Administration fire-fighting product daily supervision and fire evidence obtaining management system

Abstract

The utility model relates to a jurisdiction fire-fighting product daily supervision and fire evidence obtaining management system, which comprises a master control center, jurisdiction fire-fighting products and a data acquisition transceiver chip A. The jurisdiction fire-fighting products comprise a spray fire extinguishing system. The spraying fire extinguishing system comprises a medium input indicator which is used for metering the flow of a fire extinguishing medium; the data acquisition transceiver chip A is used for acquiring the real-time flow of the fire extinguishing medium metered by the medium input indicator and uploading the acquired information to the master control center; and the data acquisition transceiver chip A is wirelessly connected with the master control center through the Internet of Things. By adopting the technical scheme, once a fire accident occurs, relevant evidences can be provided for the actual working performance and fire investigation of the fire-fighting products in the jurisdiction.

Description

Technical Field

[0001] The utility model belongs to the technical field of fire protection product management in a jurisdiction, and specifically relates to a daily supervision and fire evidence collection management system for fire protection products in a jurisdiction. Background Art

[0002] Many fire protection products now use new materials, new technologies and AI intelligence, but the supervision of fire protection products still uses the "supervision and random inspection notice or detailed rules", and supervisors conduct on-site inspections and random inspections in multiple units within their jurisdiction. In this way, not only is the workload of fire protection supervision and inspection large, but the content involved is also small, and it is difficult to objectively and comprehensively reflect the real effect of fire protection products in fires.

[0003] The role of fire protection products is a key factor in effectively curbing major fire accidents. Some units do not fully understand the true role of fire protection products. They only set up fire protection facilities to cope with building acceptance and fire department inspections. When purchasing fire protection products, they consider price and cost factors more and ignore product quality. Some units do not pay attention to the regular maintenance of fire protection products, which brings great hidden dangers to fire safety. Once a fire accident occurs, fire protection products cannot play their due role, which will directly affect the consequences of the fire.

[0004] When a unit is found to have violated laws and regulations regarding fire protection products, the only measure that supervisors can take is to impose penalties through administrative means. Although this method can have certain effects, the single means makes it difficult for supervisory inspections to achieve satisfactory results.

[0005] In addition, if a fire accident occurs, information such as the actual activation time and working performance status of the relevant fire-fighting products cannot be directly conveyed to the supervisory and management personnel, and no effective evidence can be provided for the fire investigation phase.

[0006] In view of the above reasons, it is inevitable to improve and innovate the supervision of fire protection products. At present, there is no method that can not only conduct daily supervision within the jurisdiction but also monitor the timing of fire protection product operation when a fire occurs, and provide relevant evidence for fire investigation. Utility Model Content

[0007] The technical problem to be solved by the utility model is to make up for the deficiencies of the prior art and provide a management system for daily supervision of fire protection products in a jurisdiction and for fire evidence collection.

[0008] To solve the above technical problems, the technical solution of the utility model is:

[0009] A daily supervision and fire evidence collection management system for fire protection products in a jurisdiction, comprising a master control center, fire protection products in a jurisdiction, and a data collection and transceiver chip A, wherein the fire protection products in the jurisdiction include a sprinkler fire extinguishing system;

[0010] The sprinkler fire extinguishing system includes a medium input indicator, which is used to measure the flow rate of the fire extinguishing medium;

[0011] The data acquisition transceiver chip A is used to collect the real-time flow of the fire extinguishing medium measured by the medium input indicator, and send the collected information to the master control center;

[0012] The data collection transceiver chip A is connected to the main control center wirelessly via the Internet of Things.

[0013] Furthermore, it also includes a data acquisition and transceiver chip B. The fire protection products in the jurisdiction also include fire alarm equipment. The data acquisition and transceiver chip B is used to collect alarm signals from the fire alarm equipment and send them to the main control center. The data acquisition and transceiver chip B is wirelessly connected to the main control center through the Internet of Things.

[0014] Furthermore, it also includes a data acquisition transceiver chip C. The fire protection products in the jurisdiction also include fire dampers. The action of the fire dampers is controlled by the controller H. The data acquisition transceiver chip C is used to collect the opening signal sent by the controller H to the fire dampers and send it to the main control center. The data acquisition transceiver chip C is wirelessly connected to the main control center through the Internet of Things.

[0015] Furthermore, it also includes a data acquisition transceiver chip D. The fire protection products in the jurisdiction also include smoke exhaust fire dampers. The operation of the smoke exhaust fire dampers is controlled by the controller Y. The data acquisition transceiver chip D is used to collect the opening signal sent by the controller Y to the smoke exhaust fire dampers and send it to the main control center. The data acquisition transceiver chip D is wirelessly connected to the main control center through the Internet of Things.

[0016] Furthermore, it also includes a high-temperature resistant micro-positioning camera A. The fire protection products in the jurisdiction also include a mobile fire extinguisher. The mobile fire extinguisher is provided with a pressure gauge. The high-temperature resistant micro-positioning camera A is used to observe the pressure gauge and send the observed real-time image and real-time position to the main control center. The high-temperature resistant micro-positioning camera A is fixed on the mobile fire extinguisher. The high-temperature resistant micro-positioning camera A and the main control center are wirelessly connected via the Internet of Things.

[0017] Furthermore, the mobile fire extinguisher is one or more of a portable fire extinguisher, a trolley-type fire extinguisher, and a fire-fighting gun.

[0018] Furthermore, it also includes a high-temperature resistant micro-positioning camera B. The fire protection products in the jurisdiction also include fire doors. The high-temperature resistant micro-positioning camera B is used to observe the opening and closing status of the fire doors and send the observed real-time images and real-time positions to the main control center. The high-temperature resistant micro-positioning camera B is wirelessly connected to the main control center through the Internet of Things.

[0019] Furthermore, it also includes a high-temperature resistant micro positioning camera C. The fire protection products in the jurisdiction also include fire hydrants or fire pump connectors. The high-temperature resistant micro positioning camera C is used to observe the real-time images of the water outlets of the fire hydrants and fire pump connectors and send the real-time images and real-time positions to the main control center. The high-temperature resistant micro positioning camera C is wirelessly connected to the main control center via the Internet of Things.

[0020] Furthermore, the fire hydrant is an indoor fire hydrant or an outdoor fire hydrant.

[0021] The beneficial effects that can be achieved by the utility model are:

[0022] 1. Once a fire accident occurs, relevant evidence can be provided on the actual working performance of fire-fighting products and fire investigation within the jurisdiction.

[0023] 2. The management agency monitors the working status of fire-fighting products within its jurisdiction in real time, and can grasp the regular maintenance of fire-fighting products; it can issue rectification notices on the number, location and other information of fire-fighting products that do not meet the standby status within the jurisdiction to eliminate unsafe hazards.

[0024] 3. It can reduce the frequency of on-site supervision and inspection by supervisory personnel in the units under its jurisdiction, reduce interference with the normal work and production of units within its jurisdiction, and reduce the direct and indirect consumption costs of the supervisory and supervised parties.

[0025] 4. It can ensure that fire-fighting products in the jurisdiction are always on standby and put into practice, thus improving the effectiveness of supervision on fire-fighting products. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 It is a schematic diagram of monitoring a portable fire extinguisher in an embodiment of the present utility model.

[0027] Figure 2 It is a schematic diagram of supervision of a cart-type fire extinguisher in an embodiment of the utility model.

[0028] Figure 3 It is a schematic diagram of monitoring fire doors in an embodiment of the utility model.

[0029] Figure 4 It is a schematic diagram of monitoring fire hydrants in an embodiment of the utility model.

[0030] Figure 5 It is a schematic diagram of supervision of a sprinkler fire extinguishing system in an embodiment of the utility model.

[0031] Figure 6 It is a schematic diagram of monitoring various alarms in the embodiment of the utility model.

[0032] Figure 7 It is a schematic diagram of monitoring various types of fire dampers in the embodiment of the utility model.

[0033] Figure 8 It is a diagram showing the relationship between the computer in the main control center and the supervision of fire protection products.

[0034] In the figure: 1-portable fire extinguisher, 2-high temperature resistant micro positioning camera A, 3-pressure gauge, 4-trolley fire extinguisher, 6-fire door, 7-high temperature resistant micro positioning camera B, 8-outdoor fire hydrant, 9-high temperature resistant micro positioning camera C, 10-medium input indicator, 11-data acquisition transceiver chip A, 12-sprinkler fire extinguishing system, 13-fire alarm equipment, 14-data acquisition transceiver chip B, 15-fire damper, 16-controller H, 17 data acquisition transceiver chip C. DETAILED DESCRIPTION

[0035] The utility model is further described in detail below in conjunction with the accompanying drawings and specific implementation methods.

[0036] A daily supervision and fire evidence collection management system for fire protection products in a jurisdiction includes a master control center and a data acquisition transceiver chip A11, a data acquisition transceiver chip B14, a data acquisition transceiver chip C17, a data acquisition transceiver chip D, a high temperature resistant micro positioning camera A2, a high temperature resistant micro positioning camera B7 and a high temperature resistant micro positioning camera C9, which are wirelessly connected to the master control center via the Internet of Things, and also includes fire protection products in the jurisdiction. Fire protection products in the jurisdiction include a sprinkler fire extinguishing system 12, a fire alarm device 13, a fire damper 15, a smoke exhaust fire damper, a mobile fire extinguisher, a fire door 6, a fire hydrant and a fire pump connector connected to a sprinkler fire extinguishing water supply system, and the like.

[0037] The sprinkler fire extinguishing system 12 includes a medium input indicator 10, which is used to measure the flow of the fire extinguishing medium; the data acquisition transceiver chip A11 is used to collect the real-time flow of the fire extinguishing medium measured by the medium input indicator 10, and send the collected information to the main control center. When the real-time flow of the fire extinguishing medium reaches or exceeds the set flow upper limit, the computer in the main control center determines that the sprinkler fire extinguishing system 12 is started.

[0038] The data acquisition transceiver chip B14 is used to collect the alarm signal of the fire alarm device 13 and send it to the main control center. The computer in the main control center automatically determines whether a certain fire alarm device 13 is normal according to the programming.

[0039] The action of the fire damper 15 is controlled by the controller H16, and the data acquisition transceiver chip C17 is used to collect the opening signal sent by the controller H16 to the fire damper 15 and send it to the master control center. The action of the smoke exhaust fire damper is controlled by the controller Y, and the data acquisition transceiver chip D is used to collect the opening signal sent by the controller Y to the smoke exhaust fire damper and send it to the master control center. The computer in the master control center determines whether the fire damper 15 and the smoke exhaust fire damper have been opened.

[0040] The mobile fire extinguisher can be a portable fire extinguisher 1, a cart-type fire extinguisher 4, a fire gun, etc. The mobile fire extinguisher is provided with a pressure gauge 3. The high temperature resistant micro positioning camera A2 is used to observe the pressure gauge 3 and send the observed real-time image and real-time position to the main control center. The high temperature resistant micro positioning camera A2 is fixed on the mobile fire extinguisher. For the portable fire extinguisher 1, the bottom of the small bracket of the high temperature resistant micro positioning camera A2 can be adhered to the upper part of the tank of the portable fire extinguisher 1 with super glue. The high temperature resistant micro positioning camera A2 observes the pressure gauge 3 from the bottom to the top, so that the high temperature resistant micro positioning camera A2 will not block the user's line of sight of the pressure gauge 3. The computer in the main control center automatically determines whether the pressure value of the pressure gauge 3 is within the programming allowable range based on the programming and image analysis software. When the pressure value of the pressure gauge 3 of a hand-held fire extinguisher is out of the allowable range, the computer in the main control center will display the abnormality of the fire extinguisher and the cause of the abnormality according to the programming, and send a rectification letter to the unit or person in charge of the fire extinguisher. When the rectification is implemented, the computer program will automatically restore the display status of the fire extinguisher to normal standby operation.

[0041] The fire door 6 is generally in a fixed position, and a high temperature resistant micro positioning camera B7 is arranged on the opening side of the fire door 6 to observe the opening and closing status of the fire door 6 and send the observed real-time image and real-time position to the master control center for storage.

[0042] The high temperature resistant micro positioning camera C9 is used to observe the real-time images of the water outlets of fire hydrants (indoor fire hydrants or outdoor fire hydrants 8) and fire pump couplings and send the real-time images and real-time positions to the main control center. The computer in the main control center automatically determines whether there is water outflow (such as whether water is spraying out or whether the volume of the connecting pipe changes, etc.) based on programming and image analysis software.

[0043] In this way, all fire protection products in the jurisdiction are included in the computer management program of the jurisdiction's master control center in the form of high-temperature resistant micro-positioning cameras or data acquisition transceiver chips. The computer in the jurisdiction's master control center is connected to the Internet of Things and has input information on the performance of various fire protection products, their location and ownership, as well as control programs such as supervision, judgment, and processing, image analysis software, and self-learning adaptive programs. The responsibilities of the computer in the jurisdiction's master control center are: to supervise the daily status of fire protection products in the jurisdiction through images and data, and to provide relevant evidence for the actual working performance of fire protection product quality and fire investigation in the event of a fire accident. The task of the computer in the jurisdiction's master control center is to automatically issue electronic rectification notices to fire protection products in the jurisdiction that exceed the regular maintenance period or do not meet the standby status, and urge rectification to eliminate unsafe hazards.

[0044] The technical solution of this embodiment can effectively improve the supervision efficiency of fire protection products in the jurisdiction, reduce supervision costs, ensure that fire protection products are always in a standby working state, and implement fire prevention.

Claims

1. A daily supervision and fire evidence collection management system for fire protection products in the jurisdiction, Its characteristics are: It includes a master control center, fire protection products in the jurisdiction and a data acquisition transceiver chip A (11). The fire protection products in the jurisdiction include a sprinkler fire extinguishing system (12); The sprinkler fire extinguishing system (12) comprises a medium input indicator (10), wherein the medium input indicator (10) is used to measure the flow rate of the fire extinguishing medium; The data acquisition transceiver chip A (11) is used to collect the real-time flow rate of the fire extinguishing medium measured by the medium input indicator (10), and send the collected information to the main control center; The data collection transceiver chip A (11) is connected to the main control center wirelessly via the Internet of Things.

2. The daily supervision and fire evidence collection management system for fire protection products in the jurisdiction according to claim 1, Its characteristics are: It also includes a data acquisition transceiver chip B (14), and the fire protection products in the jurisdiction also include fire alarm equipment (13). The data acquisition transceiver chip B (14) is used to collect alarm signals from the fire alarm equipment (13) and send them to the main control center. The data acquisition transceiver chip B (14) and the main control center are wirelessly connected via the Internet of Things.

3. The daily supervision and fire evidence collection management system for fire protection products in the jurisdiction according to claim 1, Its characteristics are: It also includes a data acquisition transceiver chip C (17). The fire protection product in the jurisdiction also includes a fire damper (15). The action of the fire damper (15) is controlled by the controller H (16). The data acquisition transceiver chip C (17) is used to collect the opening signal sent by the controller H (16) to the fire damper (15) and send it to the main control center. The data acquisition transceiver chip C (17) is connected to the main control center wirelessly via the Internet of Things.

4. The daily supervision and fire evidence collection management system for fire protection products in the jurisdiction according to claim 1, Its characteristics are: It also includes a data acquisition transceiver chip D. The fire protection products in the jurisdiction also include smoke exhaust fire dampers. The operation of the smoke exhaust fire dampers is controlled by the controller Y. The data acquisition transceiver chip D is used to collect the opening signal sent by the controller Y to the smoke exhaust fire dampers and send it to the main control center. The data acquisition transceiver chip D is wirelessly connected to the main control center through the Internet of Things.

5. The daily supervision and fire evidence collection management system for fire protection products in the jurisdiction according to claim 1, Its characteristics are: It also includes a high-temperature resistant micro positioning camera A (2). The fire protection products in the jurisdiction also include a mobile fire extinguisher. The mobile fire extinguisher is provided with a pressure gauge (3). The high-temperature resistant micro positioning camera A (2) is used to observe the pressure gauge (3) and send the observed real-time image and real-time position to the main control center. The high-temperature resistant micro positioning camera A (2) is fixed on the mobile fire extinguisher. The high-temperature resistant micro positioning camera A (2) and the main control center are wirelessly connected via the Internet of Things.

6. The daily supervision and fire evidence collection management system for fire protection products in the jurisdiction according to claim 5, Its characteristics are: The mobile fire extinguisher is one or more of a portable fire extinguisher (1), a trolley-type fire extinguisher (4), and a fire-fighting gun.

7. The daily supervision and fire evidence collection management system for fire protection products in the jurisdiction according to claim 1, Its characteristics are: It also includes a high temperature resistant micro positioning camera B (7), and the fire protection products in the jurisdiction also include fire doors (6). The high temperature resistant micro positioning camera B (7) is used to observe the opening and closing status of the fire doors (6) and send the observed real-time images and real-time positions to the main control center. The high temperature resistant micro positioning camera B (7) and the main control center are wirelessly connected via the Internet of Things.

8. The daily supervision and fire evidence collection management system for fire protection products in the jurisdiction according to claim 1, Its characteristics are: It also includes a high temperature resistant micro positioning camera C (9), and the fire protection products in the jurisdiction also include fire hydrants or fire pump connectors. The high temperature resistant micro positioning camera C (9) is used to observe the real-time image of the water outlet of the fire hydrant and the fire pump connector and send the real-time image and real-time position to the main control center. The high temperature resistant micro positioning camera C (9) is wirelessly connected to the main control center via the Internet of Things.

9. The daily supervision and fire evidence collection management system for fire protection products in the jurisdiction according to claim 8, Its characteristics are: The fire hydrant is an indoor fire hydrant or an outdoor fire hydrant (8).

Images