Fire-fighting equipment data monitoring device

Abstract

A fire-fighting equipment data monitoring device belongs to the technical field of data monitoring, and comprises a housing body, a microprocessor, a data storage unit and a communication interface, two side end portions of the housing body are slidably provided with connection assemblies, and each connection assembly comprises an interface panel, a sealing connection plate and a transmission interface. Switching assemblies are fixedly installed at the two side ends of each microprocessor, each switching assembly comprises a connecting line, a signal fusion port, a signal tuning sliding plate and a switching port, and a multi-stage reset rod with two compressed ends is fixedly installed at the top end of each signal fusion port; the top end of each multi-stage reset rod is provided with a rod-shaped antenna which slides vertically, by adopting a wired communication mode and a wireless communication mode, when one communication link goes wrong, the other communication link can be used as a backup to be started immediately, the continuity of data transmission is ensured, and the stability and reliability of the system can be improved in various complex environment changes.

Description

Technical Field

[0001] The present invention belongs to the technical field of data monitoring, and in particular relates to a fire-fighting equipment data monitoring device. Background Art

[0002] Fire monitoring refers to the detection and supervision of man-made and natural / accidental disasters encountered by people in their daily lives, work, and studies, in order to prevent disasters and eliminate hidden dangers. Fire monitoring primarily involves the inspection and testing of the technical and performance indicators of various fire protection facilities installed in buildings, thereby determining whether the entire fire protection system meets national standards and regulations, ensuring that the performance of fire protection facilities in buildings meets design requirements. Multiple fire protection equipment is connected in series through network terminals. In actual applications, the equipment usually requires the following technologies:

[0003] 1. Sensor module, used to detect the status of different devices;

[0004] 2. Data acquisition and processing module, responsible for receiving data from the sensor module and performing processing and analysis;

[0005] 3. Display and alarm module, used to display the monitored fire equipment data;

[0006] 4. Housing and mounting structure to protect the internal components of the monitoring device;

[0007] The monitoring device transmits alarm information and real-time data to a monitoring center or other related equipment via a communication interface. The electrical signals collected by the sensors are then transmitted via circuit connections to the data monitoring device's microprocessor for data comparison and judgment. The collected real-time data is compared with preset thresholds to determine whether an abnormality exists. However, in practice, this system has the following shortcomings.

[0008] 1. The docking ports of the detection device are concentrated on one side, which will limit the location selection of the monitoring device during installation. In some places with narrow space or complex installation environment, the side where the port is located cannot be oriented to the appropriate connection direction, resulting in installation difficulties or inconvenience in wiring, increasing the difficulty of cable management. Excessive cables may be tangled together, making it inconvenient to organize and maintain, and easily causing cable damage or signal interference.

[0009] 2. The monitoring device is connected to multiple devices through wired transmission. If the wired optical fiber is accidentally cut, the wireless communication is severely interfered with, or the base station fails, the fire equipment data will not be transmitted in time, especially in emergency situations such as fire, affecting the monitoring and response to fire risks. Different types of fire equipment may be located in different environments. Relying on wired transmission can easily reduce the adaptability of the equipment. Summary of the Invention

[0010] The present invention mainly aims to solve the technical problems existing in the above-mentioned prior art and provides a fire-fighting equipment data monitoring device.

[0011] The above technical problems of the present invention are mainly solved through the following technical solutions: A fire-fighting equipment data monitoring device, including a shell body, a microprocessor, a data storage unit, and a communication interface. The two side ends of the shell body are slidably installed with connecting components, and each of the connecting components includes an interface panel, a sealing plate, and a transmission interface. The two side ends of each microprocessor are fixedly installed with switching components, and each of the switching components includes a connecting line, a signal fusion port, a signal tuning slide, and a switching port. The top of each signal fusion port is fixedly installed with a multi-stage reset rod compressed at both ends, and the top of each multi-stage reset rod is provided with a vertically sliding rod antenna.

[0012] Preferably, the top of each of the shell bodies is provided with two holes for docking with the multi-stage reset rods, the top of each of the multi-stage reset rods is fixedly mounted with a vertically movable sealing sleeve, the surface of each of the multi-stage reset rods is fixedly mounted with a synchronously movable support bracket, and the bottom end of each of the support brackets is fixedly mounted with two synchronous link rods for docking with the signal tuning slide;

[0013] A freely rotatable drive shaft is rotatably mounted inside each of the interface panels, and a locking ring for locking the angle of the drive shaft is fixedly mounted at the end of each of the drive shafts;

[0014] The end of each locking ring is rotatably connected to the top of the connecting line, and two symmetrically arranged telescopic hinge plates are fixedly installed on the surface of each driving shaft.

[0015] Preferably, each of the telescopic hinged plates is of a sleeve-type design, and a horizontal rod is rotatably mounted on the top of each of the telescopic hinged plates;

[0016] Each of the horizontal insertion rods slides horizontally inside the interface panel, and both side ends of each interface panel are provided with guide grooves;

[0017] Both side ends of the shell body are provided with guide slots for guiding the interface panel to slide, and both inner side walls of each guide slot are provided with at least two holes for fixing the interface panel.

[0018] Preferably, two multi-stage compressed folding spring rods are fixedly mounted on the side ends of each interface panel, a positioning block that engages with a locking ring is fixedly mounted on the top end of each folding spring rod, and a compression spring is installed inside each folding spring rod;

[0019] The microprocessor and the data storage unit are connected via a wiring harness, and a power module is installed inside the housing body;

[0020] Each of the signal fusion ports is divided into two sections, an upper section and an lower section. The upper section of the signal fusion port is connected to the multi-stage reset rod, and the lower section of the signal fusion port is connected to the connecting line.

[0021] The present invention has the beneficial effects:

[0022] 1: By pushing the interface panel, sealing plates are installed at both ends of the interface panel. The sealing plates can slide between the interlayer of the shell body to ensure the sealing of the outer side of the shell body. At the same time, the sealing plates are driven to slide in the vertical direction through the interface panel, and the position of the sealing plates can be adjusted. The sealing plates installed on both sides can disperse the cable connections, reduce the confusion caused by the cables being concentrated on one side, and increase the installation flexibility. The adjustable interface panel makes it more convenient for operators to plug and unplug cables or debug equipment.

[0023] 2. By moving the signal tuning slide upward, the switching port at the bottom of the signal tuning slide is disconnected from the signal fusion port, and the switching port at the top is inserted into the interior of the signal fusion port. The switching port at the top of the signal tuning slide is connected to the multi-level reset rod, and the data is continued to be transmitted through the connection between the multi-level reset rod and the microprocessor. By adopting both wired and wireless communication methods, when one communication link has a problem, the other can be immediately enabled as a backup to ensure the continuity of data transmission, which can improve the stability and reliability of the system in various complex environmental changes.

[0024] 3. By adding transmission interfaces on both sides of the shell body, the redundancy of the connection is increased. When a port on one side fails, data transmission and device connection can still be carried out through the port on the other side, which greatly reduces the impact of single point failures on the system and improves the reliability of the system. More transmission interfaces plus the interface panel drive the transmission interface to slide on the side end of the shell body, which can connect more sensors, communication modules or other devices and enhance scalability.

[0025] Four: The hole at the top of the shell body is sealed by a sealing sleeve, and the multi-stage reset rod slides upward to drive the support bracket to move. The support bracket drives the signal tuning slide to slide upward synchronously through the synchronous link rod. By sliding the signal tuning slide vertically, different communication modes are switched. The combination of wired communication and wireless communication can ensure the stability of data transmission.

[0026] 5. The locking ring is driven by the driving shaft to rotate at the side end of the interface panel. The rotating locking ring squeezes the surface of the positioning block, forcing the positioning block to slide downward. At the same time, the folding spring rod is a multi-section sleeve design. The folding spring rod can only be compressed in the vertical direction, allowing the positioning block to leave the groove on the surface of the locking ring and allow the driving shaft to rotate. The folding spring rod always generates thrust on the horizontal plug rod, allowing the surface of the positioning block to rub against the surface of the locking ring. When the driving shaft rotates in the opposite direction and pushes the horizontal plug rod to insert into the inner side of the shell body, the locking ring rotates in the opposite direction and engages with the two positioning blocks. The positioning block docks with the locking ring to fix the angle of the drive shaft. The adjustment operation is simple, which is convenient for quick docking of cables. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 This is a structural diagram of the housing body of the present invention;

[0028] Figure 2 is a structural diagram of the microprocessor of the present invention;

[0029] Figure 3 This is a structural diagram of the interface panel of the present invention;

[0030] Figure 4 It is a plan view of the detection mechanism of the present invention;

[0031] Figure 5 It is a structural diagram of the drive shaft of the present invention;

[0032] Figure 6 This is a structural diagram of the signal fusion port of the present invention;

[0033] Figure 7 is a structural diagram of the rod antenna of the present invention;

[0034] Figure 8 For the present invention Figure 3 A magnified structure diagram of the .

[0035] In the figure: 11. Shell body; 12. Microprocessor; 13. Data storage unit; 14. Communication interface; 15. Interface panel; 16. Sealing plate; 17. Transmission interface; 18. Guide slide; 19. Connecting line; 21. Drive shaft; 22. Locking ring; 23. Telescopic hinge plate; 24. Horizontal plug rod; 25. Signal fusion port; 26. Signal tuning slide; 27. Switching port; 28. Multi-stage reset rod; 29. Rod antenna; 31. Sealing sleeve; 32. Support bracket; 33. Synchronous link rod; 34. Positioning block; 35. Folding spring rod. DETAILED DESCRIPTION

[0036] The technical solution of the present invention will be further specifically described below through embodiments and in conjunction with the accompanying drawings.

[0037] Example: A fire equipment data monitoring device, such as Figures 1-8 As shown, it includes a shell body 11, a microprocessor 12, a data storage unit 13, and a communication interface 14. The two side ends of the shell body 11 are slidably installed with connection components, each of which includes an interface panel 15, a sealing plate 16, and a transmission interface 17. By pushing the interface panel 15, sealing plates 16 are installed at both ends of the interface panel 15. The sealing plates 16 can slide between the interlayers of the shell body 11 to ensure the sealing of the outside of the shell body 11. At the same time, the sealing plates 16 are driven to slide in the vertical direction through the interface panel 15. The position of the sealing plates 16 can be adjusted. The sealing plates 16 installed on both sides can disperse the cable connections, reduce the confusion caused by the cables being concentrated on one side, and increase the installation flexibility. The interface panel 15 with adjustable position makes it more convenient for operators to plug and unplug cables or debug equipment.

[0038] Each microprocessor 12 is fixedly provided with a switching assembly at both side ends. Each switching assembly includes a connecting line 19, a signal fusion port 25, a signal tuning slide 26, and a switching port 27. A multi-stage reset rod 28 compressed at both ends is fixedly provided at the top of each signal fusion port 25. A vertically sliding rod antenna 29 is provided at the top of each multi-stage reset rod 28. A sensor is installed at the end of the connecting line 19. When the sensor detects that the signal transmission of the connecting line 19 is cut off, the multi-stage reset rod 28 is quickly pushed upward by controlling the top of the multi-stage reset rod 28, and the rod antenna 29 moves upward, passing the upper half of the rod antenna 29 through the top of the shell body 11, and at the same time driving the signal tuning slide 26 in the signal fusion. The interior of the port 25 slides upward quickly. Each switch port 27 is fixed at both ends of the signal tuning slide 26. By moving the signal tuning slide 26 upward, the switch port 27 at the bottom of the signal tuning slide 26 is disconnected from the signal fusion port 25. The switch port 27 at the top is inserted into the interior of the signal fusion port 25. The switch port 27 at the top of the signal tuning slide 26 is connected to the multi-stage reset rod 28. The multi-stage reset rod 28 is connected to the microprocessor 12 to continue transmitting data. By adopting both wired and wireless communication methods, when one communication link has a problem, the other can be immediately activated as a backup to ensure the continuity of data transmission and improve the stability and reliability of the system in various complex environmental changes.

[0039] The top of each shell body 11 is provided with two holes for docking with the multi-stage reset rod 28. The top of each multi-stage reset rod 28 is fixedly mounted with a vertically movable sealing sleeve 31. The surface of each multi-stage reset rod 28 is fixedly mounted with a synchronously movable support bracket 32. The bottom end of each support bracket 32 is fixedly mounted with two synchronous link rods 33 for docking with the signal tuning slide 26. When the multi-stage reset rod 28 is retracted into the interior of the shell body 11, the sealing sleeve 31 is used to block the holes at the top of the shell body 11. The multi-stage reset rod 28 slides upward, driving the support bracket 32 to move. The support bracket 32 synchronously drives the signal tuning slide 26 to slide upward through the synchronous link rod 33. By allowing the signal tuning slide 26 to slide vertically, different communication modes are switched.

[0040] A freely rotating drive shaft 21 is rotatably installed inside each interface panel 15, and a locking ring 22 for locking the angle of the drive shaft 21 is fixedly installed at the end of each drive shaft 21. The end of each locking ring 22 is rotatably connected to the top of the connecting line 19, and two symmetrically arranged telescopic hinge plates 23 are fixedly installed on the surface of each drive shaft 21. Each telescopic hinge plate 23 is a sleeve-type design, and a horizontal plug rod 24 is rotatably installed on the top of each telescopic hinge plate 23. Each horizontal plug rod 24 slides horizontally inside the interface panel 15, and guide grooves are provided on both side ends of each interface panel 15. The drive shaft 21 is rotated to allow the drive shaft 21 to rotate freely inside the interface panel 15. The rotation of the drive shaft 21 drives the data storage unit 13 to rotate inside the interface panel 15. The telescopic hinge plate 23 deflects inside the interface panel 15. The deflected telescopic hinge plate 23 simultaneously stretches its own length, exerting an oblique force on the horizontal insertion rod 24. However, the horizontal insertion rod 24 fits into the guide groove inside the interface panel 15. The horizontal insertion rod 24 can only slide in the horizontal direction. By rotating the drive shaft 21, the horizontal insertion rod 24 is allowed to leave the side end of the interface panel 15, driving the interface panel 15 to slide on the side end of the housing body 11.

[0041] Guide slots 18 are provided on both side ends of the housing body 11 to guide the sliding of the interface panel 15. Each inner sidewall of the guide slot 18 has at least two holes for securing the interface panel 15. The microprocessor 12 and the data storage unit 13 are connected via a wiring harness. A power module is installed inside the housing body 11. Each signal fusion port 25 is divided into upper and lower sections. The upper end of the signal fusion port 25 is connected to the multi-stage reset rod 28, and the lower end of the signal fusion port 25 is connected to the connecting line 19.

[0042] The folding spring rod 35 is fixedly installed on the side end of each interface panel 15, and the top of each folding spring rod 35 is fixedly installed with a positioning block 34 that engages with the locking ring 22. A compression spring is installed inside each folding spring rod 35, and the drive shaft 21 drives the locking ring 22 to rotate at the side end of the interface panel 15. The rotating locking ring 22 squeezes the surface of the positioning block 34, forcing the positioning block 34 to slide downward. At the same time, the folding spring rod 35 is a multi-section sleeve design. The folding spring rod 35 can only be compressed in the vertical direction, allowing the positioning block 34 to leave the groove on the surface of the locking ring 22, allowing the drive shaft 21 to rotate. The folding spring rod 35 always generates thrust on the horizontal insertion rod 24, allowing the surface of the positioning block 34 to rub against the surface of the locking ring 22. When the drive shaft 21 rotates in the opposite direction and pushes the horizontal insertion rod 24 to insert into the inner side of the shell body 11, the locking ring 22 rotates in the opposite direction and engages with the two positioning blocks 34. The positioning block 34 docks the locking ring 22 to fix the angle of the drive shaft 21.

[0043] Principle of the present invention:

[0044] In the first step, different firefighting equipment is connected through the interface at the side end of the housing body 11. The electrical signal collected by the sensor is transmitted to the microprocessor 12 through the connecting line 19. The microprocessor 12 processes the received digital signal and removes noise interference to improve the accuracy of the data. The microprocessor 12 compares the collected real-time data with a preset threshold to determine whether there is an abnormality. The collected data is then stored in the data storage unit 13. When the microprocessor 12 determines that the data of the firefighting equipment is abnormal, an alarm mechanism is triggered, and the alarm information and real-time data are transmitted to the monitoring center or other related equipment through the communication interface 14.

[0045] By controlling the top of the multi-stage reset rod 28, the multi-stage reset rod 28 is quickly pushed upward, the rod antenna 29 is moved upward, and the upper half of the rod antenna 29 is passed through the top of the shell body 11, while driving the signal tuning slide 26 to slide quickly upward inside the signal fusion port 25. Each switching port 27 is fixed at both ends of the signal tuning slide 26. By moving the signal tuning slide 26 upward, the switching port 27 at the bottom of the signal tuning slide 26 is disconnected from the signal fusion port 25, and the switching port 27 at the top is inserted into the interior of the signal fusion port 25. The switching port 27 at the top of the signal tuning slide 26 is connected to the multi-stage reset rod 28. Through the connection between the multi-stage reset rod 28 and the microprocessor 12, data transmission continues. By adopting both wired and wireless communication methods, when one communication link has a problem, the other can be immediately activated as a backup to ensure the continuity of data transmission, which can improve the stability and reliability of the system in various complex environmental changes.

[0046] In the second step, by rotating the drive shaft 21, the drive shaft 21 is allowed to rotate freely inside the interface panel 15. The rotation of the drive shaft 21 drives the data storage unit 13 to rotate inside the interface panel 15, and the telescopic hinge plate 23 deflects inside the interface panel 15. The deflected telescopic hinge plate 23 stretches its own length at the same time, exerting an oblique force on the horizontal insertion rod 24. However, the horizontal insertion rod 24 fits into the guide groove inside the interface panel 15, and the horizontal insertion rod 24 can only slide in the horizontal direction. By rotating the drive shaft 21, the horizontal insertion rod 24 is allowed to leave the side end of the interface panel 15, driving the interface panel 1 The interface panel 15 slides on the side of the housing body 11. Sealing plates 16 are installed at both ends of the interface panel 15 by pushing the interface panel 15. The sealing plates 16 can slide between the interlayer of the housing body 11 to ensure the sealing of the outer side of the housing body 11. At the same time, the interface panel 15 drives the sealing plates 16 to slide in the vertical direction. The position of the sealing plates 16 can be adjusted. The sealing plates 16 installed on both sides can disperse cable connections, reduce the clutter caused by cables being concentrated on one side, and increase installation flexibility. The adjustable interface panel 15 makes it more convenient for operators to plug and unplug cables or debug equipment.

[0047] The locking ring 22 is driven by the driving shaft 21 to rotate at the side end of the interface panel 15. The rotating locking ring 22 squeezes the surface of the positioning block 34, forcing the positioning block 34 to slide downward. At the same time, the folding spring rod 35 is a multi-section sleeve design. The folding spring rod 35 can only be compressed in the vertical direction, allowing the positioning block 34 to leave the groove on the surface of the locking ring 22, allowing the driving shaft 21 to rotate. The folding spring rod 35 always generates a thrust on the horizontal insertion rod 24, allowing the surface of the positioning block 34 to rub against the surface of the locking ring 22. When the driving shaft 21 rotates in the opposite direction and pushes the horizontal insertion rod 24 to insert into the inner side of the shell body 11, the locking ring 22 rotates in the opposite direction and engages with the two positioning blocks 34. The positioning block 34 docks with the locking ring 22 to fix the angle of the driving shaft 21.

[0048] Finally, it should be noted that the above embodiments are merely representative examples of the present invention. Obviously, the present invention is not limited to the above embodiments and is susceptible to numerous variations. Any simple modifications, equivalent variations, and modifications to the above embodiments based on the technical essence of the present invention are deemed to fall within the scope of protection of the present invention.

Claims

1. A fire-fighting equipment data monitoring device, comprising a housing (11), a microprocessor (12), a data storage unit (13), and a communication interface (14), characterized in that: The two side ends of the shell body (11) are slidably mounted with connection components, each of which includes an interface panel (15), a sealing plate (16), and a transmission interface (17). The two side ends of each microprocessor (12) are fixedly mounted with a switching component, each of which includes a connecting line (19), a signal fusion port (25), a signal tuning slide (26), and a switching port (27). The top of each signal fusion port (25) is fixedly mounted with a multi-stage reset rod (28) compressed at both ends, and the top of each multi-stage reset rod (28) is provided with a vertically sliding rod antenna (29).

2. A firefighting equipment data monitoring device according to claim 1, characterized in that: The top of each shell body (11) is provided with two holes for docking with the multi-stage reset rod (28), the top of each multi-stage reset rod (28) is fixedly mounted with a vertically movable sealing sleeve (31), the surface of each multi-stage reset rod (28) is fixedly mounted with a synchronously movable support bracket (32), and the bottom of each support bracket (32) is fixedly mounted with two synchronous link rods (33) for docking with the signal tuning slide (26).

3. The firefighting equipment data monitoring device according to claim 1, characterized in that: A freely rotatable drive shaft (21) is rotatably mounted inside each interface panel (15), and a locking ring (22) for locking the angle of the drive shaft (21) is fixedly mounted at the end of each drive shaft (21).

4. A firefighting equipment data monitoring device according to claim 3, characterized in that: The end of each locking ring (22) is rotatably connected to the top of the connecting line (19), and the surface of each driving shaft (21) is fixedly mounted with two symmetrically arranged telescopic hinge plates (23).

5. A firefighting equipment data monitoring device according to claim 4, characterized in that: Each of the telescopic hinged plates (23) is of sleeve-type design, and a horizontal insertion rod (24) is rotatably mounted on the top end of each of the telescopic hinged plates (23).

6. A firefighting equipment data monitoring device according to claim 5, characterized in that: Each of the horizontal insertion rods (24) slides horizontally inside the interface panel (15), and both side ends of each of the interface panels (15) are provided with guide grooves.

7. The firefighting equipment data monitoring device according to claim 1, characterized in that: Both side ends of the shell body (11) are provided with guide slots (18) for guiding the sliding of the interface panel (15), and both inner side walls of each guide slot (18) are provided with at least two holes for fixing the interface panel (15).

8. The firefighting equipment data monitoring device according to claim 1, characterized in that: Two multi-stage compressed folding spring rods (35) are fixedly installed on the side end of each interface panel (15), a positioning block (34) that is engaged with the locking ring (22) is fixedly installed on the top end of each folding spring rod (35), and a compression spring is installed inside each folding spring rod (35).

9. The firefighting equipment data monitoring device according to claim 1, characterized in that: The microprocessor (12) and the data storage unit (13) are connected via a wiring harness, and a power module is installed inside the housing body (11).

10. The firefighting equipment data monitoring device according to claim 1, characterized in that: Each of the signal fusion ports (25) is divided into two sections, an upper section and an lower section. The upper end of the signal fusion port (25) is connected to a multi-stage reset rod (28), and the lower end of the signal fusion port (25) is connected to a connecting line (19).

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