Remote visual voice monitoring system and device

Abstract

The utility model discloses a remote visual voice monitoring device, which is characterized in that voice industrial control host equipment is arranged in a track area, and the voice industrial control host equipment is in electric signal connection with an intelligent camera, an interval water level monitoring device, an indicating lamp, a water pump control box and a water collecting well water level monitoring device; the water-collecting well water level monitoring device is arranged above a water-collecting well, a suspended large bottle is arranged in the water-collecting well, the large bottle is connected with a small bottle through a first fixed pulley and a second fixed pulley, and the first fixed pulley and the second fixed pulley are both connected to a main body structure of a pump room through fixing rods. Real-time monitoring of a rail-mounted area and a water collecting well is achieved through an intelligent camera 5 and various monitoring devices; the water-collecting well water level monitoring device 2 adopts a physical monitoring method, is simple and reliable, and does not need extra power supply; receiving and processing of remote voice instructions are supported, and the flexibility and convenience of the system are improved; and through real-time monitoring and control, safe operation of the rail-mounted area and the water collecting well is ensured, and the accident risk is reduced.

Description

Technical Field

[0001] The utility model belongs to the technical field of equipment monitoring, and particularly relates to a remote visual voice monitoring system and device. Background Art

[0002] Most subway lines are located underground and are mostly in a lower position compared with municipal roads and municipal drainage pipe networks. Therefore, in previous years, there have been large-scale flooding incidents in the subway, making the monitoring and treatment of subway water levels more urgent.

[0003] Since most subway lines are set underground, when the water accumulation in the interval line is serious, it will affect the driving safety. Coupled with the particularity of the subway track area, it is inconvenient for subway staff to enter the interval to understand the on-site situation and handle emergency faults during operation. At present, the flooding in the Kunming subway interval can only be feedback through the driver or through the interval drainage equipment and the anti-flood gate system introduction, so the water level condition of the railway interval cannot be obtained in time. Content of the Utility Model

[0004] The purpose of the utility model is to solve the above deficiencies, and provides a remote visual voice monitoring system and device, expecting to improve the situation that the water accumulation data feedback and processing in the existing subway interval are not timely.

[0005] To solve the above technical problems, the utility model adopts the following technical solutions:

[0006] A remote visual voice monitoring system, the system includes a voice industrial control host device and an intelligent camera. The voice industrial control host device is electrically connected to the intelligent camera. The intelligent camera is used to obtain the working conditions of the track area. The voice industrial control host device is used to process, record and execute control operations on the conditions obtained by the intelligent camera. The voice industrial control host device is electrically connected to an indicator light. The indicator light is used to indicate relevant conditions, and the indicator light is controlled by the voice industrial control host device. The indicator light includes a video recording indicator light and a danger alarm light. The video recording indicator light is electrically connected to the intelligent camera, and the video recording indicator light is controlled by the voice industrial control host device to flash when the intelligent camera is working. The danger alarm light is used to flash and transmit an alarm signal.

[0007] It should be noted that the intelligent camera is a 4G intelligent camera, which is prior art.

[0008] A further technical solution is as follows: An alarm module is provided in the intelligent camera. The alarm module is electrically connected to the voice industrial control host device and is also electrically connected to the cloud device. The alarm module is used for receiving and forwarding alarm signals. The system further includes an interval water level monitoring device, a sump water level monitoring device, and a sump water level display device. The interval water level monitoring device is arranged at the inlet grille of the pump house in the railway tunnel interval. The interval water level monitoring device is used for monitoring the water inflow situation in the interval. The sump water level monitoring device is installed in the sump in the pump house. The sump water level monitoring device is used for monitoring the water level in the sump. The sump water level display device is electrically connected to the sump water level monitoring device. The sump water level display device is used for displaying the data of the water level in the sump.

[0009] A further technical solution is as follows: The intelligent camera is electrically connected to the cloud device. The cloud device is used for storing and processing the data acquired by the intelligent camera.

[0010] A further technical solution is as follows: The cloud device is signal-connected to the monitoring terminal device. The monitoring terminal device is used for receiving the voice and video data information transmitted by the cloud device.

[0011] A further technical solution is as follows: The voice industrial control host device is electrically connected to the water pump control box. The water pump control box is used for controlling the start or stop of the water pump. The voice industrial control host device is used for controlling the start or stop of the water pump when the water pump control box fails.

[0012] A further technical solution is as follows: The model of the intelligent camera is DS-2DE4823IW-KMDTGLT or TL-IPC683-AEZ.

[0013] A further technical solution is as follows: The model of the water pump control box is CCEA2-D-B-11KW or CCEA2-D-B-7.5KW.

[0014] A further technical solution is as follows: A remote visual voice monitoring device. The voice industrial control host device is arranged in the track area. The voice industrial control host device is electrically connected to the intelligent camera, the interval water level monitoring device, the indicator light, the water pump control box, and the sump water level monitoring device. The sump water level monitoring device is arranged above the sump. A large bottle is hung in the sump. The large bottle is connected to a small bottle through a first fixed pulley and a second fixed pulley. Both the first fixed pulley and the second fixed pulley are connected to the main structure of the pump house through a fixed rod. The small bottle is arranged above the sump and does not extend into the sump.

[0015] Compared with the prior art, the beneficial effects of the present utility model are as follows:

[0016] The utility model realizes the real-time monitoring of the track area and the sump through the intelligent camera 5 and various monitoring devices; the sump water level monitoring device 2 adopts a physical monitoring method, which is simple and reliable and does not require additional power supply; it supports the reception and processing of remote voice commands, improving the flexibility and convenience of the system; through real-time monitoring and control, it ensures the safe operation of the track area and the sump and reduces the accident risk.

[0017] The utility model sets up a voice industrial control host to perform signal processing, event recording and execution control functions, and can record and report the on-site environment and equipment status in the railway tunnel in a timely manner, so that the water accumulation data in the railway section can be fed back to the staff in a timely manner, and the staff can issue operation actions according to the obtained information in a timely manner, so that the situation in the subway section can be known to the staff, thereby saving human resources, effectively improving the handling efficiency of potential hazards, and providing a reliable guarantee for the safe operation of the subway. Description of the Drawings

[0018] Figure 1 It is a schematic diagram of a partial structure of the system of the utility model;

[0019] Figure 2 It is a schematic diagram of a partial structure of the system of the utility model;

[0020] Figure 3 It is a schematic diagram of the device structure of the utility model.

[0021] Identification description: 1. Interval water level monitoring device; 2. Sump water level monitoring device; 3. Sump water level display device; 4. Voice industrial control host device; 5. Intelligent camera; 6. Cloud device; 7. Monitoring terminal device; 8. Equipment control box; 9. Indicator light; 91. Video recording indicator light; 92. Danger alarm light; 10. Water pump control box; 11. Large bottle; 12. First fixed pulley; 13. Second fixed pulley; 14. Fixed rod; 15. Small bottle; 20. Sump. Detailed Embodiments

[0022] The following further elaborates the utility model with reference to the drawings.

[0023] Embodiment 1.

[0024] As Figure 1 shown, an embodiment of the utility model is a remote visual voice monitoring system, which is mainly applied to the monitoring and management of rail transit such as subways. The system mainly consists of a voice industrial control host device 4 and an intelligent camera 5, and the two are connected by electrical signals to realize real-time information interaction. In addition, the system is also equipped with an indicator light 9 for intuitively displaying the working status and alarm information of the system.

[0025] The core function of the voice industrial control host device 4 is to be responsible for receiving and processing the data transmitted by the intelligent camera 5, recording important events, and performing corresponding control operations according to preset rules. Among them, the model of the voice industrial control host device 4 is: KMDT-GPS-YYKB, and this device is independently developed by Kunming Metro.

[0026] Data processing: Analyze the image and sound data obtained by the intelligent camera 5 to identify abnormal situations;

[0027] Event recording: Record the system operation logs, abnormal events, etc. in the database for convenient subsequent query and analysis;

[0028] Control operation: According to the identified abnormal situations, perform emergency handling by controlling other devices (such as the indicator light 9) or sending alarm information to relevant management personnel;

[0029] Intelligent camera 5:

[0030] Image acquisition: Real-time obtain the working conditions at the railway track site, including the water level situation in the track area, the operation situation of equipment, etc.

[0031] Sound acquisition: Capture the on-site sounds for assisting in judging the on-site situation.

[0032] Data transmission: Transmit the acquired image and sound data to the voice industrial control host device 4 in real time.

[0033] The indicator light 9 includes a video recording indicator light 91 and a danger alarm light 92.

[0034] Video recording indicator light 91: When the intelligent camera 5 is in the working state, it is controlled by the voice industrial control host device 4 to flash to prompt the staff that video recording is in progress.

[0035] Danger alarm light 92: When the system identifies abnormal situations (such as water accumulation, equipment failure, etc.), the danger alarm light 92 will flash and send an alarm signal to relevant departments through the intelligent camera so as to take corresponding measures in a timely manner.

[0036] The said intelligent camera 5 is installed on the lintel of the pump house door or inside the pump house, and the intelligent camera 5 is used to monitor the water inlet situation of the tunnel and the operation situation of the equipment inside the pump house.

[0037] Its working process is as follows: Under normal working conditions, the intelligent camera 5 monitors the indicator lights 9 (including the video recording indicator light 91 and the danger alarm light 92) in the pump house at the tunnel entrance. Among them, the indicator lights 9 are controlled by the voice industrial control host device 4. When a water pump is running, the voice industrial control host device 4 will announce the operation status of the corresponding device and record the water pump operation data. At the same time, it controls the intelligent camera 5 to record the on-site working events and stores the videos in the memory card of the camera. At the same time, it controls the video recording indicator light to flash when the intelligent camera 5 is working. When there is a large amount of water accumulation or water ingress in the tunnel, the water level in the sump well is too high, and there is a drainage system failure, the voice industrial control host device 4 will control the danger alarm light 92 to flash or directly transmit the alarm signal to the alarm module of the intelligent camera 5. After the intelligent camera 5 detects the flashing of the danger alarm light 92 or the alarm module receives the alarm signal, it will push the alarm signal to devices such as the staff's mobile phones or computers. Thus, the staff can remotely control the camera to view the on-site situation and understand and handle the situation in a timely manner. The voice industrial control host device 4 can perform corresponding control or announce the system operation status through the voice signal or control signal sent by the intelligent camera 5. At the same time, it can remotely test the water pump or handle some emergency faults.

[0038] The situation of the railway track site is obtained in real time through the intelligent camera 5 to ensure the timeliness and comprehensiveness of monitoring; the voice industrial control host device 4 can perform intelligent analysis on the collected data, identify abnormal situations, and improve the accuracy of monitoring; once an abnormal situation is identified, the system can immediately notify relevant personnel through the indicator lights 9 and alarm signals to achieve rapid response and handling; through automated and intelligent monitoring means, the dependence on human resources is reduced, and the work efficiency is improved; the system can timely detect and handle abnormal situations, providing a reliable guarantee for the safe operation of rail transit such as subways.

[0039] This system can be widely applied to the monitoring and management fields of rail transit such as subways and light rails, especially in the real-time monitoring and safety management of key areas such as tunnels and stations. Through this system, it is possible to achieve all-round and all-weather monitoring of the rail transit operation to ensure the safety and smoothness of the operation.

[0040] Embodiment 2.

[0041] As Figure 2 shown, another embodiment of the present utility model is that an alarm module is provided in the intelligent camera 5. The alarm module is electrically connected to the voice industrial control host device 4, and the alarm module is electrically connected to the cloud device 6. The alarm module is used for receiving and forwarding alarm signals.

[0042] Based on the original remote visual voice monitoring system, this embodiment upgrades the intelligent camera 5 and adds an alarm module. This alarm module is not only electrically connected to the voice industrial control host device 4, but also establishes an electrical connection with the cloud device 6, thus realizing the rapid reception, processing, and forwarding of alarm signals, and further improving the security and response speed of the system.

[0043] The intelligent camera 5 is used for image and sound collection, and is responsible for the task of obtaining the working conditions of the railway track site in real time, including the track status, equipment operation conditions, etc.; the alarm module is used for signal reception and forwarding, receiving alarm signals from the voice industrial control host device 4 or other sensors, and forwarding the received alarm signals to the voice industrial control host device 4 and the cloud device 6; when detecting specific abnormal situations (such as severe waterlogging, serious equipment failures, etc.), the alarm module can independently trigger alarm signals.

[0044] The function of the voice industrial control host device 4 is the same as that in Embodiment 1, responsible for receiving and processing the data transmitted by the intelligent camera 5, recording important events, and performing corresponding control operations; receiving alarm signals from the alarm module of the intelligent camera 5 and responding according to preset rules.

[0045] The cloud device 6 receives alarm signals from the alarm module of the intelligent camera 5 and conducts further analysis and processing; it can push alarm information to relevant personnel, such as subway operation management personnel, maintenance personnel, etc., so as to take corresponding measures in a timely manner; the cloud device 6 can also store and analyze alarm data, providing a basis for subsequent fault troubleshooting and system optimization.

[0046] The setting of the alarm module enables the system to detect abnormal situations faster and achieve rapid response and handling through the voice industrial control host device 4 and the cloud device 6; the alarm module of the intelligent camera 5 can independently trigger alarm signals when detecting abnormal situations, ensuring the real-time and accuracy of alarms; through the electrical connection with the voice industrial control host device 4 and the cloud device 6, the alarm module realizes multi-party linkage, improving the overall performance and security of the system; the storage and analysis function of the cloud device 6 for alarm data provides strong support for subsequent fault troubleshooting and system optimization.

[0047] This system can be widely applied to the rail transit monitoring field with high requirements for security and response speed, especially in the real-time monitoring and safety management of key areas such as tunnels and stations. Through this system, it is possible to achieve all-round and all-weather monitoring of rail transit operations, ensuring the safety and smoothness of operations. At the same time, this system can also be used in other occasions that require real-time monitoring and rapid response, such as factories, warehouses, airports, etc.

[0048] Embodiment 3.

[0049] AsFigure 3 As shown in the figure, in one embodiment of the present utility model, the system further includes an interval water level monitoring device 1, a sump water level monitoring device 2, and a sump water level display device 3; the interval water level monitoring device 1 is arranged at the intake grate of the pump house in the railway tunnel interval, and the interval water level monitoring device 1 is used to monitor the water intake situation in the interval; the sump water level monitoring device 2 is installed in the sump in the pump house, and the sump water level monitoring device 2 is used to monitor the water level in the sump; the sump water level display device 3 is electrically connected to the sump water level monitoring device 2, and the sump water level display device 3 is used to display the data of the water level in the sump.

[0050] Based on the remote visual and voice monitoring system, this embodiment adds an interval water level monitoring device 1, a sump water level monitoring device 2, and a sump water level display device 3, aiming to realize the real-time monitoring and display of the water levels in the railway tunnel interval and the sump, and further improve the early warning and disposal capabilities of the system for potential water hazards.

[0051] The interval water level monitoring device 1 is arranged at the intake grate of the pump house in the railway tunnel interval, and it monitors the water intake situation in the interval in real time, including key data such as water flow velocity and water level height, and transmits the monitored data to the voice industrial control host device 4 through electrical signals for further processing and analysis.

[0052] The sump water level monitoring device 2 is installed in the sump in the pump house, and it monitors the water level change in the sump in real time to ensure the smooth and safe drainage of the pump house, and transmits the monitored water level data to the sump water level display device 3 and the voice industrial control host device 4 through electrical signals.

[0053] The sump water level display device 3 is electrically connected to the sump water level monitoring device 2, and it displays the water level data in the sump in real time, which is convenient for the staff to directly observe. It can adopt various methods such as digital display and LED bar graph to ensure the intuitiveness and readability of the data.

[0054] The voice industrial control host device 4 receives the data from the interval water level monitoring device 1 and the sump water level monitoring device 2, stores, analyzes, and processes them. According to the change of the water level data, it automatically or manually controls the start and stop of related devices (such as drainage pumps) to ensure the safety of the tunnel and the pump house. When the water level exceeds the preset threshold, it issues an alarm signal through the indicator light 9, the alarm module of the intelligent camera 5, or other means to remind the staff to take measures in time.

[0055] Through the real-time monitoring functions of the interval water level monitoring device 1 and the sump water level monitoring device 2, it is possible to ensure a comprehensive understanding of the water levels in the railway tunnel interval and the sump; when the water level exceeds the preset threshold, the system can quickly send out an alarm signal and control relevant devices to perform drainage operations through the voice industrial control host device 4 to ensure the safety of the tunnel and the pump house; the setting of the sump water level display device 3 enables the staff to directly observe the water level in the sump, improving work efficiency and safety; the intelligent control function of the voice industrial control host device 4 can automatically or manually control the start and stop of relevant devices according to the change of water level data, realizing the intelligent management of the drainage system.

[0056] This system is particularly suitable for the monitoring fields of tunnels and pump houses in rail transit such as subways and light rails. Through the real-time monitoring and display of the water levels in the tunnel interval and the sump, potential water hazard problems can be discovered and processed in a timely manner to ensure the safe operation of rail transit.

[0057] Embodiment 4.

[0058] As Figure 2 shown, another embodiment of the present utility model is that the intelligent camera 5 is electrically connected to the cloud device 6, and the cloud device 6 is used for storing and processing the data obtained by the intelligent camera 5.

[0059] Based on the original remote visual voice monitoring system, this embodiment establishes an electrical connection between the intelligent camera 5 and the cloud device 6. Through this improvement, the system can realize the cloud storage and processing of the data obtained by the intelligent camera 5, enhancing the security and accessibility of the data, and at the same time improving the data processing and analysis capabilities.

[0060] The intelligent camera 5 is responsible for real-time obtaining the working conditions at the railway site, including data such as images and sounds, and transmitting the obtained data to the voice industrial control host device 4 and the cloud device 6 in real time through electrical signals.

[0061] The cloud device 6 receives the data from the intelligent camera 5 and performs long-term and secure storage, which ensures that the data will not be lost due to equipment failures or human operations; uses its powerful computing power to deeply analyze and process the stored data, extract valuable information; provides a data access interface, allowing authorized staff to remotely access and query the data through the network, facilitating the staff to understand the situation at the railway site at any time.

[0062] Through the storage and processing of the cloud device 6, data is better protected, reducing the risk of data loss and damage; the cloud device 6 has powerful computing capabilities, enabling more in-depth analysis and processing of data to extract more valuable information; through the data access interface provided by the cloud device 6, staff can remotely access and query data anytime and anywhere, improving work efficiency; with the continuous development of technology, the performance and functions of the cloud device 6 can be continuously upgraded and expanded to meet the growing needs of the system.

[0063] This system is particularly suitable for remote monitoring scenarios that require long-term and large-scale data storage and processing. In the fields of rail transit such as subways and light rails, this system can achieve real-time monitoring and data storage of the on-site situation of the railway tracks, providing strong guarantee for the safe operation of the subway.

[0064] Embodiment 5.

[0065] As Figure 2 shown, in one embodiment of the present utility model, the cloud device 6 is signal-connected to the monitoring terminal device 7, and the monitoring terminal device 7 is used to receive the voice and video data information transmitted by the cloud device 6.

[0066] Based on the original remote visual voice monitoring system, this embodiment further enhances the remote access and monitoring capabilities of the system. By realizing the signal connection between the cloud device 6 and the monitoring terminal device 7, the monitoring terminal device 7 can receive the voice and video data information transmitted by the cloud device 6 in real time, thereby realizing the remote real-time monitoring of the on-site situation of the railway tracks.

[0067] The cloud device 6 receives data from the intelligent camera 5 and other devices, and performs long-term and secure storage, deeply analyzes and processes the stored data, extracts valuable information; forwards the real-time obtained voice and video data information to the monitoring terminal device 7.

[0068] The monitoring terminal device 7 can be a device with network connection and display functions such as a smart phone, a tablet computer, a computer, etc. It is mainly used to receive the voice and video data information from the cloud device 6 and display it on the device screen in real time; staff can remotely control and operate the system through the monitoring terminal device 7, such as adjusting the camera angle, starting an alarm, etc.; staff can also query the historical data stored in the cloud device 6 to understand the historical situation of the railway track site, which is used as the main reference data for railway track improvement.

[0069] The monitoring terminal device 7 can receive voice and video data information from the cloud device 6 in real time, realizing remote real-time monitoring of the railway track site conditions; through the storage and processing of the cloud device 6, the data is better protected, reducing the risk of data loss and damage; the monitoring terminal device 7 adopts common device types, and staff do not need to purchase special devices additionally, improving the usability of the system; the system supports the access of multiple monitoring terminal devices 7 and can be flexibly configured and expanded according to actual needs.

[0070] This system is applicable to scenarios that require remote monitoring and management. In the fields of rail transit such as subways and light rails, monitoring personnel can understand the situation of the railway track site in real time through the monitoring terminal device 7 and discover and handle potential safety hazards in a timely manner.

[0071] Embodiment 6.

[0072] As Figure 3 shown, in an embodiment of the present utility model, the voice industrial control host device 4 is electrically connected to the water pump control box 10, and the water pump control box 10 is used to control the start or stop of the water pump; the voice industrial control host device 4 is used to control the start or stop of the water pump when the water pump control box 10 fails.

[0073] This embodiment provides a system for fault control of the start or stop of a water pump based on a voice industrial control host device. The system mainly consists of a voice industrial control host device 4 and a water pump control box 10, which are electrically connected to achieve data interaction and instruction transmission. Under normal circumstances, the start or stop of the water pump is directly controlled by the water pump control box 10; but when the water pump control box 10 fails, the voice industrial control host device 4 will take over the control to ensure the normal operation or safe stop of the water pump.

[0074] Voice industrial control host device 4: This device has functions such as voice recognition, voice instruction processing, and electrical signal transmission. Staff can interact with the device through voice instructions, and the device can recognize the instructions and convert them into corresponding electrical signals to achieve remote control of the start or stop of the water pump.

[0075] Water pump control box 10: This control box is the core control component of the water pump system, responsible for receiving and executing instructions from the voice industrial control host device 4 or the local operation panel to control the start or stop of the water pump. At the same time, the control box also has a fault detection and alarm function. Once a fault is detected, it will immediately trigger an alarm and transmit the fault information to the voice industrial control host device 4.

[0076] In the normal working mode, by detecting the water level height through the device set in the sump, the voice industrial control host device 4 sends an instruction to the water pump control box 10. After receiving the instruction, the water pump control box 10 will control the start or stop of the water pump according to the preset program.

[0077] When the water pump control box 10 malfunctions, the control box will immediately trigger an alarm and transmit the fault information to the voice industrial control host device 4. After receiving the fault information, the voice industrial control host device 4 will immediately enter the fault control mode and take over the control of starting or stopping the water pump. At this time, the staff can interact with the voice industrial control host device 4 through voice commands to achieve remote control of the water pump; the voice industrial control host device 4, as a redundant control system for water pump control, will automatically intervene in controlling the start / stop of the water pump when the original water pump control system fails. After intervention, it will flash the "hazard warning light" or send an alarm signal to the intelligent camera 5. At the same time, it realizes the regular test function that the original water pump control box cannot achieve, which is convenient for maintenance personnel to timely discover the operation defects of the water pump system

[0078] During use, the equipment should be regularly maintained and inspected to promptly discover and handle potential fault hazards; during fault control, the staff should strictly operate according to the prompts of the voice industrial control host device 4 to avoid greater losses caused by misoperation

[0079] Embodiment 7

[0080] As Figure 3 shown, another embodiment of the present utility model is a remote visual voice monitoring device. The voice industrial control host device 4 is arranged in the track area, and the voice industrial control host device 4 is electrically connected to the intelligent camera 5, the interval water level monitoring device 1, the indicator light 9, the water pump control box 10 and the sump water level monitoring device 2; the sump water level monitoring device 2 is arranged above the sump 20. A large bottle 11 is suspended in the sump. The large bottle 11 is connected to a small bottle 15 through a first fixed pulley 12 and a second fixed pulley 13. Both the first fixed pulley 12 and the second fixed pulley 13 are connected to the lower end of the track through a fixed rod 14, and the small bottle 15 is arranged above the sump 20 and does not extend into the sump 20

[0081] This embodiment provides a remote visual voice monitoring device, which is particularly suitable for the monitoring and water level management of the track area of rail transit. This device realizes the centralized management and control of the intelligent camera 5, the interval water level monitoring device 1, the indicator light 9, the water pump control box 10 and the sump water level monitoring device 2 through the voice industrial control host device 4. Among them, the sump water level monitoring device 2 adopts an innovative physical water level monitoring method, combined with a remote control system, to ensure the safe operation of the track area and the sump

[0082] The voice industrial control host device 4 is installed in the track area and serves as the core of the entire monitoring system. It is connected to the intelligent camera 5, the interval water level monitoring device 1, the indicator light 9, the water pump control box 10, and the sump water level monitoring device 2 through electrical signals. The voice industrial control host device 4 receives data from each monitoring device and performs corresponding control operations accordingly, such as starting or stopping the water pump, turning the indicator light on or off, etc. The voice industrial control host device 4 supports the reception and processing of remote voice commands, allowing remote users to control the system through voice commands.

[0083] The intelligent camera 5 is installed at an appropriate position in the track area, responsible for real-time monitoring of the track area conditions, and transmits the acquired real-time video and audio data to the voice industrial control host device 4 through electrical signals.

[0084] The interval water level monitoring device 1 is installed at one end of the embedded pipe connected to the sump 20, used to monitor the water level change in the track interval. Once the water level exceeds the preset safety threshold, it will immediately send an alarm signal to the voice industrial control host device 4.

[0085] The indicator light 9 is installed at a prominent position in the track area for easy observation by the intelligent camera 5, such as on both sides or above the track. According to the instructions of the voice industrial control host device 4, it displays different colors or flashing modes to indicate the current system status or warning information.

[0086] The water pump control box 10 is responsible for controlling the start or stop of the water pump to ensure that the water level in the track area or the sump remains within the safe range, receives control instructions from the voice industrial control host device 4, and performs corresponding operations accordingly.

[0087] The sump water level monitoring device 2 is installed above the sump 20, used to monitor the water level change in the sump in real time. This device adopts an innovative physical water level monitoring method, and the specific structure is as follows:

[0088] A large bottle 11 is suspended in the sump 20. The large bottle 11 is connected to a small bottle 15 set above the sump 20 through a nylon line. The nylon line bypasses the first fixed pulley 12 and the second fixed pulley 13 set at the lower end of the track, ensuring that the large bottle 11 can rise as the water level rises, and at the same time driving the change of the position of the small bottle 15.

[0089] When the water level in the sump 20 rises, the large bottle 11 rises accordingly, and the small bottle 15 descends. Since there are an ultra-low water level line, a pump stop water level line, a pump start water level line, and an ultra-high water level line at the position where the small bottle 15 is located, when the small bottle reaches the above water level lines, the voice industrial control host device 4 will receive corresponding signals, thereby controlling the water pump control box 10 to turn the water pump on or off.

[0090] The entire system is centrally managed and controlled through the voice industrial control host device 4. The intelligent camera 5, the sectional water level monitoring device 1, the sump water level monitoring device 2, etc. transmit the real-time monitored data to the voice industrial control host device 4 through electrical signals. The voice industrial control host device 4 judges the current system state according to the received data and performs corresponding control operations accordingly, such as starting the water pump, switching the status of the indicator light, etc. At the same time, the system also supports the reception and processing of remote voice commands, allowing remote users to control the system through voice commands.

[0091] Through the intelligent camera 5 and various monitoring devices, real-time monitoring of the track area and the sump is realized; the sump water level monitoring device 2 adopts a physical monitoring method, which is simple and reliable and does not require additional power supply; it supports the reception and processing of remote voice commands, improving the flexibility and convenience of the system; through real-time monitoring and control, the safe operation of the track area and the sump is ensured, reducing the accident risk.

[0092] Embodiment 8.

[0093] On the basis of the foregoing embodiments, the present utility model can also adopt the following setting method. In order to improve the functions of the voice industrial control host device, the voice industrial control host device 4 includes an input module, an output module, a power management module, a voice processing chip, an audio amplifier, an infrared driving module, an LED driving module, a sensor auxiliary circuit, and a signal processing circuit.

[0094] When referring to "one embodiment", "another embodiment", "embodiment", etc. in this specification, it means that the specific features, structures or characteristics described in connection with the embodiment are included in at least one embodiment of the general description of the present application. The same expression appearing in multiple places in the specification does not necessarily refer to the same embodiment. Further, when describing a specific feature, structure or characteristic in connection with any embodiment, it is intended that the implementation of such feature, structure or characteristic in combination with other embodiments also falls within the scope of the present utility model.

[0095] Although the present utility model has been described herein with reference to multiple explanatory embodiments of the present utility model, it should be understood that those skilled in the art can design many other modifications and implementation manners, which will fall within the scope of the principles and spirit disclosed in the present application. More specifically, within the scope of the present application disclosure, the drawings and the claims, various variations and improvements can be made to the components and / or the layout of the subject combination layout. In addition to the variations and improvements made to the components and / or the layout, other uses will also be apparent to those skilled in the art.

Claims

1. A remote visual voice monitoring device, wherein a voice industrial control host device (4) is arranged in a track operation area, and is characterized in that: The voice industrial control host device (4) is electrically connected to the intelligent camera (5), the sectional water level monitoring device (1), the indicator light (9), the water pump control box (10) and the sump water level monitoring device (2). The sump water level monitoring device (2) is arranged above the sump (20). A large bottle (11) is suspended in the sump. The large bottle (11) is connected to a small bottle (15) through a first fixed pulley (12) and a second fixed pulley (13). Both the first fixed pulley (12) and the second fixed pulley (13) are connected to the main structure of the pump house through a fixed rod (14). The small bottle (15) is arranged above the sump (20) and does not extend into the sump (20). The sectional water level monitoring device (1) is arranged at the water inlet grate of the pump house in the railway tunnel section. The sectional water level monitoring device (1) is used to monitor the sectional water inlet situation. The sump water level monitoring device (2) is installed in the sump in the pump house. The sump water level monitoring device (2) is used to monitor the water level in the sump.

2. A remote visual voice monitoring system, which uses a remote visual voice monitoring device described in claim 1, and is characterized in that: The system includes a voice industrial control host device (4) and an intelligent camera (5). The voice industrial control host device (4) is electrically connected to the intelligent camera (5). The intelligent camera (5) is used to obtain the working conditions at the track area site. The voice industrial control host device (4) is used to process, record and execute control operations on the conditions obtained by the intelligent camera (5). The voice industrial control host device (4) is electrically connected to the indicator light (9). The indicator light (9) is used to indicate relevant conditions and is controlled by the voice industrial control host device (4). The indicator light (9) includes a video recording indicator light (91) and a danger warning light (92). The video recording indicator light (91) is electrically connected to the intelligent camera (5) and is controlled by the voice industrial control host device (4) to flash when the intelligent camera (5) is working. The danger warning light (92) is used to flash and transmit an alarm signal.

3. The remote visual voice monitoring system according to claim 2, characterized in that: An alarm module is provided in the intelligent camera (5). The alarm module is electrically connected to the voice industrial control host device (4) and is also electrically connected to the cloud device (6). The alarm module is used to receive and forward alarm signals.

4. The remote visual voice monitoring system according to claim 3, characterized in that: The intelligent camera (5) is electrically connected to the cloud device (6). The cloud device (6) is used to store and process the data obtained by the intelligent camera (5).

5. The remote visual voice monitoring system according to claim 3, characterized in that: The cloud device (6) is signal-connected to the monitoring terminal device (7). The monitoring terminal device (7) is used to receive the voice and video data information transmitted by the cloud device (6).

6. The remote visual voice monitoring system according to claim 2, wherein: The voice industrial control host device (4) is electrically connected to the water pump control box (10). The water pump control box (10) is used to control the start or stop of the water pump. The voice industrial control host device (4) is used to control the start or stop of the water pump when the water pump control box (10) fails.

7. The remote visual voice monitoring system according to claim 2, characterized in that: The model of the intelligent camera (5) is DS-2DE4823IW-KMDTGLT or TL-IPC683-AEZ.

8. The remote visual voice monitoring system according to claim 6, characterized in that: The model of the water pump control box (10) is CCEA2-D-B-11KW or CCEA2-D-B-7.5KW.

9. The remote visual voice monitoring system according to claim 2, characterized in that: The system further includes a sump water level display device (3); The sump water level display device (3) is electrically connected to the sump water level monitoring device (2), and the sump water level display device (3) is used to display the data of the water level in the sump.

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