operation interface allows the user to input operation commands and provides guidance information during command input. The scene perception unit collects scene description parameters of the user's location or the scene itself, and organizes and stores these parameters in an efficient manner.

[0113] Please see Figure 3 and Figure 4 This document illustrates a workflow diagram of a security management system including a scene perception unit. Embodiments of this disclosure provide a security management system and method thereof, comprising: an information processing cloud platform, a scene perception unit, and at least one mobile terminal connected to the information processing cloud platform. The information processing cloud platform has preset scene models and corresponding security management processes. The scene corresponding to the scene model is determined based on scene description parameters, demonstrating a correspondence between the scene and the security management process.

[0114] The mobile terminal is used to send scene description parameters to the information processing cloud platform. The scene description parameters include scene parameters, device security parameters, and user parameters corresponding to the mobile terminal.

[0115] The mobile terminal includes, but is not limited to, a series of portable or wearable smart devices such as mobile phones and tablets, which are equipped with network and / or communication capabilities and have operational functions, and are equipped with terminal programs, UI interfaces for interacting with information management cloud platforms, and expandable interface modules.

[0116] User parameters may include at least one of the following: user identifier, user characteristic attributes corresponding to the scenario, and user permissions. The user identifier can be a unique ID composed of letters, numbers, and / or symbols, a unique barcode or QR code (e.g., a visual QR code) generated based on preset information, or preset unique authentication information, such as biometric data (fingerprint, iris, facial image) or ID card information. User characteristic attributes can refer to attributes corresponding to the scenario, which can be used to determine whether the scenario in which the mobile terminal is located is consistent with the scenario corresponding to the user. If they are consistent, the user is considered a member of the work group corresponding to that scenario; if they are inconsistent, the user is considered not a member of the work group for that scenario. For example, location. User permissions can be the user's work permissions, such as administrator or regular work group member.

[0117] Scene parameters may include at least one of the following: scene label, element parameters, temperature parameters, humidity parameters, gas parameters, smoke parameters, and on-site personnel identification parameters, location parameters, fatigue physiological parameters, and work status parameters. The scene label can be a scene identifier to distinguish different scenes, such as: workshop, production line, location, activity, 001, etc. Element parameters can be chemical elements and preset concentrations, such as: sulfur (S), mercury (Hg). Gas parameters can be gases in the air and preset concentrations, such as: carbon monoxide (CO), ozone (O3). Identification parameters can be user identifiers, personnel information, etc. Fatigue physiological parameters can be working hours, current physical health status, rest time during work, etc. Work status parameters can be work diligence, accuracy rate, task completion rate, get off work hours, behavioral standards, or the degree to which behavior is / is not permitted, and the manner in which it is / is not permitted, etc. Among these parameters, the elemental, temperature, humidity, gas, and smoke parameters can each have their own preset thresholds. When these parameters are not higher than their respective preset thresholds, the scene parameters are considered normal, and the scene's safety status meets the standards. When these parameters are higher than their respective preset thresholds, the scene parameters are considered abnormal, and the scene's safety status does not meet the standards.

[0118] Similarly, the identification parameters, location parameters, fatigue physiological parameters, and work status parameters of on-site personnel can each have their own preset thresholds. When these parameters are not higher than their respective preset thresholds, the parameters of the scenario are considered normal, and the safety status of the personnel in that scenario meets the standards. When these parameters exceed their respective preset thresholds, the parameters of the scenario are considered abnormal, and the safety status of the personnel in that scenario does not meet the standards.

[0119] Equipment safety parameters may include at least one of the following: model, location parameters, temperature parameters, and operating status (including but not limited to stress, vibration, pressure, voltage, power, frequency, overload, undervoltage, leakage, etc.). The temperature parameter and operating status may each have their own preset thresholds. When the temperature parameter or operating status is not higher than its corresponding preset threshold, the equipment safety parameters are considered normal, the equipment is operating normally, and its safety condition meets the standards. When the temperature parameter or operating status is higher than its corresponding preset threshold, the equipment safety parameters are considered abnormal, and the equipment's safety condition does not meet the standards.

[0120] The information processing cloud platform is used to receive scene description parameters sent by the mobile terminal, determine the scene in which the mobile terminal is located and the corresponding security management process based on the scene parameters, and determine the correlation between the user corresponding to the mobile terminal and the scene in which the mobile terminal is located based on the user parameters. When the correlation is greater than a preset threshold, the user corresponding to the mobile terminal is grouped into a work group that manages the scene in which the mobile terminal is located, and the security management process is sent to all mobile terminals grouped into the work group. The information processing cloud platform is also used to assess the security status of devices in the scene in which the mobile terminal is located based on the device security parameters.

[0121] Here, "relevance" refers to the degree of connection between the user corresponding to the mobile terminal and the scene. Specifically, it can be determined by judging location, identity authentication, or other user parameters such as specific states and parameters based on pre-set conditions to determine whether the user corresponding to the mobile terminal has a strong relevance to the scene in which the mobile terminal is located. This ultimately determines whether the user corresponding to the mobile terminal is a member of the workgroup in the scene in which the mobile terminal is located or whether it corresponds to the corresponding scene. That is, when a user has a strong relevance to the scene, it can trigger the grouping of the user into a workgroup member in the scene.

[0122] Among them, the user corresponding to the mobile terminal can be the mobile terminal holder, who can work as a member of the working group in the corresponding scenario after being analyzed, authenticated and associated by the information processing cloud platform.

[0123] The scene perception unit is used to collect and transmit scene description parameters. It can perform on-site personnel identification (including but not limited to confirming identity information through biometric data), fatigue and physiological factor monitoring, perception and control capability monitoring, and location monitoring; it can identify, monitor the location, and monitor the working status (including but not limited to stress, vibration, pressure, voltage, power, frequency, overload, undervoltage, and leakage) of equipment in the scene (broadly including machines, energy, raw materials, and products); and it can perform element identification, temperature monitoring, humidity monitoring, gas monitoring, and smoke monitoring of the environment in the scene. "On-site personnel" refers to all personnel present on-site, including mobile terminal holders and non-mobile terminal holders. Optionally, the scene perception unit can be a functional module using Bluetooth, RFID, WiFi, GIS, LBS, video cameras, various sensors, and iBeacon, or it can monitor the aforementioned parameters involving people, equipment, and the environment through technologies such as Bluetooth, QR codes, RFID, WiFi, GIS, LBS, video cameras, various sensors, and iBeacon.

[0124] The scene perception unit includes a data acquisition subunit and a data transmission subunit. These subunits are installed on-site in areas such as equipment, facilities, raw materials or tools, and connection devices. They are used for data acquisition and positioning, data reading, information reception, user authentication, recording of associated information, and uploading / submitting equipment technical information and operating parameters to mobile terminals. The unit consists of a sensor network and its accessories, with open interfaces for flexible integration or deployment in various areas of the scene. Specifically, the data acquisition subunit collects scene description parameters monitored via technologies such as Bluetooth, QR codes, RFID, WiFi, GIS, LBS, video cameras, various sensors, and iBeacon. The data transmission subunit sends these scene description parameters to the information processing cloud platform.

[0125] In addition, the scene perception unit also includes a human-computer interaction interface for receiving input commands. Specifically, the scene perception unit provides the user with an operation interface related to the current scene. This operation interface allows the user to input operation commands and provides guidance information during command input. The scene perception unit collects scene description parameters of the user's location or scene and organizes and stores these parameters in an efficient manner.

[0126] In this embodiment of the disclosure, the information processing cloud platform is used to search and receive information from mobile terminals and scene perception units, or to receive information from mobile terminals and / or open source network information, respond to user behavior requests, publish formatted and modeled risk and hazard maps and warning information, perform security situation analysis and display, implement process control and other functions, output workflow instructions, optimization solutions, preset standards and thresholds, and implement control cut-off.

[0127] In some of the optional embodiments described above, the structure of the information processing cloud platform includes:

[0128] The service layer, which is oriented towards mobile terminals, receives requests from mobile terminals and sends information back to them.

[0129] The facilities layer, connected to the service layer, is used to receive requests from the service layer and open software subsystems according to the requests;

[0130] The storage layer, connected to the infrastructure layer, is used to store data images generated by users during software use;

[0131] The search layer, connected to the storage layer and open-source network, is used to search for and receive requests and information from both internal and external sources.

[0132] In some of the optional embodiments described above, the external functions of the information processing cloud platform include electronic tag management, record query and statistics, data maintenance and management, tracking and positioning management, process management, emergency management, resource sharing, visualization and modeling processing.

[0133] In some of the optional embodiments described above, the subsystems of the information processing cloud platform include a security confirmation system, a hazard investigation system, a scheduled inspection system, a standardized operation system, an intelligent auxiliary decision-making system, a list management system, a rescue equipment and facility sharing system, and a knowledge management system. Each subsystem is grouped according to scenarios and can be expanded as needed. On the one hand, it transmits electronic tags and their access information to the central management system; on the other hand, it provides access interfaces and service functions to mobile terminal users, obtaining scenario information and operation instructions regarding external interaction characteristics.

[0134] In some of the above optional embodiments, the information processing cloud platform issues instructions or alarms through channels such as information, audio, video, telephone, and intercom, and continuously collects and analyzes feedback information, and continuously interacts and processes operations.

[0135] The mobile terminal is used to connect with the scene perception unit and the information processing cloud platform, display the interface and information after the trigger, run the operation modules and processes after the scene is triggered, automatically / manually read and input on-site information, send requests and information to the information processing cloud platform, receive feedback results from the information processing cloud platform, display the security status and intelligent prompts and instructions issued by the information processing cloud platform, and connect with the functional operations and workflows of the information processing cloud platform.

[0136] The mobile terminal provides a platform for personnel to collect, output, display, share, and operate data in a workgroup format. This allows workgroup members to participate in security management and use and control relevant smart application operation modules within their workgroup permissions. The operation modules include: a workgroup management and guidance module, an information display module, a function operation module, and an information reading, input, and sending module. These modules are integrated, managed, and operated within a workgroup structure on the mobile terminal, enabling data sharing under independent permissions. After determining the scenario in which the mobile terminal is located, it automatically enters that scenario or groups the user corresponding to the mobile terminal into the appropriate workgroup (or the scenario can be manually triggered to enter the corresponding workgroup). This allows the user of the mobile terminal to perform function module operations within the workgroup boundaries of that specific scenario, displaying, reading, inputting, and outputting information and operation commands.

[0137] Optionally, the mobile terminal has an external interface that allows it to interface with other systems or devices. It features a user-friendly and easy-to-use interface, with open interfaces for flexible integration with relevant systems and devices. The mobile terminal can effectively integrate with both supplier ERP systems and customer information systems.

[0138] This disclosed embodiment connects personnel, equipment, and scenarios within a certain area. Through detection and sensing technologies, human-computer interaction communication, data reading and input, extensive interconnection, and intelligent and process-oriented operations, it extends the reach of safety management to every aspect of "unsafe human behavior, abnormal operation or unsafe state of equipment (including unsafe state of objects), unsafe environmental factors, and non-compliant management processes." Simultaneously, it utilizes cloud computing technology to intelligently process and analyze the sensed information, achieving the integration of people and the Internet of Things within a certain area. This enables two-way interaction and information flow workflows, providing intelligent decision support, intelligent display, and operational responses to various safety needs. It achieves comprehensive perception, intelligent analysis, closed-loop control, and crowdsourcing of potential risks in hazardous environments, helping enterprises and organizations manage safety anytime, anywhere.

[0139] This disclosed embodiment is designed for the characteristics of security management in enterprises and commercial organizations. It primarily uses automated reading and intelligent operation, supplemented by manual operation. It can be used in conjunction with existing automation systems as an effective complement to existing industrial control systems, forming a human-centered, fully covered system that effectively fills gaps in industrial control systems and improves their efficiency and accuracy. Alternatively, it can be set up and operated independently, providing a low-cost, rapid configuration solution for enterprises that do not have the conditions for or do not require automated control systems. It features low cost, convenient implementation, good compatibility, wide applicability, and flexibility.

[0140] This disclosure enriches the forms and methods of safety management. Under different scenarios, specific triggering conditions activate the corresponding safety management processes, forming different working groups to collectively maintain the relevant safety management work. Each mobile terminal within the scenario becomes a control platform for scenario description parameters, mobile information collection and reception, hazard discovery, information processing, and operation. This achieves the organic integration of people, equipment, environment, production management, and automatic control and monitoring systems, leveraging the role and initiative of every individual, and pooling collective wisdom, experience, and action to effectively monitor and investigate safety risks and hazards. It also enables interactive safety education and training, automated data reading and processing, safety crowdsourcing, universal participation, process-oriented management, and standardized operations. This disclosure transforms the traditional one-to-one and one-to-many safety management model into a many-to-many, standardized operation, and group management model, making everyone in the area a beneficiary, creator, contributor, and disseminator of safety. Meanwhile, the embodiments disclosed in this publication also embody differentiated thinking and methods, implementing differentiated management and control for different users, processes, environments, equipment, and groups, forming a safety management system based on mobile terminals and Internet of Things technology that truly serves public safety, integrates public wisdom and behavioral crowdsourcing, and has a two-way effect. It becomes a safety management system that combines internal and external aspects, has both open and closed characteristics, and fully covers industry scenarios, integrating intelligent technology and collective power. It achieves dynamic, full-participation, traceable, efficient, and low-cost safety management and operation, and full-person, full-process, and all-time monitoring, automatic prediction, proactive prevention, and intelligent processing.

[0141] The following sections will explain some of the features of this disclosure.

[0142] 1. Scenario triggers the formation of a working group

[0143] This system, through intelligent interfaces and scene awareness capabilities, and through multi-dimensional and multi-scale preference and scene analysis, recommends, customizes, and integrates scene awareness technology, transforming the traditional service organization model of "organizing systems by function and being system-centric" into a new model that emphasizes application-on-demand customization and comprehensive integration between applications, "organizing services by demand and being human-centric."

[0144] Through the scene perception unit, the system perceives changes in the status of "devices," human activities and interactions between "people" and "devices," as well as changes in equipment and the environment. This perceived information is recorded in a "scene information database" according to a scene model. Further analysis of these scenes extracts their features to construct statistical characteristics and rules for daily activities, enabling the system to have self-learning and adaptive capabilities, and to provide early warnings for dangerous and abnormal scenarios. Based on the rules governing "people," "objects," and their interactions, as well as the impact of the environment on these activities, an "activity rules and early warning knowledge base" is constructed. Different trigger conditions are set. When a mobile terminal enters a specific scene, the scene's safety management module is automatically triggered, automatically grouping personnel in the same area within the same scene into interconnected workgroups. Different permissions are assigned based on the user's identity and status, and corresponding safety management functions are displayed, pushed, and executed. After the working group is launched and joined, the information processing cloud platform extracts relevant functional modules and scenario safety handling plans from the "Scenario Management Contingency Plan Library" for the triggered scenarios or events. Simultaneously, it transforms scenario perception units (such as various sensors and monitoring equipment) from routine monitoring to management and operational status, providing on-site feedback information during the handling process for safety management, enabling timely implementation of new control measures. Within this framework, the "Activity Rules and Early Warning Knowledge Base," built through system self-learning or human experience, continuously provides the latest knowledge and experience for the compilation and maintenance of the "Scenario Safety Handling Contingency Plan Library."

[0145] Through two channels—automatic detection (primary method) and manual operation and switching (auxiliary method)—a sensor network composed of scene-aware units, operations associated with security scenarios are triggered. The information processing cloud platform, based on the trigger point and association rules, comprehensively analyzes the user's personal attributes (age, gender, physical condition, behavioral characteristics, etc.) and scene attributes (time, space, current business needs, next scene and business needs) from the user's database. This provides the user with the security information they currently need and proactively recommends relevant scenarios and business operations, stimulating the user to recall their latent security memories and engage in information interaction and security process operations.

[0146] By setting different information boundaries and data, and triggering and identifying based on conditions such as geographical location, identity characteristics, environment, equipment, and process type, the boundaries of work groups are defined. On-site personnel within the area are automatically identified and grouped into specific work groups, thus grouping and categorizing them. Within these groups, workflows, information displays and prompts, and functional modules are activated, serving the different security needs of people with different characteristics and goals in various industries and scenarios. This meets the personalized and differentiated requirements of security services and management, forming a security management system based on mobile terminal and IoT technology and functions, serving social networks, integrating public wisdom and behavioral crowdsourcing, and having a two-way interaction. It becomes a technical device and system that combines internal and external elements, openness and closedness, and full coverage of industry scenarios.

[0147] 2. Data collection and hazard identification

[0148] Based on mobile terminals, each member of the work group can collect data, investigate potential hazards, read, record, and report hazard information anytime, anywhere, and upload text, images, and video information about risks and hazards. This enables mobile users to conduct data collection and hazard investigation anytime, anywhere within their target area, implementing safety management through collective effort. Two methods are used for data collection and hazard discovery: one is that the mobile terminal proactively senses changes in the mobile user's scenario, reads and reports data, and leverages the advantage of scenario awareness to proactively analyze and mine the sensed data, statistically analyze it on the information processing cloud platform, predict user behavior trends, and then push relevant safety information and services; the other is that, through the mobile terminal, work group members within the area manually read, enter, and scan information on the functional modules. The information is then structured and generated by the mobile terminal's functional modules. The backend administrator confirms or processes the manually entered data and hazard information before transferring it to the data and defect management system for further processing. The administrator can also further edit and modify the returned data and defects and issue operation instructions.

[0149] Data generated in two ways is processed through modeling and data analysis on an information processing cloud platform. This process uncovers and utilizes data information to generate feedback and processing results, which are then displayed on mobile terminals in the form of on-site safety status, risk and hazard displays, work scores, evaluations, and suggestions. The system manages archives for key equipment, special equipment, and emergency rescue equipment and facilities, regularly providing equipment maintenance and repair suggestions and early warnings. By pre-setting different alarm rules for different scenarios, the system automatically issues an alarm once a target is detected violating predefined rules. Simultaneously, it sets and continuously updates detailed diagrams or configuration diagrams of equipment and facilities within the area, provides the latest data, and pushes daily standardized operating instructions and hazard rectification work orders. For discovered problems, closed-loop management and handling are implemented, instructing relevant members to execute and operate, and further monitoring, feedback, and evaluation are conducted. Based on the evaluation results, scenario reorganization and new measures are implemented as needed.

[0150] 3. Safe check-in and standardized operation

[0151] When personnel enter or exit the area, the scene perception unit senses and reads the user's identity and status, recording activity status, on-site whereabouts, and trajectory. Access restrictions are set for special locations and dangerous areas, and the system monitors entry and exit in real time by reading the scene perception unit. When on-site personnel who are not allowed or are not authorized to enter these restricted areas are not allowed to enter, the system can flexibly change the danger level of the sensing range, automatically issue on-site warnings such as voice, and can also issue warning messages to notify relevant personnel for immediate handling.

[0152] In production operations and inspection scenarios, before or after on-site personnel arrive at their posts, mobile terminals automatically activate corresponding checklists and procedures based on scenario-defined rules. Following instructions from the information processing cloud platform and pre-set safety and inspection checklists, personnel perform checklist-based inspections and check-in confirmations for each position and item. Simultaneously, equipment and facility management and standardized operations are performed, including daily equipment maintenance and operation based on pre-set standardized work lists and technical documents. Workflow information, on-site data, textual information, and image data generated during the check-in process are sent to the information processing cloud platform for storage and modular processing. Safety check-in also serves as a pre-shift and post-shift safety confirmation tool, a pre-job safety training tool, and a tool for cultivating daily safety awareness and habits. In hazardous operations, hazardous operation lists and workflows are used for process approval management and work permit management, enabling pre-operation risk identification, on-site confirmation, online invoicing, and standardized operations.

[0153] 4. Visualized display, intelligent analysis, and operation of security status.

[0154] Based on mobile terminals within the region, information such as on-site equipment status and data, operating status, operating parameters, and defect information is collected and directly uploaded to the information processing cloud platform, forming corresponding records and data pools. Simultaneously, GPS signals and GIS systems are used to locate the mobile positions of personnel or inspectors, replaying historical and real-time inspection routes to generate daily, weekly, and monthly inspection reports, including personnel attendance rates, crowd trajectories, inspection miss rates, and equipment integrity rates. Big data analysis, machine learning, and computational models are used for analysis, prediction, correction, and the generation of evaluation plans. Combined with workflow engine technology, workflows for safety training, safety inspections, hazardous operation approvals, and accident emergency rescue are developed and continuously optimized and improved. Standardized flowcharts are extracted and drawn to graphically represent business processes, standardizing business flows through visualized data flow, enabling process control of various safety operations, and providing comprehensive control over the entire business process (including business progress tracking and access to responsible personnel at each stage).

[0155] Risk and hazard information reported by mobile terminals is collected on an information processing cloud platform, where it is formatted, stored, analyzed, processed, and fed back. After processing, analysis, and decision-making by machines and specialized personnel, the information processing cloud platform uses graphical analysis tools to process the data and create visualization models. This allows various data to be displayed intuitively as data charts, risk and hazard maps, and visual warning information. It automatically and dynamically generates warnings, reminders, and corresponding emergency response plans, displays the status of major risks and hazards in real time, and dynamically quantifies the probability and evolution of accidents caused by hazards. For major accident hazards, a comprehensive risk and hazard warning report is jointly generated by machines and humans. It implements overall safety situation evaluation and early warning prediction analysis, identifies safety risks, assesses development trends, and provides decision support and operational guidance. The system seamlessly integrates data collection, fault alarm, record monitoring, risk control, and hazard investigation functions into an integrated intelligent data collection, alarm, and analysis platform.

[0156] Based on the generated reports and early warnings, the information processing cloud platform sends the hazard data to relevant systems within the enterprise, generating defect repair work orders and hazard detail analysis. The computer backend and management personnel then assign hazard elimination tasks to responsible personnel according to job type and level, carrying out rectification of equipment, facilities, and management links. The rectification process and results are dynamically displayed in the management system in real time. Based on the corresponding approval authority and process, the cloud platform and management personnel review and evaluate the rectification work, decide whether to eliminate the hazard warning, and update the risk and hazard map accordingly, forming a closed loop.

[0157] 5. Shared and collaborative emergency rescue

[0158] Based on this system, a shared and collaborative socialized and regionalized emergency rescue system is established. Enterprises and personnel within a specific region share locations and data, opening up and marking emergency resources within the region. An information processing cloud platform creates an emergency resource distribution map, making previously exclusive emergency resources publicly available within a certain area, integrating and optimizing the use of these resources. Based on numerous mobile terminals, the information processing cloud platform dynamically and continuously gathers and updates information on different regions or accident scenarios, as well as emergency facilities and resources. It displays the location of emergency facilities, rescue organizations, and emergency experts, provides corresponding emergency operation methods and action instructions, and indicates the best routes. During emergency rescue, mobile terminals send and display emergency response cards, listing the corresponding handling methods for emergency situations and events in the area. Through card-based emergency response, card-based operation, and response, the system achieves standardized, scientific, and self-organized emergency operations. Simultaneously, during emergency rescue, rescuers can forcibly activate scene awareness services to obtain the precise location of the person in need and the required emergency facilities, dynamically display the surrounding environment, unlock rescue equipment and track its trajectory via mobile terminals, and record operation, usage, and parameter indicators. In emergency situations, every mobile terminal becomes an information collection and real-time information dissemination point, providing real-time on-site data and information to help the information processing cloud platform respond in real time and optimize emergency plans.

[0159] This system establishes a multi-dimensional collaborative sharing service platform and collaborative working environment based on the collaborative dimensions in different safety emergency management scenarios. Through multi-dimensional collaborative modes such as information collaboration, user collaboration, and cross-regional collaboration, it constructs data collaboration relationships and data collaboration and information processing collaboration platforms. It integrates diverse and complex systems across industries, regions, and media to achieve intelligent emergency response, precise prevention and control, and real-time response, thereby ensuring resource sharing, information aggregation, collective intelligence processing, and multi-dimensional collaboration, and building an efficient and low-cost emergency response and control system.

[0160] Main technologies used

[0161] Scene perception unit: Primarily used to perceive scene description parameters and monitor scene parameters, device safety parameters, and user parameters within the scene. Technologies used in scene perception units can include Bluetooth, QR codes, RFID, WiFi, GIS, location-based services (LBS), video cameras, various sensors, and iBeacon. At least one scene perception unit can form a data acquisition network.

[0162] by Figure 4Taking the scenario shown as an example, assume that the scenario includes temperature and humidity sensors to collect temperature and humidity parameters; QR codes or RFID tags are installed on devices in the scenario to store device model and specifications; cameras are also installed to monitor the working status of personnel (including mobile terminal holders and non-mobile terminal holders); and biometric sensors (such as fingerprint sensors and iris sensors) are installed to collect user identification. The temperature sensor, humidity sensor, QR code or RFID tag, camera, and biometric sensors can all be considered as data acquisition sub-units of the scenario perception unit. After collecting the relevant data, these acquisition sub-units send the collected data to the information processing cloud platform through sending sub-units. The sending sub-units can be mobile communication modules (such as 4G or 5G communication modules), Wi-Fi modules, wired communication modules (such as network cards), etc.

[0163] Cloud computing middleware: In information processing cloud platforms, existing cloud computing middleware undergoes customized secondary development and is deployed to the data center at the storage layer to achieve unified management of underlying hardware resources and flexibly allocate hardware resources to the application layer on demand. Cloud computing middleware shields the heterogeneity of underlying hardware for unified hardware management. Combined with virtual machine management software, it provides on-demand deployment capabilities for applications.

[0164] Collaborative portal technology: This technology includes unified user management, unified user authentication, single sign-on, messaging services, business processing, and other technologies to achieve standardized management of portal content, connect various heterogeneous systems, applications, and data sources related to internal and external businesses, and meet the needs of seamless sharing and data exchange between multiple application systems, databases, data warehouses, and other important systems on the information processing cloud platform.

[0165] Workflow collaborative management technology: Enables asynchronous activity groups, session collaboration activities, meeting collaboration activities, security check-in, and workgroup management on mobile terminals, with corresponding attribute definitions. The runtime service interprets and executes the process definitions in the model definition, adding scheduling control for these types of activities. This system supports fixed workflows, free workflows, free-sequence workflows, branching workflows, concurrent workflows, semi-free workflows, and workflow-free workflows, basically meeting the complex workflow management needs arising from various changes in management systems, organizational structures, personnel positions, locations, operating environments, and processes during security management.

[0166] The following are some scenarios in which the embodiments of this disclosure may be applied.

[0167] Implementation Method 1: Disaster Relief and Rescue

[0168] Corresponding to Figure 1For example, consider a safety management system where, when a fire breaks out in a building, the building and its surrounding area become the scene of the fire. This area contains various personnel, including firefighters, injured individuals, and passersby. This system targets all individuals within the fire-affected area who are carrying mobile devices such as smartphones or tablets. Based on various triggering conditions, such as whether they are within the geographical range of the fire, whether they are following and sending fire information and its relevance, and whether they possess valuable emergency rescue resources, experts, or technicians within their reach, the system activates scenario modules and workgroups, associating and grouping them with the fire scenario. After being linked, disaster relief and rescue operations are conducted and the work groups are managed in an emergency working group format. These personnel share fire-related information within the work group on mobile terminals, obtain the precise location of relevant personnel and emergency resources, unlock and track rescue equipment through mobile terminals, record operation, usage and parameter indicators, collect, mine, classify, verify, follow up, organize, publish, disseminate and deliver emergency information in a targeted manner, edit and publish emergency disaster relief briefings, summarize and analyze fire information and safety situation in a panoramic way, coordinate and connect emergency resources, equipment and facilities with disaster relief organization actions, solve information asymmetry through sharing and crowdsourcing, and gather collective wisdom and strength to coordinate emergency disaster relief.

[0169] Implementation Method Two: Factory Area Security

[0170] Corresponding to Figure 2 For example, consider a safety management system in a factory workshop. A safety monitoring system (acting as a scene perception unit) is installed in the workshop, while a safety management platform (acting as an information processing cloud platform) is located in the central computer room. When a mobile terminal holder enters the workshop, the safety monitoring system verifies their identity and monitors other information to determine which scenes are present in the workshop and whether the mobile terminal holder meets the correlation requirements with a particular scene. If so, a trigger message is sent to the safety management platform, adding the holder to the scene's workgroup and enabling the system's various functional modules and safety management workflow to operate. If not, the system continues to monitor the holder's behavior and status, and the safety management platform determines whether the holder poses a threat to scene security.

[0171] This safety monitoring system continuously identifies, judges, and associates various personnel on site, enabling seamless access between personnel and equipment, connecting and linking the value and effectiveness of people and things in safety management, and implementing integrated safety management.

[0172] Implementation Method 3: Safety of Tourist Groups

[0173] By utilizing IoT technologies such as Wi-Fi and RFID on transportation vehicles, individuals with mobile devices are automatically assigned to a tour group upon entering the vehicle, becoming members of that group's safety working group. Within this group, the group leader and a pre-defined management module implement travel safety management within the transportation scenario. This includes issuing safety notices, reminders, and alerts; demonstrating risks; and providing emergency response demonstrations. Members can also provide feedback and suggestions to transportation management personnel and report any issues encountered during the trip (including safety and service problems) in the form of text, images, and videos. Management personnel then issue instructions to relevant personnel to resolve the identified issues. In the working group, in addition to checklist-style check-ins, emergency response instructions, and standardized operations, a dynamic, panoramic risk map and emergency guidance are displayed on vehicles, during the trip, and in various scenarios along the route. At the same time, information on safety rescue equipment and facilities is pre-set. Personnel with medical skills in the group can also demonstrate their expertise and skills, setting themselves as shared emergency personnel, forming a map-based shared map of emergency facilities, equipment, and personnel, along with corresponding operation manuals. In case of an emergency, emergency equipment and assistance information can be obtained based on the shared map, and checklist-style operations and card-based emergency response can be carried out according to the operation manuals and instructions.

[0174] Implementation Method Four: School Safety

[0175] This system connects school administrators, faculty, staff, parents, and students into a shared, scenario-based safety working group. School administrators and staff can conduct hazard identification and risk warnings and provide safety education at any time. Parents can check on their children's situation at school at any time, and students can contact their parents, administrators, and staff at any time. Working group members can submit suggestions and issues to the school in text, audio, video, and image formats through work suggestions, safety snapshots, and hazard identification. The system retains records of these follow-ups and tracks the process, creating risk and hazard maps and task markers to dynamically display the safety situation and implement closed-loop workflow management. Simultaneously, the system facilitates safety education and simulated emergency drills, sets up and shares resources such as emergency equipment, professional rescue personnel, and experts, provides operational guidelines and behavioral guidelines in emergency situations, and guides and activates relevant equipment functions and emergency workflows under new triggering conditions. The "safety snapshot" feature involves taking photos of problematic areas and obtaining corresponding images.

[0176] Implementation Method 5: Safety in densely populated areas such as subways

[0177] In public places such as subways, when a person with a mobile device enters, the system, based on geolocation awareness, triggers a scene model within a certain range of the public place, and the mobile device holder joins the corresponding scene safety working group. Through this system, the working group displays safety precautions, emergency escape route diagrams, safety operation checklists, a shared map of emergency equipment and facilities, and an emergency list for that scene. Simultaneously, individuals with special emergency skills and professional capabilities can have tags pre-set on their identities, displaying their abilities and characteristics. Upon joining the scene, the system automatically marks them specially on the shared map, forming a shared resource matrix of equipment, facilities, personnel, technology, and experience within that scene. In the event of an emergency, based on the shared map and emergency operation checklist, emergency equipment can be obtained in the shortest time and at the nearest distance, and the user is matched with personnel possessing the necessary professional skills and experience in that scene to operate according to the checklist and operation manual. Simultaneously, the system can connect to specific pre-positioned experts and external rescue organizations via audio, image, and video for remote display, remote operation, and remote guidance.

[0178] Implementation Method Six: Safety Management of Industrial and Commercial Organizations

[0179] Following typical industrial enterprise production grouping practices, safety working groups are established using production positions, production lines (such as work teams, workshops, etc.), and factories / mines as scenarios. These scenarios are triggered through location and identity recognition to establish safety working groups. Within these groups, processes such as safety education, notifications, information dissemination, technical training, job-specific risk management and hazard identification, safety confirmation, standardized operations, card-based emergency response, and inspections are conducted. The system displays the real-time safety situation, risk and hazard maps, and emergency equipment and facilities within each scenario. Building upon this, administrators of each working group (such as work team leaders) establish larger-scale safety working groups (such as workshops) through manual or identity recognition. These larger groups, comprised of administrators from each work team, conduct safety management within the workshop as the scenario unit and scope. They issue notices, documents, work instructions, standardized operating procedures, and share emergency rescue equipment, facilities, and safe operating technology resources. Finally, all workshop-level working group administrators within the factory / mine area trigger factory / mine-level working group scenarios through manual or manual identification to implement factory / mine-level working group safety management. A three-tiered, top-down safety management working group system is established. Within this system, documents and training materials are distributed, risk control and hazard identification workflows are managed, risk and hazard maps are compiled and published, three-tiered safety status quo and analysis reports are displayed, early warnings are issued, emergency rescue equipment and facilities are shared within standardized operating areas, and safety emergency collaboration and shared governance are implemented. This forms a top-down safety management system covering the entire factory and mine area, encompassing all scenarios. Within this three-tiered scenario, if temporary personnel, such as contractors or visitors, are added, a temporary safety working group can be established through this system. Activities such as safety education, location tracking, trajectory monitoring, internal communication, confirmation and archiving of safety instructions, and certificate management are conducted within this temporary safety working group.

[0180] Implementation Method Seven: Safety for Overseas Tourism, Business Trips, and Studies

[0181] With the increasing number of people traveling, doing business, studying, and living abroad, the importance of overseas security is constantly growing. This system allows individuals with mobile devices to enter a country or specific region. Based on the change in the mobile device holder's location, the system triggers overseas security scenario operations for that region, forming an overseas security working group for that specific country and region. Members within the working group can receive local news, security information, precautions, security situations, risk maps, and security advice, gaining basic local information and relevant knowledge. They can also learn about and be guided in areas such as travel, accommodation, business activities, and tourism according to a pre-set checklist. The system displays local emergency rescue equipment, facilities, and institutions, and allows for one-click assistance to obtain support. Within the overseas security working group, members can exchange information, share security experiences, provide warnings, aggregate and process data, implement security crowdsourcing, and share resources. In specific situations, they can receive on-site support and services from other members of the working group. When leaving the country or region, the triggering conditions disappear, and the member leaves the working group.

[0182] Please see Figure 5 This paper illustrates a security management method applied to an information processing cloud platform, which can be integrated into a device in the form of software or hardware. The specific details of this security management method are as follows.

[0183] 400. Receive scene description parameters sent by the mobile terminal. The scene description parameters include scene parameters, device security parameters, and user parameters corresponding to the mobile terminal. A detailed explanation of the scene description parameters can be found in the preceding description of the security management system, and will not be repeated here.

[0184] 401. Determine the scene and corresponding security management process of the mobile terminal based on the scene parameters, and determine the correlation between the user corresponding to the mobile terminal and the scene of the mobile terminal based on the user parameters. When the correlation is greater than a preset threshold, group the user corresponding to the mobile terminal into a work group that manages the scene of the mobile terminal, and send the security management process to all mobile terminals in the work group.

[0185] This disclosure enables the identification and grouping of mobile terminal users (who may be mobile terminal holders) within a certain area into the same workgroup based on scene description parameters. The security management process is then sent to all mobile terminals within that workgroup, allowing all users within the workgroup to participate. By dynamically matching and networking relevant personnel within a scene, this disclosure maximizes human initiative, leverages existing resources, and maximizes personnel participation. It offers broad coverage, high integration, low cost, and strong practicality, filling gaps and vulnerabilities in traditional security management and monitoring systems, achieving comprehensive and seamless security management.

[0186] Optionally, in step 401, the information processing cloud platform can also assess the security status of devices and / or personnel in the scenario where the mobile terminal is located based on the device security parameters and scenario parameters. The specific assessment process is described in the preceding section on the security management system and will not be repeated here.

[0187] Optionally, in step 400, the information processing cloud platform can also receive scene description parameters sent by the scene perception unit. For a detailed explanation, please refer to the description of the security management system above; it will not be repeated here.

[0188] Optional, please refer to Figure 6 The method further includes step 402: generating and sending a dynamic risk map of the safety status of various devices and / or personnel in the scene where the mobile terminal is located, based on the scene description parameters. A detailed explanation of the process can be found in the preceding description of the security management system, and will not be repeated here.

[0189] Optional, please refer to Figure 6 The method further includes step 403: generating and sending a warning message to the mobile terminal when it is determined that there are devices and / or personnel in the scenario where the mobile terminal is located that have substandard security conditions; and / or

[0190] When it is determined that there are devices and / or personnel with substandard security conditions in the scenario where the mobile terminal is located, a workflow instruction is generated and sent to the mobile terminal for the devices and / or personnel with substandard security conditions, instructing the mobile terminal to monitor the completion progress of the tasks specified by the workflow instruction. A detailed explanation of this process can be found in the preceding description of the security management system, and will not be repeated here.

[0191] Optional, please refer to Figure 6 The method further includes step 404: generating security information and a security status report corresponding to the scenario in which the mobile terminal is located based on the scenario description parameters. A detailed explanation of this process can be found in the preceding description of the security management system, and will not be repeated here.

[0192] At this time, when a security information display instruction is received from the mobile terminal, the security information and security status report indicated by the security information display instruction are sent to the mobile terminal.

[0193] Optional, please refer to Figure 6 The method further includes step 405: receiving a security control instruction sent by the mobile terminal, the security control instruction including operations related to the scenario description parameters. A detailed explanation of this process can be found in the preceding description of the security management system, and will not be repeated here.

[0194] It should be understood that there is no particular order restriction for the execution of steps 402, 403, 404, and 405 above. They can be executed in different orders or in parallel.

[0195] Optionally, the security management method further includes: based on the scenario description parameters, when it is determined that there are devices and / or personnel with substandard security conditions in the scenario where the mobile terminal is located, generating and sending workflow instructions to the mobile terminal for the devices and / or personnel with substandard security conditions; wherein, the workflow instructions include at least one of the following: work trajectory recording instructions, task reminder instructions, and node control instructions.

[0196] Optionally, the safety management method further includes: determining the emergency rescue equipment in the scene where the mobile terminal is located based on the scene description parameters, and generating and sending to the mobile terminal an emergency rescue equipment facility map describing the location of each emergency rescue equipment in the working group corresponding to the scene where the mobile terminal is located.

[0197] Specifically, the emergency rescue equipment in a scenario can be determined based on the type specified in the equipment's safety parameters.

[0198] Next, based on the location parameters in the equipment safety parameters, the locations of each emergency rescue equipment and facility are determined. Combined with the scene parameters, an emergency rescue equipment and facility map is drawn, containing all the equipment and facilities. The map prominently displays the locations of the emergency rescue equipment, and the description of the map includes information about the equipment, such as model, temperature parameters, operating status (including but not limited to stress, vibration, pressure, voltage, power, frequency, overload, undervoltage, leakage, etc.), and whether it is functioning normally.

[0199] In the current situation, although emergency rescue equipment and facilities are available in various public areas, their locations cannot be quickly determined. Through the embodiments of this disclosure, the locations of all emergency rescue equipment and facilities in the scene where the mobile terminal is located can be clearly observed at a glance.

[0200] In this embodiment, members within the same workgroup can generally see the locations of emergency rescue equipment and facilities in the scene where the mobile terminal is located. However, members in other workgroups cannot see these locations. For example, an emergency rescue equipment and facility map is generated based on device safety parameters in the scene parameters sent by mobile terminal 1. Members within the same workgroup as the user corresponding to mobile terminal 1 can see the locations of the emergency rescue equipment and facilities in the map, while members not within the same workgroup cannot. To address this issue, the security management method may optionally further include: generating sharing instructions and sharing states for each emergency rescue equipment and facility in the workgroup, and setting the at least one emergency rescue equipment and facility to a shared state upon receiving a sharing instruction for at least one of the emergency rescue equipment and facilities. This allows sharing with members of other workgroups outside the current workgroup, enabling them to also see the locations of the emergency rescue equipment and facilities in the scene where the mobile terminal is located.

[0201] When working group members need to manage or use emergency rescue equipment and facilities, they can send unlock commands through terminal devices (e.g., mobile terminals). Unlock commands can be authenticated passwords, fingerprints, etc. When the information processing cloud platform receives an unlock command for emergency rescue equipment and facilities in a shared state, it authorizes the terminal device that sent the unlock command with the usage rights and instructions for the shared equipment and facilities.

[0202] In the event of an emergency requiring the immediate use of emergency rescue equipment, to prevent users from being unable to find the equipment due to a lack of understanding of the situation or panic, this embodiment of the disclosure makes further improvements. When the information processing cloud platform receives a search command for the first emergency rescue equipment, it draws a route map from the location information of the first emergency rescue equipment to the location of the terminal device that sent the search command, and sends the drawn route map to the terminal device that sent the search command. Alternatively, this embodiment of the disclosure can also push emergency rescue equipment near the location of the mobile terminal when the information processing cloud platform receives an emergency signal such as a fire alarm. This embodiment of the disclosure can directly push emergency rescue equipment near the location of a work group member to their mobile terminal, so that the work group member can quickly understand the surrounding emergency rescue equipment. Optionally, a route map from the work group member's location to the nearest emergency rescue equipment can also be drawn and sent to the work group member's mobile terminal, so that the work group member can quickly reach and use the nearest emergency rescue equipment. Here, the first emergency rescue equipment can be any one of the various emergency rescue devices.

[0203] The security management method based on the information processing cloud platform provided in this disclosure can be applied to the information processing cloud platform in the security management system provided in the aforementioned implementation, and will not be described in detail here.

[0204] This disclosure also provides an electronic device, including:

[0205] Memory, used to store at least one machine instruction;

[0206] A processor for loading the at least one machine instruction that causes the processor to execute the method described above.

[0207] This disclosure also provides a machine-readable storage medium storing machine instructions that, when executed by a processor, implement the method described above.

[0208] Please see Figure 7 This disclosure also provides an information processing cloud platform, including:

[0209] The receiving module 600 is used to receive scene description parameters sent by the mobile terminal. The scene description parameters include scene parameters, device security parameters, and user parameters corresponding to the mobile terminal.

[0210] The processing module 601 is configured to determine the scene in which the mobile terminal is located based on the scene parameters, assess the safety status of the equipment and / or personnel in the scene in which the mobile terminal is located based on the device security parameters and the scene parameters, and group the user corresponding to the mobile terminal into a work group that manages the scene in which the mobile terminal is located based on the user parameters.

[0211] Optionally, the receiving program module 600 is further configured to: receive scene description parameters sent by the scene perception unit.

[0212] Optionally, the processing module 601 is further configured to: generate and send to the mobile terminal a dynamic risk map of the safety status of each device and / or person in the scene where the mobile terminal is located, based on the scene description parameters.

[0213] Optionally, the processing module 601 is further configured to: generate and send warning information to the mobile terminal when it is determined that there are devices and / or personnel with substandard security conditions in the scenario in which the mobile terminal is located; and / or

[0214] When it is determined that there are devices and / or personnel with substandard security conditions in the scenario where the mobile terminal is located, it is also used to generate and send a workflow instruction to the mobile terminal for the devices and / or personnel with substandard security conditions, so as to instruct the mobile terminal to monitor the completion progress of the task specified by the workflow instruction.

[0215] Optionally, the processing module 601 is further configured to: generate security information and security status report corresponding to the scenario in which the mobile terminal is located based on the scenario description parameters.

[0216] Optionally, the receiving program module 600 is further configured to: upon receiving a security information display instruction sent by the mobile terminal, send the security information and security status report indicated by the security information display instruction to the mobile terminal.

[0217] Optionally, the receiving program module 600 is further configured to: receive a security control instruction sent by the mobile terminal, the security control instruction including operations on the scenario description parameters.

[0218] Figure 7 The information processing cloud platform shown is Figures 5 to 6 The working principle of the program module corresponding to the method shown can be found in the previous method embodiment, and will not be repeated here.

[0219] It should be understood that the term "and / or" used in this article is merely a description of the relationship between related objects, indicating that three relationships can exist. For example, A and / or B can represent: A existing alone, A and B existing simultaneously, and B existing alone. Additionally, the character " / " in this article generally indicates that the preceding and following related objects have an "or" relationship.

[0220] It should be understood that although the terms first, second, third, etc., may be used to describe XXX in the embodiments of this application, these XXX should not be limited to these terms. These terms are only used to distinguish XXX. For example, without departing from the scope of the embodiments of this application, the first XXX may also be referred to as the second XXX, and similarly, the second XXX may also be referred to as the first XXX.

[0221] Depending on the context, the words “if” or “suppose” as used here can be interpreted as “when” or “in response to determination” or “in response to detection.” Similarly, depending on the context, the phrases “if determination” or “if detection (of the stated condition or event)” can be interpreted as “when determination” or “in response to determination” or “when detection (of the stated condition or event)” or “in response to detection (of the stated condition or event).”

[0222] It should also be noted that the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a product or system comprising a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such a product or system. Without further limitation, an element defined by the phrase "comprising one..." does not exclude the presence of other identical elements in the product or system that includes said element.

[0223] The device embodiments described above are merely illustrative. The units described as separate components may or may not be physically separate, and the components shown as units may or may not be physical units; that is, they may be located in one place or distributed across multiple network units. Some or all of the modules can be selected to achieve the purpose of this embodiment according to actual needs. Those skilled in the art can understand and implement this without creative effort. Through the above description of the embodiments, those skilled in the art can clearly understand that each embodiment can be implemented by means of software plus necessary general-purpose hardware platforms, and of course, it can also be implemented by hardware. Based on this understanding, the above technical solutions, in essence or the part that contributes to the prior art, can be embodied in the form of a software product. This computer software product can be stored in a computer-readable storage medium, such as ROM / RAM, magnetic disk, optical disk, etc., including several instructions to cause a computer device (which may be a personal computer, server, or network device, etc.) to execute the methods described in various embodiments or some parts of the embodiments.

[0224] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this disclosure, and are not intended to limit them. Although this disclosure has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of this disclosure.

Claims

1. A security management system, characterized in that, include: An information processing cloud platform and at least one mobile terminal connected to the information processing cloud platform; The mobile terminal is used to send scene description parameters to the information processing cloud platform. The scene description parameters include scene parameters, device security parameters, and user parameters corresponding to the mobile terminal. The information processing cloud platform is used to receive scene description parameters sent by the mobile terminal, determine the scene in which the mobile terminal is located and the corresponding security management process based on the scene parameters, assess the security status of devices and / or personnel in the scene in which the mobile terminal is located based on the device security parameters and scene parameters, and determine the correlation between the user corresponding to the mobile terminal and the scene in which the mobile terminal is located based on the user parameters. The correlation refers to the degree of connection between the user corresponding to the mobile terminal and the scene. When the correlation is greater than a preset threshold, the user corresponding to the mobile terminal is grouped into a work group that manages the scene in which the mobile terminal is located, and the security management process of the scene in which the mobile terminal is located is sent to all mobile terminals in the work group.

2. The system according to claim 1, wherein: Also includes: The scene perception unit is used to collect scene description parameters of the scene in which the mobile terminal is located, and send the scene description parameters to the information processing cloud platform.

3. The system according to claim 2, characterized in that, The scene perception unit includes a data acquisition subunit, a data transmission subunit, and a human-computer interaction interface. The data acquisition subunit is used to acquire scene parameters and device security parameters of the scene in which the mobile terminal is located. The data transmission subunit is used to send the scene parameters and device security parameters of the scene in which the mobile terminal is located to the information processing cloud platform. The human-computer interaction interface is used to receive input instructions.

4. The system according to claim 1, characterized in that, The information processing cloud platform is also used to generate and send a dynamic risk map to the mobile terminal based on the scenario description parameters, which describes the safety status of various devices and / or personnel in the scenario in which the mobile terminal is located.

5. The system according to claim 4, characterized in that, The information processing cloud platform is also used to generate and send warning information to the mobile terminal when it is determined that there are devices and / or personnel with substandard security conditions in the scene where the mobile terminal is located, based on the scene description parameters.

6. The system according to claim 4 or 5, characterized in that, Based on the scenario description parameters, when the information processing cloud platform determines that there are devices and / or personnel with substandard security conditions in the scenario where the mobile terminal is located, it is also used to generate and send workflow instructions to the mobile terminal for the devices and / or personnel with substandard security conditions. The mobile terminal is also configured to receive the workflow instruction to instruct the mobile terminal to monitor the completion progress of the task specified by the workflow instruction.

7. The system according to claim 6, characterized in that, The workflow instructions include at least one of the following: work trajectory recording instructions, task reminder instructions, and node control instructions.

8. The system according to claim 1, characterized in that, The information processing cloud platform is also used to determine the emergency rescue equipment in the scene where the mobile terminal is located based on the scene description parameters, and to generate and send to the mobile terminal an emergency rescue equipment and facility map describing the location of each emergency rescue equipment in the working group corresponding to the scene where the mobile terminal is located.

9. The system according to claim 8, characterized in that, The information processing cloud platform is also used to generate sharing instructions and sharing status for each emergency rescue equipment and facility in the working group, and to set the at least one emergency rescue equipment and facility to a sharing status when it receives a sharing instruction for at least one of the emergency rescue equipment and facilities.

10. The system according to claim 8 or 9, characterized in that, The information processing cloud platform is also used to, when receiving an unlocking command for emergency rescue equipment and facilities in a shared state, authorize the terminal device that sent the unlocking command with the usage rights and instructions for use of the emergency rescue equipment and facilities in a shared state.

11. The system according to any one of claims 8 to 9, characterized in that, The information processing cloud platform is also used to push emergency rescue equipment and facilities near the location of the mobile terminal to the mobile terminal when it receives a sudden signal.

12. The system according to claim 1, characterized in that, The user parameters include at least one of the following: user identifier, user characteristic attributes corresponding to the scenario, and user permissions.

13. The system according to claim 1, characterized in that, The scene parameters include at least one of the following: scene label, element parameters, temperature parameters, humidity parameters, gas parameters, smoke parameters, and on-site personnel identification parameters, location parameters, fatigue physiological parameters, and working status parameters.

14. The system according to claim 1, characterized in that, The information processing cloud platform is also used to generate security information and security status reports corresponding to the scenario in which the mobile terminal is located, based on scenario description parameters.

15. The system according to claim 14, characterized in that, The information processing cloud platform is also used to send the security information and security situation analysis report indicated by the security information display instruction to the mobile terminal when it receives the security information display instruction sent by the mobile terminal.

16. The system according to claim 14 or 15, characterized in that, The security information includes at least one of the following: current overall security situation, risk warning, security hazards, security tasks, operation management, equipment information, emergency rescue equipment sharing information, and working group members.

17. The system according to claim 1, characterized in that, The information processing cloud platform is also used to receive security control instructions sent by the mobile terminal, the security control instructions including operations on the scenario description parameters.

18. The system according to claim 17, characterized in that, The safety control instructions include at least one of the following: check-in operation for work group members, multimedia form upload operation for safety issues, standardized operation operation, safety task establishment operation, communication operation for work group members, sharing operation of rescue facilities and equipment, and sharing operation of internal data and information within the work group.

19. A safety management method, characterized in that, Applied to an information processing cloud platform, the method includes: Receive scene description parameters sent by the mobile terminal, the scene description parameters including scene parameters, device security parameters and user parameters corresponding to the mobile terminal; The scenario and corresponding security management process of the mobile terminal are determined based on the scenario parameters. The security status of the equipment and / or personnel in the scenario of the mobile terminal is evaluated based on the device security parameters and scenario parameters. The correlation between the user corresponding to the mobile terminal and the scenario of the mobile terminal is determined based on the user parameters. The correlation refers to the degree of connection between the user corresponding to the mobile terminal and the scenario. When the correlation is greater than a preset threshold, the user corresponding to the mobile terminal is grouped into a work group that manages the scenario of the mobile terminal, and the security management process of the scenario of the mobile terminal is sent to all mobile terminals in the work group.

20. The method according to claim 19, characterized in that, Also includes: Receive scene description parameters sent by the scene perception unit.

21. The method according to claim 19, characterized in that, Also includes: Based on the scenario description parameters, a dynamic risk map of the safety status of each device and / or person in the scenario in which the mobile terminal is located is generated and sent to the mobile terminal.

22. The method according to claim 21, characterized in that, Also includes: Based on the scenario description parameters, when it is determined that there are devices and / or personnel with substandard security conditions in the scenario where the mobile terminal is located, a workflow instruction for the substandard devices and / or personnel is generated and sent to the mobile terminal; wherein, the workflow instruction includes at least one of the following: a work trajectory recording instruction, a task reminder instruction, and a node control instruction.

23. The method according to claim 19, characterized in that, Also includes: Based on the scenario description parameters, the emergency rescue equipment in the scenario where the mobile terminal is located is determined, and an emergency rescue equipment and facility map describing the location of each emergency rescue equipment in the working group corresponding to the scenario where the mobile terminal is located is generated and sent to the mobile terminal.

24. The method according to claim 23, characterized in that, Also includes: For each emergency rescue equipment and facility in the working group, a sharing instruction and a sharing status are generated, and when a sharing instruction is received for at least one of the emergency rescue equipment and facilities, the at least one emergency rescue equipment and facility is set to a sharing status.

25. The method according to claim 23 or 24, characterized in that, Also includes: When an unlocking command is received for emergency rescue equipment and facilities in a shared state, the terminal device that sent the unlocking command is granted access to and instructions for use of the shared emergency rescue equipment and facilities.

26. The method according to claim 24, characterized in that, Also includes: Upon receiving an emergency signal, the system pushes information about nearby emergency rescue equipment and facilities to the mobile terminal.

27. The method according to claim 21, characterized in that, Also includes: When it is determined that there are devices and / or personnel in the scenario in which the mobile terminal is located that do not meet the safety standards, a warning message is generated and sent to the mobile terminal. and / or When it is determined that there are devices and / or personnel with substandard security conditions in the scenario where the mobile terminal is located, a workflow instruction is generated and sent to the mobile terminal for the devices and / or personnel with substandard security conditions, so as to instruct the mobile terminal to monitor the completion progress of the task specified by the workflow instruction.

28. The method according to claim 19, characterized in that, Also includes: Based on the scenario description parameters, a security information and security status report corresponding to the scenario in which the mobile terminal is located is generated.

29. The method according to claim 28, characterized in that, Also includes: Upon receiving a security information display instruction from the mobile terminal, the system sends the security information and security status report indicated by the security information display instruction to the mobile terminal.

30. The method according to claim 19, characterized in that, Also includes: The system receives a security control instruction sent by the mobile terminal, the security control instruction including operations on the scenario description parameters.

31. An electronic device, characterized in that, include: Memory, used to store at least one machine instruction; A processor for loading the at least one machine instruction, the at least one machine instruction causing the processor to perform the method as described in any one of claims 19 to 30.

32. A machine-readable storage medium having machine instructions stored thereon, characterized in that, When the machine instructions are executed by the processor, they implement the method as described in any one of claims 19 to 30.

33. An information processing cloud platform, characterized in that, include: The receiving program module is used to receive scene description parameters sent by the mobile terminal. The scene description parameters include scene parameters, device security parameters, and user parameters corresponding to the mobile terminal. The processing module is used to determine the scene where the mobile terminal is located and the corresponding security management process based on the scene parameters, evaluate the security status of the equipment and / or personnel in the scene where the mobile terminal is located based on the device security parameters and scene parameters, and determine the correlation between the user corresponding to the mobile terminal and the scene where the mobile terminal is located based on the user parameters. The correlation refers to the degree of connection between the user corresponding to the mobile terminal and the scene. When the correlation is greater than a preset threshold, the user corresponding to the mobile terminal is grouped into a work group that manages the scene where the mobile terminal is located, and the security management process of the scene where the mobile terminal is located is sent to all mobile terminals in the work group.

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