An active security protection system

Abstract

The application discloses an active safety protection system and belongs to the technical field of safety protection. The active safety protection system comprises an upper computer, a data acquisition end and an active safety lock which are in communication connection with the upper computer. The data acquisition end acquires field sensing data and personnel state information of a specified area. The upper computer creates control standards and analyzes and judges early warning levels, generates control instructions, and the active safety lock executes corresponding operations. The application is a linkage control which integrates approval, authorization, operation and field state. Safety redundancy is constructed through multiple identity recognition. The application strictly conforms to relevant control standards, realizes a full-process closed loop from identity authentication and state acquisition to early warning disposal and reset recovery, and is more secure and adaptable than a single-identification access control system. The application can be flexibly adapted to the safety control requirements of various manufacturing scenes.

Description

Technical Field

[0001] This invention belongs to the technical field of security and prevention, and in particular relates to an active security and prevention system. Background Technology

[0002] Existing access control technologies for hazardous / critical areas mostly grant personnel access rights through single identification methods such as facial recognition or fingerprint recognition, without taking into account the professional operational requirements of confined or hazardous spaces, and failing to link and control key elements such as the working environment, personnel qualifications, work plans, and material preparation.

[0003] In other words, existing technologies do not systematically consider the dangers that may arise from improper operation throughout the entire process. The root cause may be a neglect of the understanding of standards, with the traditional view that only authorized personnel have access. This kind of technological deficiency directly results in existing access control solutions being unable to eliminate the threat to the life safety of workers from multiple dimensions throughout the entire operation process. First, it is impossible to confirm in advance whether the environmental conditions of the work area meet the standards, such as whether the concentration of hazardous gases, oxygen content, and ventilation status meet the operational requirements, which can easily lead to environmental safety accidents. Secondly, the approval status and rationality of the work plan were not verified, which may result in violations such as working without a plan or working without approval. Third, the authorization of personnel access lacks qualification verification basis, and the authorization process is relatively arbitrary, which easily leads to the problem of personnel without professional training qualifications and operation certificates entering dangerous areas to work; Fourth, the lack of a monitoring and early warning mechanism for work duration makes it easy for workers to suffer from exhaustion, poisoning, and oxygen deficiency due to prolonged stays in dangerous areas. At the same time, existing technologies cannot monitor the on-site safety status and the physical condition of workers in real time during the work process, making it difficult to achieve early warning and timely handling of risks. Ultimately, this leads to frequent safety accidents during work in dangerous areas and fails to meet the requirements of relevant safety standards for full-process control of work in dangerous areas. Summary of the Invention

[0004] To address the technical problems existing in the background art, the present invention provides an active security system.

[0005] The present invention is implemented using the following technical solution: an active security system, including a host computer, a data acquisition terminal and an active security lock that are communicatively connected to the host computer; The data acquisition terminal is configured to collect on-site sensing data and / or personnel status information; The host computer is configured to create multi-dimensional operation control standards and set approval rules, and analyze and determine the warning level based on various feedback data, generate warning information and push it; at the same time, it generates control judgment results and issues differentiated control instructions to the active safety lock. The active safety lock is configured to perform identity verification and access control linkage opening and closing operations according to the differentiated control instructions.

[0006] In a further embodiment, the data acquisition terminal includes a device data acquisition terminal for acquiring on-site sensing data; The on-site sensing data includes at least: on-site environmental data of the designated area and on-site facility operation status data.

[0007] In a further embodiment, the data acquisition terminal includes a personnel information acquisition terminal for collecting personnel status information; The personnel status information includes: the number of people in the area, personnel identity information, and human body characteristic data.

[0008] In a further embodiment, the personnel information collection terminal includes: a wearable vital sign collection device; The wearable vital sign acquisition device is configured to collect at least one of the following human characteristic data in real time: heart rate, body temperature, movement posture and location coordinates, and blood oxygen saturation of the worker.

[0009] In a further embodiment, the active safety lock is also used to identify personnel, equipment and materials used in the operation based on approval rules, so as to ensure consistency with the operation plan; Correspondingly, all the equipment and materials used in the operation are equipped with identification codes that include basic information, availability status, and suitable operation type, for verification and identification by the active safety lock.

[0010] In a further embodiment, the multi-dimensional operation control standard includes: personnel access control standard based on operation type, operation condition configuration standard, space status control standard, safety protection standard, and early warning hazard determination standard; The approval rules include: hierarchical configuration of approver authority, approval of regional access applications, closed-loop approval of early warning and response, and approval of the use of equipment and protective equipment.

[0011] In a further embodiment, the active safety lock includes: an outer door active safety lock adapted to the entrance side of a designated area and an inner door active safety lock adapted to the operation side of a designated area.

[0012] In a further embodiment, the external door active safety lock is an access control lock for the entrance of a designated area. It is configured to perform personnel access identity verification and work equipment and material information verification according to the control instructions of the host computer. After the verification is passed, the door opening operation is performed, and the locking control is completed after confirming that the door is closed.

[0013] In a further embodiment, the inner door active safety lock is an evacuation passage control lock for the designated area operation side, configured to switch between operation control state and non-operation control state according to the control instructions issued by the host computer; When in operation control mode, the door unlocks and releases access while also having anti-lock function; when in non-operation control mode, the door switches to normal access control lock mode, and the door opens and closes after identity verification.

[0014] In a further embodiment, it also includes: The emergency unlocking key is configured to perform a physical unlocking operation on the outer door active safety lock and / or the inner door active safety lock in an emergency scenario.

[0015] In a further embodiment, the proactive security system is configured to adapt to the risk type, control requirements, and risk level of the designated area.

[0016] The beneficial effects of this invention: This proactive safety prevention system addresses the shortcomings of existing access control technologies for hazardous / critical areas, which only verify personnel identity and fail to integrate multi-dimensional risk management across the entire operational process. By constructing a control system that links approval, authorization, operation, and on-site status across the entire chain, it achieves systematic, standardized, and intelligent safety prevention for operations in hazardous / critical areas. Compared to existing technologies, it has the following significant advantages: The system integrates all aspects of hazardous area operations, including work plan approval, personnel qualification authorization, on-site environmental monitoring, access control, work process monitoring, and emergency response. The host computer, data acquisition terminal, and dual access locks are functionally coordinated and data is interconnected, replacing the existing technology's independent operation of each link and the need for manual intervention. This reduces safety vulnerabilities caused by human error and achieves closed-loop management of the entire process from work application to work completion and evacuation.

[0017] On the one hand, multiple identity verification methods, including wearable vital sign collection devices (such as smart bracelets), facial recognition, and NFC, are adopted to grant access only to authorized personnel who have undergone safety training, possess operational qualifications, and have passed approval, thus preventing unauthorized personnel from entering dangerous / critical areas from the outset. On the other hand, active safety locks on the outer doors are used to verify the matching of personnel, equipment, materials, and operational plans, and optional cameras are used for redundant identification of the number of people entering and exiting, ensuring a high degree of consistency between the operational participants, materials, and approved plans. At the same time, the anti-lock design of the active safety locks on the inner doors during operations ensures the absolute unobstructed passage of emergency evacuation routes for operational personnel, thus eliminating the risk of personnel injury from both access control and evacuation protection.

[0018] The system monitors the on-site environment, equipment and materials, and the operational status of on-site facilities in real time through the data acquisition terminal. It continuously collects the physical characteristic data of the workers through wearable vital sign collection devices. The host computer analyzes various data in real time and matches them with preset control standards. Once it is found that the on-site environment does not meet the working conditions, the equipment and materials are abnormal, or the physical characteristics of the workers exceed the standards, an early warning can be triggered immediately and the on-site personnel can be notified to evacuate. This realizes the transformation from passive access control to proactive risk warning, effectively avoiding work safety accidents caused by environmental hazards, personnel physical discomfort, etc.

[0019] The system is equipped with an emergency unlocking key, which can physically unlock the active safety locks of the inner and outer doors in emergency scenarios such as communication failure, power outage, and sudden on-site alarms. This supports the rapid evacuation of workers from dangerous areas and also allows rescue personnel to quickly enter and carry out rescue operations without authorization. At the same time, the host computer can push emergency evacuation notifications to workers through the data acquisition terminal, realizing the combination of intelligent emergency early warning and physical emergency unlocking to ensure the safety of personnel in extreme scenarios. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of an active security system according to Example 1. Detailed Implementation

[0021] The present invention will now be further described in conjunction with the embodiments and accompanying drawings.

[0022] Example 1 This embodiment takes grain storage as an example. It requires comprehensive management of personnel in the storage area and effective monitoring of the storage environment to ensure that the temperature and humidity are always within the reasonable threshold range for safe grain storage, as well as real-time perception, early warning and handling of safety hazards and personnel safety.

[0023] like Figure 1 As shown in this embodiment, an active safety prevention system includes: a host computer, a data acquisition terminal and an active safety lock that are communicatively connected to the host computer. Each functional module works in concert with the host computer to achieve intelligent data acquisition, analysis, judgment, and coordinated control of the entire operation process within a designated area.

[0024] It should be noted that the signal transmission between the unit modules in this embodiment is achieved through a dual-link communication method that combines industrial wireless communication (WiFi), industrial Ethernet, RS485 or 4G network. This method can be flexibly adapted to the communication requirements of different hardware such as field sensors and field electrical control isolation locks, ensuring the stability, real-time performance and anti-interference of data transmission, and is suitable for grain storage environments.

[0025] The data acquisition terminal is configured to collect on-site sensing data and / or personnel status information. In other words, depending on actual needs, this embodiment may choose to collect on-site sensing data or personnel status information separately, or it may collect on-site sensing data and personnel status information simultaneously.

[0026] The host computer is configured to create multi-dimensional operation control standards and set approval rules, and analyze and determine the warning level based on various feedback data, generate warning information and push it; at the same time, it generates control judgment results and issues differentiated control instructions to the active safety lock. The active safety lock is configured to perform identity verification and access control linkage opening and closing operations according to the differentiated control instructions.

[0027] Furthermore, the data acquisition terminal described in this embodiment includes a device data acquisition terminal for collecting on-site sensing data; gas detectors, equipment operating status sensors, etc., respectively collect on-site sensing data such as fumigation gas concentration and operating parameters of various operating equipment.

[0028] Therefore, the field sensing data described in this embodiment includes at least: field environmental data and field facility operation status data.

[0029] For example, QR code identification codes are affixed to prominent positions on the control panels of the operating equipment (ventilators, dehumidifiers); and the operating materials (grain turnover warehouses, fumigation agent storage containers, etc.) are verified and identified through the QR code scanning module of the active safety lock. This can quickly achieve accurate matching between equipment and materials and grain warehouse operation plans, ensuring that the equipment and materials are used in a standardized manner and are suitable for the corresponding grain warehouse storage and maintenance operations during the operation, further improving the comprehensiveness and standardization of the system's safety precautions.

[0030] Considering that personnel management involves more than just access control; it also requires comprehensive monitoring and control of physical fitness. Therefore, this embodiment also includes a data collection terminal for collecting personnel status information, including a personnel information collection terminal. Personnel status information includes: the number of people in the area, personnel identity information, and human characteristic data.

[0031] Therefore, the personnel information collection terminal includes: wearable vital sign collection devices, such as wristbands, smart safety helmets, vital sign monitoring wristbands, etc. These devices collect at least one of the following human characteristic data in real time: heart rate, body temperature, movement posture and location coordinates, and blood oxygen saturation. Based on this data, the health status of the workers is monitored in real time.

[0032] From a personnel protection perspective, equipment and materials used in grain storage operations also include: personal protective equipment (PPE) that is compatible with the grain storage management procedures and matches the risks of fumigation gas exposure and grain dust exposure during processes such as grain fumigation and equipment operation. Specific examples include fumigation respirators and dust masks, and all PPE is equipped with an identification code (using a QR code as an example) that includes the equipment specifications, applicable procedures, and inspection validity period.

[0033] Personal protective equipment (PPE) is included in the equipment and materials verification scope along with grain warehouse operations. It must be verified and matched by the active safety lock's identification module before it can accompany the workers into the designated grain warehouse area. At the same time, PPE is used in conjunction with wearable vital sign collection devices. Workers wear them in accordance with regulations throughout the process, which not only enables real-time collection of physical characteristics but also avoids various safety risks at the grain warehouse operation site from a physical perspective, forming a dual guarantee of personnel physical condition and operational protection, and improving the closed loop of the system's active safety prevention.

[0034] Therefore, in order to ensure the consistency of personnel, materials and work plan, the active safety lock is also used to identify personnel and work equipment and materials based on approval rules to ensure consistency with the work plan; the work equipment and materials mentioned in this embodiment include: work equipment and work materials.

[0035] Meanwhile, in order to understand the status of work equipment and materials and the operating status of on-site facilities in real time, all work equipment and materials are equipped with identification codes that include basic information, availability status and work type, for verification and identification by active safety locks.

[0036] Furthermore, in order to achieve precise control over the number of personnel (i.e., threshold control over the number of workers that can be carried in a designated area), this embodiment uses a video monitoring module that is a multi-camera collaborative monitoring module. High-definition cameras are deployed at the main entrance of the designated area, the entrances and exits of each process sub-area, and the core work points. Through bidirectional statistics from multiple cameras, the number of personnel is double-redundantly verified and fed back to the host computer in real time, providing data support for personnel management.

[0037] Based on the site conditions, human characteristics, and personnel status, the multi-dimensional operation control standards include: personnel access control standards based on the type of operation, operation condition configuration standards, space status control standards, safety protection standards, and early warning hazard judgment standards. For each type of standard, the monitoring indicators are set with corresponding thresholds to form a quantitative control basis.

[0038] The approval rules include: hierarchical configuration of approver authority, approval of regional access applications, closed-loop approval of early warning and response, and approval of the use of equipment and protective equipment. This includes the determination of approvers and the setup of approval processes, etc.

[0039] To further understand, the process of analyzing and determining the warning situation level is as follows: After receiving real-time monitoring data on the on-site status, human characteristics, and personnel status, the host computer compares each type of data with the corresponding thresholds preset in the multi-dimensional operation control standards. Combined with the matching rules of abnormal type, abnormal degree, and warning level clearly defined in the warning risk determination standards, the system analyzes and determines whether a warning situation exists and the corresponding warning level.

[0040] If the current analysis determines that a warning situation exists, a warning message will be generated, including the warning level, anomaly type, and anomaly location. Simultaneously, a control judgment result adapted to the warning level will be generated. Taking abnormal personnel access as an example, when a worker enters an unauthorized work area, the warning message will clearly state the warning level, abnormal behavior type, unauthorized location, information about the involved personnel, and the time of the anomaly. This information will be pushed to the terminals of the involved personnel, on-site inspectors, and workshop managers, and simultaneously trigger regional personnel behavior control instructions, restricting the involved personnel's movement permissions, conducting focused video tracking, and suspending their corresponding operating permissions if the anomaly persists.

[0041] Taking an abnormal on-site environment as an example, when a serious warning is issued, such as a leak of fumigation gas, a risk of spontaneous combustion of grain piles, a major malfunction of storage equipment, or a significant abnormality in personnel's physical characteristics data, the warning information will include key information such as evacuation instructions, evacuation routes, and the location of the nearest safe area. This information will be pushed to the terminal devices of all workers, on-site managers, and grain warehouse safety officers within the designated area, simultaneously triggering the area's emergency evacuation and control procedures.

[0042] If there is no warning situation at present, a normal operation control judgment result that meets the multi-dimensional operation control standards will be directly generated, and corresponding control instructions will be issued to the active safety lock, such as allowing authorized personnel to carry verified personal protective equipment and work materials into the designated grain warehouse area, maintaining access control and personnel access permissions in each grain storage and management sub-area, and allowing ventilation, dehumidification and other operation equipment to start and operate normally.

[0043] In summary, the control commands in this embodiment are diverse, including at least: personnel access control commands, personnel access restriction commands, access control commands, on-site grain storage facility optimization commands, grain depot maintenance operation suspension commands, area emergency evacuation commands, and normal operation commands for storage equipment. Among these, the area emergency evacuation command is the highest priority control command. Once issued, it will forcibly override all other regular control commands. The host computer will simultaneously issue a full-door unlock command to the active safety locks. Both the outer and inner active safety locks will perform unconditional unlocking operations and remain open. At the same time, the video monitoring module will focus on tracking the evacuation trajectory of personnel within the grain depot area and provide real-time feedback on the evacuation progress to the management personnel until it is confirmed that all personnel within the designated grain storage area have been evacuated to a safe area. To achieve hierarchical and precise access control for designated areas, while taking into account the needs of area access verification, emergency passage within the work area, and process isolation, the active safety locks described in this embodiment include: an external active safety lock adapted to the main entrance of the designated area and an internal active safety lock adapted to the work areas of each process sub-area within the designated area. Both types of access locks are connected to the host computer for communication, synchronously receiving control commands and executing corresponding opening / closing and access control operations.

[0044] Furthermore, the external door active safety lock is an access control lock for the entrance of a designated area. It is configured to perform personnel access identity verification and work equipment and material information verification according to the control instructions of the host computer. After the verification is passed, the door opening operation is performed, and the locking control is completed after confirming that the door is closed.

[0045] The inner door active safety lock is a control lock for the evacuation passage on the designated area's work side. It is configured to switch between work control and non-work control states according to control instructions issued by the host computer. When in operation control mode, the door unlocks and releases access while maintaining anti-lock functionality. When not in operation control mode, it switches to normal access control locking mode, performs identity verification, and then completes the opening and closing operation. Upon receiving an emergency evacuation command for the area, all status restrictions are immediately lifted, the door is unconditionally unlocked, and remains open until the host computer issues a reset command indicating evacuation completion.

[0046] Meanwhile, to prevent communication interruptions and command execution failures in case of sudden malfunctions that prevent normal opening and closing of the access control locks, and to ensure unobstructed personnel evacuation and on-site handling channels in emergency scenarios, this embodiment also equips the outer and inner door active safety locks with emergency unlocking keys. These keys allow for direct physical unlocking of the outer and / or inner door active safety locks in emergency situations. In case of sudden equipment failure, communication system paralysis, or other emergencies, on-site management personnel can use the emergency unlocking keys to quickly open the corresponding access control locks, enabling rapid evacuation of personnel within designated areas or ensuring the smooth entry and exit of emergency response personnel and equipment.

[0047] In other embodiments, areas with risks such as fumigation operations, media leakage, and grain pile collapse can be designated as hazardous areas based on the storage processes of different grain varieties, the degree of danger of storage scenarios, and the preset safety protection requirements. Active safety prevention systems adapted to the risk level of hazardous areas can be set up to achieve precise safety control of grain storage operation areas of different types and risk levels.

[0048] Example 2 This embodiment discloses an active security prevention method based on the above-mentioned active security prevention system. This embodiment focuses on clearly describing the logical relationship and process steps of the method execution. The method is applied to a designated control area of ​​grain storage and specifically includes the following steps: The system collects real-time on-site status data (including fumigation gas concentration, grain pile status, and storage equipment operating parameters) of the designated grain warehouse area through the data acquisition terminal. The system also completes the identification of the operators and collects human feature data through the data acquisition terminal. The system collects personnel status data at the entrance and inside of the designated grain warehouse area through the video monitoring module. All types of collected data are synchronized to the host computer in real time through dual-link communication. The host computer pre-generates multi-dimensional operation control standards based on on-site grain storage status, human characteristics, and personnel status, and sets quantitative thresholds for various standard monitoring indicators. After receiving various collected data, the data is compared and matched with the corresponding thresholds one by one. Based on the matching results of data and thresholds, and combined with the corresponding rules of abnormality type, abnormality degree and warning level in the warning risk judgment standard, the host computer analyzes and determines whether there is a warning situation and the corresponding warning level. If there is no warning, normal control is executed; if there is a warning, warning control is executed. Active safety locks, on-site grain storage facilities, video monitoring modules, etc. execute control commands issued by the host computer, and at the same time feed back data such as command execution status, on-site handling progress, and personnel evacuation status to the host computer in real time, forming a closed-loop control system; After the abnormal situation is handled and the warning is lifted, the on-site management personnel submit a closed-loop report to the host computer. After the host computer verifies and confirms the report, it issues a reset command, and each module returns to the normal operation and control state, and data collection and subsequent steps are executed again.

[0049] Furthermore, the normal control execution process is as follows: the host computer generates a normal operation control judgment result that conforms to the multi-dimensional operation control standard, and issues routine control instructions to the active safety lock, including personnel access control, maintaining access control status, and allowing the normal operation of storage equipment, etc. The active safety lock performs the corresponding opening and closing and verification operations. The early warning and control execution process is as follows: the host computer generates early warning information including the early warning level, the type of abnormality, and the location of the abnormality (such as a grain storage area or fumigation operation area), pushes it to the data collection terminal of relevant personnel, and generates control judgment results that are adapted to the early warning level and issues differentiated control instructions.

[0050] To facilitate understanding, this embodiment provides further examples to illustrate the warning levels: If it is a Level 1 minor warning, a local control order will be issued, which will only restrict access to abnormal locations and optimize on-site grain storage facilities (such as adjusting the speed of ventilation fans), while simultaneously reminding on-site inspection personnel to verify and handle the situation. If it is a Level II moderate warning, a regional control order will be issued to suspend the grain storage and maintenance operations corresponding to the abnormal points, implement temporary access restrictions on the abnormal areas, and order the management personnel to rectify within a time limit; If it is a Level 3 severe warning, the highest priority area emergency evacuation order will be issued, forcibly overriding other routine control orders. An order to lock all doors will be issued to the active safety locks. At the same time, warning information including evacuation orders, evacuation routes, and safe area locations will be pushed to relevant personnel. The video monitoring module will track the personnel evacuation trajectory in real time and report it to the host computer.

[0051] The proactive safety prevention method described in this embodiment achieves intelligent and precise proactive safety prevention for the entire operation process in the grain storage area through a logical closed-loop design of data collection, matching, judgment, control, feedback, and reset. Each step is progressive and logically related, and the emergency evacuation process is the highest priority control link to ensure the safety of personnel in emergency scenarios. At the same time, it adapts to the differentiated control needs of different warning levels, taking into account both the efficiency of grain storage and safety control.

Claims

1. An active security system, characterized in that, Includes a host computer, a data acquisition terminal and an active safety lock that are communicatively connected to the host computer; The data acquisition terminal is configured to collect on-site sensing data and / or personnel status information; The host computer is configured to create multi-dimensional operation control standards and set approval rules, and analyze and determine the warning level based on various feedback data, generate warning information and push it; at the same time, it generates control judgment results and issues differentiated control instructions to the active safety lock. The active safety lock is configured to perform identity verification and access control linkage opening and closing operations according to the differentiated control instructions.

2. The active security system according to claim 1, characterized in that, The data acquisition terminal includes a device data acquisition terminal, used to collect on-site sensing data; The on-site sensing data includes at least: on-site environmental data of the designated area and on-site facility operation status data.

3. The active security system according to claim 1, characterized in that, The data acquisition terminal includes a personnel information acquisition terminal, used to collect personnel status information; The personnel status information includes: the number of people in the area, personnel identity information, and human body characteristic data.

4. The active security system according to claim 3, characterized in that, The personnel information collection terminal includes: a wearable vital sign collection device; The wearable vital sign acquisition device is configured to collect at least one of the following human characteristic data in real time: heart rate, body temperature, movement posture and location coordinates, and blood oxygen saturation of the worker.

5. The active security system according to claim 1, characterized in that, The active safety lock is also used to identify personnel, equipment and materials used in the operation based on approval rules to ensure consistency with the operation plan; Correspondingly, all the equipment and materials used in the operation are equipped with identification codes that include basic information, availability status, and suitable operation type, for verification and identification by the active safety lock.

6. The active security system according to claim 1, characterized in that, The multi-dimensional operation control standards include: personnel access control standards based on operation type, operation condition configuration standards, space status control standards, safety protection standards, and early warning hazard determination standards; The approval rules include: hierarchical configuration of approver authority, approval of regional access applications, closed-loop approval of early warning and response, and approval of the use of equipment and protective equipment.

7. The active security system according to claim 1, characterized in that, The active safety locks include: an outer door active safety lock adapted to the entrance side of a designated area and an inner door active safety lock adapted to the operation side of a designated area.

8. The active security system according to claim 7, characterized in that, The external door active safety lock is an access control lock for the entrance of a designated area. It is configured to perform personnel access identity verification and work equipment and material information verification according to the control instructions of the host computer. After the verification is passed, the door opening operation is performed, and the locking control is completed after confirming that the door is closed.

9. The active security system according to claim 7, characterized in that, The inner door active safety lock is an evacuation passage control lock for the designated area operation side, and is configured to switch between operation control state and non-operation control state according to the control instructions issued by the host computer; When in operation control mode, the door unlocks and releases access while also having anti-lock function; when in non-operation control mode, the door switches to normal access control lock mode, and the door opens and closes after identity verification.

10. The active security system according to claim 1, characterized in that, Also includes: The emergency unlocking key is configured to perform a physical unlocking operation on the outer door active safety lock and / or the inner door active safety lock in an emergency scenario.

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