Off-bank type self-service bank intelligent fire-fighting monitoring and control method

Abstract

The invention discloses a smart fire-fighting monitoring and control method for an off-bank self-service bank. A system adopted by applying the method comprises a host, and an equipment module, a data acquisition module, a storage module, a control module and a user interface module which are installed in the host and electrically connected; the method comprises the following steps: installing and initializing equipment; environment data are monitored in real time; timed data acquisition and storage; automatic control and alarm generation; checking and maintaining equipment information; the off-bank self-service bank equipment room environment intelligent monitoring and management system has the technical characteristics that the environment intelligent monitoring and management of the off-bank self-service bank equipment room can be realized, the environment safety and the energy utilization efficiency of the equipment room are improved, and the system is suitable for the off-bank self-service bank equipment room with strict environment requirements.

Description

Technical Field

[0001] The present invention relates to a fire monitoring and control method, and more specifically, to an off-bank self-service bank intelligent fire monitoring and control method, belonging to the field of intelligent monitoring and control. Background Art

[0002] With the booming banking industry, environmental protection of off-site self-service banking equipment rooms has become a key link in ensuring the stable operation of banking business, among which air conditioning management and control plays a vital role in fire safety. However, the existing air conditioning management and control methods for off-site self-service banking equipment rooms have many serious drawbacks and are difficult to meet the high requirements for environmental safety of equipment rooms.

[0003] 1. Defects in air conditioning control methods

[0004] 1.1 Lack of automatic control capabilities

[0005] Usually, the air conditioning control in such places seriously lacks effective automatic means and is highly dependent on manual operation. The staff can only turn on and off the air conditioning and adjust the temperature based on experience or fixed schedules, and cannot accurately control the environment according to the real-time needs of the equipment.

[0006] 1.2 A series of questions raised

[0007] Energy waste and uncontrolled temperature and humidity: Since the air conditioner cannot automatically adjust according to the actual changes in temperature and humidity, it often continues to work when it is not needed, resulting in a lot of energy waste. When the ambient temperature and humidity change, it cannot be adjusted in time, causing the temperature and humidity between the equipment to easily exceed the appropriate range, seriously affecting the normal operation and service life of the equipment.

[0008] 1.3 Inefficient management and insufficient emergency response: Manual management is extremely inefficient and it is difficult to achieve 24-hour precise control. Once sudden changes in temperature and humidity or other abnormal conditions occur, it is impossible to respond in time, which significantly increases the risk of equipment failure and subsequent maintenance costs.

[0009] 2. Safety hazards caused by air conditioning operation

[0010] 2.1 Risk of overloading of air conditioning equipment

[0011] Off-site self-service banking equipment rooms usually use ordinary air conditioners, while non-industrial-grade air conditioners may be overloaded or overheated when running continuously for a long time. This abnormal state of the air conditioner unit increases the fire hazard in the self-service banking equipment room. For example, overloaded air conditioners may cause temperature rise or even fire, posing a serious threat to the safety of the equipment room, and thus endangering the normal operation of bank equipment and business continuity.

[0012] 2.2 Risk of water leakage in air conditioner

[0013] Frequent water leakage incidents: Water leakage incidents are more likely to occur during the rainy season or due to dripping, condensation water leakage, etc. of the air conditioner itself.

[0014] Lack of effective monitoring and treatment methods: Traditional self-service bank equipment rooms generally lack real-time monitoring and effective protection measures for water leakage risks, and mainly rely on manual inspections. This method often makes it difficult to detect and handle water leakage problems in a timely manner, resulting in excessive humidity in the equipment room, direct damage to the equipment, increased risks of equipment damage, data loss, and high maintenance costs, and may even cause significant economic losses.

[0015] 3. Cybersecurity risks

[0016] It is not difficult to remotely control air conditioners in the existing technology, but off-site self-service banks, as financial service venues, have extremely high security requirements for equipment. Some traditional air conditioner control methods may rely on external networks or complex communication protocols, which have security loopholes and are vulnerable to network attacks or interference, affecting the normal operation of the air conditioning system, and thus posing a threat to the overall security of the self-service bank equipment room.

[0017] To sum up, it has become an urgent need to develop an intelligent fire monitoring and control system that can realize real-time environmental perception between devices (including temperature, humidity and water leakage), automatic control of air conditioning, and effective prevention of fire hazards, so as to comprehensively ensure the environmental safety of equipment rooms and ensure the stable development of banking business. Summary of the invention

[0018] In order to solve the above-mentioned problems of the prior art, the present invention provides an off-site self-service bank intelligent fire protection monitoring and control method, which has the technical characteristics of being able to realize intelligent monitoring and management of the environment between off-site self-service bank equipment rooms, improving the environmental safety and energy utilization efficiency between equipment rooms, and being suitable for off-site self-service bank equipment rooms with strict environmental requirements.

[0019] In order to achieve the above object, the present invention is implemented by the following technical solutions:

[0020] The present invention discloses an off-line self-service bank intelligent fire protection monitoring and control method. The system used in the method includes a host, a device module installed in the host and electrically connected, a data acquisition module, a storage module, a control module and a user interface module. The method includes the following steps:

[0021] Step S1: equipment installation and initialization;

[0022] Step S2: Real-time monitoring of environmental data;

[0023] Step S3: regular data collection and storage;

[0024] Step S4: automatic control and alarm generation;

[0025] Step S5: Check and maintain equipment information;

[0026] Step S6: abnormal alarm processing.

[0027] Preferably, step S1 specifically includes:

[0028] S101: Install an infrared transmitter and a water leakage detection rope on the system host. The infrared transmitter is fixed to the cabinet of the system host using a magnetic device. The infrared transmitter is aimed at the air conditioner in the equipment room to be monitored and the air conditioner is connected to the control module for communication. The water leakage detection rope is laid on the floor of the equipment room where water leakage is likely to occur.

[0029] S102: Device initialization: Write the device initialization program according to actual needs, set the device IP, subnet mask, and gateway address; for safety reasons, close the HTTP service and only retain a TCP service for receiving and responding to control instructions;

[0030] S103: Infrared command learning: Through the infrared learning function, the system can learn the infrared remote control commands of the air conditioner and save them to the storage module of the device; this function enables the system to independently control air conditioners of different brands and models.

[0031] Preferably, step S2 specifically includes:

[0032] S201: Equipment module environmental data collection: The temperature and humidity sensors in the equipment module monitor the temperature and humidity conditions between the equipment in real time. The temperature and humidity sensors can accurately measure the temperature and humidity values ​​of the environment in real time;

[0033] S202: Water leakage monitoring: The water leakage sensor in the equipment module detects in real time whether there is water leakage in the equipment room. If water leakage occurs, the water leakage sensor will immediately feedback the water leakage signal.

[0034] Preferably, step S3 specifically includes:

[0035] The data acquisition module periodically requests temperature, humidity and water leakage data from the equipment module, and the equipment module returns real-time temperature, humidity and water leakage data and writes the data into the system database; each recorded data is timestamped for subsequent query and analysis. This module ensures the real-time, integrity and traceability of temperature and humidity data.

[0036] Preferably, step S4 specifically includes:

[0037] S401: Scheduled task scheduling; the control module regularly queries the latest temperature and humidity data of the equipment in the database, and executes the air conditioning control instructions according to the preset scheduled tasks; for example, the system can be set to turn off the air conditioning for one hour every morning when the temperature is low to save energy;

[0038] S402: Automatic control strategy: According to the preset threshold and alarm processing strategy, the system can automatically execute the air conditioning control command:

[0039] When the temperature is higher than the set threshold, the air conditioning cooling function is automatically turned on. If the cooling function is already turned on and the air conditioning temperature is >20 degrees, the air conditioning temperature is lowered by 2 degrees. If the cooling function is already turned on and the temperature is lower than or equal to 20 degrees, the cooling effect is considered to be poor and cannot be automatically processed. The system sends a text message alarm to the equipment maintenance personnel.

[0040] When the humidity is higher than the set threshold, the air conditioning dehumidification function is automatically activated;

[0041] When the water leakage alarm is triggered, the system immediately sends an alarm SMS to the maintenance personnel;

[0042] S403: Alarm generation and log recording: During the execution of the automatic control strategy, the system will generate a detailed alarm log, including the alarm type, timestamp, and device ID information, and store it in the database;

[0043] S404: Manual intervention and SMS alarm: If the automatic control strategy cannot handle the problem (for example, the temperature is too high, the water leakage problem is not solved, etc.), the system will send a SMS alarm to the designated equipment maintenance personnel to inform them of the specific situation of the problem and request them to handle it as soon as possible.

[0044] Preferably, step S5 specifically includes:

[0045] S501: Device status query: Through the screen user interface in the user interface module, the administrator and authorized users can view the real-time status information of the device, including temperature and humidity, water leakage, air conditioning operation status, and alarm records;

[0046] S502: Device information management: The user can manage the device information, such as adding a new device, modifying the device name, device type, etc. When adding a new device, the user needs to set the device's automation control strategy and bind the device's maintenance personnel.

[0047] S503: Device authority management: Users with different authorities can view or modify device information according to their roles. For example, administrators have the authority to change device information and set automation control policies, while ordinary users can only view device status information.

[0048] Preferably, step S6 specifically includes:

[0049] S601: Alarm processing authority: The equipment maintenance personnel or designated users have the authority to process alarms. When the equipment generates an alarm, the system sends the alarm information to the maintenance personnel via SMS and displays the alarm information on the user interface.

[0050] S602: Fill in the alarm record: After receiving the alarm information, the user needs to fill in the processing record on the web interface, including the processing measures and processing time information; after filling in, the alarm information status will be updated to processed and recorded in the system for subsequent query and analysis;

[0051] S603: Alarm data backtracking: All alarm records and processing processes will be stored in the database. The system supports backtracking analysis of alarm events to help analyze the causes of equipment failures and optimize control strategies.

[0052] Preferably, the device module uses the temperature and humidity transmitter YDL-NTH. The device model is Yundir temperature and humidity transmitter YDL-NTH, which includes temperature and humidity and water leakage detection, as well as infrared remote control functions. It is connected to the network via Ethernet, has WEB service and TCP service, and can remotely read device data or send instructions through the network;

[0053] Data acquisition module: The data acquisition module is responsible for sending TCP commands to the equipment module to query temperature and humidity data at regular intervals, receiving temperature, humidity and water leakage data transmitted by the equipment module, and writing the data into the time series database to provide historical data support for subsequent data analysis, judgment and control; the data acquisition module includes scheduled task scheduling and database interface to ensure timely and stable recording of data.

[0054] Control module: The control module periodically reads the latest equipment data from the database. If any data triggers a threshold alarm, the alarm log is displayed in the monitoring and alarm center module, and automatic control is attempted according to the control strategy. If it exceeds the automatic control range, a text message alarm message is sent to the equipment maintenance personnel.

[0055] Preferably, the equipment module includes an electrically connected temperature and humidity sensor submodule, an infrared remote control submodule, and a water leakage detection submodule; the equipment module performs real-time monitoring of the equipment room environmental data, and receives, responds to, and executes control instructions; the temperature and humidity sensor submodule monitors the environmental status of the equipment room in real time, and sends the collected data to the data acquisition module via TCP messages; the infrared remote control submodule is used to receive control instructions and control the air conditioner, including the start and stop of the air conditioner and mode switching operations; the water leakage detection submodule is used to detect whether there is water leakage in the ground area.

[0056] Preferably, the user interface module includes a device status and information management module, a monitoring alarm center module, and a user management module;

[0057] Among them, the equipment status and information management module: displays the real-time temperature, humidity and water leakage of the equipment, the organization where the equipment is located, the equipment address, and the equipment maintainer information, and can remotely control the equipment; the monitoring and alarm center module: lists the historical alarm records of all devices within the user's authority range, and handles alarms as needed; the user management module: due to the large number of off-site self-service banking points, multi-user hierarchical management is required. This module is used to perform hierarchical management of users with different permissions, limit the user's operating scope, and clarify the division of responsibilities to ensure the security and controllability of the system.

[0058] Beneficial effects: Improve the safety and suitability of the equipment (room) environment: The present invention can fully grasp the environmental conditions of the equipment room through functions such as temperature and humidity monitoring and water leakage detection, and ensure that the air conditioning and environmental parameters are within the appropriate range. The system can automatically issue an alarm when the temperature, humidity or water leakage exceeds the standard, reminding maintenance personnel to take measures, thereby effectively preventing environmental anomalies that may affect the operation of the equipment.

[0059] Reduce energy waste and improve air conditioning management efficiency: This system collects and analyzes temperature and humidity data in real time, intelligently controls the operation of air conditioners according to environmental requirements, and avoids the air conditioners from continuing to operate when not needed, thereby reducing energy consumption. At the same time, the system also supports scheduled tasks and automation strategies, which improves the overall efficiency of air conditioning management and reduces the management costs caused by manual operations.

[0060] Reduce fire hazards and improve safety protection capabilities: This invention aims to address the overheating risks that may be caused by long-term continuous operation of the air conditioner, and provides functions such as automatic shutdown and alarm when the temperature exceeds the standard, to prevent the continuous increase in the temperature between the equipment rooms from causing fires. At the same time, the system has a built-in water leakage detection function, which can promptly detect water leakage problems between equipment rooms and issue an alarm, reducing potential fire hazards between equipment rooms and ensuring the safety of equipment and data.

[0061] Support remote monitoring and hierarchical management to improve the controllability and refinement of management: The user interface module supports remote real-time status viewing of equipment, alarm processing records and other functions, allowing managers to obtain equipment information at any location, improving management flexibility and efficiency. In addition, the system supports hierarchical authority management, which can finely divide the authority of different users to avoid misoperation and ensure the security and controllability of management.

[0062] Enhance the stability and traceability of the system: This system uses a scheduled task scheduling mechanism to ensure the timeliness and stability of data collection, and records all environmental data and alarm information with timestamps in the database to facilitate subsequent query and analysis by managers. The system's automated strategy and log records make the operation process clear and traceable, reduce manual dependence, and improve system reliability.

[0063] Improve the timeliness of equipment failure processing: When environmental parameters exceed the set range or equipment fails, the system can immediately issue an alarm message and automatically handle it according to the alarm strategy. At the same time, the equipment maintenance personnel are notified through SMS alarms, so that abnormal situations can be responded to and handled in a timely manner, reducing equipment failure time and ensuring the continuity of banking business. BRIEF DESCRIPTION OF THE DRAWINGS

[0064] Figure 1 It is a schematic diagram of the overall process of the present invention.

[0065] Figure 2 It is one of the partial flow diagrams of the present invention.

[0066] Figure 3 This is the second schematic diagram of the partial flow chart of the present invention. DETAILED DESCRIPTION

[0067] The present invention will be further described below in conjunction with the accompanying drawings, but the present invention is not limited to the following embodiments.

[0068] The present invention realizes intelligent environmental monitoring and management of off-site self-service banking equipment rooms, improves environmental safety and energy efficiency of equipment rooms, is suitable for off-site self-service banking equipment rooms with strict environmental requirements, and provides a reference for intelligent management of the industry.

[0069] like Figure 1-3 The figure shows a specific embodiment of an off-line self-service bank intelligent fire monitoring and control method. The embodiment is an off-line self-service bank intelligent fire monitoring and control method. The system used in the method includes a host and a device module installed in the host and electrically connected, a data acquisition module, a storage module, a control module and a user interface module; the device module uses a temperature and humidity transmitter YDL-NTH. The temperature and humidity transmitter YDL-NTH is a Yundil temperature and humidity transmitter, which includes temperature and humidity and water leakage detection, as well as infrared remote control functions. It is connected to the network via Ethernet, has WEB services and TCP services, and can remotely read device data or send instructions through the network;

[0070] Data acquisition module: The data acquisition module is responsible for sending TCP commands to the equipment module to query temperature and humidity data at regular intervals, receiving temperature, humidity and water leakage data transmitted by the equipment module, and writing the data into the time series database to provide historical data support for subsequent data analysis, judgment and control; the data acquisition module includes scheduled task scheduling and database interface to ensure timely and stable recording of data.

[0071] Control module: The control module periodically reads the latest equipment data from the database. If any data triggers a threshold alarm, the alarm log is displayed in the monitoring and alarm center module, and automatic control is attempted according to the control strategy. If it exceeds the automatic control range, a text message alarm message is sent to the equipment maintenance personnel.

[0072] The equipment module includes an electrically connected temperature and humidity sensor submodule, an infrared remote control submodule, and a water leakage detection submodule; the equipment module performs real-time monitoring of the equipment room environment data, and receives, responds to, and executes control instructions; the temperature and humidity sensor submodule monitors the environmental status of the equipment room in real time, and sends the collected data to the data acquisition module via TCP messages; the infrared remote control submodule is used to receive control instructions and control the air conditioner, including the start and stop of the air conditioner and mode switching operations; the water leakage detection submodule is used to detect whether there is water leakage in the ground area.

[0073] The user interface module includes an equipment status and information management module, a monitoring and alarm center module, a user management module, and a screen for display; among them, the equipment status and information management module: displays the real-time temperature, humidity and water leakage conditions of the equipment, the organization where the equipment is located, the equipment address, and the equipment maintainer information, and can remotely control the equipment; the monitoring and alarm center module: lists the historical alarm records of all devices within the user's authority range, and handles alarms as needed; the user management module: due to the large number of off-site self-service banking points, multi-user hierarchical management is required. This module is used to perform hierarchical management of users with different permissions, limit the user's operating scope, and clarify the division of responsibilities to ensure the security and controllability of the system.

[0074] The present invention provides an off-line self-service bank intelligent fire protection monitoring and control method, the method comprising the following steps:

[0075] Step S1: Equipment installation and initialization; specifically including:

[0076] S101: Install an infrared transmitter and a water leakage detection rope on the system host. The infrared transmitter is fixed to the cabinet of the system host using a magnetic device. The infrared transmitter is aimed at the air conditioner in the equipment room to be monitored and the air conditioner is connected to the control module for communication. The water leakage detection rope is laid on the floor of the equipment room where water leakage is likely to occur.

[0077] S102: Device initialization: Write a device initialization program according to actual needs (this application does not limit the specific code execution commands, etc.), set the device IP, subnet mask, and gateway address; for security reasons, close the HTTP service, and only retain a TCP service for receiving and responding to control instructions;

[0078] S103: Infrared command learning: Through the infrared learning function, the system can learn the infrared remote control commands of the air conditioner and save them to the storage module of the device; this function enables the system to independently control air conditioners of different brands and models.

[0079] Step S2: Real-time monitoring of environmental data; specifically including:

[0080] S201: Equipment module environmental data collection: The temperature and humidity sensors in the equipment module monitor the temperature and humidity conditions between the equipment in real time. The temperature and humidity sensors can accurately measure the temperature and humidity values ​​of the environment in real time;

[0081] S202: Water leakage monitoring: The water leakage sensor in the equipment module detects in real time whether there is water leakage in the equipment room. If water leakage occurs, the water leakage sensor will immediately feedback the water leakage signal.

[0082] Step S3: regular data collection and storage; specifically including:

[0083] The data acquisition module periodically requests temperature, humidity and water leakage data from the equipment module, and the equipment module returns real-time temperature, humidity and water leakage data and writes the data into the system database; each recorded data is timestamped for subsequent query and analysis. This module ensures the real-time, integrity and traceability of temperature and humidity data.

[0084] Step S4: Automatic control and alarm generation; specifically including:

[0085] S401: Scheduled task scheduling; the control module regularly queries the latest temperature and humidity data of the equipment in the database, and executes the air conditioning control instructions according to the preset scheduled tasks; for example, the system can be set to turn off the air conditioning for one hour every morning when the temperature is low to save energy;

[0086] S402: Automatic control strategy: According to the preset threshold and alarm processing strategy, the system can automatically execute the air conditioning control command:

[0087] When the temperature is higher than the set threshold, the air conditioning cooling function is automatically turned on. If the cooling function is already turned on and the air conditioning temperature is >20 degrees, the air conditioning temperature is lowered by 2 degrees. If the cooling function is already turned on and the temperature is lower than or equal to 20 degrees, the cooling effect is considered to be poor and cannot be automatically processed. The system sends a text message alarm to the equipment maintenance personnel.

[0088] When the humidity is higher than the set threshold, the air conditioning dehumidification function is automatically activated;

[0089] When the water leakage alarm is triggered, the system immediately sends an alarm SMS to the maintenance personnel;

[0090] S403: Alarm generation and log recording: During the execution of the automatic control strategy, the system will generate a detailed alarm log, including the alarm type, timestamp, and device ID information, and store it in the database;

[0091] S404: Manual intervention and SMS alarm: If the automatic control strategy cannot handle the problem (for example, the temperature is too high, the water leakage problem is not solved, etc.), the system will send a SMS alarm to the designated equipment maintenance personnel to inform them of the specific situation of the problem and request them to handle it as soon as possible.

[0092] Step S5: Check and maintain device information; specifically including:

[0093] S501: Device status query: Through the screen user interface in the user interface module, the administrator and authorized users (specifically, it can be realized through the authorized ID) can view the real-time status information of the device, including temperature and humidity, water leakage, air conditioning operation status, and alarm records;

[0094] S502: Device information management: The user can manage the device information, such as adding a new device, modifying the device name, device type, etc. When adding a new device, the user needs to set the device's automation control strategy and bind the device's maintenance personnel.

[0095] S503: Device authority management: Users with different authorities can view or modify device information according to their roles. For example, administrators have the authority to change device information and set automation control policies, while ordinary users can only view device status information.

[0096] Step S6: abnormal alarm processing. Specifically including:

[0097] S601: Alarm processing authority; the equipment maintenance personnel or designated users have the authority to process alarms (specifically, this can be achieved through the authorization ID). When the equipment generates an alarm, the system sends the alarm information to the maintenance personnel via SMS and displays the alarm information on the user interface;

[0098] S602: Fill in the alarm record: After receiving the alarm information, the user needs to fill in the processing record on the web interface, including the processing measures and processing time information; after filling in, the alarm information status will be updated to processed and recorded in the system for subsequent query and analysis;

[0099] S603: Alarm data backtracking: All alarm records and processing processes will be stored in the database. The system supports backtracking analysis of alarm events to help analyze the causes of equipment failures and optimize control strategies.

[0100] Finally, it should be noted that the present invention is not limited to the above embodiments, and there are many variations. All variations that can be directly derived or associated with the content disclosed by ordinary technicians in this field should be considered as the protection scope of the present invention.

Claims

1. An off-line self-service bank intelligent fire monitoring and control method, characterized by: The system used in the application of the method includes a host and a device module, a data acquisition module, a storage module, a control module and a user interface module installed in the host and electrically connected; the method includes the following steps: Step S1: equipment installation and initialization; Step S2: Real-time monitoring of environmental data; Step S3: regular data collection and storage; Step S4: automatic control and alarm generation; Step S5: Check and maintain equipment information; Step S6: abnormal alarm processing.

2. The off-bank self-service bank intelligent fire monitoring and control method according to claim 1 is characterized by: Step S1 specifically includes: S101: Install an infrared transmitter and a water leakage detection rope on the system host. The infrared transmitter is fixed on the cabinet of the system host using a magnetic device. The infrared transmitter is aimed at the air conditioner in the equipment room to be monitored and the air conditioner is connected to the control module for communication. The water leakage detection rope is laid on the floor of the equipment room. S102: Device initialization: Write the device initialization program according to actual needs, set the device IP, subnet mask, and gateway address; S103: Infrared command learning: Through the infrared learning function, the system can learn the infrared remote control commands of the air conditioner and save them in the storage module of the device.

3. The off-bank self-service bank intelligent fire monitoring and control method according to claim 1 or 2, characterized in that: Step S2 specifically includes: S201: Equipment module environmental data collection: The temperature and humidity sensors in the equipment module monitor the temperature and humidity conditions between the equipment in real time. The temperature and humidity sensors can accurately measure the temperature and humidity values ​​of the environment in real time; S202: Water leakage monitoring: The water leakage sensor in the equipment module detects in real time whether there is water leakage in the equipment room. If water leakage occurs, the water leakage sensor will immediately feedback the water leakage signal.

4. The off-bank self-service bank intelligent fire monitoring and control method according to claim 1 is characterized by: Step S3 specifically includes: The data acquisition module periodically requests temperature, humidity and water leakage data from the equipment module. The equipment module returns real-time temperature, humidity and water leakage data and writes the data into the system database. Each recorded data is timestamped for subsequent query and analysis.

5. The off-bank self-service bank intelligent fire monitoring and control method according to claim 2 is characterized by: Step S4 specifically includes: S401: Scheduled task scheduling; the control module regularly queries the latest temperature and humidity data of the equipment in the database, and executes the air conditioning control instructions according to the preset scheduled tasks; S402: Automatic control strategy: According to the preset threshold and alarm processing strategy, the system can automatically execute the air conditioning control command: When the temperature is higher than the set threshold, the air conditioning cooling function is automatically turned on. If the cooling function is already turned on and the air conditioning temperature is >20 degrees, the air conditioning temperature is lowered by 2 degrees. If the cooling function is already turned on and the temperature is lower than or equal to 20 degrees, the cooling effect is considered to be poor and cannot be automatically processed. The system sends a text message alarm to the equipment maintenance personnel. When the humidity is higher than the set threshold, the air conditioning dehumidification function is automatically activated; When the water leakage alarm is triggered, the system immediately sends an alarm SMS to the maintenance personnel; S403: Alarm generation and log recording: During the execution of the automatic control strategy, the system will generate a detailed alarm log, including the alarm type, timestamp, and device ID information, and store it in the database; S404: Manual intervention and SMS alarm: If the automatic control strategy cannot handle the problem, the system will send a SMS alarm to the designated equipment maintenance personnel to inform them of the specific situation of the problem and request them to handle it as soon as possible.

6. The off-bank self-service bank intelligent fire monitoring and control method according to claim 1 is characterized by: Step S5 specifically includes: S501: Device status query: Through the screen user interface in the user interface module, the administrator and authorized users can view the real-time status information of the device, including temperature and humidity, water leakage, air conditioning operation status, and alarm records; S502: Device information management: the user can manage the device information; S503: Device authority management: Users with different authorities can view or modify device information according to their roles.

7. The off-bank self-service bank intelligent fire monitoring and control method according to claim 1 is characterized by: Step S6 specifically includes: S601: Alarm processing authority: The equipment maintenance personnel or designated users have the authority to process alarms. When the equipment generates an alarm, the system sends the alarm information to the maintenance personnel via SMS and displays the alarm information on the user interface. S602: Fill in the alarm record: After receiving the alarm information, the user needs to fill in the processing record on the web interface, including the processing measures and processing time information; after filling in, the alarm information status will be updated to processed and recorded in the system for subsequent query and analysis; S603: Alarm data backtracking: All alarm records and processing processes will be stored in the database. The system supports backtracking analysis of alarm events to help analyze the causes of equipment failures and optimize control strategies.

8. The off-bank self-service bank intelligent fire monitoring and control method according to claim 1 is characterized by: The device module uses the temperature and humidity transmitter YDL-NTH, which is connected to the network via Ethernet. It has WEB service and TCP service, and can remotely read device data or send instructions through the network; Data acquisition module: The data acquisition module is responsible for sending TCP commands to the equipment module to query temperature and humidity data at regular intervals, receiving temperature, humidity and water leakage data transmitted by the equipment module, and writing the data into the time series database; the data acquisition module includes scheduled task scheduling and database interface to ensure timely and stable recording of data. Control module: The control module periodically reads the latest equipment data from the database. If any data triggers a threshold alarm, the alarm log is displayed in the monitoring and alarm center module, and automatic control is attempted according to the control strategy. If it exceeds the automatic control range, a text message alarm message is sent to the equipment maintenance personnel.

9. The off-bank self-service bank intelligent fire monitoring and control method according to claim 8, characterized in that: The equipment module includes an electrically connected temperature and humidity sensor submodule, an infrared remote control submodule, and a water leakage detection submodule; the equipment module performs real-time monitoring of the equipment room environment data, and receives, responds to, and executes control instructions; the temperature and humidity sensor submodule monitors the environmental status of the equipment room in real time, and sends the collected data to the data acquisition module through TCP messages; the infrared remote control submodule is used to receive control instructions and control the air conditioner, including the start and stop of the air conditioner and mode switching operations; The water leakage detection submodule is used to detect whether there is water leakage in the ground area.

10. The off-bank self-service bank intelligent fire monitoring and control method according to claim 1, 8 or 9, characterized in that: The user interface module includes the equipment status and information management module, the monitoring alarm center module, and the user management module; Among them, the equipment status and information management module: displays the real-time temperature, humidity and water leakage of the equipment, the equipment's location, equipment address, and equipment maintainer information, and can remotely control the equipment; the monitoring and alarm center module: lists the historical alarm records of all equipment within the user's authority range, and handles alarms as needed; the user management module: performs hierarchical management of users with different permissions and limits the user's operating scope.

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