Fire-fighting linkage monitoring system
By designing a fire linkage monitoring system, real-time data collection and rapid emergency response are achieved, solving the problem of insufficient intelligence of traditional fire monitoring systems, improving emergency handling efficiency and rescue accuracy, and ensuring the safety of people and property.
Patent Information
- Application Number
- CN202422726250.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-08
- Publication Date
- 2025-09-09
- Estimated Expiration
- 2034-11-08
AI Technical Summary
Traditional fire monitoring systems have low system integration and insufficient intelligence, resulting in slow emergency response, inability to quickly and effectively control fires, and inability to ensure timely treatment of injured people.
A fire linkage monitoring system was designed, including a fire data acquisition module, a video monitoring module, an emergency processing module, a vital signs monitoring module, a positioning module, a display module, a main control module, a fire monitoring center, a public security hospital monitoring terminal, etc. Through real-time data acquisition, analysis and processing, rapid emergency response and precise rescue can be achieved.
It improves the intelligence level of the fire protection system and the efficiency of emergency handling, shortens the rescue response time, enhances the accuracy of fire control and the efficiency of personnel rescue, and ensures the safety of personnel and property.
Smart Images
Figure CN223320903U_ABST
Abstract
Description
Technical Field
[0001] The present disclosure relates to the technical field of fire monitoring, and in particular to a fire linkage monitoring system. Background Art
[0002] In the field of fire monitoring technology, with the acceleration of urbanization and the increasing complexity of building structures, fire safety issues are becoming increasingly prominent, and the requirements for fire monitoring systems are becoming increasingly stringent. Traditional fire monitoring systems, due to low system integration and insufficient intelligence, often result in slow emergency response, making it impossible to quickly and effectively control fires and ensure timely treatment for injured personnel. Utility Model Content
[0003] The embodiments of the present disclosure provide a fire linkage monitoring system to solve the problems of low integration and insufficient intelligence level of existing systems.
[0004] The present disclosure provides a fire linkage monitoring system, including:
[0005] Fire data acquisition module, video surveillance module, emergency response module, vital signs monitoring module, positioning module, display module, main control module, fire monitoring center, gateway, public security hospital monitoring terminal;
[0006] The fire data acquisition module, the video monitoring module, the emergency processing module, the vital signs monitoring module, the positioning module, and the display module are all connected to the main control module;
[0007] The vital signs monitoring module and the positioning module are also connected to the public security hospital monitoring terminal; the fire data acquisition module is connected to the emergency processing module;
[0008] The main control module is connected to the fire monitoring center, and the fire monitoring center is connected to the public security hospital monitoring terminal through the gateway.
[0009] In an exemplary embodiment of the present disclosure, a fire linkage monitoring system further includes:
[0010] Local storage module and cloud storage module;
[0011] The local storage module and the cloud storage module are both connected to the main control module; the local storage module and the cloud storage module are both used to store data sent by the main control module.
[0012] In an exemplary embodiment of the present disclosure, the positioning module includes:
[0013] a first positioning unit and a second positioning unit;
[0014] The first positioning unit and the second positioning unit are both connected to the main control module; the second positioning unit is also connected to the monitoring terminal of the public security hospital;
[0015] The first positioning unit is configured to locate the position of the emergency processing module, and the second positioning unit is configured to locate fire location information.
[0016] In an exemplary embodiment of the present disclosure, the fire data acquisition module includes:
[0017] Smoke sensors, temperature sensors, flame sensors and data transmission equipment;
[0018] The smoke sensor, the temperature sensor and the flame sensor are all connected to the main control module through the data transmission device; the smoke sensor, the temperature sensor and the flame sensor are also connected to the emergency processing module through the data transmission device.
[0019] In an exemplary embodiment of the present disclosure, the emergency processing module includes:
[0020] Fire extinguishing unit, broadcasting unit, alarm unit and evacuation unit;
[0021] The fire extinguishing unit includes automatic sprinkler equipment, fire curtain equipment, dry powder fire extinguishing equipment, gas fire extinguishing equipment and fire hydrant equipment;
[0022] The broadcast unit includes a speaker, a power amplifier and an audio controller;
[0023] The alarm unit includes an audible and visual alarm;
[0024] The evacuation unit includes emergency lighting equipment.
[0025] In an exemplary embodiment of the present disclosure, the video monitoring module includes:
[0026] High-definition camera, night vision camera, light sensor, signal conversion circuit and switch;
[0027] The high-definition camera and the night vision camera are both connected to the switching switch, and the switching switch is connected to the light sensor through the signal conversion circuit.
[0028] In an exemplary embodiment of the present disclosure, a fire linkage monitoring system further includes:
[0029] Access control and security module;
[0030] The access control and security module is connected to the main control module.
[0031] In an exemplary embodiment of the present disclosure, a fire linkage monitoring system further includes:
[0032] Circuit breaker;
[0033] The circuit breaker is connected to the main control module.
[0034] The beneficial effects of the fire linkage monitoring system provided by the embodiments of the present disclosure are:
[0035] The public security hospital monitoring terminal in this embodiment can receive real-time data from the vital signs monitoring module and positioning module during fires or other emergencies. This data, including the trapped person's vital signs and specific location, provides valuable time for medical rescue teams. This not only significantly shortens rescue response time but also makes rescue operations more precise and efficient, thereby increasing the trapped person's chances of survival.
[0036] Furthermore, the direct connection between the fire data acquisition module and the emergency response module in this embodiment reduces delays caused by the main control module's inability to receive signals promptly or by analyzing large amounts of data before taking control. This enables the system to more quickly analyze fires and other emergency situations. This immediate data analysis and decision-making support improves the efficiency and accuracy of the system's emergency response, reduces misjudgments and delays, and allows for more effective control of the situation, ensuring the safety of people and property. BRIEF DESCRIPTION OF THE DRAWINGS
[0037] In order to more clearly illustrate the technical solutions in the embodiments of the present disclosure, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are only some embodiments of the present disclosure. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative labor.
[0038] Figure 1 This is a structural diagram of a first fire linkage monitoring system provided by an embodiment of the present disclosure;
[0039] Figure 2 2 is a structural diagram of a second fire linkage monitoring system provided by an embodiment of the present disclosure;
[0040] Figure 3 It is a structural diagram of the third fire linkage monitoring system provided by the embodiment of the present disclosure. DETAILED DESCRIPTION
[0041] To help those skilled in the art better understand this solution, the following will clearly describe the technical solutions in the embodiments of this solution in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of this solution, not all of it. Based on the embodiments of this solution, all other embodiments obtained by those skilled in the art without creative work should fall within the scope of protection of this solution.
[0042] Throughout the specification, claims, and accompanying figures of this solution, the term "including" and any variations thereof mean "including, but not limited to," and are intended to cover non-exclusive inclusions and are not limited to the examples listed herein. Furthermore, the terms "first" and "second," etc., are used to distinguish between different objects, not to describe a specific order.
[0043] The following describes the implementation of the present disclosure in detail with reference to the accompanying drawings:
[0044] Figure 1 This is a structural diagram of a fire linkage monitoring system provided by an embodiment of the present disclosure. Figure 1 , the fire linkage monitoring system includes:
[0045] Fire data acquisition module 11, video monitoring module 12, emergency response module 13, vital signs monitoring module 14, positioning module 15, display module 16, main control module 17, fire monitoring center 18, gateway 19, public security hospital monitoring terminal 20;
[0046] The fire data acquisition module 11, video monitoring module 12, emergency processing module 13, vital signs monitoring module 14, positioning module 15, and display module 16 are all connected to the main control module 17;
[0047] The vital signs monitoring module 14 and the positioning module 15 are also connected to the public security hospital monitoring terminal 20; the fire data acquisition module 11 is connected to the emergency processing module 13;
[0048] The main control module 17 is connected to the fire monitoring center 18 , and the fire monitoring center 18 is connected to the public security hospital monitoring terminal 20 through the gateway 19 .
[0049] In this embodiment, the fire data collection module 11 is capable of collecting various fire-related data in real time, including but not limited to smoke concentration, temperature, and flame conditions. Sensors installed in various locations, such as the smoke sensor 111, temperature sensor 112, and flame sensor 113, accurately monitor changes in fire indicators within the environment. The fire data collection module 11 can also collect operational status data on firefighting equipment, such as the operating status of fire pumps, fire extinguisher pressure, and the opening status of fire hydrants, to ensure that firefighting equipment is functioning properly when needed.
[0050] The fire data acquisition module 11 also has a data transmission function, capable of promptly transmitting collected data to the main control module 17. For example, this can be accomplished via wireless communication devices such as WiFi and Bluetooth, or wired communication devices. The fire data acquisition module 11 is also connected to the emergency processing module 13. When abnormal data is detected, the emergency processing module 13 is directly triggered, bypassing the main control module 17, to initiate appropriate firefighting measures.
[0051] The video surveillance module 12 uses cameras installed at various key locations to provide comprehensive, real-time monitoring of the building's interior and surroundings. This video surveillance allows for timely detection of fire outbreaks, fire spread, and evacuation. The video surveillance module 12 also features a video storage function, enabling post-event fire cause analysis and accident investigation.
[0052] The emergency processing module 13 has functions such as alarm, fire extinguishing, and evacuation instructions. Upon receiving an abnormal signal from the fire data acquisition module 11 or a control command from the main control module 17, the emergency processing module 13 immediately activates alarm devices, such as audible and visual alarms and the fire broadcast system, to alert occupants of the building to a fire and prompt them to evacuate promptly. The emergency processing module 13 can also activate automatic sprinkler systems to spray water to extinguish fires, provide emergency lighting, and illuminate evacuation signs to ensure safe and rapid evacuation to a safe area in the event of a fire.
[0053] The vital signs monitoring module 14 can monitor the vital signs of trapped persons at the main evacuation nodes of the building through infrared sensors, temperature sensors 112 , etc., and send the detected data to the main control module 17 .
[0054] The positioning module 15 can locate the location of the fire and the location of the firefighting equipment. The positioning module 15 can send the location data to the main control module 17, which can automatically activate nearby firefighting equipment based on the fire location information and send an alarm to the fire command center and the public security hospital monitoring terminal 20.
[0055] The display module 16 can be a user interface to facilitate the fire commander to control and manage each module. For example, the alarm device and fire extinguishing equipment of the emergency processing module 13 can be activated through the display module 16, and the camera of the video monitoring module 12 can also be adjusted and controlled.
[0056] The main control module 17 can receive data from various modules and analyze and process the data.
[0057] The fire monitoring center 18 receives data from the main control module 17 and provides real-time monitoring of the entire fire linkage monitoring system. In the event of a fire, the fire monitoring center 18 serves as a command center, coordinating and dispatching firefighters, equipment, and resources. For example, based on the fire location information and on-site conditions provided by the main control module 17, it can formulate a reasonable rescue plan and direct firefighters to carry out firefighting and rescue operations. The fire monitoring center 18 can also transmit vital sign data of personnel at the fire scene to the public security hospital monitoring terminal 20 via the gateway 19, ensuring that injured personnel receive immediate medical treatment.
[0058] The public security hospital monitoring terminal 20 can receive data transmitted from the vital signs monitoring module 14 and the fire monitoring center 18 through the gateway 19, including information on the vital signs of trapped people and the fire scene. Based on this data, the hospital can make emergency preparations in advance, such as arranging medical personnel and preparing emergency equipment and medicines.
[0059] In this embodiment, the fire data acquisition module 11 uses various sensors to collect fire-related data in the environment in real time, including smoke concentration, temperature, flame conditions, etc. It also collects operational status data of firefighting equipment, such as the working status of fire pumps and the pressure value of fire extinguishers. The video surveillance module 12 uses cameras installed in various key locations to monitor the interior and surrounding environment of the building in real time, providing clear images to facilitate the timely detection of fires. The vital signs monitoring module 14 monitors the vital signs of people in the building, such as their presence and body temperature, which can be achieved through sensors in specific areas. The positioning module 15 can locate the location of the fire and the location of firefighting equipment.
[0060] Fire data acquisition module 11, video surveillance module 12, vital signs monitoring module 14, and positioning module 15 can send the collected information to main control module 17 for analysis and processing. Furthermore, vital signs monitoring module 14 and positioning module 15 can also send data directly to public security hospital monitoring terminal 20, allowing injured personnel to receive timely medical treatment and reducing the risk of crimes being committed during chaos.
[0061] When the fire data acquisition module 11 detects abnormal data (such as excessive smoke concentration or a sharp temperature rise) or the video surveillance module 12 detects signs of fire, the emergency response module 13 is triggered. The alarm unit 133 in the emergency response module 13 activates audible and visual alarms, the fire broadcast system, and other devices to alert occupants of the building to the fire and sends an alarm signal to the fire monitoring center 18. The fire extinguishing unit 131 activates automatic sprinklers, fire extinguishers, and other fire-fighting equipment to extinguish the fire. The evacuation unit 134 provides emergency lighting and evacuation signs to guide personnel to safe evacuation. The positioning module 15 determines the location of firefighting equipment and the location of the fire, transmitting this information to the main control module 17 and display module 16. Based on the fire location information, the main control module 17 automatically activates nearby firefighting equipment and, in conjunction with the display module 16, provides a visual reference for fire commanders to plan the optimal rescue route. The main control module 17 transmits the processed fire information to the fire monitoring center 18. The fire monitoring center 18 serves as the command center, coordinating and dispatching firefighters, equipment, and resources, formulating rescue plans, and directing firefighting and rescue operations.
[0062] As can be seen from the above, the public security hospital monitoring terminal 20 in this embodiment can receive real-time data from the vital signs monitoring module 14 and the positioning module 15 in the event of a fire or other emergency. This data, including the trapped person's vital signs and specific location, provides valuable time for medical rescue teams. This not only significantly shortens rescue response time but also makes rescue operations more accurate and efficient, thereby increasing the trapped person's chance of survival.
[0063] Furthermore, the direct connection between the fire data acquisition module 11 and the emergency processing module 13 in this embodiment reduces delays caused by the main control module 17 not receiving signals in a timely manner or analyzing large amounts of data before taking control, enabling the system to more quickly analyze fire conditions and other emergency situations. This real-time data analysis and decision-making support improves the efficiency and accuracy of the system's emergency response, reduces misjudgments and delays, and thus more effectively controls the development of situations and ensures the safety of people and property.
[0064] In one embodiment of the present disclosure, reference Figure 2 , a fire linkage monitoring system, further comprising:
[0065] Local storage module 21 and cloud storage module 22;
[0066] The local storage module 21 and the cloud storage module 22 are both connected to the main control module 17 ; the local storage module 21 and the cloud storage module 22 are both used to store data sent by the main control module 17 .
[0067] In this embodiment, the local storage module 21 can receive and store data sent by the main control module 17, providing a local backup for the main control module 17's data. Local storage ensures that critical data is not lost in the event of a network failure or cloud storage unavailability. For frequently accessed data, local storage can provide faster response times. Because data is stored locally and does not need to be transmitted over the network, it can be read and processed in a short time.
[0068] The cloud storage module 22 receives data sent by the main control module 17 and stores it on a cloud server, enabling remote backup. Even if local devices are severely damaged, data can still be securely stored in the cloud. The cloud storage module 22 facilitates network access to cloud-stored data for users in different locations, enabling data sharing. For example, the fire monitoring center 18 and the public security hospital monitoring terminal 20 can access firefighting data and vital sign monitoring data stored in the cloud at any time, improving collaboration efficiency.
[0069] The local storage module 21 can save critical data in the local network environment at the fire scene. Even if the fire causes an external network interruption, the locally stored data still exists, providing an important basis for subsequent accident investigation and analysis. The cloud storage module 22 backs up the data on a remote server. Even if the local equipment is severely damaged by the fire, the data in the cloud is still safe, ensuring that the data will not be completely lost due to a single disaster event. In the emergency moment of a fire, firefighters and relevant decision makers need to immediately obtain on-site fire data and monitoring information. The local storage module 21 can provide fast data access without waiting for network transmission delays. The cloud storage module 22 can support fire departments, hospitals and other relevant institutions in different locations to remotely access data through the network. This remote collaboration and data sharing is particularly important when a fire occurs.
[0070] In one embodiment of the present disclosure, reference Figure 3 , the positioning module 15 includes:
[0071] a first positioning unit 151 and a second positioning unit 152;
[0072] The first positioning unit 151 and the second positioning unit 152 are both connected to the main control module 17; the second positioning unit 152 is also connected to the public security hospital monitoring terminal 20;
[0073] The first positioning unit 151 is configured to locate the position of the emergency processing module 13 , and the second positioning unit 152 is configured to locate fire location information.
[0074] In this embodiment, the first positioning unit 151 can precisely locate the emergency response module 13. The emergency response module 13 typically includes fire-fighting equipment (such as fire extinguishers and fire hydrants), alarm devices (such as audible and visual alarms), and evacuation facilities (such as emergency lighting and evacuation signs). The first positioning unit 151 can accurately determine the specific locations of these devices and facilities within the building. In the event of a fire, firefighters can quickly locate the equipment and facilities in the emergency response module 13 and promptly initiate firefighting and rescue operations.
[0075] For building managers, the first positioning unit 151 can also help them accurately locate the equipment and facilities in the emergency processing module 13 and perform daily inspection, maintenance and upkeep, ensuring that these equipment and facilities can operate normally when needed, thereby improving the reliability of the fire protection system.
[0076] The second positioning unit 152 can accurately determine the fire location through various technical means, such as analyzing the location information of fire detectors. Firefighters can quickly develop optimal firefighting and rescue plans based on the fire location information provided by the second positioning unit 152, and directly proceed to the fire scene to carry out firefighting and rescue operations, thereby improving firefighting efficiency and reducing fire losses. The second positioning unit 152 can also transmit the fire location information to the public security hospital monitoring terminal 20, allowing the hospital to make emergency preparations in advance and arrange for ambulances and medical personnel to be on standby near the fire scene. Furthermore, medical personnel can use the fire location information to provide more targeted treatment plans for injured personnel.
[0077] From the above, it can be concluded that the combination of the two positioning units realizes the dual precise positioning of emergency response resources and the fire scene, which not only improves the efficiency and accuracy of firefighting and rescue by firefighters, but also ensures that hospitals and other rescue forces can respond quickly and coordinate efficiently, effectively reducing fire losses and casualties.
[0078] In one embodiment of the present disclosure, reference Figure 3 , the fire data acquisition module 11 includes:
[0079] Smoke sensor 111, temperature sensor 112, flame sensor 113 and data transmission device 114;
[0080] The smoke sensor 111 , the temperature sensor 112 and the flame sensor 113 are all connected to the main control module 17 via the data transmission device 114 ; the smoke sensor 111 , the temperature sensor 112 and the flame sensor 113 are also connected to the emergency processing module 13 via the data transmission device 114 .
[0081] In this embodiment, the fire data acquisition module 11 includes a smoke sensor 111 , a temperature sensor 112 , a flame sensor 113 and a data transmission device 114 .
[0082] The smoke sensor 111 can monitor the smoke concentration in the air. Once the smoke concentration is detected to exceed a preset threshold, the smoke sensor 111 will immediately trigger an alarm and send the smoke information to the main control module 17 and the emergency processing module 13 through the data transmission device 114.
[0083] The temperature sensor 112 can monitor changes in ambient temperature. When a fire occurs, the ambient temperature will rise rapidly. The temperature sensor 112 can capture this change in real time and send the temperature information to the main control module 17 and the emergency processing module 13 via the data transmission device 114.
[0084] The flame sensor 113 can monitor the presence of flames. It typically uses ultraviolet or infrared detection technology. For example, the ultraviolet flame sensor 113 is sensitive to ultraviolet radiation from flames, while the infrared flame sensor 113 is sensitive to infrared radiation from flames. The flame sensor 113 can quickly identify the spectral characteristics of flames. Once a flame is detected, it immediately triggers an alarm and transmits the flame information to the main control module 17 and the emergency processing module 13 via the data transmission device 114.
[0085] The data transmission device 114 bridges the information transmission between the sensor and the main control module 17 and the emergency processing module 13. It can transmit the data collected by the sensor to the target module in real time and reliably. The data transmission device 114 can be a wireless communication device such as WiFi, Bluetooth, or a wired communication device.
[0086] From the above, it can be concluded that the smoke sensor 111, temperature sensor 112, flame sensor 113 and data transmission device 114 in this embodiment can realize comprehensive real-time collection and rapid response to fire information, improve the accuracy and timeliness of fire warnings, and reduce fire risks and losses.
[0087] In one embodiment of the present disclosure, reference Figure 3 , the emergency processing module 13 includes:
[0088] Fire extinguishing unit 131, broadcasting unit 132, alarm unit 133 and evacuation unit 134;
[0089] The fire extinguishing unit 131 includes automatic sprinkler equipment, fire curtain equipment, dry powder fire extinguishing equipment, gas fire extinguishing equipment and fire hydrant equipment;
[0090] The broadcast unit 132 includes a speaker, a power amplifier, and an audio controller;
[0091] The alarm unit 133 includes an audible and visual alarm;
[0092] The evacuation unit 134 includes emergency lighting equipment.
[0093] In this embodiment, the automatic sprinkler system in the fire extinguishing unit 131 automatically activates and sprays water to extinguish fires when the fire data acquisition module 11 detects abnormal data. Fire shutters, dry powder fire extinguishers, gas fire extinguishers, and fire hydrants cover different fire scenarios, ensuring that firefighters can quickly select the appropriate extinguishing method when a fire occurs. These devices significantly improve firefighting efficiency and success rates.
[0094] The broadcast unit 132 uses speakers, power amplifiers, and audio controllers to quickly convey important information such as emergency evacuation instructions and fire situation reports to people in the building when a fire occurs. This helps guide people to evacuate the danger zone in an orderly and rapid manner, reducing casualties.
[0095] The alarm unit 133 uses an audible and visual alarm, which can emit strong sound and flash signals when a fire occurs, quickly attracting people's attention and prompting them to take immediate countermeasures.
[0096] The evacuation unit 134 includes emergency lighting equipment, which is automatically activated when normal lighting fails due to fire, providing necessary lighting support for personnel evacuation, which helps personnel maintain a sense of direction in darkness or smoke and evacuate to a safe area safely and quickly.
[0097] From the above, it can be concluded that the fire extinguishing unit 131, broadcasting unit 132, alarm unit 133 and evacuation unit 134 in the emergency handling module 13 can improve the intelligence and automation level of the fire protection system, enhance the ability of personnel to deal with emergencies such as fire, and help reduce fire losses and casualties.
[0098] In one embodiment of the present disclosure, the video monitoring module 12 includes:
[0099] High-definition camera, night vision camera, light sensor, signal conversion circuit and switch;
[0100] The high-definition camera and the night vision camera are both connected to the switch, and the switch is connected to the light sensor through a signal conversion circuit.
[0101] In this embodiment, the HD camera can capture high-quality video in well-lit environments, providing clear images and video streams, ensuring that details in the surveillance footage are clearly visible. The night vision camera can be used in low-light or no-light environments. Using infrared or other night vision technologies, it can capture effective image information at night or in dim conditions, enabling all-weather monitoring. The light sensor monitors ambient light intensity in real time, converting the light level into an electrical signal, which controls a switch to select either the HD camera or the night vision camera for image capture. The signal conversion circuit receives the electrical signal from the light sensor, performs necessary processing (such as amplification and filtering), and sends the processed signal to the switch to control camera switching.
[0102] From the above, it can be concluded that the video surveillance module 12 realizes clear monitoring around the clock by integrating high-definition and night vision cameras and combining light sensors for intelligent switching, effectively improving the adaptability and practicality of the monitoring system and ensuring that high-quality video images can be obtained under any lighting conditions.
[0103] In one embodiment of the present disclosure, reference Figure 2 , a fire linkage monitoring system, further comprising:
[0104] Access control and security module 23;
[0105] The access control and security module 23 is connected to the main control module 17 .
[0106] In this embodiment, the access control and security module 23 is an important component of the fire linkage monitoring system, which can control and manage the access control system. Through the connection with the main control module 17, the access control and security module 23 can receive instructions from the system, perform corresponding access control operations, and provide real-time feedback on access control status information to the system. For example, the access control and security module 23 can control the on / off status of the access control system and allow or deny access to specific areas based on preset rules or instructions. This helps prevent unauthorized access to sensitive or dangerous areas and ensure regional safety. In addition to basic access control functions, the access control and security module 23 also has security and prevention functions. For example, in an emergency such as a fire, the access control and security module 23 can automatically unlock the access control equipment in the relevant area to ensure that people can evacuate quickly. At the same time, it can also be linked with other parts of the fire protection system to achieve more comprehensive security and prevention.
[0107] In one embodiment of the present disclosure, reference Figure 2 , a fire linkage monitoring system, further comprising:
[0108] Circuit breaker 24;
[0109] The circuit breaker 24 is connected to the main control module 17 .
[0110] In this embodiment, the circuit breaker 24, a key protective device in the electrical system, rapidly cuts off power when a circuit anomaly is detected, preventing electrical failures from causing serious consequences such as fires. When an emergency such as a fire occurs, the main control module 17 quickly shuts off power to the relevant area via the circuit breaker 24, reducing the risk of fire spreading and damaging electrical equipment.
[0111] The above embodiments are only used to illustrate the technical solutions of the present disclosure, rather than to limit them. Although the present disclosure has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the various embodiments of the present disclosure.
Claims
1. A fire linkage monitoring system, characterized in that: include: Fire data acquisition module, video surveillance module, emergency response module, vital signs monitoring module, positioning module, display module, main control module, fire monitoring center, gateway, public security hospital monitoring terminal; The fire data acquisition module, the video monitoring module, the emergency processing module, the vital signs monitoring module, the positioning module, and the display module are all connected to the main control module; The vital signs monitoring module and the positioning module are also connected to the public security hospital monitoring terminal; the fire data acquisition module is connected to the emergency processing module; The main control module is connected to the fire monitoring center, and the fire monitoring center is connected to the public security hospital monitoring terminal through the gateway.
2. A fire linkage monitoring system according to claim 1, characterized in that: Also includes: Local storage module and cloud storage module; The local storage module and the cloud storage module are both connected to the main control module; the local storage module and the cloud storage module are both used to store data sent by the main control module.
3. A fire linkage monitoring system according to claim 1, characterized in that: The positioning module includes: a first positioning unit and a second positioning unit; The first positioning unit and the second positioning unit are both connected to the main control module; the second positioning unit is also connected to the monitoring terminal of the public security hospital; The first positioning unit is configured to locate the position of the emergency processing module, and the second positioning unit is configured to locate fire location information.
4. A fire linkage monitoring system according to claim 1, characterized in that: The fire data acquisition module includes: Smoke sensors, temperature sensors, flame sensors and data transmission equipment; The smoke sensor, the temperature sensor and the flame sensor are all connected to the main control module through the data transmission device; the smoke sensor, the temperature sensor and the flame sensor are also connected to the emergency processing module through the data transmission device.
5. A fire linkage monitoring system according to claim 1, characterized in that: The emergency processing module includes: Fire extinguishing unit, broadcasting unit, alarm unit and evacuation unit; The fire extinguishing unit includes automatic sprinkler equipment, fire curtain equipment, dry powder fire extinguishing equipment, gas fire extinguishing equipment and fire hydrant equipment; The broadcast unit includes a speaker, a power amplifier and an audio controller; The alarm unit includes an audible and visual alarm; The evacuation unit includes emergency lighting equipment.
6. A fire linkage monitoring system according to claim 1, characterized in that: The video monitoring module includes: High-definition camera, night vision camera, light sensor, signal conversion circuit and switch; The high-definition camera and the night vision camera are both connected to the switching switch, and the switching switch is connected to the light sensor through the signal conversion circuit.
7. A fire linkage monitoring system according to claim 1, characterized in that: Also includes: Access control and security module; The access control and security module is connected to the main control module.
8. A fire linkage monitoring system according to claim 1, characterized in that: Also includes: Circuit breaker; The circuit breaker is connected to the main control module.