Visual monitoring system for fire water supply pipe network
Through the visual monitoring system of the fire water supply pipeline network, the valve status of the fire water supply system is monitored in real time with signal valves and on-site detection modules, which solves the problem of difficult valve closure in the existing technology, and significantly improves fire safety and system reliability.
Patent Information
- Application Number
- CN202411429489.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-14
- Publication Date
- 2024-12-24
AI Technical Summary
In the existing fire water supply system, the random closing of valves is difficult to supervise, resulting in fire hazards and system paralysis, and there is a lack of effective management methods to improve system reliability.
A visual monitoring system for fire water supply network is designed, including signal valves, on-site detection modules, hosts, workstations and data forwarding devices. Through signal feedback and real-time data transmission of passive contacts, online monitoring and remote management of valve status are realized. .
Real-time online monitoring of the valve status of the fire water supply system is realized, which improves the fire safety level, solves management difficulties, and extends the service life of the system.
Smart Images

Figure CN119174894A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the technical field of fire-fighting facilities, and in particular to a visual monitoring system for a fire-fighting water supply network. Background Art
[0002] Fire water supply is the heart of the water fire extinguishing system, and fire hydrants are important firefighting facilities for firefighters and people in buildings to extinguish fires. The automatic sprinkler fire extinguishing system is recognized as one of the most effective automatic fire extinguishing facilities in the world today. It is the most widely used and largest automatic fire extinguishing system. The above systems all rely on the fire water supply system, and the closure of any valve in the system pipe network may make it impossible to extinguish the fire.
[0003] In the existing technology, common valves currently widely used rely on manual inspection, which is easy to be missed and closed at will, and the owners and industry authorities closely related to it have no way of detecting and difficult to supervise. Closing the pipe network valves at will will leave major fire hazards, and the pipes without water will accelerate rust, causing the expensive fire water supply system to be paralyzed for a long time.
[0004] To address the above problems, no effective solution has been proposed yet. Summary of the invention
[0005] In order to solve the supervision difficulties caused by the backwardness of the existing technology, increase management means, and improve the reliability of the fire water supply system, the present invention provides a fire water supply network visualization monitoring system.
[0006] The technical solution is as follows: A fire water supply network visual monitoring system, including a signal valve, a field detection module, a host, a workstation, a data forwarding device, and a time management device.
[0007] The signal valve is used to replace the traditional valve, and the signal valve comprises a valve body and a signal feedback device. Preferably, the signal valve realizes the signal feedback function by opening and closing the provided passive contacts.
[0008] The field detection module is used to detect the opening and closing status information of the signal valve. The field detection module can detect the opening and closing positions of the passive contacts of the signal valve and transmit the opening and closing information of the signal valve to the host. Preferably, the field detection module has a unique address identifier that can be manually set so that it can be accurately identified when connected to the host through the signal bus.
[0009] The host is used to collect the signals sent by the on-site detection module and can forward the signals to the workstation and the data forwarding device.
[0010] The workstation is used to receive the valve opening and closing status information collected by the host, and after data processing, information editing, and graphic editing, generate a monitoring screen and an alarm information interface for human-computer dialogue.
[0011] The data forwarding device is used to receive the signal forwarded by the host, and can forward the signal to other devices again, and should be able to ensure the real-time and accuracy of the information.
[0012] The time management device is used to receive time information from GPS or Beidou satellites, and synchronize the time information to a host, a workstation, a data forwarding device, etc., to ensure time uniformity and the time sequence of recorded information.
[0013] Preferably, the host includes an address editing module, an information receiving module, an information forwarding module, and a time synchronization module. The address editing module is used to edit the address information so as to accurately identify the on-site detection module; the information receiving module is used to receive the valve opening and closing status information detected by the on-site detection module; the information forwarding module is used to forward the received information to a host computer such as a workstation and a data forwarding device; the time synchronization module is used to receive the time information released by the time management device and manage the time information of the local machine.
[0014] Preferably, the workstation includes an information editing module, a graphic editing module, an online monitoring module, a sharing module, a data receiving module, a data processing module, a time synchronization module, and a display device. The data receiving module is used to receive information forwarded by the host, and after the data is processed by the data processing module, the information is handed over to the information editing module for information editing and converted into human-readable text information, etc.; the graphic editing module is used to perform graphic editing and display the information graphically; the online monitoring module is used to transfer the edited screen to the online monitoring mode; the sharing module is used to share the monitoring screen generated by the online monitoring module to the mobile terminal or other public service ports; the time synchronization module is used to receive the time information released by the time management device and manage the time information of the local machine; the display device is used to locally display the monitoring screen generated by the online monitoring module for human-computer dialogue.
[0015] Preferably, the data forwarding device includes an information receiving module, an information forwarding module, and a time synchronization module. The information receiving module is used to receive the valve opening and closing status information forwarded by the host; the information forwarding module is used to forward the received information to a host computer such as a remote workstation to achieve remote monitoring; the time synchronization module is used to receive the time information issued by the time management device and manage the time information of the local machine.
[0016] Preferably, the monitoring screen includes a fire water supply system diagram and an alarm information interface.
[0017] The fire water supply system diagram is drawn and generated based on the entire fire water supply system or a single building or a fire partition. Preferably, the entire fire water supply system is displayed on a monitoring screen as much as possible while meeting the clarity requirement. The opening and closing status of all signal valves are intuitively displayed on a monitoring screen in the form of graphic elements, and normally closed valves are supplemented with text labels. The different states of the valves should be highlighted. Preferably, the graphic elements of the valves use the equipment legends specified in national standards or industry standards and are filled with eye-catching colors. Preferably, the valve open state is filled with red, the valve closed state is filled with green, gray flashing is added when there is a state change, and other colors are filled when communication is interrupted or there is any abnormality. Red lines can be used for pipelines between valves.
[0018] The alarm information interface is an operation interface that can display the address, description name, occurrence time, status, event type, etc. of the information. The alarm information interface can display the status changes of all information. Preferably, the information can be displayed by category and tab, and can also be retrieved and blocked by information category, time, etc.
[0019] Compared with the prior art, the beneficial effects of the present invention are: 1. It can realize real-time and online monitoring of the valve status of the fire water supply system pipe network. Through remote monitoring, sharing of monitoring images by mobile phone app, etc., owners and industry authorities can understand the on-site situation in real time, thereby avoiding accidental closure of valves and significantly improving the fire safety level of buildings. 2. It opens up management means to solve the dilemma of relevant units not knowing where to start when inspecting the effectiveness of fire protection facilities or being short of manpower and unable to effectively supervise. 3. Through online monitoring of the valve status of the fire water supply system pipe network, the responsible unit can discover abnormalities in time, so as to take timely measures to avoid long-term waterlessness in the pipeline and extend the service life. BRIEF DESCRIPTION OF THE DRAWINGS
[0020] Figure 1 The system block diagram of the fire water supply network visualization monitoring system of the present invention is shown in the figure: 1, signal valve; 2, on-site detection module; 3, host; 4, workstation; 5, data forwarding device; 6, time management device; 7, address editing module; 8, information receiving module; 9, information forwarding module; 10, time synchronization module; 11, information editing module; 12, graphic editing module; 13, online monitoring module; 14, sharing module; 15, data receiving module; 16, data processing module; 17, time synchronization module; 18, display device; 19, information receiving module; 20, information forwarding module; 21, time synchronization module. DETAILED DESCRIPTION
[0021] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.
[0022] See also Figure 1 The present invention provides a technical solution: a fire water supply network visualization monitoring system, including a signal valve 1, a field detection module 2, a host 3, a workstation 4, a data forwarding device 5, and a time management device. All valves on the fire water supply system pipeline use signal valves, and the signal valves realize the signal feedback function by opening and closing the passive contacts provided. After the field detection module detects the opening and closing positions of the passive contacts of the signal valve, the opening and closing information of the signal valve is transmitted to the host. The field detection module has a unique address identifier that can be manually set so that it can be accurately identified when connected to the host through the signal bus. The host collects the signal sent by the field detection module and forwards the signal to the workstation and the data forwarding device.
[0023] The workstation is installed in the fire control room or duty room to receive the valve opening and closing status information collected by the host. After data processing, information editing and graphic editing, it generates monitoring screens and alarm information interfaces for human-computer dialogue.
[0024] After receiving the signal forwarded by the host, the data forwarding device forwards the signal to the remote client again. The remote client is installed in the city monitoring center for supervision by superior units such as the competent department or company headquarters. The monitoring screen of the remote client can be customized individually or consistent with the workstation, and can be adjusted according to actual conditions.
[0025] The time management device is used to receive time information such as GPS or Beidou satellite, and synchronize the time information to the host, workstation, data forwarding device, etc. to ensure time uniformity and the time sequence of recorded information.
[0026] The monitoring screen includes the fire water supply system diagram and the alarm information interface. The fire water supply system diagram is drawn and generated based on the entire fire water supply system or a single building or a fire partition. Under the premise of meeting the clarity, the entire fire water supply system should be displayed on a monitoring screen as much as possible. The opening and closing status of all signal valves are intuitively displayed on a monitoring screen in the form of graphic elements, and the normally closed valves are supplemented with text labels. The different states of the valves should be highlighted. The graphics of the valves use the equipment legends specified in national standards or industry standards and are filled with eye-catching colors. The valve open state is filled with red, the valve closed state is filled with green, and gray flashes are added when there is a state change. When the communication is interrupted or there is any abnormality, it is filled with yellow. The pipelines between the valves use red lines. The valve size should be easy to identify and should not be too small. The pipeline does not have to correspond to the actual length and can be shortened for display. The alarm information interface can display the address, description name, occurrence time, status, event type, etc. of the information. The alarm information interface can display the status changes of all information. The information can be displayed by category and tabbed, and can also be retrieved and blocked by information category, time, etc.
[0027] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.
Claims
1. Fire water supply network visual monitoring system, characterized by: It comprises a signal valve (1), a field detection module (2), a host (3), a workstation (4), a data forwarding device (5), and a time management device (6); The signal valve (1) is used to replace a conventional valve; The on-site detection module (2) is used to detect the opening and closing status information of the signal valve (1); The host (3) is used to collect the signal sent by the on-site detection module (2), and can forward the signal to the workstation (4) and the data forwarding device (5); The workstation (4) is used to receive valve opening and closing status information collected by the host (3), and after data processing, information editing, and graphic editing, generate a monitoring screen and an alarm information interface for human-computer dialogue; The data forwarding device (5) is used to receive the signal forwarded by the host (3) and can forward the signal again to other devices; The time management device (6) is used to receive time information from GPS or Beidou satellites, and synchronize the time information to the host (3), workstation (4), data forwarding device (5), etc., to ensure time uniformity and the time sequence of recorded information.
2. The fire water supply network visual monitoring system according to claim 1 is characterized in that: The signal valve (1) comprises a valve body and a signal feedback device. Preferably, the signal valve realizes the signal feedback function by opening and closing the provided passive contacts.
3. The fire water supply network visual monitoring system according to claim 2 is characterized in that: The field detection module (2) is capable of detecting the opening and closing positions of the passive contacts of the signal valve (1), and transmitting the opening and closing information of the signal valve (1) to the host (3). Preferably, the field detection module has a unique address identifier that can be manually set, so that it can be accurately identified when connected to the host (3) via the signal bus.
4. The fire water supply network visual monitoring system according to claim 3 is characterized in that: The host (3) comprises an address editing module (7), an information receiving module (8), an information forwarding module (9), and a time synchronization module (10). The address editing module (7) is used to edit address information so as to accurately identify the on-site detection module (2); the information receiving module (8) is used to receive valve opening and closing status information detected by the on-site detection module (2); the information forwarding module (9) is used to forward the received information to a host computer such as a workstation (4) and a data forwarding device (5); and the time synchronization module (10) is used to receive time information issued by the time management device (6) and manage the time information of the local machine.
5. The fire water supply network visual monitoring system according to claim 4 is characterized in that: The workstation (4) comprises an information editing module (11), a graphic editing module (12), an online monitoring module (13), a sharing module (14), a data receiving module (15), a data processing module (16), a time synchronization module (17), and a display device (18). The data receiving module (15) is used to receive information forwarded by the host (3), and after the data is processed by the data processing module (16), the information editing module (11) is used to edit the information and convert it into human-readable text information; the graphic editing module (12) is used to edit the graphics and display the information graphically; the online monitoring module (13) is used to transfer the edited screen to the online monitoring mode; the sharing module (14) is used to share the monitoring screen generated by the online monitoring module (13) to the mobile phone terminal or other public service ports; the time synchronization module (17) is used to receive the time information issued by the time management device (6) and manage the time information of the local machine; the display device (18) is used to locally display the monitoring screen generated by the online monitoring module (13) to conduct human-computer dialogue.
6. The fire water supply network visual monitoring system according to claim 4 is characterized in that: The data forwarding device (5) comprises an information receiving module (19), an information forwarding module (20), and a time synchronization module (21). The information receiving module (19) is used to receive valve opening and closing status information forwarded by the host (3); the information forwarding module (20) is used to forward the received information to a host computer such as a remote workstation to achieve remote monitoring; the time synchronization module (21) is used to receive time information issued by the time management device (6) and manage the time information of the local machine.
7. The fire water supply network visual monitoring system according to claim 5 is characterized in that: The monitoring screen includes a fire water supply system diagram, an alarm information interface, etc.
8. The fire water supply network visual monitoring system according to claim 7 is characterized in that: The fire water supply system diagram is drawn and generated based on the entire fire water supply system or a single building or a fire partition as a unit, and the opening and closing states of all signal valves (1) are intuitively displayed on a monitoring screen in the form of graphic elements, and normally closed valves are supplemented with text labels.
9. The fire water supply network visual monitoring system according to claim 7 is characterized in that: The alarm information interface can display the address, description name, occurrence time, status, event type and other information all on the same interface.
10. The fire water supply network visual monitoring system according to claim 1 is characterized in that: All valves on the fire water supply system network must use signal valves (1).
