Splicing water level monitoring equipment for tunnel fire pool

Abstract

The splicable water level monitoring equipment for the tunnel fire pool comprises a splicing structure and a control mechanism, an equipment shell is installed at the top of the splicing structure, the splicing structure is formed by mutually sleeving and connecting a plurality of splicing pieces, a water level sensing module is installed on the surface of one side of each splicing piece, and the control mechanism is installed on the control mechanism. The top of each splicing piece is provided with a splicing piece signal groove connected with the water level sensing module, the control mechanism comprises an equipment shell, an electric push rod, a transverse connecting rod, a swing rod and an electromagnet, a signal slot is formed in one side of the equipment shell, each splicing piece signal groove is connected with a slot opening of the signal slot, and the electric push rod is installed on the other side of the equipment shell. A push head of the electric push rod is connected with one end of a transverse connecting rod, the other end of the transverse connecting rod is provided with a rolling shaft, and one end of a swing rod is hinged to the rolling shaft. The equipment can be used for monitoring the water levels of tunnel fire pools with different depths in real time, and the influence of temperature, humidity and impurities in water in the monitoring process can be reduced.

Description

Technical Field

[0001] The utility model belongs to the technical field of monitoring equipment, and in particular relates to a splicable water level monitoring device for a tunnel fire water pool. Background Art

[0002] Highway tunnel fire water tanks are specially used to store water for tunnel firefighting. They are mainly used to provide water for firefighting, relieve water pressure, and serve as a backup water source for other structures around the tunnel. Therefore, water level monitoring of tunnel fire water tanks is related to whether the tunnel fire water tanks can provide sufficient water in the event of an accident.

[0003] Ultrasonic level meters are commonly used to monitor the water level of fire water tanks in common highway tunnels. Ultrasonic level meters use the principle of ultrasonic reflection to measure water level distance and have the characteristics of non-contact measurement. The disadvantages of ultrasonic level meters are as follows:

[0004] (1) Ultrasonic level meters are greatly affected by the environment. Temperature changes affect the speed of sound, which in turn affects measurement accuracy. In environments with large temperature fluctuations, additional equipment needs to be installed for temperature compensation. In addition, the humidity and environmental noise around the ultrasonic level meter can also cause measurement errors. The location of the tunnel fire water tank usually has large temperature and humidity changes, making the ultrasonic level meter susceptible to these changes.

[0005] (2) Ultrasonic level meters are greatly affected by the medium. Ultrasonic level meters are not suitable for measuring liquids containing a large amount of suspended particles or foam, because these substances will absorb or scatter sound waves, affecting signal transmission. Tunnel fire water tanks are only used when accidents occur, so suspended particles and other biological debris are easily present in the water.

[0006] (3) Ultrasonic level meters are easily affected by reflective surfaces. Tunnel fire water tanks are located near the tunnel. The movement of vehicles can easily cause the liquid level in the fire water tank to fluctuate. The irregular liquid surface will cause the ultrasonic level meter's reflected signal to be unstable, affecting the measurement results. In addition, if the tunnel fire water tank experiences vibration and turbulence, the ultrasonic level meter may not be able to provide stable readings. Summary of the Invention

[0007] In response to the problems existing in the above-mentioned prior art, the utility model provides a tunnel fire water pool splicing water level monitoring device. The purpose is to monitor the water levels of tunnel fire water pools of different depths in real time without the need for staff to go to the site, and to obtain water level monitoring data in real time. At the same time, it can also reduce the influence of temperature, humidity and debris in the water during the monitoring process, and ensure the accuracy of water level information acquisition.

[0008] In order to achieve the above purpose, the specific solutions of the present utility model are as follows:

[0009] The tunnel fire water tank can be spliced ​​with water level monitoring equipment, including a splicing structure and a control mechanism. The equipment shell is installed on the top of the splicing structure. The splicing structure is composed of multiple splicing parts that are sequentially fitted and connected. A water level sensing module is installed on one side surface of each splicing part. A splicing part signal slot is provided on the top of each splicing part to connect with the water level sensing module. The control mechanism includes an equipment shell, an electric push rod, a horizontal connecting rod, a swing rod and an electromagnet. A signal slot is installed on one side of the equipment shell. The signal slot of each splicing part is connected to the slot port of the signal slot. The electric push rod is installed on the other side of the equipment shell. The push head of the electric push rod is connected to one end of the horizontal connecting rod. A rolling shaft is installed on the other end of the horizontal connecting rod. One end of the swing rod is hinged on the rolling shaft, and the electromagnet is installed on the other end of the swing rod.

[0010] Furthermore, it includes an electric push rod drive, a control chip, an NBIOT module and a power supply installed in the device shell, and a control button installed on the top of the device shell. The electric push rod is connected to the electric push rod drive, and the signal slot, the electric push rod drive, the NBIOT module, the control button and the electromagnet are respectively connected to the control chip, and the power supply provides the working voltage of the control chip.

[0011] Furthermore, it includes a terminal device, which is connected to the NBIOT module and is a mobile phone, notebook, tablet computer or computer.

[0012] Furthermore, a splicing protrusion is provided on the top of the splicing piece, and a splicing groove adapted to the splicing protrusion is respectively provided on the bottom of the splicing piece and the bottom of the device shell.

[0013] Furthermore, the signal slot is provided with a plurality of slot openings.

[0014] Advantages of the present invention

[0015] This utility model's tunnel fire water tank can be expanded through the use of splicing components to connect water level monitoring equipment, enabling it to monitor water levels in tunnel fire water tanks of varying depths. The use of a water level sensing module to monitor the water level in the tunnel fire water tank reduces the impact of temperature, humidity, and water debris during monitoring. The NBIOT module transmits water level monitoring data to a terminal device via the internet, enabling real-time monitoring of the water level in the tunnel fire water tank without the need for on-site personnel. This effectively improves the work efficiency of inspectors, and its simple structure and easy operation make it suitable for widespread use. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 This is a schematic diagram of the overall structure of the connectable water level monitoring equipment for the tunnel fire water pool of the present invention.

[0017] Figure 2 for Figure 1 Enlarged view of the structure of the control mechanism.

[0018] Figure 3 for Figure 1 Schematic diagram of the structure of the splicing parts.

[0019] Figure 4 for Figure 1 Device usage status diagram.

[0020] Figure 5 for Figure 1 Schematic diagram of the device's working principle.

[0021] In the picture:

[0022] 1. Signal slot; 101. Slot opening of the signal slot; 2. Control button; 3. NBIOT module; 4. Control chip; 5. Electric push rod drive; 6. Power supply; 7. Splicing groove; 8. Electric push rod; 9. Rolling axis; 10. Electromagnet; 11. Splicing piece signal slot; 12. Splicing protrusion; 13. Water level sensor module; 14. Splicing piece; 15. Swing rod; 16. Equipment shell; 17. Horizontal connecting rod; 18. Fire water tank. DETAILED DESCRIPTION

[0023] The present invention will be further explained and illustrated below in conjunction with the accompanying drawings and specific embodiments. It should be noted that the specific embodiments are not intended to limit the scope of rights of the present invention.

[0024] like Figures 1 to 5 As shown, this specific embodiment provides a splicing water level monitoring device for a tunnel fire water pool used on a highway, including a splicing structure and a control mechanism. The splicing structure is composed of a plurality of splicing pieces 14 that are fitted together. A splicing protrusion 12 is provided on the top of the splicing piece 14, and a splicing groove 7 that is adapted to the splicing protrusion 12 is provided on the bottom of the splicing piece 14. A water level sensing module 13 is respectively installed on the surface of one side of each splicing piece 14. The product model of the water level sensing module 13 is STEM-HSS37P, which can be purchased on Taobao. A splicing piece signal slot 11 is respectively provided on the top of each splicing piece 14 to connect with the water level sensing module 13. When the splicing component signal slot 11 is connected to the slot port 101 of the signal slot 1, the water level signal of the water level sensing module 13 is directly transmitted to the control chip 4. The number of splicing pieces 14 is set according to the depth of the tunnel fire water pool.

[0025] The control mechanism includes a device housing 16, an electric push rod 8, a cross-link 17, a swing arm 15, an electromagnet 10, an electric push rod driver 5 mounted within the device housing 16, a control chip 4, an NBIOT module 3, a power supply 6, and a control button 2 mounted on the top of the device housing 16. The bottom of the device housing 16 is provided with splicing grooves 7 that mate with the splicing protrusions 12. The device housing 16 is connected to the splicing protrusions 12 of the topmost splicing piece 14 in the splicing structure through the splicing grooves 7. A signal slot 1 is mounted on one side of the device housing 16, connecting each splicing piece's signal slot 11 to a slot opening 101 of the signal slot. There are multiple signal slot openings 101. The electric push rod 8 is mounted on the other side of the device housing 16. The push rod head of the electric push rod 8 is connected to one end of the cross-link 17, the other end of which is mounted with a rolling shaft 9. One end of the swing arm 15 is hinged to the rolling shaft 9, and the electromagnet 10 is mounted on the other end of the swing arm 15. The function of the rolling shaft 9 is to manually control the rotation of the swing arm 15 to control the electromagnet 10 to approach the surface of the fire water tank, and to use the magnetic force of the electromagnet to stabilize the control mechanism on the edge of the fire water tank 18. The slot opening 101 of the signal slot 1 is used to provide a terminal for connecting to the control chip 4. The splice signal slot 11 is used to provide a terminal for connecting the electrical signal of the splice 14. The splice signal slot 11 is connected to the signal slot 1 via an electrical wire, so that the water level sensing module 13 is connected to the control chip 4 through the splice signal slot 11 and the signal slot 1, thereby allowing the control chip 4 to obtain water level information of the splice 14.

[0026] The electric push rod 8 is connected to the electric push rod driver 5. The signal slot 1, the electric push rod driver 5, the NBIOT module 3, the control button 2, and the electromagnet 10 are each connected to the control chip 4, allowing the control chip 4 to respectively obtain signals from the slot opening 101 of the signal slot. Depending on the depth of the tunnel fire water tank, the user can connect the signal slot 11 of the splicing component 4 to the slot opening 101 of the signal slot. The control chip 4 will automatically obtain the signal connected to the slot opening 101 of the signal slot. The control signal of the electric push rod 8 is provided by the electric push rod control driver 5, the purpose of which is to enable the swing arm 15 to extend laterally and adapt to the thickness of the tunnel fire water tank.

[0027] The power supply 6 provides the operating voltage of the control chip 4. The NBIOT module 3 is connected to the terminal device, and the NBIOT module 3 is used to transmit the water level information obtained by the control chip 4 to the terminal device via the Internet. The terminal device is a mobile phone, notebook, tablet computer or computer.

[0028] The product model of NBIOT module 3 is Tashi-E33V, which can be purchased on Taobao.

[0029] The product model of the control chip 4 is Broadcom-BCM2711, which can be purchased on Taobao.

[0030] The product model of the electric linear actuator 5 is Longteng-TBQD12, which can be purchased on Taobao.

[0031] The product model of Power Supply 6 is Chenke-6SNP, which can be purchased on Taobao.

[0032] The product model of the electric linear actuator 8 is Longteng-XDHA12, which can be purchased on Taobao.

[0033] The product model of the electromagnet 10 is ELECALL-P20, which can be purchased on Taobao.

[0034] Working principle:

[0035] The number of splicing pieces 14 is determined based on the height of the fire pool 18. These pieces are then fitted together and installed at the bottom of the device housing 16. Once installed, the splicing structure is placed inside the fire pool 18, and the control mechanism is placed on the edge of the fire pool 18. After power is applied, the control chip 4 sends a signal to the electric push rod driver 5, which controls the extension of the electric push rod 8, adjusting the width between the device housing 16 and the electromagnet 10 on the swing arm 15 to match the thickness of the fire pool 18 edge. The rolling shaft 9 is then manually swung to bring the electromagnet 10 into close contact with the surface of the fire pool 18. The suction force of the electromagnet 10 secures the control mechanism to the edge of the fire pool 18. The water level sensor module 13 installed on the splicing piece 14 detects the water level in the fire pool and sends this data to the control chip 4. The control chip 4 transmits this data to the terminal device via the NBIOT module 3.

Claims

1. The tunnel fire water pool can be spliced ​​with water level monitoring equipment, which is characterized by: It includes a splicing structure and a control mechanism, the device shell is installed on the top of the splicing structure, the splicing structure is composed of a plurality of splicing parts that are fitted together and connected, a water level sensing module is installed on one side surface of each splicing part, and a splicing part signal slot is provided on the top of each splicing part to be connected to the water level sensing module, the control mechanism includes a device shell, an electric push rod, a horizontal connecting rod, a swing rod and an electromagnet, a signal slot is installed on one side of the device shell, and the signal slot of each splicing part is connected to the slot port of the signal slot, the electric push rod is installed on the other side of the device shell, the push head of the electric push rod is connected to one end of the horizontal connecting rod, the other end of the horizontal connecting rod is installed with a rolling shaft, one end of the swing rod is hinged on the rolling shaft, and the electromagnet is installed at the other end of the swing rod.

2. The tunnel fire water pool splicable water level monitoring equipment according to claim 1 is characterized in that: The control mechanism also includes an electric push rod drive, a control chip, an NBIOT module and a power supply installed in the device shell, and a control button installed on the top of the device shell. The electric push rod is connected to the electric push rod drive, the control button is connected to the electric push rod drive, the water level sensing module, the electric push rod drive, the NBIOT module, the control button and the electromagnet are respectively connected to the control chip, and the power supply provides working voltage to the control chip, the electric push rod drive and the electromagnet respectively.

3. The tunnel fire water pool splicable water level monitoring equipment according to claim 2 is characterized in that: It includes a terminal device, which is connected to the NBIOT module. The terminal device is a mobile phone, notebook, tablet computer or computer.

4. The tunnel fire pool splicable water level monitoring equipment according to claim 1 is characterized in that: The top of the splicing piece is provided with a splicing protrusion, and the bottom of the splicing piece and the bottom of the device shell are respectively provided with a splicing groove adapted to the splicing protrusion.

5. The tunnel fire water pool splicable water level monitoring equipment according to claim 1 is characterized in that: The signal slot is provided with a plurality of slot openings.

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