A fire emergency platform based on big data

Abstract

This invention discloses a big data-based fire emergency platform, relating to the field of fire protection technology. It includes a fire cabinet with an integrated cabinet on the back side. A signal receiving and control structure is installed on the side of the fire cabinet. With the assistance of a rotation-point control component, a microprocessor controls the further actions of the rotation-point control component based on the detection results of an ultrasonic detector and previously determined fire extinguishing requirements. By precisely controlling the rotation of an energy-saving motor, the steering wheel frame rotates the target fire auxiliary component to a suitable position, quickly locating and retrieving the appropriate fire auxiliary component for fire extinguishing operations. The platform effectively responds and adjusts fire equipment promptly based on fire and fire hazard information, reducing the time spent on fire rescue selection and improving rescue efficiency. Furthermore, with the assistance of the fire auxiliary component, it further enhances the efficiency and timeliness of fire rescue operations.

Description

Technical Field

[0001] This invention relates to the field of fire protection technology, specifically to a fire emergency platform based on big data. Background Technology

[0002] With urbanization, urban land use has increased. Residential buildings and shopping malls often have high foot traffic and a wide variety of goods. If a fire breaks out and is not dealt with promptly, it can lead to serious fire safety accidents. Therefore, fire emergency platforms are installed in residential buildings and shopping malls. Common fire emergency platforms include fire extinguisher cabinets and fire hydrants.

[0003] Currently, in the use of fire emergency platforms, the fire extinguishing tools configured in residential and commercial buildings are mostly fire extinguishers. These fire extinguishers come in various types, such as dry powder extinguishers, depending on the fire situation. This means that when a fire occurs, firefighters must first select the appropriate type of fire extinguisher based on the type of fire before commencing firefighting operations. This process is quite cumbersome and can delay initial rescue efforts. Therefore, there is a need to propose a fire emergency platform based on big data. Summary of the Invention

[0004] The purpose of this invention is to provide a big data-based fire emergency platform to address the problem mentioned in the background art: In the use of fire emergency platforms, the fire extinguishing tools configured in residential and commercial buildings are mostly fire extinguishers, and the types of fire extinguishers vary depending on the fire situation, including dry powder fire extinguishers. This means that when a fire occurs, firefighters must first select the appropriate type of fire extinguisher based on the type of fire before they can carry out firefighting operations. The overall operation process is cumbersome in fire rescue, which can delay the first rescue time.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a fire emergency platform based on big data, comprising a fire cabinet, wherein an embedded cabinet is integrally formed on the back side of the fire cabinet, and a signal receiving and control structure is installed on the side of the fire cabinet, the signal receiving and control structure comprising a signal receiver and a microprocessor, wherein the signal receiver transmits the monitored fire type data to the microprocessor under the monitoring of an external fire detection sensor, so that the microprocessor analyzes and judges and selects the appropriate fire extinguisher according to the type of fire. A push guide rail is provided on the inner bottom surface of the fire cabinet, and a rotation positioning control component is slidably connected inside the push guide rail. A position connecting rod is installed on the top of the center end of the rotation positioning control component, and multiple sets of fire auxiliary components are slidably connected to the outer periphery of the rotation positioning control component.

[0006] The rotation positioning control component includes a control energy-saving motor, which is connected to a microprocessor via a signal connection. A connecting gear is connected to the side output end of the control energy-saving motor, and a rotating gear is meshed with the side end of the connecting gear. A steering wheel frame is mounted on the top of the rotating gear, and a steering positioning ring wheel is slidably connected to the circumference of the steering wheel frame. A stator and rotor structure is mounted on the bottom of the steering wheel frame, and an ultrasonic probe for device detection is fastened to the side end of the stator and rotor structure. An ultrasonic detector is mounted on the side end of the ultrasonic probe for device detection.

[0007] Preferably, the fire-fighting auxiliary component includes a positioning sliding block, which consists of a positioning sensor and a sliding saddle. The positioning sensor rotates to the front end of the fire-fighting box based on data analysis from the microprocessor. A sliding connecting wheel is fastened to the side end of the positioning sliding block.

[0008] Preferably, an outer protective frame is fastened to the side end of the sliding connecting wheel, and a type display end is installed on the side surface of the outer protective frame. The type display end is used to display the type of fire-fighting equipment inside the outer protective frame when the outer protective frame rotates through the positioning sliding block, so as to facilitate timely observation and retrieval by firefighters. An electric push response rod is installed on the side end of the positioning sliding block.

[0009] Preferably, a rotating structure is installed inside the outer protective frame. The rotating structure is mounted on the frame of the outer protective frame via a rotating shaft. Under the action of an electric push-response rod, the angle of the rotating structure is adjusted to push out the fire-fighting equipment. An elastic clamp is installed on the side end of the rotating structure to hold the fire-fighting equipment firmly.

[0010] Preferably, the position connecting rod is located on the top of the steering wheel frame via a rotating bearing to form a stator structure, so that the position connecting rod is always at the end facing the open cabinet door of the fire protection box, and a multi-axis small transmission arm is installed at the front end of the position connecting rod.

[0011] Preferably, a pneumatically adjustable displacement frame is installed at the bottom end of the multi-axis miniature transmission arm, and a clamping component is installed at the bottom end of the pneumatically adjustable displacement frame. The clamping component is used to activate the opening valve of the fire-fighting equipment under the drive of the multi-axis miniature transmission arm.

[0012] Compared with the prior art, the beneficial effects of the present invention are:

[0013] 1. In this invention, with the cooperation of a rotating fixed-point control component, fire hazard detection sensors pre-distributed in various areas of the building monitor the surrounding environment in real time. Once a change in fire-related parameters (such as smoke concentration, temperature rise, etc.) is detected, the data is transmitted to a signal receiver on the side of the fire extinguisher box. The signal receiver transmits the received fire hazard type data (such as solid fire, liquid fire, electrical fire, etc.) to a microprocessor. The microprocessor analyzes and judges the received data, and determines the required fire extinguisher type based on the fire type and fire extinguisher matching relationship pre-stored in the big data system. This allows the microprocessor to determine the required fire extinguisher type based on the detection results of the ultrasonic detector and the previously determined... To meet firefighting needs, the control mechanism further controls the rotation of the fixed-point adjustment component. By precisely controlling the rotation of the energy-saving motor, the steering wheel frame rotates the target fire auxiliary component to a suitable position. Then, it pushes the guide rail to start, causing the connected rotation fixed-point adjustment component to move along the guide rail towards the outlet of the fire cabinet, pushing the fire auxiliary component to an easily accessible position. This allows firefighters to quickly locate and retrieve the appropriate fire auxiliary component for firefighting operations based on signals (such as lights and sounds) from the control structure. Overall, this system effectively responds to and adjusts firefighting equipment in a timely manner based on fire and fire hazard information, reducing the time spent on fire rescue selection and improving rescue efficiency.

[0014] 2. In this invention, with the cooperation of the fire-fighting auxiliary components, when a fire occurs, the signal receiving and control structure of the fire-fighting box receives the fire hazard data and, after analysis by the microprocessor to determine the required type of fire-fighting equipment, the microprocessor sends a command to the positioning sensor of the fire-fighting auxiliary components. According to the command, the positioning sensor controls the positioning sliding block to slide inside the steering positioning ring wheel, causing the entire fire-fighting auxiliary components to begin rotating at a fixed point and move towards the front end of the fire-fighting box. During the rotation of the positioning sliding block, the microprocessor sends a start signal to the electric push-response rod according to the fire situation and the determined fire-fighting strategy. This causes the electric push-response rod to push the rotating structure, which rotates around the rotating shaft within the outer protective frame, pushing the fire-fighting equipment held by the elastic clamp out of the outer protective frame. After firefighters see the information displayed on the type display and confirm that it is the required equipment, they quickly remove the fire-fighting equipment from the elastic clamp for fire-fighting operations, further improving fire-fighting and rescue efficiency.

[0015] 3. In this invention, during the process of the fire-fighting auxiliary component pushing the fire-fighting equipment out of the outer protective frame, the multi-axis small transmission arm, the pneumatic adjustable displacement frame, and the clamping component work together with the position connecting rod, the multi-axis small transmission arm also moves to the upper area near the opening valve of the fire-fighting equipment under the drive of the position connecting rod, preparing to open the valve. At this time, the pneumatic adjustable displacement frame adjusts its height and angle according to the preset program or the real-time instructions of the microprocessor, so that the clamping component is aligned with the opening valve of the fire-fighting equipment. The pneumatic adjustable displacement frame drives the clamping component to move downward. When the clamping component contacts the opening valve of the fire-fighting equipment... After the valve is opened, depending on the type and opening method of the fire-fighting equipment (such as rotary valves, push-button valves, etc.), the multi-axis miniature transmission arm starts to move. For rotary valves, the multi-axis miniature transmission arm drives the clamping component to rotate the valve to the open position through the corresponding rotary joint. For push-button valves, the multi-axis miniature transmission arm controls the clamping component to apply appropriate pressure to open the valve. Once the opening valve of the fire-fighting equipment is successfully opened, the fire-fighting equipment can be used for fire extinguishing. Firefighters can directly use the opened fire-fighting equipment to carry out fire extinguishing operations, which improves the timeliness and efficiency of fire extinguishing. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the main view structure of a fire emergency platform based on big data according to the present invention;

[0017] Figure 2 This is a schematic diagram of the installation position structure of the rotating fixed-point control component in a big data-based fire emergency platform according to the present invention;

[0018] Figure 3 This is a schematic diagram of the rotating fixed-point control component in a big data-based fire emergency platform according to the present invention.

[0019] Figure 4 This is a schematic diagram of the installation location structure of fire-fighting auxiliary components in a big data-based fire emergency platform according to the present invention;

[0020] Figure 5 This invention relates to a big data-based fire emergency platform. Figure 4 A magnified structural diagram at point A;

[0021] Figure 6 This is a schematic diagram of the structure of a fire-fighting auxiliary component in a big data-based fire emergency platform according to the present invention;

[0022] Figure 7 This is a schematic diagram of the system process for fire rescue in a big data-based fire emergency platform according to the present invention.

[0023] In the diagram: 1. Fire cabinet; 2. Embedded cabinet; 3. Signal receiving and control structure; 4. Push guide rail; 5. Rotation positioning and control component; 51. Control energy-saving motor; 52. Connecting rotating gear; 53. Rotating gear; 54. Steering wheel frame; 55. Steering positioning ring wheel; 56. Ultrasonic probe for device detection; 57. Ultrasonic detector; 7. Fire auxiliary component; 71. Positioning sliding block; 72. Sliding connecting wheel; 73. Electric push response rod; 74. Rotation structure; 75. Elastic clamping hoop; 8. Position connecting rod; 9. Multi-axis small transmission arm; 10. Pneumatic adjustment displacement frame; 11. Clamping component. Detailed Implementation

[0024] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0025] In this invention, reference is made to Figures 1-7 As shown: A fire emergency platform based on big data includes a fire cabinet 1. An embedded cabinet 2 is integrally formed on the back side of the fire cabinet 1. A signal receiving and control structure 3 is installed on the side of the fire cabinet 1. The signal receiving and control structure 3 includes a signal receiver and a microprocessor. The signal receiver transmits the monitored fire type data to the microprocessor under the monitoring of an external fire detection sensor. After analysis and judgment, the microprocessor selects the appropriate fire extinguisher based on the type of fire. A push guide rail 4 is provided on the inner bottom surface of the fire cabinet 1. A rotation and positioning control component 5 is slidably connected inside the push guide rail 4. A position connecting rod 8 is installed on the top of the center end of the rotation and positioning control component 5. Multiple sets of fire auxiliary components 7 are slidably connected to the outer periphery of the rotation and positioning control component 5.

[0026] The rotation positioning control component 5 includes a control energy-saving motor 51, which is connected to a microprocessor via a signal connection. A connecting gear 52 is connected to the side output end of the control energy-saving motor 51. A rotating gear 53 is meshed with the side end of the connecting gear 52. A steering wheel frame 54 is mounted on the top of the rotating gear 53. A steering positioning ring wheel 55 is slidably connected to the circumference of the steering wheel frame 54. A stator and rotor structure is mounted on the bottom of the steering wheel frame 54. An ultrasonic probe 56 for device detection is fastened to the side end of the stator and rotor structure. An ultrasonic detector 57 is mounted on the side end of the ultrasonic probe 56 for device detection.

[0027] In one specific scheme, fire hazard detection sensors pre-distributed throughout various areas of the building monitor the surrounding environment in real time. Once a change in fire-related parameters (such as smoke concentration, temperature rise, etc.) is detected, the data is transmitted to a signal receiver on the side of the fire cabinet 1. The signal receiver transmits the received fire hazard type data (such as solid fire, liquid fire, electrical fire, etc.) to a microprocessor. The microprocessor analyzes and judges the received data, determining the required fire extinguisher type based on the fire type and fire extinguisher matching relationship pre-stored in the big data system. Simultaneously, the microprocessor sends a signal to the control energy-saving motor 51, causing it to start and drive the connecting gear 52 to rotate. Since the connecting gear 52 meshes with the rotating gear 53, the rotating gear 53 rotates accordingly. The steering wheel frame 54 on top of the rotating gear 53 begins to rotate, sliding around the circumference of the steering positioning ring wheel 55. During rotation, the stator and rotor structure drives the ultrasonic probe 56 to rotate, and the ultrasonic detector 57 begins to work, detecting the fire auxiliary components 7 inside the fire cabinet 1. The detector 57 detects the position and status of each fire-fighting auxiliary component 7 (such as whether it is damaged, whether the extinguishing agent is sufficient, etc.), and at the same time detects the type of fire-fighting equipment. The detection data is transmitted back to the microprocessor, which uses this data to determine the specific position and status information of the target fire-fighting auxiliary component 7 for precise control. Based on the detection results of the ultrasonic detector 57 and the previously determined fire-fighting requirements, the microprocessor controls the further action of the rotation positioning control component 5. By controlling the precise rotation of the energy-saving motor 51, the steering wheel frame 54 rotates the target fire-fighting auxiliary component 7 to a suitable position. Then, the guide rail 4 is activated, pushing the connected rotation positioning control component 5 to move along the guide rail towards the outlet of the fire cabinet 1, pushing the fire-fighting auxiliary component 7 to an easily accessible position. This allows firefighters to quickly find and retrieve the appropriate fire-fighting auxiliary component 7 for fire-fighting operations based on the prompts (such as lights, sounds, etc.) issued by the signal receiving control structure 3. Overall, the system effectively responds and adjusts fire-fighting equipment in a timely manner based on fire and fire hazard information, reducing the time spent on fire rescue selection and improving rescue efficiency.

[0028] In this invention, according to Figures 1-4 and Figure 6 As shown, the fire-fighting auxiliary component 7 includes a positioning sliding block 71, which consists of a positioning sensor and a sliding saddle. The positioning sensor rotates to the front end of the fire-fighting box 1 based on data analysis from the microprocessor. A sliding connecting wheel 72 is fastened to the side end of the positioning sliding block 71.

[0029] An outer protective frame is fastened to the side end of the sliding connecting wheel 72. A type display end is installed on the side surface of the outer protective frame. The type display end is used to display the type of fire-fighting equipment inside the outer protective frame when the outer protective frame rotates through the positioning sliding block 71, so that firefighters can observe and retrieve it in time. An electric push response rod 73 is installed on the side end of the positioning sliding block 71.

[0030] A rotating structure 74 is installed inside the outer protective frame. The rotating structure 74 is mounted on the frame of the outer protective frame via a rotating shaft. Under the action of the electric push response rod 73, the angle of the rotating structure 74 is adjusted to push out the fire-fighting equipment. An elastic clamping hoop 75 is installed on the side end of the rotating structure 74. The elastic clamping hoop 75 is used to clamp the fire-fighting equipment and keep it stable.

[0031] In one specific scenario, when a fire occurs, the signal receiving and control structure 3 of the fire cabinet 1 receives the fire hazard data and, after analysis by the microprocessor to determine the required types of fire-fighting equipment, sends a command to the positioning sensor of the fire-fighting auxiliary component 7. Based on the command, the positioning sensor controls the positioning sliding block 71 to slide inside the steering positioning wheel 55, causing the entire fire-fighting auxiliary component 7 to begin rotating at a fixed point, moving towards the front end of the fire cabinet 1. During the rotation of the positioning sliding block 71, the type display terminal on the side of the outer frame displays the types of fire-fighting equipment currently installed inside the outer frame based on information pre-stored in the microprocessor. This information is simultaneously transmitted to the indicator lights or display screen on the fire cabinet 1, so that firefighters can know from a distance whether the equipment in the component is the required one. When the positioning sliding block 71 rotates to the designated position, i.e., the easily accessible position at the front end of the fire cabinet 1, the positioning sensor feeds back the positioning information to the microprocessor. The microprocessor records the position of the component and prepares for the next... The microprocessor, based on the fire situation and the determined firefighting strategy, sends a start signal to the electrically driven response rod 73, causing the rod to push the rotating structure 74. The rotating structure 74 rotates within the outer frame around a rotating shaft, pushing the fire-fighting equipment held by the elastic clamp 75 out of the outer frame. After firefighters see the information displayed on the type display and confirm it is the required equipment, they quickly retrieve the equipment from the elastic clamp 75 to perform firefighting operations. During retrieval, the elastic clamp 75, due to its elasticity, allows firefighters to quickly pull out the equipment while ensuring its stable placement before retrieval, preventing slippage or displacement due to vibrations or other unexpected situations. After firefighters retrieve the equipment, the microprocessor records that the component has been retrieved. If additional equipment or replacement of other types of equipment is needed during firefighting, the microprocessor can control other fire-fighting auxiliary components 7 to repeat the above process, further improving fire rescue efficiency.

[0032] In this invention, according to Figure 2 , Figure 3 and Figure 5 As shown, the position connecting rod 8 is located on the top of the steering wheel frame 54 through a rotating bearing to form a stator structure, so that the position connecting rod 8 is always at the end facing the open cabinet door of the fire box 1. A multi-axis small transmission arm 9 is installed at the front end of the position connecting rod 8.

[0033] A pneumatic adjustment displacement frame 10 is installed at the bottom of the multi-axis small transmission arm 9, and a clamping component 11 is installed at the bottom of the pneumatic adjustment displacement frame 10. The clamping component 11 is used to activate the opening valve of the fire-fighting equipment under the drive of the multi-axis small transmission arm 9.

[0034] In one specific scenario, when a fire occurs, the signal receiving and control structure 3 receives the fire hazard information and, after analysis and decision-making by the microprocessor, initiates the rotation of the fixed-point control component 5. This causes the connected fire-fighting auxiliary component 7 to be positioned at a suitable location at the front end of the fire cabinet 1. Simultaneously, the position connecting rod 8 rotates with the rotation of the steering wheel frame 54, maintaining its orientation towards the opening door end of the fire cabinet 1 via a rotating bearing. This ensures that subsequent components, such as the multi-axis miniature transmission arm 9, can accurately align with the fire-fighting equipment. As the fire-fighting auxiliary component 7 pushes the fire-fighting equipment out of the outer protective frame, the multi-axis miniature transmission arm 9, driven by the position connecting rod 8, also moves to the area above the opening valve of the fire-fighting equipment, preparing for valve opening operation. At this time, the pneumatic adjustment displacement frame 10 operates according to a preset program or real-time instructions from the microprocessor. Adjusting its height and angle, the clamping member 11 is aligned with the opening valve of the fire-fighting equipment. The pneumatically adjustable displacement frame 10 drives the clamping member 11 to move downward. When the clamping member 11 contacts the opening valve of the fire-fighting equipment, the multi-axis miniature transmission arm 9 starts to move according to the type and opening method of the fire-fighting equipment (such as rotary valve, push-button valve, etc.). For rotary valves, the multi-axis miniature transmission arm 9 drives the clamping member 11 to rotate the valve to the open position through the corresponding rotary joint. For push-button valves, the multi-axis miniature transmission arm 9 controls the clamping member 11 to apply appropriate pressure to open the valve. Once the opening valve of the fire-fighting equipment is successfully opened, the fire-fighting equipment can be used for fire extinguishing. Firefighters can directly use the opened fire-fighting equipment to carry out fire extinguishing operations, improving the timeliness and efficiency of fire extinguishing.

[0035] The wiring diagrams for the control energy-saving motor 51, ultrasonic detector 57, electric push-response rod 73, multi-axis miniature transmission arm 9, signal receiver, microprocessor, and positioning sensor in this invention are common knowledge in the field. Their working principles are known technologies, and the appropriate models are selected according to actual use. Therefore, the control methods and wiring arrangements for the control energy-saving motor 51, ultrasonic detector 57, electric push-response rod 73, multi-axis miniature transmission arm 9, signal receiver, microprocessor, and positioning sensor will not be explained in detail.

[0036] The usage and working principle of this device are as follows: First, fire detection sensors pre-distributed throughout the building monitor the surrounding environment in real time. Once a change in fire-related parameters (such as smoke concentration, temperature rise, etc.) is detected, the data is transmitted to a signal receiver on the side of the fire extinguisher housing 1. The signal receiver transmits the received fire type data (such as solid fire, liquid fire, electrical fire, etc.) to a microprocessor. The microprocessor analyzes and judges the received data, determining the required fire extinguisher type based on the fire type and fire extinguisher matching relationship pre-stored in the big data system. Simultaneously, the microprocessor sends a signal to the control energy-saving motor 51, causing it to start and drive the connecting gear 52 to rotate. 2 meshes with rotating gear 53, causing rotating gear 53 to rotate. The steering wheel frame 54 on top of rotating gear 53 begins to rotate, sliding around the circumference of steering positioning ring wheel 55. During rotation, the stator and rotor structure drives the ultrasonic probe 56 to rotate, and the ultrasonic detector 57 begins to work, detecting the fire auxiliary components 7 inside the fire cabinet 1. The ultrasonic detector 57 detects the position and status of each fire auxiliary component 7 (e.g., whether it is damaged, whether the extinguishing agent is sufficient, etc.), and simultaneously detects the type of fire-fighting equipment. It transmits the detection data back to the microprocessor, allowing the microprocessor to determine the specific position and status information of the target fire auxiliary component 7 for precise control. The microprocessor then uses the ultrasonic detector... Based on the test results of 57 and the previously determined fire extinguishing requirements, the control rotation positioning and adjustment component 5 is further activated. By precisely controlling the rotation of the energy-saving motor 51, the steering wheel frame 54 rotates the target fire auxiliary component 7 to a suitable position. Then, the guide rail 4 is activated, pushing the connected rotation positioning and adjustment component 5 along the guide rail towards the outlet of the fire cabinet 1, pushing the fire auxiliary component 7 to an easily accessible position. This allows firefighters to quickly locate and retrieve the appropriate fire auxiliary component 7 for fire extinguishing operations based on the prompts (such as lights and sounds) issued by the control structure 3. Overall, this effectively responds to and adjusts fire equipment in a timely manner based on fire and fire hazard information, reducing the time spent on fire rescue selection and improving rescue efficiency. When a fire occurs, the signal receiving and control structure 3 of the fire cabinet 1 receives the fire hazard data and, after analysis by the microprocessor to determine the required type of fire-fighting equipment, sends a command to the positioning sensor of the fire-fighting auxiliary component 7. Based on the command, the positioning sensor controls the positioning sliding block 71 to slide inside the steering positioning wheel 55, causing the entire fire-fighting auxiliary component 7 to begin rotating at a fixed point, moving towards the front end of the fire cabinet 1. During the rotation of the positioning sliding block 71, the type display terminal on the side of the outer frame displays the type of fire-fighting equipment currently installed inside the outer frame based on information pre-stored in the microprocessor. This information is simultaneously transmitted to the indicator lights or display screen on the fire cabinet 1, so that firefighters can know from a distance whether the equipment inside the component is the required one.When the positioning sliding block 71 rotates to the designated position, i.e., the easily accessible position at the front of the fire cabinet 1, the positioning sensor feeds back the positioning information to the microprocessor. The microprocessor records the position of the component and prepares for the next operation. Based on the fire situation and the determined fire extinguishing strategy, the microprocessor sends a start signal to the electric push-response rod 73, causing the electric push-response rod 73 to push the rotating structure 74. The rotating structure 74 rotates around the rotating shaft within the outer protective frame, pushing the fire-fighting equipment held by the elastic clamp 75 out of the outer protective frame. After firefighters see the information displayed on the type display and confirm that it is the required equipment, they quickly remove the fire-fighting equipment from the elastic clamp 75 to perform fire extinguishing operations. During use, the elastic clamp 75, due to its elasticity, allows firefighters to quickly and easily remove equipment. It also ensures the equipment is securely placed before use, preventing slippage or displacement due to vibrations or other unexpected situations. After firefighters retrieve the equipment, the microprocessor records that the component has been retrieved. If additional equipment or replacements are needed during firefighting, the microprocessor can control other fire auxiliary components 7 to repeat the process, further improving fire rescue efficiency. Simultaneously, after the signal receiving and control structure 3 receives fire hazard information and the microprocessor analyzes and makes decisions, the rotating fixed-point control component 5 begins to operate, causing the connected fire auxiliary component 7 to be positioned... At the appropriate position at the front end of the fire cabinet 1, the position connecting rod 8 rotates with the rotation of the steering wheel frame 54, maintaining its orientation towards the opening door end of the fire cabinet 1 via the rotation bearing. This ensures that subsequent components such as the multi-axis miniature transmission arm 9 are accurately aligned with the fire equipment. As the fire auxiliary component 7 pushes the fire equipment out of the outer protective frame, the multi-axis miniature transmission arm 9, driven by the position connecting rod 8, also moves to the area above the opening valve of the fire equipment, preparing for valve opening operation. At this time, the pneumatic adjustment displacement frame 10 adjusts its height and angle according to the preset program or real-time instructions from the microprocessor, aligning the clamping member 11 with the opening valve of the fire equipment. The pneumatic adjustment displacement frame 10 drives... The movable clamping member 11 moves downwards. When the clamping member 11 contacts the opening valve of the fire-fighting equipment, the multi-axis miniature transmission arm 9 starts to move according to the type and opening method of the fire-fighting equipment (such as a rotary valve, a push-button valve, etc.). For rotary valves, the multi-axis miniature transmission arm 9 drives the clamping member 11 to rotate the valve to the open position through the corresponding rotary joint. For push-button valves, the multi-axis miniature transmission arm 9 controls the clamping member 11 to apply appropriate pressure to open the valve. Once the opening valve of the fire-fighting equipment is successfully opened, the fire-fighting equipment can be used for fire extinguishing. Firefighters can directly use the opened fire-fighting equipment to extinguish the fire, improving the timeliness and efficiency of fire extinguishing.

[0037] Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A fire emergency platform based on big data, characterized in that: The fire cabinet includes a fire box (1), with an embedded cabinet (2) integrally formed on the back side of the fire box (1). A signal receiving and control structure (3) is installed on the side of the fire box (1). The signal receiving and control structure (3) includes a signal receiver and a microprocessor. The signal receiver transmits the monitored fire type data to the microprocessor under the monitoring of an external fire detection sensor. The microprocessor analyzes and judges the data and selects the appropriate fire extinguisher based on the type of fire. A push guide rail (4) is provided on the bottom surface of the fire box (1). A rotation positioning control component (5) is slidably connected inside the push guide rail (4). A position connecting rod (8) is installed on the top of the center end of the rotation positioning control component (5). The external circumferential side of the component is slidably connected to multiple sets of fire-fighting auxiliary components (7); the rotation fixed point control component (5) includes a control energy-saving motor (51), the control energy-saving motor (51) and the microprocessor form a signal connection, the side output end of the control energy-saving motor (51) is connected to a connecting rotating gear (52), the side end of the connecting rotating gear (52) is meshed with a rotating gear (53), the top of the rotating gear (53) is equipped with a steering wheel frame (54), the circumferential side of the steering wheel frame (54) is slidably connected to a steering positioning ring wheel (55), the bottom of the steering wheel frame (54) is equipped with a stator and rotor structure, the side end of the stator and rotor structure is fastened to an ultrasonic probe rod (56) for device detection, and the side end of the ultrasonic probe rod (56) for device detection is equipped with an ultrasonic detector (57). The fire-fighting auxiliary component (7) includes a positioning sliding block (71), which is composed of a positioning sensor and a sliding saddle. The positioning sensor rotates to the front end of the fire box (1) based on the data analysis of the microprocessor. A sliding connecting wheel (72) is fastened to the side end of the positioning sliding block (71). The ultrasonic detector (57) detects the position and status of each fire-fighting auxiliary component (7), and at the same time detects the type of fire-fighting equipment, and transmits the detection data back to the microprocessor. The microprocessor determines the specific position and status information of the target fire-fighting auxiliary component (7) based on the data. The microprocessor sends a command to the positioning sensor of the fire-fighting auxiliary component (7). According to the command, the positioning sensor controls the positioning sliding block (71) to slide inside the steering positioning ring wheel (55), which drives the entire fire-fighting auxiliary component (7) to start rotating at a fixed point and move towards the front end of the fire box (1).

2. The fire emergency platform based on big data according to claim 1, characterized in that: The side end of the sliding connecting wheel (72) is fastened to an outer guard. A type display end is installed on the side surface of the outer guard. The type display end is used to display the type of fire-fighting equipment inside the outer guard when the outer guard rotates through the positioning sliding block (71), so that firefighters can observe and take it in time. An electric push response rod (73) is installed on the side end of the positioning sliding block (71).

3. The fire emergency platform based on big data according to claim 2, characterized in that: The rotating structure (74) is installed inside the outer protective frame. The rotating structure (74) rotates on the frame of the outer protective frame through a rotating shaft and is adjusted by the action of an electric push response rod (73) to push out the fire-fighting equipment. An elastic clamping hoop (75) is installed on the side end of the rotating structure (74) to hold the fire-fighting equipment and keep it stable.

4. The fire emergency platform based on big data according to claim 1, characterized in that: The position connecting rod (8) is located on the top of the steering wheel frame (54) through a rotating bearing to form a stator structure, so that the position connecting rod (8) is always at the opening cabinet door end facing the fire box (1), and a multi-axis small transmission arm (9) is installed at the front end of the position connecting rod (8).

5. The fire emergency platform based on big data according to claim 4, characterized in that: A pneumatic adjustment displacement frame (10) is installed at the bottom end of the multi-axis small transmission arm (9), and a clamping member (11) is installed at the bottom end of the pneumatic adjustment displacement frame (10). The clamping member (11) is used to start the opening valve of the fire-fighting equipment under the drive of the multi-axis small transmission arm (9).

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