A device access area intelligent fire protection method and system

Abstract

The present invention discloses a method and system for intelligent fire protection in a device access area. In the implementation scheme disclosed in the present invention, the fire terminal equipment is accessed, the central control platform system is accessed, the equipment information and location information are determined, and the fire task instructions are sent, and the central control platform system performs the alarm auxiliary alarm operation. In the above scheme, the fire terminal equipment, the central control platform system, and the elevator shaft related functional modules are connected to the existing regional fire protection framework with minor or no changes, and efficient emergency reporting is achieved based on the changed fire protection system, so that the fire terminal equipment is integrated into the intelligent fire protection ecosystem based on the electrical signal trigger system, which improves the efficiency of fire protection affairs, enriches the intelligent fire protection ecology, and at the same time reduces the construction cost of the intelligent fire protection system, ensuring user experience and fire safety.

Description

Technical Field

[0001] The present application belongs to the field of fire safety technology, and in particular, relates to a method and system for intelligent fire protection in an equipment access area. Background Art

[0002] Fire safety is of paramount importance to people's livelihood. Traditional fire handling is based on the alarm process, including fire detection, alarm verification, mobile alarm, fire alarm plan and command. With the continuous development of fire technology and emergency management technology, the technical system in the traditional fire safety field has been greatly improved. Under the background of Internet + technology, the concept of smart fire protection has gradually taken shape. In nine small places such as residential areas, schools, and shopping malls, a modern fire protection system has been gradually formed. In many scenarios and sub-fields, including big data application, virtual reality, fire safety, emergency warning, alarm analysis, and smart platforms, there has been significant progress and development. However, in the current fire safety field, there are still some disadvantages in the use and management of fire terminal equipment. For example, (1) the management of fire equipment terminal equipment is simple and has not been effectively integrated into the smart fire ecosystem. The most typical example is that fire pumps, fire hydrants, and residential fire extinguishers have been placed for many years. When they are widely deployed in various places, they lack maintenance or maintenance is cumbersome, and they are easily damaged and disconnected from the management of other types of fire equipment, facilities, and equipment. (2) The efficiency of fire alarm transmission is low. How to effectively transmit relevant information after an emergency occurs is the key to handling fire alarms. However, it is sometimes not easy to accurately and effectively report time, address, related situations, etc. in emergency situations. The smart fire protection system has realized a one-button alarm function, which can solve some of the above problems to a certain extent. However, the implementation of the one-button alarm function has some common problems, including: easy to accidentally touch (illegally trigger, unintentionally trigger, etc.), resulting in a waste of police resources; additional supporting facilities (such as additional network configuration, monitoring devices, etc.) are required to assist in the implementation, resulting in high equipment costs.

[0003] The information disclosed in this background technology section is only intended to increase the understanding of the overall background of the application and should not be regarded as an admission or any form of suggestion that the information constitutes the prior art already known to a person skilled in the art. Summary of the invention

[0004] In view of the problems existing in the prior art, the present invention provides a method and system for intelligent fire protection in an equipment access area. Specifically, the method for intelligent fire protection in an equipment access area claimed in the present application comprises the steps of:

[0005] S100, fire terminal equipment access; connect the fire terminal equipment to the household weak current system through the electrical signal trigger system, and the electrical signal trigger system is used to send a device disconnection work signal to the central control platform system when the connection is disconnected; the household weak current system receives the upper-layer routing system configuration instruction, allocates a static network address to the electrical signal trigger system, and configures the fire terminal equipment identification at the same time;

[0006] S110, access to the central control platform system; constructing a fire management route in the central control platform system, wherein the fire management route configures a static network address for the electrical signal trigger system; the central control platform system is connected to the elevator shaft control system network, and when the central control platform system receives a device disconnection signal sent by the electrical signal trigger system, it sends a fire task instruction to trigger the execution of the fire task; the network connection includes a data interaction protocol, and the fire task instruction sent by the central control platform system is identified based on the data interaction protocol;

[0007] S120, the central control platform system analyzes the signal sending source address and the device identification of the corresponding fire terminal device based on the device disconnection working signal, determines the device information and location information of the fire terminal device corresponding to the device identification, and at the same time, the central control platform sends a fire task instruction that complies with the fire communication protocol to the elevator shaft control system based on the location information, and displays it in the central control platform system based on the location information and device information;

[0008] S130, the central control platform system receives fire task instruction feedback data, prompts the management personnel to manually review the feedback data, and performs emergency alarm auxiliary alarm operations based on the review results. The auxiliary alarm operations include: extracting the location information of the fire terminal equipment to activate the fire linkage alarm device, and on-site reminder operations.

[0009] Preferably, in step S100, the electrical signal triggering system includes a network function module for sending and receiving data packets, a sensor module for monitoring the connection or disconnection of fire terminal equipment, and a data storage and processing module for data storage and security processing.

[0010] Preferably, the sensor module is one of a light sensor, a connection sensor, and an infrared sensor; based on the sensor module, it detects whether the fire terminal equipment is disconnected. When the disconnection data is detected, the electrical signal triggers the system to send a device disconnection working signal to the central control platform system.

[0011] Preferably, in step S110, the data interaction protocol is used to agree on the parsing format of communication data; the central control platform system sets a corresponding control priority for the fire task instruction data and performs security encryption operations based on the data interaction protocol, and the elevator shaft control system identifies the control priority of the received fire task instruction data based on the data interaction protocol and performs data decryption analysis; when the control priority is an unconventional elevator operation control priority, the corresponding fire task is executed based on the fire task instruction obtained by the decryption analysis.

[0012] Preferably, in step S120, the execution of the corresponding firefighting task is: after the elevator shaft control system receives the firefighting task instruction, based on the firefighting equipment information carried in the instruction, controls the elevator equipment to issue an alarm for executing the firefighting task, and lifts or lowers the elevator to the floor area corresponding to the position information in a safe manner, and the elevator shaft control system controls the elevator moving door to remain open and in an alarm state; the elevator shaft control system controls the monitoring equipment to collect on-site images, and sends monitoring data to the central control platform system based on the firefighting communication protocol; the feedback data in step S130 includes the monitoring data, as well as on-site interaction data.

[0013] This application also provides a device access area smart fire protection system, including the following modules:

[0014] The fire terminal equipment access module is used to connect the fire terminal equipment to the household weak current system through the electrical signal trigger system. The electrical signal trigger system is used to send a device disconnection work signal to the central control platform system when the connection is disconnected; the household weak current system receives the upper-layer routing system configuration instruction, allocates a static network address to the electrical signal trigger system, and configures the fire terminal equipment identification at the same time;

[0015] Central control platform system access module; used to construct a fire management route in the central control platform system, the fire management route is configured with a static network address for the electrical signal trigger system; the central control platform system is connected to the elevator shaft control system network, and when the central control platform system receives the device disconnection signal sent by the electrical signal trigger system, it sends a fire task instruction to trigger the execution of the fire task; the network connection includes a data interaction protocol, and the fire task instruction sent by the central control platform system is identified based on the data interaction protocol;

[0016] The fire task instruction sending module enables the central control platform system to parse the signal sending source address and the device identification of the corresponding fire terminal device based on the device disconnection work signal, and determine the device information and location information of the fire terminal device corresponding to the device identification. At the same time, the central control platform sends the fire task instruction that complies with the fire communication protocol to the elevator shaft control system based on the location information, and displays it in the central control platform system based on the location information and device information;

[0017] The auxiliary alarm module enables the central control platform system to receive fire task instruction feedback data, prompts management personnel to manually review the feedback data, and executes emergency alarm auxiliary alarm operations based on the review results. The auxiliary alarm operations include: extracting the location information of the fire terminal equipment to activate the fire linkage alarm device, and on-site reminder operations.

[0018] Preferably, in the fire terminal equipment access module, the electrical signal triggering system includes a network function module for sending and receiving data packets, a sensor module for monitoring the connection or disconnection of the fire terminal equipment, and a data storage and processing module for data storage and security processing.

[0019] Preferably, the sensor module is one of a light sensor, a connection sensor, and an infrared sensor; based on the sensor module, it detects whether the fire terminal equipment is disconnected. When the disconnection data is detected, the electrical signal triggers the system to send a device disconnection working signal to the central control platform system.

[0020] Preferably, in the central control platform system access module, the data interaction protocol is used to agree on the parsing format of communication data; the central control platform system sets the corresponding control priority for the fire task instruction data and performs security encryption operations based on the data interaction protocol, and the elevator shaft control system identifies the control priority of the received fire task instruction data based on the data interaction protocol and performs data decryption analysis; when the control priority is an unconventional elevator operation control priority, the corresponding fire task is executed based on the fire task instruction obtained by the decryption analysis.

[0021] Preferably, in the fire task instruction sending module, the execution of the corresponding fire task is: after the elevator shaft control system receives the fire task instruction, based on the fire equipment information carried in the instruction, controls the elevator equipment to issue an alarm for executing the fire task, and lifts or lowers the elevator to the floor area corresponding to the position information in a safe manner, and the elevator shaft control system controls the elevator moving door to remain open and in an alarm state; the elevator shaft control system controls the monitoring equipment to collect on-site images, and sends monitoring data to the central control platform system based on the fire communication protocol; the feedback data in the alarm auxiliary alarm module includes the monitoring data, as well as on-site interaction data.

[0022] The present invention discloses a method and system for equipment access to regional intelligent fire protection, which connects fire terminal equipment, a central control platform system, and elevator shaft related functional modules to an existing regional fire protection framework with minor or no changes, and realizes efficient emergency reporting based on the changed fire protection system, so that the fire terminal equipment is integrated into the intelligent fire protection ecosystem based on the electrical signal trigger system, thereby improving the efficiency of fire protection affairs, enriching the intelligent fire protection ecosystem, and reducing the cost of building the intelligent fire protection system, thereby ensuring user experience and fire safety. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 It is a flow chart of a method for device access to regional intelligent fire protection provided by an embodiment of the present invention;

[0024] Figure 2 This is a system composition structure diagram of a device access regional intelligent fire protection provided by an embodiment of the present invention. DETAILED DESCRIPTION

[0025] The present application will be described in detail below in conjunction with the various embodiments shown in the accompanying drawings. However, these embodiments do not limit the present application, and any structural, methodological, or functional changes made by a person of ordinary skill in the art based on these embodiments are all included in the protection scope of the present application.

[0026] The terms "first", "second", "third", "fourth", etc. (if any) in the specification and claims of the present application and the above-mentioned drawings are used to distinguish similar objects, and are not necessarily used to describe a specific order or sequence. It should be understood that the data used in this way can be interchanged where appropriate, so that the embodiments of the present application described herein can be implemented in an order other than those illustrated or described herein, for example. In addition, the terms "including" and "corresponding to" and any of their variations are intended to cover non-exclusive inclusions, for example, a process, method, system, product or device that includes a series of steps or units is not necessarily limited to those steps or units that are clearly listed, but may include other steps or units that are not clearly listed or inherent to these processes, methods, products or devices.

[0027] Embodiment 1: Figure 1 As shown, the present invention provides a device access area intelligent fire protection method, comprising the steps of:

[0028] S100, fire terminal equipment access; connect the fire terminal equipment to the household weak current system through the electrical signal trigger system, and the electrical signal trigger system is used to send an equipment disconnection working signal to the central control platform system when the connection is disconnected; the household weak current system receives the configuration instructions of the upper routing system, allocates a static network address to the electrical signal trigger system, and configures the fire terminal equipment identification at the same time.

[0029] Fire terminal equipment includes traditional fire hydrants, fire extinguishers, emergency equipment, and first aid equipment. With the in-depth development of the concept of smart fire protection, fire terminal equipment also includes new fire terminal equipment containing intelligent modules. Conventional fire terminal equipment has technical barriers in integrating into the smart fire protection ecosystem. The present invention innovatively sets up an electrical signal trigger system to connect the fire terminal equipment to the weak current system in the community / office area based on the electrical signal trigger system, so that the management and maintenance of each fire terminal equipment can be realized based on the remote control platform.

[0030] In one embodiment, in step S100, the electrical signal triggering system includes: a network function module for sending and receiving data packets, a sensor module for monitoring the connection or disconnection of fire terminal equipment, and a data storage and processing module for data storage and security processing. The network function module fixes its static network address and sends / receives network data packets to send working signals, receive management instructions, and receive configuration information; wherein the configuration information at least includes assigning a device flag corresponding to the type of terminal equipment to eliminate the device.

[0031] The state of the fire terminal equipment is detected by the sensor detection module, so as to determine the current management measures according to the state, including sending a working signal to trigger a fire alarm to the remote central control platform system, sending a regular working signal that requires maintenance, care, and inspection, sending an abnormal working signal of an abnormal event, etc. The sensor module is one of a light sensor, a connection sensor, and an infrared sensor; based on the sensor module, whether the fire terminal equipment is disconnected is detected, and when the disconnection data is detected, the electrical signal triggers the system to send a device disconnection working signal to the central control platform system.

[0032] In one embodiment, when an emergency occurs, the user removes the fire terminal device for alarm processing. The light sensor in the electrical signal trigger system detects light input, indicating that the fire terminal device has processed the disconnection state. At this time, an emergency such as a fire may occur. Therefore, the electrical signal trigger system sends a device disconnection work signal based on the light sensor detection result and its network function module.

[0033] In one embodiment, in other cases, the electrical signal trigger system can trigger and send corresponding types of working signals according to the predefined detection results of the sensor. For example, according to the time interval since the last maintenance and inspection of the fire terminal equipment, it can trigger the generation of a regular working signal and send it to the central control platform system for information collection and statistical analysis.

[0034] The prior art also includes new fire terminal equipment that includes intelligent modules (such as display screens / touch screens with data processing functions, and signal receiving and sending functions). For new fire terminal equipment, debugging, configuration, management and other operations usually need to be implemented through third-party tools. Based on the smart fire ecological connection architecture of the present invention, the new fire terminal equipment is connected to the management network based on the expansion interface provided by the electrical signal trigger system to realize the reception of data such as debugging, configuration, and instructions, as well as upward data collection. Through the above-disclosed implementation method, the "last mile" application and management of the smart fire ecosystem is realized, which significantly improves the work and management efficiency of the fire system.

[0035] S110, access to the central control platform system; constructing a fire management route in the central control platform system, the fire management route configuring a static network address for the electrical signal trigger system; the central control platform system is connected to the elevator shaft control system network, and when the central control platform system receives the equipment disconnection signal sent by the electrical signal trigger system, it sends a fire task instruction to trigger the execution of the fire task; the network connection includes a data interaction protocol, and the fire task instruction sent by the central control platform system is identified based on the data interaction protocol.

[0036] The central control platform is a remote control platform for implementing fire protection system management. Typically, it is integrated into monitoring systems such as property departments, security departments, and command departments. In order to grasp the dynamic situation of fire terminal equipment, the central control platform system sets up a fire management route, which configures a static network address for the electrical signal trigger system through the weak current system. Since the electrical signal trigger system and the fire terminal equipment are in a one-to-one correspondence, remote data transmission and reception and configuration can be achieved through the above static network address. The existing equipment in the elevator shaft system is used to serve the fire protection system, and the central control platform system is connected to the elevator shaft control system network. When the central control platform system receives the equipment disconnection signal sent by the electrical signal trigger system, it can send a fire protection task instruction, which is used to implement the fire protection task execution.

[0037] In one embodiment, in step S110, the data interaction protocol is used to agree on the parsing format of communication data; the central control platform system sets the corresponding control priority for the fire task instruction data and performs security encryption operations based on the data interaction protocol, and the elevator shaft control system identifies the control priority of the received fire task instruction data based on the data interaction protocol and performs data decryption analysis; when the control priority is an unconventional elevator operation control priority, the corresponding fire task is executed based on the fire task instruction obtained by the decryption analysis.

[0038] In the prior art, the remote control platform can usually interact with the elevator shaft system, for example, the monitoring video interaction and emergency voice interaction of the elevator shaft system; preferably, the central control platform system can also control the regular operation of the elevator and implement remote system configuration, update and other operations. Implementing fire protection improvements and functional integration based on the existing architecture of the prior art is conducive to cost savings and improving the efficiency of fire protection function integration. In emergencies such as fires, the elevator shaft system has a better task priority to assist in handling emergencies. In the case of higher priority tasks, the elevator routine task operation is suspended to assist in the processing of high priority tasks.

[0039] S120, the central control platform system analyzes the signal sending source address and the device identification of the corresponding fire terminal device based on the device disconnection working signal, determines the device information and location information of the fire terminal device corresponding to the device identification, and at the same time, the central control platform sends a fire task instruction that complies with the fire communication protocol to the elevator shaft control system based on the location information, and displays it in the central control platform system based on the location information and device information;

[0040] When the central control platform system determines the equipment information and location information based on the parsed content of the working signal, it preliminarily analyzes the firefighting task content based on the equipment information, and sends the corresponding firefighting task instructions to the elevator shaft control system based on the location information; relevant information including location information, equipment information, etc. can be displayed on the central control platform for review, control, and management. In a more preferred embodiment, the central control platform draws a three-dimensional BIM synchronization model of the building, which at least contains the node information of the fire terminal equipment; when it is detected that the terminal equipment status has changed, the central control platform synchronizes the changed status to the model and displays it. Through the above method, the staff can intuitively monitor and manage the fire protection system.

[0041] In one embodiment, in step S120, the execution of the corresponding firefighting task is: after receiving the firefighting task instruction, the elevator shaft control system controls the elevator equipment to issue an alarm to execute the firefighting task based on the firefighting equipment information carried in the instruction, and lifts and lowers to the floor area corresponding to the position information in a safe condition, and the elevator shaft control system controls the elevator moving door to remain open and in an alarm state; the elevator shaft control system controls the monitoring equipment to collect the scene picture, and sends the monitoring data to the central control platform system based on the firefighting communication protocol; preferably, the firefighting terminal equipment box is set within the field of vision of the adjacent elevator entrance. When executing a high-priority firefighting task, the information of the base firefighting equipment is related to the firefighting task, so based on the firefighting equipment information carried in the instruction, the elevator equipment is controlled to issue an alarm to execute the firefighting task. In order to maximize the use of elevator equipment to serve firefighting tasks, under safe conditions, the elevator shaft control system controls the elevator lift to the floor area corresponding to the position information and equipment information, and the elevator shaft controls the elevator moving door to remain open and in alarm state. In this state, the video surveillance equipment inside the elevator cabin can collect the scene, and the voice dialogue equipment inside the elevator cabin can interact with the scene by voice. The above video data and voice data are important bases for alarm processing. Data transmission and reception have a higher priority, and can be transmitted safely and preferentially based on the fire communication protocol. The data collected on site can be played and displayed in the central control platform system. In one embodiment, after completing the task of collecting on-site data, the elevator shaft equipment controls the elevator to transfer to a preset safe floor (such as a refuge floor, a negative floor, etc.).

[0042] S130, the central control platform system receives fire task instruction feedback data, prompts the staff to manually review the feedback data, and performs emergency alarm auxiliary alarm operations based on the review results. The auxiliary alarm operations include: extracting the location information of the fire terminal equipment to activate the fire linkage alarm device, and on-site fire reminder operations.

[0043] In one embodiment, the feedback data includes the monitoring data and the on-site interactive data. The staff reviews the collected on-site data, such as interactive data, video surveillance data, etc. If it is determined that it is an accidental touch or a non-fire safety event, the corresponding management measures are implemented; If it is determined to be a fire safety event, based on the review result, the emergency alarm auxiliary alarm operation such as fire is performed, and the extracted location information of the fire terminal equipment and the used equipment information are directly forwarded to the fire linkage alarm device, so as to accurately locate the alarm location and alarm content, and realize safety review and one-key rapid alarm. At the same time, the central control platform can remotely command the on-site personnel to perform emergency treatment or emergency evacuation, or perform other reminder operations through the on-site equipment. The staff review based on the feedback data displayed by the central control platform can further understand the alarm situation and reduce the probability of illegal alarm situations such as accidental touch. In a preferred embodiment, the central control platform can forward the data collected on-site to the remote command system so that the on-site personnel can obtain more professional alarm handling guidance. In one embodiment, if the time interval for prompting the staff to review the feedback data exceeds the first predetermined time period, or the time interval for the staff to not confirm the start of the review operation exceeds the second predetermined time period, the alarm auxiliary alarm operation is directly executed; in one embodiment, if an intelligent detection system is set up, the alarm auxiliary alarm operation is automatically executed based on the detection results of the voice and video data content in the interactive data.

[0044] The present invention discloses a method and system for equipment access to regional intelligent fire protection, which connects fire terminal equipment, a central control platform system, and elevator shaft related functional modules to an existing regional fire protection framework with minor or no changes, and realizes efficient emergency reporting based on the changed fire protection system, so that the fire terminal equipment is integrated into the intelligent fire protection ecosystem based on the electrical signal trigger system, thereby improving the efficiency of fire protection affairs, enriching the intelligent fire protection ecosystem, and reducing the cost of building the intelligent fire protection system, thereby ensuring user experience and fire safety.

[0045] Embodiment 2: Figure 2 As shown, the present application also provides a device access area intelligent fire protection system, including the following modules:

[0046] The fire terminal equipment access module is used to connect the fire terminal equipment to the household weak current system through the electrical signal trigger system. The electrical signal trigger system is used to send a device disconnection work signal to the central control platform system when the connection is disconnected; the household weak current system receives the upper-layer routing system configuration instruction, allocates a static network address to the electrical signal trigger system, and configures the fire terminal equipment identification at the same time;

[0047] Central control platform system access module; used to construct a fire management route in the central control platform system, the fire management route is configured with a static network address for the electrical signal trigger system; the central control platform system is connected to the elevator shaft control system network, and when the central control platform system receives the device disconnection signal sent by the electrical signal trigger system, it sends a fire task instruction to trigger the execution of the fire task; the network connection includes a data interaction protocol, and the fire task instruction sent by the central control platform system is identified based on the data interaction protocol;

[0048] The fire task instruction sending module enables the central control platform system to parse the signal sending source address and the device identification of the corresponding fire terminal device based on the device disconnection work signal, and determine the device information and location information of the fire terminal device corresponding to the device identification. At the same time, the central control platform sends the fire task instruction that complies with the fire communication protocol to the elevator shaft control system based on the location information, and displays it in the central control platform system based on the location information and device information;

[0049] The auxiliary alarm module enables the central control platform system to receive fire task instruction feedback data, prompts management personnel to manually review the feedback data, and executes emergency alarm auxiliary alarm operations based on the review results. The auxiliary alarm operations include: extracting the location information of the fire terminal equipment to activate the fire linkage alarm device, and on-site reminder operations.

[0050] In one embodiment, in the fire terminal equipment access module, the electrical signal triggering system includes a network function module for sending and receiving data packets, a sensor module for monitoring the connection or disconnection of the fire terminal equipment, and a data storage and processing module for data storage and security processing.

[0051] In one embodiment, the sensor module is one of a light sensor, a connection sensor, and an infrared sensor; based on the sensor module, it detects whether the fire terminal equipment is disconnected. When the disconnection data is detected, the electrical signal triggers the system to send a device disconnection working signal to the central control platform system.

[0052] In one embodiment, in the central control platform system access module, the data interaction protocol is used to agree on the parsing format of communication data; the central control platform system sets the corresponding control priority for the fire task instruction data and performs security encryption operations based on the data interaction protocol, and the elevator shaft control system identifies the control priority of the received fire task instruction data based on the data interaction protocol and performs data decryption analysis; when the control priority is an unconventional elevator operation control priority, the corresponding fire task is executed based on the fire task instruction obtained by the decryption analysis.

[0053] In one embodiment, in the fire task instruction sending module, the execution of the corresponding fire task is: after the elevator shaft control system receives the fire task instruction, based on the fire equipment information carried in the instruction, controls the elevator equipment to issue an alarm to execute the fire task, and lifts or lowers to the floor area corresponding to the position information in a safe manner, and the elevator shaft control system controls the elevator moving door to remain open and in an alarm state; the elevator shaft control system controls the monitoring equipment to collect on-site images, and sends monitoring data to the central control platform system based on the fire communication protocol; the feedback data in the alarm auxiliary alarm module includes the monitoring data, as well as on-site interaction data.

[0054] The program code read from the machine-readable medium itself can realize the function of any one of the above embodiments, so the machine-readable code and the machine-readable storage medium storing the machine-readable code constitute a part of this specification.

[0055] Examples of readable storage media include floppy disks, hard disks, magneto-optical disks, optical disks (such as CD-ROM, CD-R, CD-RW, DVD-ROM, DVD-RAM, DVD-RW, DVD-RW), magnetic tapes, non-volatile memory cards, and ROMs. Optionally, the program code may be downloaded from a server computer or a cloud via a communication network.

[0056] Those skilled in the art should understand that the various embodiments disclosed above can be modified and altered in various ways without departing from the essence of the invention. Therefore, the protection scope of this specification should be defined by the appended claims.

[0057] It should be noted that not all steps and units in the above-mentioned processes and system structure diagrams are necessary, and some steps or units can be ignored according to actual needs. The execution order of each step is not fixed and can be determined as needed. The device structure described in the above-mentioned embodiments can be a physical structure or a logical structure, that is, some units may be implemented by the same physical client, or some units may be implemented by multiple physical clients, or some components in multiple independent devices may be implemented together.

[0058] In the above embodiments, the hardware unit or module can be implemented mechanically or electrically. For example, a hardware unit, module or processor can include permanent dedicated circuits or logic (such as special processors, FPGA or ASIC) to complete the corresponding operation. The hardware unit or processor can also include programmable logic or circuits (such as general-purpose processors or other programmable processors), which can be temporarily set by software to complete the corresponding operation. The specific implementation method (mechanical method, or dedicated permanent circuit, or temporarily set circuit) can be determined based on cost and time considerations.

[0059] The specific embodiments described above in conjunction with the accompanying drawings describe exemplary embodiments, but do not represent all embodiments that can be implemented or fall within the scope of protection of the claims. The term "exemplary" used throughout this specification means "used as an example, instance or illustration" and does not mean "preferred" or "having advantages" over other embodiments. For the purpose of providing an understanding of the described technology, the specific embodiments include specific details. However, these technologies can be implemented without these specific details. In some instances, in order to avoid making the concepts of the described embodiments difficult to understand, well-known structures and devices are shown in block diagram form.

[0060] The above description of the present disclosure is provided to enable any person of ordinary skill in the art to implement or use the present disclosure. Various modifications to the present disclosure will be apparent to those of ordinary skill in the art, and the general principles corresponding to the present disclosure may be applied to other variations without departing from the scope of protection of the present disclosure. Therefore, the present disclosure is not limited to the examples and designs described herein, but is consistent with the widest range of principles and novel features disclosed herein.

Claims

1. A device access area intelligent fire protection method, characterized in that: Contains steps: S100, fire terminal equipment access; connect the fire terminal equipment to the household weak current system through the electrical signal trigger system, and the electrical signal trigger system is used to send a device disconnection work signal to the central control platform system when the connection is disconnected; the household weak current system receives the upper-layer routing system configuration instruction, allocates a static network address to the electrical signal trigger system, and configures the fire terminal equipment identification at the same time; S110, access to the central control platform system; constructing a fire management route in the central control platform system, wherein the fire management route configures a static network address for the electrical signal trigger system; the central control platform system is connected to the elevator shaft control system network, and when the central control platform system receives a device disconnection signal sent by the electrical signal trigger system, it sends a fire task instruction to trigger the execution of the fire task; The network connection includes a data interaction protocol, and the firefighting task instruction sent by the central control platform system is identified based on the data interaction protocol; S120, the central control platform system analyzes the signal sending source address and the device identification of the corresponding fire terminal device based on the device disconnection working signal, determines the device information and location information of the fire terminal device corresponding to the device identification, and at the same time, the central control platform sends a fire task instruction that complies with the fire communication protocol to the elevator shaft control system based on the location information, and displays it in the central control platform system based on the location information and device information; S130, the central control platform system receives the fire task instruction feedback data, prompts the management personnel to manually review the feedback data, and performs the emergency alarm auxiliary alarm operation based on the review result, the auxiliary alarm operation includes: extracting the location information of the fire terminal equipment to start the fire linkage alarm device, and the on-site reminder operation; The electrical signal trigger system includes: a network function module for sending and receiving data packets, a sensor module for monitoring the connection or disconnection of fire terminal equipment, and a data storage and processing module for data storage and security processing; the network function module fixes its static network address and sends / receives network data packets to send working signals, receive management instructions, and receive configuration information; the feedback data includes the monitoring data and on-site interaction data.

2. According to claim 1, a device access area intelligent fire protection method is characterized in that: In step S100, the electrical signal triggering system includes a network function module for sending and receiving data packets, a sensor module for monitoring the connection or disconnection of fire terminal equipment, and a data storage and processing module for data storage and security processing.

3. According to claim 2, a device access area intelligent fire protection method is characterized in that: The sensor module is one of a light sensor, a connection sensor, and an infrared sensor; based on the sensor module, it detects whether the fire terminal equipment is disconnected. When the disconnection data is detected, the electrical signal triggers the system to send a device disconnection working signal to the central control platform system.

4. According to claim 1, a device access area intelligent fire protection method is characterized in that: In step S110, the data interaction protocol is used to agree on the parsing format of communication data; the central control platform system sets the corresponding control priority for the fire task instruction data and performs security encryption operations based on the data interaction protocol, and the elevator shaft control system identifies the control priority of the received fire task instruction data based on the data interaction protocol and performs data decryption analysis; when the control priority is an unconventional elevator operation control priority, the corresponding fire task is executed based on the fire task instruction obtained by the decryption analysis.

5. A device access area intelligent fire protection method according to claim 4, characterized in that: In the step S120, the execution of the corresponding firefighting task is: after the elevator shaft control system receives the firefighting task instruction, based on the firefighting equipment information carried in the instruction, it controls the elevator equipment to issue an alarm for executing the firefighting task, and lifts or lowers the elevator to the floor area corresponding to the position information in a safe manner, and the elevator shaft control system controls the elevator moving door to remain open and in an alarm state; the elevator shaft control system controls the monitoring equipment to collect on-site images, and sends monitoring data to the central control platform system based on the firefighting communication protocol; the feedback data in the step S130 includes the monitoring data, as well as on-site interaction data.

6. A device access regional intelligent fire protection system, characterized in that: It includes the following modules: a fire terminal equipment access module, which is used to connect the fire terminal equipment to the household weak current system through the electrical signal trigger system, and the electrical signal trigger system is used to send a device disconnection work signal to the central control platform system when the connection is disconnected; the household weak current system receives the upper-layer routing system configuration instruction, allocates a static network address to the electrical signal trigger system, and configures the fire terminal equipment identification at the same time; Central control platform system access module; used to construct a fire management route in the central control platform system, the fire management route is configured with a static network address for the electrical signal trigger system; the central control platform system is connected to the elevator shaft control system network, and when the central control platform system receives the device disconnection signal sent by the electrical signal trigger system, it sends a fire task instruction to trigger the execution of the fire task; the network connection includes a data interaction protocol, and the fire task instruction sent by the central control platform system is identified based on the data interaction protocol; The fire task instruction sending module enables the central control platform system to parse the signal sending source address and the device identification of the corresponding fire terminal device based on the device disconnection work signal, and determine the device information and location information of the fire terminal device corresponding to the device identification. At the same time, the central control platform sends the fire task instruction that complies with the fire communication protocol to the elevator shaft control system based on the location information, and displays it in the central control platform system based on the location information and device information; The alarm auxiliary alarm module enables the central control platform system to receive fire task instruction feedback data, prompts the management personnel to manually review the feedback data, and performs emergency alarm auxiliary alarm operations based on the review results. The auxiliary alarm operations include: extracting the location information of the fire terminal equipment to start the fire linkage alarm device, and on-site reminder operations; The electrical signal trigger system includes: a network function module for sending and receiving data packets, a sensor module for monitoring the connection or disconnection of fire terminal equipment, and a data storage and processing module for data storage and security processing; the network function module fixes its static network address and sends / receives network data packets to send working signals, receive management instructions, and receive configuration information; the feedback data includes the monitoring data and on-site interaction data.

7. The device access area intelligent fire protection system according to claim 6, characterized in that: In the fire terminal equipment access module, the electrical signal triggering system includes a network function module for sending and receiving data packets, a sensor module for monitoring the connection or disconnection of the fire terminal equipment, and a data storage and processing module for data storage and security processing.

8. The device access area intelligent fire protection system according to claim 7, characterized in that: The sensor module is one of a light sensor, a connection sensor, and an infrared sensor; based on the sensor module, it detects whether the fire terminal equipment is disconnected. When the disconnection data is detected, the electrical signal triggers the system to send a device disconnection working signal to the central control platform system.

9. The device access area intelligent fire protection system according to claim 6, characterized in that: In the central control platform system access module, the data interaction protocol is used to agree on the parsing format of communication data; the central control platform system sets the corresponding control priority for the fire task instruction data and performs security encryption operations based on the data interaction protocol, and the elevator shaft control system identifies the control priority of the received fire task instruction data based on the data interaction protocol and performs data decryption analysis; when the control priority is an unconventional elevator operation control priority, the corresponding fire task is executed based on the fire task instruction obtained by the decryption analysis.

10. The device access area intelligent fire protection system according to claim 6, characterized in that: In the fire task instruction sending module, the corresponding fire task is executed as follows: after the elevator shaft control system receives the fire task instruction, based on the fire equipment information carried in the instruction, it controls the elevator equipment to issue an alarm to execute the fire task, and lifts or lowers the elevator to the floor area corresponding to the position information in a safe manner, and the elevator shaft control system controls the elevator moving door to remain open and in an alarm state; the elevator shaft control system controls the monitoring equipment to collect on-site images, and sends monitoring data to the central control platform system based on the fire communication protocol; the feedback data in the alarm auxiliary alarm module includes the monitoring data, as well as on-site interaction data.

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