Adjustable omnibearing safety production environment parameter monitoring device

Abstract

The invention relates to the technical field of environmental parameter monitoring, in particular to an adjustable omni-directional safety production environmental parameter monitoring device which comprises a base, a guide column is mounted at the upper end of the base, a plurality of pressure relief openings are formed in the outer side of the guide column, and a fixing frame is connected to the end, away from the base, of the guide column. A camera is rotationally arranged at the upper end of the fixing frame, two groups of spray heads are arranged at the lower end of the camera, and one ends of the two groups of spray heads communicate with a conveying pipe A. When the camera monitors that a fire disaster occurs, the camera can automatically rise to the position, so that dense fog is prevented from shielding the observation view field of the camera, and when the camera rises in the dense fog, the camera can be conveniently taken out. And the camera can automatically rise to avoid a low-concentration dense fog area and reduce the interference of fog on observation, so that the device can more clearly capture site conditions and provide effective visual information for follow-up rescue and other actions.

Description

Technical Field

[0001] The present invention relates to the technical field of environmental parameter monitoring, in particular to an adjustable all-round safe production environmental parameter monitoring device. Background Art

[0002] As industrial production scale expands and process flows become more complex, the risk of fire in the production environment increases. Once the risk gets out of control, it may cause safety accidents, resulting in casualties and property losses. Therefore, there is a need for devices that can comprehensively and accurately monitor environmental parameters and provide timely warnings of dangers. When using a camera inside a factory building, the roof of the factory building is high, which affects the camera's illumination distance and thus the clarity. Therefore, the camera is usually not installed on the roof. If the camera is installed on the roof of the factory building, the roof of the factory building is generally made of steel plate structure, which has a strong heat conduction effect. Due to the high outside temperature during the day, heat will be transferred to the area around the camera, causing damage to the camera's electronic control system. If the high heat causes a short circuit in the circuit, it will further cause danger. When traditional equipment detects a danger signal during use, due to its fixed position, the fixed equipment is easily damaged in a fire or affected by thick smoke, resulting in an inability to provide image data. This makes it difficult to continuously provide effective data, and it is impossible to provide real-time images and environmental data for rescue, affecting the efficiency of emergency response. Summary of the Invention

[0003] When the camera detects a fire, the present invention will automatically raise its position to prevent thick fog from blocking the camera's field of view. When the camera is raised in thick fog, an alarm will be issued to prompt the staff and guide them. The automatic raising of the camera can avoid low-concentration fog areas, reduce the interference of fog on observation, and allow the device to capture the on-site situation more clearly, providing effective visual information for subsequent rescue operations.

[0004] To achieve the above-mentioned object, the present invention provides the following technical solution: an adjustable all-round safety production environment parameter monitoring device, comprising a base, a guide column mounted on the upper end of the base, multiple groups of pressure relief ports mounted on the outer side of the guide column, a fixed frame connected to the end of the guide column away from the base, a camera rotatably mounted on the upper end of the fixed frame, two groups of nozzles disposed at the lower end of the camera, and a delivery pipe A connected to one end of the two groups of nozzles; Two sets of connecting frames are installed on both sides of the guide column, the two sets of connecting frames are connected to pulleys inside, and the pulleys are connected to the outside of the pulleys. An air pump is installed at the lower end of the base, and one end of the air pump is connected to a storage tank, and the outside of the storage tank is connected to the delivery pipe A; Two groups of water tanks are installed on both sides of the fixing frame. The outer side of the water tank close to the delivery pipe A is connected to a drainage pipe, and one end of the water tank close to the delivery pipe A is connected to the inside of the delivery pipe A.

[0005] Preferably, a push rod is movably connected inside the guide column, one end of the push rod located outside the guide column is fixedly connected to a fixing frame, and multiple groups of pressure relief ports are evenly distributed around the guide column.

[0006] Preferably, a motor is installed inside the fixing frame, an output end of the motor is connected to a rotating shaft, and an end of the rotating shaft away from the motor passes through the fixing frame and extends to the upper end to be connected to the camera.

[0007] Preferably, the rotating shaft is located on the outer side of the upper end of the fixing frame and is connected to two groups of fixing buckles, and the two groups of nozzles are installed inside the two groups of fixing buckles.

[0008] Preferably, one end of each of the two groups of nozzles is connected to a connecting pipe, one end of the connecting pipe is movably connected to the delivery pipe A, and the connection between the connecting pipe and the delivery pipe A is located at the same axis as the rotating shaft, and the end of the delivery pipe A away from the connecting pipe is connected to the water supply equipment.

[0009] Preferably, one end of the air pump is connected to a delivery pipe B, the other end of the delivery pipe B is connected to one end of a guide column, a branch pipe is fixedly connected to the outside of the delivery pipe B, and the other end of the branch pipe is connected to a storage tank.

[0010] Preferably, a connecting pipe B is connected to the outside of the delivery pipe A, the water tank close to the delivery pipe A is connected to the other end of the connecting pipe B, the other end of the drainage pipe is connected to the water storage equipment, and the two groups of water tanks are connected.

[0011] Preferably, the connecting frame is connected to the base, and two groups of spring rods are connected inside the connecting frame. The ends of the two groups of spring rods away from the connecting frame are connected to the pulley, and one end of the pull rope is connected to the fixing frame.

[0012] Preferably, a connecting pipe A is connected to the outside of the storage tank, and an air pressure valve is provided at the connection between the storage tank and the connecting pipe A. The other end of the connecting pipe A passes through the delivery pipe A and extends to the inside. The connecting pipe A is located on the outside of the delivery pipe A and is fixedly connected to a hose, and the other end of the hose is connected to an airbag.

[0013] Compared with the prior art, the present invention has the following beneficial effects: 1. When the camera detects a fire, the present invention will automatically raise its position to prevent thick fog from blocking the camera's field of view. When the camera is raised in thick fog, an alarm will be sounded to remind the staff and guide them. The automatic raising of the camera can avoid low-density fog areas, reduce the interference of fog on observation, and allow the device to capture the scene more clearly, providing effective visual information for subsequent rescue operations. At the same time, the raising of the camera is combined with the alarm to form an audio-visual guidance method. The staff can roughly judge the safe path or the location of the device by the source of the alarm, evacuate more efficiently, and reduce the danger caused by disorientation.

[0014] 2. When the camera is raised, the counterweight of the water tank and the pulling force of the pull rope exert a balancing force on the fixing frame, which can offset the shaking of the camera caused by wind or device vibration after it is raised, ensuring that the camera can still shoot stably at a high place, ensuring clear monitoring of key information such as the fire scene and smoke conditions. At the same time, the water tank continuously takes away the absorbed heat, effectively avoiding the performance reduction or damage of the motor due to overheating, ensuring long-term stable operation of the device. In addition, the water tank not only serves as a counterweight but also serves as a heat dissipation medium container, reducing the use of additional equipment and ensuring that the fixing frame is light in weight and can be stably raised.

[0015] 3. When the camera detects danger, the present invention will spray the water source mixed with urea solution toward the fire source, and part of the water source will spray the smoke and dust on the path during the spraying. Therefore, when the water source mixed with urea solution is sprayed onto the fire source, the moisture can suppress combustion by cooling the fire source, and the ammonia and carbon dioxide generated by the thermal decomposition of urea can dilute the oxygen around the fire source, further blocking the combustion reaction, improving the fire extinguishing efficiency, and quickly controlling the spread of the fire. At the same time, the moisture absorbs the solid particles in the smoke and dust, causing them to settle and improving visibility. Urea can also react chemically with the toxic gases in the smoke and dust to generate harmless ammonium salts, reducing the toxicity of the smoke and reducing irritation and damage to the respiratory system of people. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is the second schematic diagram of the overall structure of the present invention; Figure 3 This is one of the partial structural diagrams of the present invention; Figure 4 This is the second partial structural diagram of the present invention; Figure 5 This is one of the partial structural cross-sectional views of the present invention; Figure 6 This is the second partial structural cross-sectional view of the present invention; Figure 7This is the third partial structural cross-sectional view of the present invention.

[0017] In the figure: 1. Base; 2. Guide column; 3. Push rod; 4. Pressure relief port; 5. Fixing bracket; 6. Motor; 7. Rotating shaft; 8. Camera; 9. Fixing buckle; 10. Nozzle; 11. Connecting pipe; 12. Delivery pipe A; 13. Connecting bracket; 14. Spring rod; 15. Pulley; 16. Pull rope; 17. Air pump; 18. Delivery pipe B; 19. Branch pipe; 20. Storage tank; 21. Connecting pipe A; 22. Hose; 23. Air bag; 24. Connecting pipe B; 25. Water tank; 26. Drain pipe. DETAILED DESCRIPTION

[0018] To make the purpose, technical solutions and advantages of the embodiments of the present invention more clear, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Therefore, the following detailed description of the embodiments of the present invention provided in the drawings is not intended to limit the scope of the invention claimed for protection, but merely represents selected embodiments of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0019] Reference Figure 1 - Figure 7 The present invention provides an adjustable all-round safety production environment parameter monitoring device, comprising a base 1, a guide column 2 is installed on the upper end of the base 1, a plurality of pressure relief ports 4 are installed on the outer side of the guide column 2, a fixing frame 5 is connected to the end of the guide column 2 away from the base 1, a camera 8 is rotatably mounted on the upper end of the fixing frame 5, two groups of nozzles 10 are arranged at the lower end of the camera 8, and one end of the two groups of nozzles 10 is connected to a delivery pipe A12; Two sets of connecting frames 13 are installed on both sides of the guide column 2. The two sets of connecting frames 13 are connected to the inside of the pulleys 15. The outside of the pulleys 15 is connected to the pull rope 16. The lower end of the base 1 is installed with an air pump 17. One end of the air pump 17 is connected to a storage tank 20. The outside of the storage tank 20 is connected to the delivery pipe A12. Two groups of water storage tanks 25 are installed on both sides of the fixing frame 5. The outer side of the water storage tank 25 close to the delivery pipe A12 is connected to a drainage pipe 26, and one end of the water storage tank 25 close to the delivery pipe A12 is connected to the inside of the delivery pipe A12.

[0020] In an optional embodiment, a push rod 3 is movably connected inside the guide column 2, and one end of the push rod 3 located on the outside of the guide column 2 is fixedly connected to the fixing frame 5, and multiple groups of pressure relief ports 4 are evenly distributed around the guide column 2. Before using the device, the base 1 is fixed to fix the device as a whole. Three groups of support legs are installed at the lower end of the base 1. During installation, the angle of the support legs can be adjusted to control the overall height of the device, and then the initial position of the camera 8 can be adjusted, and multiple groups of pressure relief ports 4 are distributed on the upper half of the guide column 2.

[0021] In an optional embodiment, a motor 6 is installed inside the fixing frame 5, and a rotating shaft 7 is connected to the output end of the motor 6. The end of the rotating shaft 7 away from the motor 6 passes through the fixing frame 5 and extends to the upper end to be connected to the camera 8. When the equipment is used, the rotating shaft 7 is driven to rotate by starting the motor 6. When the rotating shaft 7 rotates, the camera 8 is driven to rotate synchronously. The camera 8 has a danger sensing effect. When a fire source and thick fog are detected, the camera 8 will automatically issue an alarm sound. When the camera 8 detects a fire source and thick fog, it will drive the motor 6 to make the camera 8 face the danger source and then stop, so that the camera 8 is aimed at the danger source. When no danger occurs, the motor 6 will always drive the camera 8 to rotate, and then when the camera 8 rotates, it will perform all-round monitoring of the surrounding objects, thereby realizing all-round detection.

[0022] In an optional embodiment, the rotating shaft 7 is located on the outside of the upper end of the fixed frame 5 and is connected to two groups of fixing buckles 9. The two groups of nozzles 10 are installed inside the two groups of fixing buckles 9. As mentioned above, when the motor 6 drives the rotating shaft 7 to rotate, the rotating shaft 7 will synchronously drive the two groups of fixing buckles 9 to rotate synchronously. When the two groups of fixing buckles 9 rotate, they will synchronously drive the two groups of nozzles 10 to rotate, and the output ends of the two groups of nozzles 10 are located in the same direction as the camera end of the camera 8.

[0023] In an optional embodiment, one end of each of the two groups of nozzles 10 is connected to a connecting pipe 11, one end of the connecting pipe 11 is movably connected to the delivery pipe A12, and the connection between the connecting pipe 11 and the delivery pipe A12 is located at the same axis as the rotating shaft 7, and the end of the delivery pipe A12 away from the connecting pipe 11 is connected to the water supply equipment. When the two groups of nozzles 10 rotate, the connecting pipe 11 will be synchronously driven to rotate. Because the connection between the connecting pipe 11 and the delivery pipe A12 is located at the same axis as the rotating shaft 7, when the connecting pipe 11 rotates, it will synchronously rotate at the axis, so that the rotation of the two groups of nozzles 10 will not be affected, and the diameter of the delivery pipe A12 is small, so when the camera 8 rotates for monitoring, the range of the line of sight blocked by the delivery pipe A12 will not affect the monitoring effect of the camera 8, and when the equipment is running, the water supply equipment will continue to transport water to the inside of the delivery pipe A12, and the water source is mixed with a certain proportion of urea solution.

[0024] In an optional embodiment, one end of the air pump 17 is connected to a delivery pipe B18, the other end of the delivery pipe B18 is connected to one end of the guide column 2, a branch pipe 19 is fixedly connected to the outside of the delivery pipe B18, and the other end of the branch pipe 19 is connected to the storage tank 20. Because the camera 8 has an automatic monitoring and alarm function, when the camera 8 detects danger, it will automatically turn on the air pump 17. After the air pump 17 is turned on, the air pump 17 will deliver gas to the inside of the guide column 2 through the delivery pipe B18. After the gas enters the inside of the guide column 2, it will gradually form air pressure. After the gas forms air pressure, as the pressure inside the guide column 2 increases, it will push the push rod 3 to rise. Because the push rod 3 is connected to the fixed frame 5, when the push rod 3 rises, it will synchronously drive the fixed frame 5 to rise. When the fixed frame 5 rises, it will synchronously drive The position of the camera 8 rises, and then when a fire occurs, the camera 8 will automatically raise its own position to prevent the thick fog from blocking the observation field of the camera 8. At the same time, as mentioned above, when the camera 8 detects danger, it will automatically sound an alarm. Therefore, when the camera 8 rises in the thick fog, it will prompt the staff and guide the staff. Therefore, the automatic raising of the camera 8 can avoid the low-density fog area, reduce the interference of the fog on the observation, and allow the device to capture the scene more clearly, providing effective visual information for subsequent rescue operations. At the same time, the raising of the camera 8 is combined with the alarm sound to form an audio-visual guidance method. The staff can roughly judge the safe path or the location of the device by the source of the alarm sound, evacuate more efficiently, and reduce the danger caused by disorientation. When the push rod 3 rises, as the position of the push rod 3 rises, the sealing effect on the pressure relief port 4 will disappear, and then the air pressure will be ejected through the multiple groups of pressure relief ports 4, thereby creating a clear area around the device, assisting personnel in escaping, and ensuring the accuracy of the camera 8's observation. The air intake of the air pump 17 is greater than the pressure relief volume of the multiple groups of pressure relief ports 4, thereby ensuring the stable rise of the push rod 3. While the air pump 17 delivers gas to the inside of the guide column 2 through the delivery pipe B18, some gas in the delivery pipe B18 will enter the inside of the branch pipe 19, and the branch pipe 19 will deliver part of the gas to the inside of the storage tank 20 for storage. As the gas in the storage tank 20 increases, the gas will form air pressure inside the storage tank 20.

[0025] In an optional embodiment, the outside of the delivery pipe A12 is connected to a connecting pipe B24, a water storage tank 25 close to one side of the delivery pipe A12 is connected to the other end of the connecting pipe B24, and the other end of the drain pipe 26 is connected to the water storage device. The two groups of water storage tanks 25 are connected, and the two groups of water storage tanks 25 are made of heat-conducting material. When the equipment is used, the water supply equipment is in a normally open state. When the water supply equipment delivers water to the inside of the delivery pipe A12, as the water level inside the delivery pipe A12 rises, when the water level rises to the level of the connecting pipe B24, the water level rises to the level of the connecting pipe B24. When B24 is flush, the connecting pipe B24 will divert the water source to the inside of the water tank 25, and because the two groups of water tanks 25 are connected, the water source will enter the inside of the two groups of water tanks 25. After the water source enters the inside of the two groups of water tanks 25, the weight of the two groups of water tanks 25 will be increased. When the water level inside the water tank 25 near the side of the delivery pipe A12 reaches a certain height, the internal water source will be discharged through the drain pipe 26, and the water source discharged through the drain pipe 26 will enter the water storage equipment again, thereby preventing the waste of water resources.

[0026] In an optional embodiment, the connecting frame 13 is connected to the base 1, and two groups of spring rods 14 are connected to the inside of the connecting frame 13. The ends of the two groups of spring rods 14 away from the connecting frame 13 are connected to the pulley 15, and one end of the pull rope 16 is connected to the fixed frame 5. When the fixed frame 5 rises, the pull rope 16 will be pulled up synchronously. When the pull rope 16 rises, it will pull the pulley 15 to rotate synchronously. When the pulley 15 rotates, it will synchronously drive the two groups of spring rods 14 to rotate. After the two groups of spring rods 14 rotate, the tension of the spring rods 14 will apply a reverse rotational force to the pulley 15, thereby tightening the pull rope 16. In combination with the weight of the water tank 25, the center of gravity of the top rod 3 gradually rises, resulting in a decrease in the stability of the camera 8. Therefore, when the camera 8 is raised, the counterweight of the water tank 25 and the traction force of the pull rope 16 will keep the camera 8 stable at a high position. Moreover, since the motor 6 is continuously rotating, the water source inside the water tank 25 near the side of the delivery pipe A12 enters through the connecting pipe B24 and is then discharged through the drain pipe 26, thereby gradually forming a water cycle. Then, the water tank 25 will absorb and cool the heat emitted by the motor 6 due to its own heat-conducting material, so that the counterweight of the water tank 25 and the traction force of the pull rope 16 exert a balancing force on the fixing frame 5. , which can offset the shaking of the camera 8 caused by wind or device vibration after it is raised, ensuring that the camera 8 can still shoot stably at a high place, ensuring clear monitoring of key information such as the fire scene and smoke conditions, and at the same time continuously taking away the absorbed heat through the water tank 25, effectively avoiding the motor 6 from reducing performance or being damaged due to overheating, ensuring long-term stable operation of the device, and the water tank 25 not only assumes the counterweight function, but also serves as a heat dissipation medium container, reducing the use of additional equipment, ensuring that the fixing frame 5 is light when rising and can rise stably, and when the camera 8 is not raised, the water tank 25 will continue to dissipate heat for the motor 6 under normal use.

[0027] In an optional embodiment, the outside of the storage tank 20 is connected to a connecting pipe A21, and an air pressure valve is provided at the connection between the storage tank 20 and the connecting pipe A21. The other end of the connecting pipe A21 passes through the delivery pipe A12 and extends to the inside. The connecting pipe A21 is located on the outside of the delivery pipe A12 and is fixedly connected to a hose 22. The other end of the hose 22 is connected to an air bag 23. The water source inside the delivery pipe A12 is restricted by the drainage of the connecting pipe B24, which will cause the water source inside the delivery pipe A12 to always remain at the same height. When the air pressure inside the storage tank 20 reaches a certain level, When the pressure value is reached, the air pressure valve at the connection with the connecting pipe A21 will be opened, so that the air pressure inside the storage tank 20 will enter the connecting pipe A21 in the form of pulses. After the air pressure enters the connecting pipe A21, part of the air pressure will enter the hose 22. The hose 22 will transmit the air pressure to the airbag 23, so that the airbag 23 will expand. After the airbag 23 expands, it will block and seal the water delivery end of the delivery pipe A12. At this time, the excess air pressure will be discharged through the connecting pipe A21, and then the pulse air pressure of the connecting pipe A21 will squeeze the inside of the delivery pipe A12. Most of the water flows upward. At this time, due to the limitation of the diameter of the connecting pipe B24, when the water source inside the delivery pipe A12 is squeezed, only a small amount of water will enter the water storage tank 25. Most of the water will enter the rear end of the delivery pipe A12 due to the pulse force, and then enter the connecting pipe 11. After the water source enters the connecting pipe 11, the camera 8 will automatically aim at the danger source when it detects danger. At this time, as the water source enters the connecting pipe 11, it will be squeezed by air pressure and sprayed through the two sets of nozzles 10, so that the water source mixed with urea solution will be sprayed towards the fire source, and in During spraying, part of the water source will be sprayed onto the smoke and dust in the path. When the water source mixed with urea solution is sprayed onto the fire source, the water can suppress combustion by cooling the fire source. The ammonia and carbon dioxide produced by the thermal decomposition of urea can dilute the oxygen around the fire source, further blocking the combustion reaction, improving the fire extinguishing efficiency, and quickly controlling the spread of the fire. At the same time, the water absorbs the solid particles in the smoke and dust, causing them to settle and improving visibility. Urea can also react chemically with the toxic gases in the smoke and dust to produce harmless ammonium salts, reducing the toxicity of the smoke and reducing irritation and damage to the respiratory system of people. At the same time, as mentioned above, the water tank 25 and the pull rope 16 will increase the stability of the camera 8 at a high place. When the pulse air pressure enters the delivery pipe A12 to squeeze the water source through the two sets of nozzles 10 for spraying, the water tank 25 and the pull rope 16 will reduce the recoil of the nozzle 10 when spraying water, thereby ensuring the stability of the camera 8 when the water source is spraying.

[0028] Working principle: Before using the device, fix the base 1 and then the entire device. When using the device, start the motor 6 to drive the rotating shaft 7 to rotate. When the rotating shaft 7 rotates, it will synchronously drive the camera 8 to rotate. The camera 8 has a danger sensing effect. When a fire source or thick fog is detected, the camera 8 will automatically sound an alarm. When the camera 8 detects a fire source or thick fog, it will drive the motor 6 to make the camera 8 face the danger source and then stop, so that the camera 8 is aimed at the danger source. When no danger occurs, the motor 6 will always drive the camera 8 to rotate, and then when the camera 8 rotates, it will conduct all-round monitoring of the surrounding objects. When the motor 6 drives the rotating shaft 7 to rotate, the rotating shaft 7 will synchronously drive the two sets of fixed buckles 9 to rotate synchronously. When the two sets of fixed buckles 9 rotate, they will synchronously drive the two sets of nozzles 10 to rotate. When the two sets of nozzles 10 rotate, they will synchronously drive the connecting pipe 11 to rotate. Because the connection between the connecting pipe 11 and the delivery pipe A12 is located at the same axis as the rotating shaft 7, when the connecting pipe 11 rotates, it will synchronously rotate at the axis, so that the rotation of the two sets of nozzles 10 will not be affected. In addition, the diameter of the delivery pipe A12 is small, so when the camera 8 rotates for monitoring, the range of the line of sight blocked by the delivery pipe A12 will not affect the monitoring effect of the camera 8. When the water supply equipment delivers water to the inside of the delivery pipe A12, as the water level inside the delivery pipe A12 rises, when the water level rises to the same level as the connecting pipe B24, the connecting pipe B24 will divert the water to the inside of the water storage tank 25. Since the two sets of water storage tanks 25 are connected, the water will enter the inside of the two sets of water storage tanks 25. After the water enters the inside of the two sets of water storage tanks 25, it will increase the weight of the two sets of water storage tanks 25. When the water level inside the water storage tank 25 near the side of the delivery pipe A12 reaches a certain height, the water inside it will be discharged through the drain pipe 26, and the water discharged through the drain pipe 26 will re-enter the inside of the water storage equipment; When the camera 8 detects danger, it will automatically turn on the air pump 17. After the air pump 17 is turned on, the air pump 17 will deliver gas to the inside of the guide column 2 through the delivery pipe B18. After the gas enters the inside of the guide column 2, it will gradually form air pressure. After the gas forms air pressure, as the pressure inside the guide column 2 increases, it will push the push rod 3 up. Because the push rod 3 is connected to the fixing frame 5, when the push rod 3 rises, the fixing frame 5 will be driven up synchronously. When the fixing frame 5 rises, the position of the camera 8 will be driven up synchronously, and then when a fire occurs, The camera 8 will automatically raise its position, and when the push rod 3 rises, the sealing effect on the pressure relief port 4 will disappear as the push rod 3 rises, and the air pressure will be ejected through the multiple pressure relief ports 4. At the same time, when the air pump 17 delivers gas to the inside of the guide column 2 through the delivery pipe B18, part of the gas in the delivery pipe B18 will enter the inside of the branch pipe 19, and the branch pipe 19 will deliver part of the gas to the storage tank 20 for storage. As the gas in the storage tank 20 increases, the gas will form air pressure inside the storage tank 20. When the fixing frame 5 is rising, the pull rope 16 will be pulled up synchronously. When the pull rope 16 is rising, the pulley 15 will be pulled to rotate synchronously. When the pulley 15 rotates, the two sets of spring rods 14 will be driven to rotate synchronously. After the two sets of spring rods 14 rotate, the spring rods 14 will exert a reverse rotational force on the pulley 15 due to their own tension, thereby tightening the pull rope 16. In addition, combined with the weight of the water tank 25, the center of gravity of the top rod 3 gradually rises, resulting in reduced stability of the camera 8. As the camera 8 rises, the counterweight of the water tank 25 and the traction of the pull rope 16 will keep the camera 8 stable at a high place. In addition, because the motor 6 is continuously rotating, the water source inside the water tank 25 near the side of the delivery pipe A12 enters through the connecting pipe B24 and is then discharged through the drain pipe 26, thereby gradually forming a water circulation. In addition, the water tank 25 will absorb the heat emitted by the motor 6 and cool it down due to its own thermal conductive material. When the air pressure inside the storage tank 20 reaches a certain pressure value, the air pressure valve at the connection with the connecting pipe A21 will be opened, so that the air pressure inside the storage tank 20 will enter the connecting pipe A21 in the form of pulses. After the air pressure enters the connecting pipe A21, part of the air pressure will enter the hose 22, and the hose 22 will transmit the air pressure to the airbag 23, so that the airbag 23 will expand. After the airbag 23 expands, it will block and seal the water delivery end of the delivery pipe A12. At this time, the excess air pressure will be discharged through the connecting pipe A21, and then, along with the pulse air pressure of the connecting pipe A21, it will squeeze the Most of the water in the delivery pipe A12 is forced to flow upward. At this time, due to the limitation of the diameter of the connecting pipe B24, only a small amount of water will enter the water tank 25 when the water in the delivery pipe A12 is squeezed. Most of the water will enter the rear end of the delivery pipe A12 due to the pulse force, and then enter the connecting pipe 11. After the water enters the connecting pipe 11, the camera 8 will automatically aim at the danger source when it detects danger. At this time, as the water enters the connecting pipe 11, it will be squeezed by air pressure and sprayed out through the two sets of nozzles 10, so that the water mixed with urea solution will be sprayed towards the fire source.

[0029] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. An adjustable all-round safety production environment parameter monitoring device, comprising a base (1), characterized in that: A guide column (2) is installed at the upper end of the base (1), and a plurality of pressure relief ports (4) are installed on the outer side of the guide column (2). An end of the guide column (2) away from the base (1) is connected to a fixing frame (5), and a camera (8) is rotatably mounted on the upper end of the fixing frame (5). Two groups of nozzles (10) are arranged at the lower end of the camera (8), and one end of the two groups of nozzles (10) is connected to a delivery pipe A (12); Two sets of connecting frames (13) are installed on both sides of the guide column (2), the two sets of connecting frames (13) are internally connected to pulleys (15), the pulleys (15) are externally connected to pull ropes (16), an air pump (17) is installed at the lower end of the base (1), one end of the air pump (17) is connected to a storage tank (20), and the storage tank (20) is externally connected to a delivery pipe A (12); Two groups of water storage tanks (25) are installed on both sides of the fixing frame (5), the outer side of the water storage tank (25) close to the delivery pipe A (12) is connected to a drainage pipe (26), and one end of the water storage tank (25) close to the delivery pipe A (12) is connected to the inside of the delivery pipe A (12).

2. The adjustable all-round safety production environment parameter monitoring device according to claim 1, characterized in that: The guide column (2) is internally movably connected to a push rod (3), one end of the push rod (3) located outside the guide column (2) is fixedly connected to a fixing frame (5), and multiple groups of pressure relief ports (4) are evenly distributed around the guide column (2).

3. The adjustable all-round safety production environment parameter monitoring device according to claim 2, characterized in that: A motor (6) is installed inside the fixing frame (5), and an output end of the motor (6) is connected to a rotating shaft (7). An end of the rotating shaft (7) away from the motor (6) passes through the fixing frame (5) and extends to the upper end to be connected to the camera (8).

4. The adjustable all-round safety production environment parameter monitoring device according to claim 3, characterized in that: The rotating shaft (7) is located on the outer side of the upper end of the fixing frame (5) and is connected to two sets of fixing buckles (9), and the two sets of nozzles (10) are installed inside the two sets of fixing buckles (9).

5. The adjustable all-round safety production environment parameter monitoring device according to claim 1, characterized in that: One end of each of the two groups of nozzles (10) is connected to a connecting pipe (11), one end of the connecting pipe (11) is movably connected to the delivery pipe A (12), and the connection between the connecting pipe (11) and the delivery pipe A (12) is located at the same axis as the rotating shaft (7), and the end of the delivery pipe A (12) away from the connecting pipe (11) is connected to the water supply equipment.

6. The adjustable all-round safety production environment parameter monitoring device according to claim 1, characterized in that: One end of the air pump (17) is connected to a delivery pipe B (18), the other end of the delivery pipe B (18) is connected to one end of the guide column (2), and the outside of the delivery pipe B (18) is fixedly connected to a branch pipe (19), the other end of the branch pipe (19) is connected to a storage tank (20).

7. The adjustable all-round safety production environment parameter monitoring device according to claim 1, characterized in that: The outer side of the delivery pipe A (12) is connected to a connecting pipe B (24), the water storage tank (25) close to the side of the delivery pipe A (12) is connected to the other end of the connecting pipe B (24), and the other end of the drainage pipe (26) is connected to the water storage equipment, and the two groups of water storage tanks (25) are connected.

8. The adjustable all-round safety production environment parameter monitoring device according to claim 1, characterized in that: The connecting frame (13) is connected to the base (1), and two groups of spring rods (14) are connected inside the connecting frame (13). One end of the two groups of spring rods (14) away from the connecting frame (13) is connected to the pulley (15), and one end of the pull rope (16) is connected to the fixed frame (5).

9. The adjustable all-round safety production environment parameter monitoring device according to claim 1, characterized in that: The outside of the storage tank (20) is connected to a connecting pipe A (21), and an air pressure valve is provided at the connection between the storage tank (20) and the connecting pipe A (21). The other end of the connecting pipe A (21) passes through the delivery pipe A (12) and extends to the inside. The connecting pipe A (21) is located on the outside of the delivery pipe A (12) and is fixedly connected to a hose (22). The other end of the hose (22) is connected to an air bag (23).

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