Intelligent high-rise fire disposal training system

Abstract

The invention discloses an intelligent high-rise fire disposal training system which is arranged on a building body and comprises a combustion device, an ignition system, a fuel gas supply system, a spraying system, a smoke generation system and a ventilation system. The combustion device is communicated with the fuel gas supply system through the ignition system, and electromagnetic valves are arranged on the ignition system, the fuel gas supply system and the spraying system; the smoke generation system and the ventilation system are provided with fans used for conducting smoke exhaust and ventilation on the combustion device. Through the ignition system, the fuel gas supply system, the spraying system, the smoke generation system and the ventilation system which are controlled by the control system, the device has the capability of simulating and controlling real flame combustion, and can be applied to high-rise building places to simulate high-temperature, dense smoke, low-visibility, toxic gas and other complex environments in real fires; the smoke and fire diffusion rule is analyzed through the controllable environment, the fire extinguishing tactics and the personnel evacuation strategy are optimized, and the handling capacity of firefighters is enhanced.

Description

Technical Field

[0001] This invention relates to the field of fire training equipment technology, specifically to an intelligent high-rise fire response training system. Background Technology

[0002] With urbanization, high-rise buildings are increasing in number and density, which in turn increases the risk of high-rise fires and causes greater losses. In response, fire departments have begun to conduct diversified training for handling high-rise fires, which often relies on simulated buildings.

[0003] Patent document CN217718870U discloses a multifunctional fire training tower, including a tower body, a tower platform, a water-spraying fire hydrant, a rock climbing and traversing module, a deep well pipeline module, a basic staircase module, an external span staircase module, a realistic residential exterior wall module, a rope climbing and rappelling module, a climbing ladder pipeline module, and a realistic residential interior module. The external span staircase module is located on the right side of the tower body, the deep well pipeline module is located at the junction of the tower body and the external span staircase module, and the rock climbing and traversing module is located on the outer side of the tower body. This integrated training tower is a multifunctional modular fire training tower, which can promote the diversification and integration of fire training tower functions. It can realize realistic simulation scenario training of various fire-fighting subjects such as climbing, water supply, narrow space rescue, traversing, and tactical training under limited land resources.

[0004] Current high-rise fire response training systems using live-fire simulation are cumbersome and difficult to operate due to numerous inconveniences and safety concerns such as manual on-site ignition. They also lack safety features. Therefore, there is an urgent need for an intelligent high-rise fire response training system to address these issues. Summary of the Invention

[0005] The purpose of this invention is to provide an intelligent high-rise fire response training system to address the aforementioned shortcomings in the prior art.

[0006] To achieve the above objectives, the present invention provides the following technical solution:

[0007] An intelligent high-rise fire response training system is installed on the main body of the building and includes a combustion device, an ignition system, a gas supply system, a sprinkler system, a smoke generation system, and a ventilation system. The combustion device is connected to the gas supply system through the ignition system, and the ignition system, gas supply system, and sprinkler system are all equipped with solenoid valves. The smoke generation system and ventilation system are equipped with fans for exhausting smoke from the combustion device. The ignition system, gas supply system, sprinkler system, smoke generation system, and ventilation system are equipped with control signal line interfaces for connecting to an external control system for control.

[0008] Preferably, the building body is also equipped with a gas detection system, a temperature detection system, and a one-button emergency stop system.

[0009] Preferably, the control system includes: control and self-testing of the entire training system; a voice interaction module for enabling voice interaction between the system and trainees; and a remote monitoring module for supporting remote monitoring of the training process by management personnel.

[0010] Preferably, a training room is provided on the main building, and a window is provided on one side of the training room. The combustion device is located inside the window and extends outward to burn in order to form a rolling fire outside the window.

[0011] Preferably, the combustion device includes a diversion pipe disposed inside the window, a plurality of nozzles arranged vertically at equal intervals on the diversion pipe, and a bending plate corresponding to the nozzles disposed on the diversion pipe.

[0012] Preferably, the gas supply system includes a gas supply pipe installed in the training room, which is connected to the lower end of the branch pipe. An igniter is installed at the connection point, which ignites the lowest nozzle and then gradually ignites each nozzle upwards.

[0013] Preferably, the bending plate is rotatably configured, and a flow guide is elastically rotatably configured inside the diversion pipe. The flow guide has a through hole at its center, a flow guide hole communicating with the through hole and a movable lever that penetrates the side wall of the diversion pipe, and a push block matching the lever is configured on the rotating shaft of the bending plate.

[0014] Preferably, a wind vane is rotatably installed on the wall between two adjacent training rooms, and a triggering component is installed in the training room to control the rotation of the wind vane. After all the bent plates rotate inward toward the window, the triggering component is activated to open the wind vane, allowing air circulation between the two adjacent training rooms.

[0015] Preferably, the triggering component includes a trigger rod that is flexibly raised and lowered within the training room. The trigger rod is connected to a drive shaft via a gear and rack transmission. The drive shaft is connected to the rotating shaft of the wind vane via a bevel gear transmission. The trigger rod is provided with multiple support blocks that correspond one-to-one with the bending plate. The end of the bending plate away from the nozzle can be limited on the support block.

[0016] Preferably, a folding piece is elastically rotatably provided on the lower side of the end of the bending plate away from the nozzle, and a water collection drain is provided on the outside of the window. The water collection drain is linked to the bending plate through a linkage component. After the water collection drain collects a certain weight of water, the bending plates are linked to rotate outward of the window to block the nozzle.

[0017] In the above technical solution, the beneficial effects of the present invention are:

[0018] This intelligent high-rise fire response training system, through its ignition system, gas supply system, sprinkler system, smoke generation system, and ventilation system controlled under a control system, has the ability to simulate and control real flame combustion. It can be applied to high-rise buildings to simulate the complex environment of real fires, such as high temperature, dense smoke, low visibility, and toxic gases. By analyzing the smoke and fire diffusion patterns in a controllable environment, it can optimize firefighting tactics and personnel evacuation strategies, enhance firefighters' psychological qualities and emergency response capabilities, and is highly realistic.

[0019] It should be understood that the foregoing general description and the following detailed description are exemplary and illustrative only, and are not intended to limit this disclosure.

[0020] This application provides an overview of various implementations or examples of the technology described in this disclosure, and is not a full disclosure of the entire scope or all features of the disclosed technology. Attached Figure Description

[0021] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in this invention. For those skilled in the art, other drawings can be obtained based on these drawings.

[0022] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0023] Figure 2 This is a schematic diagram of the training room structure of the present invention;

[0024] Figure 3 This is a schematic diagram of the rear cross-sectional structure of the training room of the present invention;

[0025] Figure 4 For the present invention Figure 3 Enlarged structural diagram at point A;

[0026] Figure 5 This is a top-view cross-sectional structural diagram of the training room of the present invention;

[0027] Figure 6 For the present invention Figure 5 Enlarged structural diagram at point B;

[0028] Figure 7 This is a schematic diagram of the internal structure of the training room of the present invention;

[0029] Figure 8 For the present invention Figure 7 A magnified structural diagram at point C.

[0030] Explanation of reference numerals in the attached figures:

[0031] 1. Main building; 2. Training room; 3. Window; 4. Diverter pipe; 5. Nozzle; 6. Bending plate; 7. Air supply pipe; 8. Igniter; 9. Flow guide; 10. Through hole; 11. Flow guide hole; 12. Pulley; 13. Push block; 14. Wind vane; 15. Trigger rod; 16. Drive shaft; 17. Support block; 18. Folding plate; 19. Water collection drain; 20. Water collection chamber; 21. Movable chamber; 22. Roller; 23. Rope; 24. Counterweight; 25. Push rod; 26. Connecting rod. Detailed Implementation

[0032] To make the objectives, technical solutions, and advantages of the embodiments of this disclosure clearer, the technical solutions of the embodiments of this disclosure will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of this disclosure. All other embodiments obtained by those skilled in the art based on the described embodiments of this disclosure without creative effort are within the scope of protection of this disclosure.

[0033] Please see Figure 1-8 This invention provides an intelligent high-rise fire response training system, which is installed on the main building 1 and includes a combustion device, an ignition system, a gas supply system, a sprinkler system, a smoke generation system, and a ventilation system. The combustion device is connected to the gas supply system through the ignition system. The ignition system, the gas supply system, and the sprinkler system are all equipped with solenoid valves. The smoke generation system and the ventilation system are equipped with fans for exhausting smoke from the combustion device. The ignition system, the gas supply system, the sprinkler system, the smoke generation system, and the ventilation system are equipped with control signal line interfaces for connecting to an external control system for control.

[0034] Specifically, Building 1 is a multi-story building structure. The exterior facade, based on building type, simulates fires in both multi-story and high-rise buildings. For multi-story buildings, facade breaching and demolition scenarios are implemented, such as breaking security grilles and billboards. For high-rise buildings, glass curtain walls are breached, simulating common challenges in daily multi-story and high-rise fire fighting. This is used for training rescue personnel in smoke extraction, search and rescue, and water spraying, and is located at the back of Building 1. Each floor of Building 1 has different fire fighting scenarios, allowing for both centralized and decentralized training. Simultaneously, a self-developed evaluation system monitors the rescue personnel's tactical actions and methods during training, recording and evaluating them in real time. Improper handling of key tactical measures can trigger related events, leading to the spread of the fire and potentially turning a smoldering fire back into a blazing one. The evaluation system includes an intelligent evaluation unit and algorithm module. This module uses a combination of rule-based and case-based reasoning to compare the trainees' operations with standard procedures. The results module displays the operation score in real time and generates a detailed evaluation report after training. The main building 1 is also equipped with a gas detection system, a temperature detection system, and a one-button emergency stop system. During training, it can monitor the concentration of harmful gases and temperature in each area in real time. If abnormal values ​​are detected, the one-button emergency stop system can terminate combustion and smoke generation. In addition, the system is equipped with independent safety alarm systems, environmental monitoring alarm systems, supply pipeline pressure monitoring alarms, flame safety alarms, and other safety facilities and equipment to ensure safe use. The system can operate continuously 24 / 7, with a mean time between failures (MTBF) of >2160 hours and a system availability rate of ≥99.99%. It provides timely alarms in case of malfunctions. The control system includes: control and self-testing of the entire training system; a voice interaction module for voice interaction between the system and trainees; a remote monitoring module for remote monitoring of the training process by management personnel; the control unit uses an industrial control computer with self-developed control software, communicating with each unit via Ethernet; the control room is equipped with a visual operating interface; and the remote monitoring module allows management personnel to monitor the training process in real time via a local area network.

[0035] Compared with existing technologies, the intelligent high-rise fire response training system proposed in this invention, through the ignition system, gas supply system, sprinkler system, smoke generation system, and ventilation system controlled under the control system, has the ability to simulate and control the combustion of real flames. It can be applied to high-rise buildings to simulate the complex environment of real fires, such as high temperature, dense smoke, low visibility, and toxic gases. By analyzing the smoke and fire diffusion patterns through a controllable environment, it can optimize firefighting tactics and personnel evacuation strategies, strengthen the psychological quality and emergency response capabilities of firefighters, and has realism.

[0036] As a preferred technical solution in this embodiment, a training room 2 is provided on the main building 1. A window 3 is provided on one side of the training room 2. The combustion device is located inside the window 3 and extends outward to burn, forming a fire that rolls over outside the window. Specifically, the training rooms 2 are separated from each other, and 6-10 training rooms 2 are provided on the same floor. The windows 3 face the same side and can be equipped with security bars, billboards, glass curtain walls, etc. for simulated training. A smoke generation system is provided on the wall of the training room 2 near the window 3, and a sprinkler system and a ventilation system are provided on the ceiling of the training room 2. Fire rolling over outside the window is a common phenomenon in high-rise fires. How to correctly solve the contradiction between guiding smoke and heat dissipation and controlling the upward spread of fire, such as improper water spraying or directly hitting the fire point on the window, thereby changing the direction of indoor smoke flow and causing the fire to expand and spread, can be addressed by designing sensors and monitoring systems near the ignition point to monitor the methods and procedures of rescue personnel, precautions and key points of fire fighting, etc., and connecting them to an evaluation system for evaluation. The automatic evaluation system can assist the participants in carrying out correct technical and tactical training.

[0037] As a preferred technical solution of this embodiment, the combustion device includes a diversion pipe 4 disposed inside the window 3, a plurality of nozzles 5 arranged vertically at equal intervals on the diversion pipe 4, and a bending plate 6 corresponding to the nozzles 5 disposed on the diversion pipe 4. Specifically, the diversion pipe 4 is arranged vertically, with two symmetrically arranged on opposite sides of the window 3; the nozzles 5 are disposed on the side of the diversion pipe 4, horizontally facing the other diversion pipe 4; the bending plate 6 is disposed on the side of the nozzle 5 away from the window 3, and the end of the bending plate 6 near the center of the window 3 is bent outwards to block the straight direction of the nozzle 5, thereby guiding the gas ejected from the nozzle 5 to the outside of the window 3. After the gas is ignited, a rolling flame is formed outwards from the window 3; the bending plate 6 is made of fire-resistant and high-temperature resistant material.

[0038] As a preferred technical solution in this embodiment, the gas supply system includes a gas supply pipe 7 installed in the training room 2. The gas supply pipe 7 is connected to the lower end of the branch pipe 4, and an igniter 8 is installed at the connection point. The igniter 8 ignites the lowest nozzle 5 and then gradually ignites each nozzle 5 upwards. Specifically, the gas supply pipe 7 is connected to an external gas pipeline; the igniter 8 is the ignition system. Before the igniter 8 ignites, each nozzle 5 sprays out gas. Then, after the igniter 8 ignites the gas sprayed from the lowest nozzle 5, the open flame automatically spreads upwards to ignite the gas sprayed from all nozzles 5.

[0039] In another embodiment of the present invention, the bending plate 6 is rotatably configured, and a guide member 9 is elastically rotatably configured inside the diversion pipe 4. A through hole 10 is provided at the center of the guide member 9, and a guide hole 11 communicating with the through hole 10 and a lever 12 movably penetrating the side wall of the diversion pipe 4 are provided on the sidewall of the bending plate 6. A push block 13 matching the lever 12 is provided on the rotating shaft of the bending plate 6. Specifically, the rotating shaft of the bending plate 6 is vertical and parallel to the extension direction of the diversion pipe 4; the guide member 9 is connected to the diversion pipe 4 by a coil spring; the through hole 10 communicates with the interior of the diversion pipe 4; the height of the guide hole 11 corresponds to the nozzle 5, and the overlap between the guide hole 11 and the nozzle 5 is controlled by the rotation of the guide member 9, thereby controlling the gas injection rate; under the elastic force of the guide member 9, the nozzle 5 and the guide hole 11 are not directly aligned, but are horizontally deflected by 20°~30°, while the bending plate 6 is close to... When one end of the center of window 3 rotates outward from window 3, it drives the push block 13 to rotate. The push block 13 pushes the lever 12 to rotate the guide 9, thereby bringing the guide hole 11 closer to the nozzle 5, which in turn increases the gas ejection rate from the nozzle 5, resulting in a larger fire. In actual use, to extinguish a fire rolling outside the window, it is forbidden to directly impact the flame with a water jet, because the temperature of the fire rolling is extremely high. Direct impact with a water jet will cause it to vaporize instantly, producing a large amount of high-temperature steam, which may cause suffocation or burns to people inside the building. At the same time, it may force dense smoke and combustible gases into the building, expanding the combustion area. In this training system, if the above incorrect operation occurs, the impact force of the water jet will push the bending plate 6 to rotate inward from window 3, thereby triggering the nozzle 5 to be close to the guide hole 11, resulting in a larger fire, simulating a real fire scenario, and facilitating evaluation.

[0040] As a preferred technical solution in this embodiment, a wind vane 14 is rotatably installed on the wall between two adjacent training rooms 2. A triggering component is installed in the training room 2 to control the rotation of the wind vane 14. After all the bent plates 6 rotate into the window 3, the triggering component is triggered to open the wind vane 14, allowing air circulation between the two adjacent training rooms 2. Specifically, an opening is provided on the wall between two adjacent training rooms 2, and the wind vane 14 is rotatably installed in the opening. The opening and closing of the opening is controlled by the rotation of the wind vane 14. After all the bent plates 6 rotate into the window 3, the triggering component is triggered to open the wind vane 14, allowing air circulation between the two adjacent training rooms 2. The air circulation further intensifies the fire in the training room 2, and the flames are more prone to flickering, simulating a more severe fire scenario. The evaluation system can judge that the operation is seriously flawed and the training is unqualified.

[0041] As a preferred embodiment, the triggering component includes a trigger rod 15 that is elastically and dynamically movable within the training room 2. The trigger rod 15 is connected to a drive shaft 16 via a gear and rack transmission. The drive shaft 16 is connected to the rotating shaft of the wind vane 14 via a bevel gear transmission. The trigger rod 15 is equipped with multiple support blocks 17 corresponding one-to-one with the bending plate 6. The end of the bending plate 6 away from the nozzle 5 can be limited on the support block 17. Specifically, the trigger rod 15 is vertically oriented, and a slider is fixedly mounted on it. The inner wall of the training room 2 is provided with a groove matching the slider, and a spring is installed in the groove to connect the slider. The spring pushes the slider upward, thereby giving the trigger rod 15 an elastic upward tendency. A rack is fixedly mounted on the upper end of the trigger rod 15. One end of the drive shaft 16 is equipped with a gear meshing with the rack, while the other end of the drive shaft 16 is coaxially connected to a first bevel gear. The upper end of the rotating shaft of the wind vane 14 is connected to... A shaft is connected to a second bevel gear that meshes with the first bevel gear; multiple support blocks 17 are arranged vertically, each support block 17 corresponding to a bending plate 6, and the center distance between two adjacent support blocks 17 is consistent with the center distance between two adjacent bending plates 6; when the guide member 9 automatically maintains its position so that the guide hole 11 and the nozzle 5 maintain a deflection angle, the bending plate 6 is in a position where the push block 13 and the push block 12 abut against each other. At this time, the end of the bending plate 6 away from the window 3 corresponds vertically to the support block 17. After the support block 17 descends to a height lower than the bending plate 6, each support block 17 is limited to the lower side of the corresponding bending plate 6, thereby limiting the trigger rod 15 to the lowest position. After that, the trigger rod 15 is triggered to rise elastically only when all the bending plates 6 rotate inward toward the window 3 and disengage from their respective support blocks 17, thereby driving the wind vane 14 to rotate via the drive shaft 16 to open. In addition, during the reset, first, actively lower the trigger rod 15 to the lowest position so that the support block 17 is lower than the height of the corresponding bent plate 6. Then, rotate each bent plate 6 outwards from the window 3 by a certain angle so that the end of the bent plate 6 away from the window 3 is repositioned above the support block 17.

[0042] As a further preferred technical solution of this embodiment, a folding piece 18 is elastically rotatably provided on the lower side of the end of the bending plate 6 away from the nozzle 5. A water collection drain 19 is provided on the outer side of the window 3. The water collection drain 19 is linked to the bending plate 6 through a linkage component. After the water collection drain 19 collects a certain weight of water, it links each bending plate 6 to rotate outward of the window 3 to block the nozzle 5. Specifically, the folding piece 18 is just located on the lower side of the end of the bending plate 6 that abuts against the support block 17. The folding piece 18 is connected to the bending plate 6 through a torsion spring. The rotation axis of the folding piece 18 is perpendicular to the rotation axis of the bending plate 6, and within the rotation range, it has an upward force relative to the bending plate 6. The plate surface is in a horizontal position at a 90° angle and in a vertical position parallel to the plate surface of the bent plate 6. When the folding plate 18 is in the horizontal position, its bottom surface is coplanar with the lower surface of the support block 17 that abuts against the bent plate 6. The folding plate 18 automatically returns to the vertical position under elastic force. By setting the folding plate 18, when the bent plate 6 rotates into the window 3, when the end of the bent plate 6 away from the window 3 is dislodged from the top of the support block 17, the folding plate 18 can elastically return to the vertical position, thereby limiting it to one side of the support block 17 and preventing the bent plate 6 from rotating back out of the window 3, thus maintaining the increased fire intensity emitted from the nozzle 5. There are two water collection drains 19, vertically arranged on opposite sides of the outside of the window 3. Multiple vertically distributed water collection chambers 20 are provided on the water collection drains 19, each with an opening facing outwards from the window 3. Inside the training room 2, there is a movable chamber 21 for raising and lowering the water collection drains 19. The linkage components include rollers 22 rotating on the top of the movable chamber 21, with ropes 23 wound around the rollers 22. One end of the rope 23 is fixedly connected to the upper end of the water collection drain 19, and the other end is fixedly connected to a counterweight 24. A push rod 25 is movably arranged inside the training room 2, and the counterweight 24 and the push rod 25 are linked together via a connecting rod 26. The water collection drains 19 are lightweight. The weight of the counterweight 24 is such that the weight of each water collection chamber 20 of the water collection drain 19 after collecting sufficient water is just greater than the weight of the counterweight 24. Each water collection chamber 20 has a drainage hole at the bottom, which allows the water collection chamber 20 to automatically and slowly drain water downwards, thus achieving automatic drainage of the water collection chamber 20 without significantly affecting the water collection function during training. The counterweight 24 moves up and down, and the push rod 25 moves horizontally along the direction of the wall where the vertical window 3 is located, with the push rod 25 corresponding to the end of the bending plate 6 away from the window 3. The two ends of the connecting rod 26 are respectively hinged to the counterweight 24 and the push rod 25. Multiple connecting rods 26 are provided to ensure stable linkage between the lifting and lowering of the counterweight 24 and the translation of the push rod 25.In practical use, when the trainee performs the correct spraying operation—that is, spraying water towards the side of window 3 rather than directly at the fire source or window 3—the water collection drain 19 can continuously collect water. Once all the water collection chambers 20 of the water collection drain 19 have collected enough water, the counterweight 24 can be pulled up. The counterweight 24 triggers the push rod 25 to move closer to the bending plate 6 via the connecting rod 26, thereby pushing the bending plate 6 away from the end of window 3. This causes the bending plate 6 to rotate outward from window 3, allowing it to come close to and block the nozzle 5, greatly reducing the fire until it is extinguished. In addition, the bending plate 6 drives the horizontally positioned flap 18 to rotate. The flap 18 remains limited on the support block 17, thus preventing the wind vane 14 from opening. This is the correct operation for extinguishing a fire, which can effectively reduce the fire until it is extinguished.

[0043] The foregoing has only described certain exemplary embodiments of the present invention by way of illustration. Undoubtedly, those skilled in the art can modify the described embodiments in various ways without departing from the spirit and scope of the present invention. Therefore, the foregoing drawings and descriptions are illustrative in nature and should not be construed as limiting the scope of protection of the claims of the present invention.

Claims

1. An intelligent high-rise fire response training system, which is installed on the main body of a building (1), characterized in that, This includes combustion devices, ignition systems, gas supply systems, spray systems, smoke generation systems, and ventilation systems; The combustion device is connected to the gas supply system through an ignition system, and the ignition system, the gas supply system, and the spray system are all equipped with solenoid valves. The smoke generation system and ventilation system are equipped with fans for exhausting smoke from the combustion device. The ignition system, gas supply system, sprinkler system, smoke generation system, and ventilation system are equipped with control signal line interfaces for connecting to external control systems for control.

2. The intelligent high-rise fire response training system according to claim 1, characterized in that, The building body (1) is also equipped with a gas detection system, a temperature detection system and a one-button emergency stop system.

3. The intelligent high-rise fire response training system according to claim 1, characterized in that, The control system includes: control and self-testing of the entire training system; a voice interaction module for enabling voice interaction between the system and trainees; and a remote monitoring module for supporting remote monitoring of the training process by management personnel.

4. The intelligent high-rise fire response training system according to claim 1, characterized in that, The main building (1) is equipped with a training room (2), and a window (3) is provided on one side of the training room (2). The combustion device is located inside the window (3) and extends outward from the window (3) to form a rolling fire outside the window.

5. The intelligent high-rise fire response training system according to claim 4, characterized in that, The combustion device includes a diversion pipe (4) arranged inside the window (3), a plurality of nozzles (5) arranged vertically at equal intervals on the diversion pipe (4), and a bending plate (6) corresponding to the nozzles (5) on the diversion pipe (4).

6. The intelligent high-rise fire response training system according to claim 5, characterized in that, The gas supply system includes a gas supply pipe (7) installed in the training room (2). The gas supply pipe (7) is connected to the lower end of the branch pipe (4), and an igniter (8) is installed at the connection point. The igniter (8) ignites the lowest nozzle (5) and then gradually ignites each nozzle (5) upwards.

7. The intelligent high-rise fire response training system according to claim 5, characterized in that, The bending plate (6) is rotatably mounted, and a flow guide (9) is elastically rotatably mounted inside the diversion pipe (4). A through hole (10) is provided in the center of the flow guide (9), and a flow guide hole (11) communicating with the through hole (10) and a movable paddle (12) that penetrates the side wall of the diversion pipe (4) are provided on the side wall. A push block (13) matching the paddle (12) is provided on the rotating shaft of the bending plate (6).

8. The intelligent high-rise fire response training system according to claim 7, characterized in that, A wind vane (14) is rotatably installed on the wall between two adjacent training rooms (2). A triggering component is installed in the training room (2) to control the rotation of the wind vane (14). After all the bending plates (6) rotate into the window (3), the triggering component is triggered to open the wind vane (14) and allow air circulation between the two adjacent training rooms (2).

9. The intelligent high-rise fire response training system according to claim 8, characterized in that, The triggering component includes a trigger rod (15) that is flexibly raised and lowered inside the training room (2). The trigger rod (15) is connected to the drive shaft (16) via a gear and rack transmission. The drive shaft (16) is connected to the rotating shaft of the wind vane (14) via a bevel gear transmission. The trigger rod (15) is provided with multiple support blocks (17) that correspond one-to-one with the bending plate (6). The end of the bending plate (6) away from the nozzle (5) can be limited on the support block (17).

10. The intelligent high-rise fire response training system according to claim 9, characterized in that, The bending plate (6) is elastically rotatably provided with a folding piece (18) on the lower side of the end away from the nozzle (5). A water collection drain (19) is provided on the outside of the window (3). The water collection drain (19) is linked to the bending plate (6) through a linkage component. After the water collection drain (19) collects a certain weight of water, the bending plates (6) are linked to rotate outward of the window (3) to block the nozzle (5).

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