Fire-fighting emergency platform based on big data

Abstract

The invention discloses a fire-fighting emergency platform based on big data, and relates to the technical field of fire fighting, the fire-fighting emergency platform comprises a fire-fighting box body, an embedded cabinet body is integrally formed at the side end of the back side of the fire-fighting box body, and a signal receiving control structure is installed at the side end of the fire-fighting box body. The microprocessor controls the further action of the rotating fixed-point regulation and control assembly according to the detection result of the ultrasonic detector and the previously determined fire extinguishing requirement, and the steering wheel carrier rotates the target fire-fighting auxiliary assembly to a proper position by controlling the accurate rotation of the energy-saving motor; the pushed appropriate fire-fighting auxiliary assembly is quickly found and taken for fire extinguishing operation, fire-fighting equipment is responded and adjusted in time according to fire-fighting and fire danger information, the time consumed by fire rescue selection is shortened, the rescue efficiency is improved, and the fire rescue efficiency and timeliness are further improved under the cooperation of the fire-fighting auxiliary assembly.

Description

Technical Field

[0001] The present invention relates to the field of fire fighting technology, and in particular to a fire fighting emergency platform based on big data. Background Art

[0002] With the development of urbanization, the utilization rate of urban land area has increased. In buildings such as residential buildings and shopping malls, there are large flows of people and a wide variety of items inside. Once a fire occurs, if it is not handled in time, serious fire safety accidents will occur. Therefore, fire emergency platforms are installed in residential buildings and shopping malls. Common fire emergency platforms include fire extinguisher cabinets and fire hydrants.

[0003] At present, in the use of fire emergency platforms, since the fire-fighting tools installed in the fire platforms of residential buildings and commercial buildings are mostly fire extinguishers, and the types of fire extinguishers are divided into dry powder fire extinguishers and other types according to the fire situation, when encountering fire risks, firefighters need to first select the type of fire extinguisher according to the type of fire risk before they can carry out firefighting operations. The overall operation process is relatively cumbersome in the fire rescue process, which will delay the first rescue time of the fire. Therefore, it is necessary to propose a fire emergency platform based on big data. Summary of the invention

[0004] The purpose of the present invention is to provide a fire emergency platform based on big data to solve the problem proposed in the above-mentioned background technology that in the use of the fire emergency platform, since the fire-fighting tools configured in the fire platforms of residential buildings and commercial buildings are mostly fire extinguishers, and the types of fire extinguishers are divided into dry powder fire extinguishers and other types according to the fire situation, when encountering a fire hazard, firefighters need to first select the type of fire extinguisher according to the type of fire hazard before they can carry out firefighting operations. The overall operation process is relatively cumbersome in the fire rescue process, which will delay the first rescue time of the fire.

[0005] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a fire emergency platform based on big data, comprising a fire box, the side end of the back side of the fire box is integrally formed with an embedded cabinet, the side end of the fire box is installed with a signal receiving control structure, the signal receiving control structure includes a signal receiver and a microprocessor, the signal receiver transmits the monitored fire risk type data to the microprocessor according to the monitoring of an external fire risk detection sensor, so that the microprocessor selects the fire extinguisher according to the type of fire risk and the required fire risk after analysis and judgment, the inner bottom surface of the fire box is provided with a push guide rail, the inner side of the push guide rail is slidably connected with a rotating fixed-point regulating component, the top of the central end of the rotating fixed-point regulating component is installed with a position connecting rod, and the outer peripheral side of the rotating fixed-point regulating component is slidably connected with multiple groups of fire auxiliary components; The rotating fixed-point control component includes a control energy-saving motor, the control energy-saving motor and the microprocessor form a signal connection, the side output end of the control energy-saving motor is connected to a connecting gear, the side end of the connecting gear is meshingly connected with a rotating gear, a steering wheel frame is installed on the top of the rotating gear, the steering wheel frame is slidably connected with a steering positioning ring wheel, the bottom of the steering wheel frame is installed with a stator and rotor structure, the side end of the stator and rotor structure is fastened with a device body detection ultrasonic probe, and the side end of the device body detection ultrasonic probe is installed with an ultrasonic detector.

[0006] Preferably, the fire-fighting auxiliary component includes a positioning sliding block, which is composed of a positioning sensor and a sliding saddle. The positioning sensor rotates to the front end of the fire-fighting box at a fixed point based on data analysis by a microprocessor, and the side end of the positioning sliding block is fastened with a sliding engagement wheel.

[0007] Preferably, the side end of the sliding connection wheel is fastened to an outer guard frame, and a type display terminal is installed on the side surface of the outer guard frame. The type display terminal is used to display the type of fire-fighting equipment inside the outer guard frame when the outer guard frame is rotated through the positioning sliding block, so as to facilitate timely observation and retrieval by firefighters. An electric derivation response rod is installed on the side end of the positioning sliding block.

[0008] Preferably, a rotating structure is installed inside the outer guard frame, and the rotating structure is adjusted in angle by a rotating shaft on the frame body of the outer guard frame under the action of an electric derivation response rod, so as to push out the fire-fighting equipment. An elastic clamping hoop is installed on the side end of the rotating structure, and the elastic clamping hoop is used to clamp the fire-fighting equipment and keep it stable.

[0009] Preferably, the position connecting rod is located at the top of the steering wheel frame through a rotating bearing to form a stator structure, so that the position connecting rod is always at the open cabinet door end facing the fire protection box body, and a multi-axis small transmission arm is installed at the front end of the position connecting rod.

[0010] Preferably, a pneumatic adjustment displacement frame is installed at the bottom end of the multi-axis small transmission arm, and a clamping member is installed at the bottom end of the pneumatic adjustment displacement frame. The clamping member is driven by the multi-axis small transmission arm to start the opening valve of the fire-fighting equipment.

[0011] Compared with the prior art, the present invention has the following beneficial effects: 1. In the present invention, by cooperating with the rotating fixed-point control component, the fire risk detection sensors distributed in various areas of the building are used to monitor the surrounding environment in real time. Once changes in fire-related parameters (such as smoke concentration, temperature rise, etc.) are detected, the data is transmitted to the signal receiver at the side of the fire fighting box. The signal receiver transmits the received fire risk type data (such as solid fire, liquid fire, electrical fire, etc.) to the microprocessor. The microprocessor analyzes and judges the received data, and determines the required fire extinguisher type according to the matching relationship between the fire type and the fire extinguishing equipment pre-stored in the big data system, so that the microprocessor can determine the required fire extinguisher type according to the detection results of the ultrasonic detector and the previously determined According to the fire extinguishing needs, the further action of the rotating fixed-point control component is controlled, and the precise rotation of the energy-saving motor is controlled to make the steering wheel frame rotate the target fire-fighting auxiliary component to the appropriate position. Then, the guide rail is pushed to start, and the connected rotating fixed-point control component is pushed along the guide rail toward the exit direction of the fire-fighting box, and the fire-fighting auxiliary component is pushed to a position that is easy to use, so that firefighters can receive the prompt information (such as lights, sounds, etc.) issued by the control structure according to the signal, quickly find and use the pushed out suitable fire-fighting auxiliary components to perform fire-fighting operations, and effectively respond and adjust fire-fighting equipment in time according to fire and fire risk information, reduce the time consumed in fire rescue selection, and improve rescue efficiency.

[0012] 2. In the present invention, with the cooperation of the fire-fighting auxiliary component, when a fire occurs, the signal receiving control structure of the fire-fighting box receives the fire risk data and determines the type of fire-fighting equipment required through microprocessor analysis. Then, the microprocessor sends an instruction to the positioning sensor of the fire-fighting auxiliary component. The positioning sensor controls the positioning sliding block to slide on the inside of the steering positioning ring diameter wheel according to the instruction, driving the entire fire-fighting auxiliary component to start fixed-point rotation and move toward 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 derivation response rod according to the fire situation and the determined fire-fighting strategy, so that the electric derivation response rod pushes the rotating structure. The rotating structure rotates in the outer protective frame with the rotating shaft as the center, and the fire-fighting equipment clamped by the elastic clamping hoop is pushed out of the outer protective frame. After the firefighters see the information displayed on the type display end and confirm that it is the required equipment, they quickly take out the fire-fighting equipment from the elastic clamping hoop to perform fire-fighting operations, thereby further improving the efficiency of firefighting and rescue.

[0013] 3. In the present invention, in 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 is also moved to the upper area close to the opening valve of the fire-fighting equipment under the drive of the position connecting rod, and is ready to open the valve. At this time, the pneumatic adjustment displacement frame adjusts its own height and angle according to the preset program or the real-time instruction of the microprocessor, so that the clamping part is aligned with the opening valve of the fire-fighting equipment, and the pneumatic adjustment displacement frame drives the clamping part to move downward. When the clamping part contacts the opening valve of the fire-fighting equipment, the pneumatic adjustment displacement frame drives the clamping part to move downward. After the valve is opened, the multi-axis small transmission arm starts to move according to the type of fire-fighting equipment and the opening method (such as rotary valves, push-type valves, etc.). For rotary valves, the multi-axis small transmission arm drives the clamping part to rotate the valve to the open position through the corresponding rotary joint; for push-type valves, the multi-axis small transmission arm controls the clamping part 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 put into use for fire-fighting, and firefighters can directly use the opened fire-fighting equipment to perform fire-fighting operations, which improves the timeliness and efficiency of fire-fighting. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 This is a structural schematic diagram of the main view in a fire emergency platform based on big data of the present invention; Figure 2 This is a schematic diagram of the installation position structure of a rotating fixed-point control component in a fire emergency platform based on big data of the present invention; Figure 3 It is a structural schematic diagram of a rotating fixed-point control component in a fire emergency platform based on big data of the present invention; Figure 4 This is a schematic diagram of the installation position structure of a fire-fighting auxiliary component in a fire-fighting emergency platform based on big data of the present invention; Figure 5 In the fire emergency platform based on big data of the present invention Figure 4 A schematic diagram of the enlarged structure at point A; Figure 6 This is a structural schematic diagram of a fire-fighting auxiliary component in a fire-fighting emergency platform based on big data of the present invention; Figure 7 The present invention is a system flow diagram of fire rescue in a fire emergency platform based on big data.

[0015] In the figure: 1. Fire fighting box; 2. Embedded cabinet; 3. Signal receiving control structure; 4. Pushing guide rail; 5. Rotating fixed-point control component; 51. Control energy-saving motor; 52. Connecting gear; 53. Rotating gear; 54. Steering wheel frame; 55. Steering positioning ring wheel; 56. Body detection ultrasonic probe; 57. Ultrasonic detector; 7. Fire fighting auxiliary component; 71. Positioning sliding block; 72. Sliding connecting wheel; 73. Electric derivation response rod; 74. Rotating structure; 75. Elastic clamping hoop; 8. Position connecting rod; 9. Multi-axis small transmission arm; 10. Pneumatic adjustment displacement frame; 11. Clamping part. DETAILED DESCRIPTION

[0016] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the implementation regulations described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0017] In the present invention, reference is made to Figure 1-Figure 7 As shown: a fire emergency platform based on big data, including a fire box 1, the side end of the back side of the fire box 1 is integrally formed with an embedded cabinet 2, the side end of the fire box 1 is installed with a signal receiving control structure 3, the signal receiving control structure 3 includes a signal receiver and a microprocessor, the signal receiver transmits the monitored fire risk type data to the microprocessor according to the monitoring of the external fire risk detection sensor, so that the microprocessor selects according to the type of fire risk and the required fire extinguisher after analysis and judgment, the inner bottom surface of the fire box 1 is provided with a pushing guide rail 4, the inner side of the pushing guide rail 4 is slidably connected with a rotating fixed point regulating component 5, the center end top of the rotating fixed point regulating component 5 is installed with a position connecting rod 8, and the outer peripheral side of the rotating fixed point regulating component 5 is slidably connected with multiple groups of fire auxiliary components 7; The rotating fixed-point control component 5 includes a control energy-saving motor 51, which forms a signal connection with the microprocessor. The side output end of the control energy-saving motor 51 is connected to a connecting gear 52, and the side end of the connecting gear 52 is meshingly connected with a rotating gear 53. A steering wheel frame 54 is installed on the top of the rotating gear 53. The steering wheel frame 54 is slidably connected to a steering positioning ring wheel 55 on the circumferential side. A stator and rotor structure is installed at the bottom of the steering wheel frame 54. The side end of the stator and rotor structure is fastened with a device body detection ultrasonic probe 56, and an ultrasonic detector 57 is installed on the side end of the device body detection ultrasonic probe 56.

[0018] In a specific solution, the fire risk detection sensors pre-distributed in various areas of the building are used to monitor the surrounding environment in real time. Once changes in fire-related parameters (such as smoke concentration, temperature rise, etc.) are detected, the data is transmitted to the signal receiver at the side of the fire fighting box 1. The signal receiver transmits the received fire risk type data (such as solid fire, liquid fire, electrical fire, etc.) to the microprocessor. The microprocessor analyzes and judges the received data, and determines the required type of fire extinguisher according to the matching relationship between the fire type and the fire extinguishing equipment pre-stored in the big data system. At the same time, the microprocessor sends a signal to the control energy-saving motor 51, so that the control energy-saving motor 51 is started, driving the connecting gear 52 to rotate. Since the connecting gear 52 is engaged with the rotating gear 53, the rotating gear 53 rotates accordingly, and the steering wheel frame 54 on the top of the rotating gear 53 starts to rotate. The steering wheel frame 54 slides on the peripheral side of the steering positioning ring diameter wheel 55. During the rotation process, the body detection ultrasonic probe 56 is driven to rotate through the stator and rotor structure, and the ultrasonic detector 57 starts to work to detect the fire fighting auxiliary component 7 inside the fire fighting box 1. The detector 57 detects the position and state (such as whether there is damage, whether the fire extinguishing agent is sufficient, etc.) of each fire-fighting auxiliary component 7, and detects the type of fire-fighting equipment at the same time, and transmits the detection data back to the microprocessor, so that the microprocessor determines the specific position and state information of the target fire-fighting auxiliary component 7 based on these data for precise control. The microprocessor controls the further action of the rotating fixed-point control component 5 according to the detection result of the ultrasonic detector 57 and the previously determined fire-fighting demand, and controls the precise rotation of the energy-saving motor 51 to make the steering wheel frame 54 rotate the target fire-fighting auxiliary component 7 to a suitable position, and then pushes the guide rail 4 to start, pushes the connected rotating fixed-point control component 5 along the guide rail toward the exit direction of the fire-fighting box 1, and pushes the fire-fighting auxiliary component 7 to a position that is easy to use, so that the fire-fighting personnel can quickly find and use the pushed suitable fire-fighting auxiliary component 7 to perform fire-fighting operations according to the prompt information (such as light, sound, etc.) issued by the control structure 3 according to the signal, and effectively respond to and adjust the fire-fighting equipment in time according to the fire-fighting and fire-risk information, reduce the time consumed by fire-fighting rescue selection, and improve the rescue efficiency.

[0019] In the present invention, according to Figure 1-Figure 4 and Figure 6 As shown, 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-fighting box 1 at a fixed point according to data analysis by the microprocessor, and the side end of the positioning sliding block 71 is fastened with a sliding connecting wheel 72.

[0020] The side end of the sliding connecting wheel 72 is fastened to the outer guard frame, and a type display terminal is installed on the side surface of the outer guard frame. The type display terminal is used to display the type of fire-fighting equipment inside the outer guard frame when the outer guard frame is rotated through the positioning sliding block 71, so as to facilitate firefighters to observe and take them in time. An electric derivation response rod 73 is installed on the side end of the positioning sliding block 71.

[0021] A rotating structure 74 is installed inside the outer guard frame. The rotating structure 74 is mounted on the frame of the outer guard frame through a rotating shaft. Under the action of the electric derivation response rod 73, the angle 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.

[0022] In a specific solution, when a fire occurs, the signal receiving control structure 3 of the fire fighting box 1 receives the fire risk data and after the microprocessor analyzes and determines the type of fire fighting equipment required, the microprocessor sends an instruction to the positioning sensor of the fire fighting auxiliary component 7. The positioning sensor controls the positioning sliding block 71 to slide on the inside of the steering positioning circle wheel 55 according to the instruction, driving the entire fire fighting auxiliary component 7 to start fixed-point rotation and move toward the front end of the fire fighting box 1. During the rotation of the positioning sliding block 71, the type display end on the side of the outer guard frame displays the type of fire fighting equipment currently installed in the outer guard frame according to the information pre-stored in the microprocessor. This information is synchronously transmitted to the indicator light or display screen on the fire fighting box 1, so that fire fighters can know whether the equipment in the component is required at a distance. When the positioning sliding block 71 rotates to the specified position, that is, the position at the front end of the fire fighting box 1 that is convenient for access, the positioning sensor feeds back the position information to the microprocessor, and the microprocessor records the position of the component and prepares for the next The step operation makes the microprocessor send a start signal to the electric derivation response rod 73 according to the fire situation and the determined fire extinguishing strategy, so that the electric derivation response rod 73 pushes the rotating structure 74, and the rotating structure 74 rotates in the outer protective frame with the rotating shaft as the center, and pushes the fire-fighting equipment clamped by the elastic clamping hoop 75 out of the outer protective frame. After the firefighter sees the information displayed on the type display end and confirms that it is the required equipment, he quickly takes out the fire-fighting equipment from the elastic clamping hoop 75 for fire-fighting operation. During the use process, the elastic clamping hoop 75 has a certain elasticity, which can facilitate the firefighter to quickly draw out the equipment. At the same time, it can ensure that the equipment is firmly placed before it is used to prevent the equipment from slipping or displacement due to unexpected situations such as vibration of the box. When the firefighter takes the fire-fighting equipment, the microprocessor records the information that the component has been used. If it is necessary to supplement the equipment or replace other types of equipment during the fire-fighting process, the microprocessor can control other fire-fighting auxiliary components 7 to repeat the above process again, so as to further improve the efficiency of firefighting and rescue.

[0023] In the present invention, according to Figure 2 , Figure 3 and Figure 5 As shown, the position connecting rod 8 is located at 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 open cabinet door end facing the fire protection box body 1, and a multi-axis small transmission arm 9 is installed at the front end of the position connecting rod 8.

[0024] 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 driven by the multi-axis small transmission arm 9 to start the opening valve of the fire-fighting equipment.

[0025] In a specific solution, when a fire occurs, the signal receiving control structure 3 receives the fire risk information and after the microprocessor analyzes and makes a decision, the rotating fixed-point control component 5 starts to move, driving the fire-fighting auxiliary component 7 connected thereto to be positioned at a suitable position at the front end of the fire-fighting box 1. At the same time, the position connecting rod 8 rotates with the rotation of the steering wheel frame 54, and is kept facing the open cabinet door end of the fire-fighting box 1 by the rotating bearing, ensuring that subsequent components such as the multi-axis small transmission arm 9 can accurately face the fire-fighting equipment. In the process of the fire-fighting auxiliary component 7 pushing the fire-fighting equipment out of the outer protective frame, the multi-axis small transmission arm 9 is also driven by the position connecting rod 8 to move to the upper area close to the opening valve of the fire-fighting equipment, ready to open the valve operation. At this time, the pneumatic adjustment displacement frame 10, according to the preset program or the real-time instruction of the microprocessor, Adjust its own height and angle so that the clamping part 11 is aligned with the opening valve of the fire-fighting equipment, and the pneumatic adjustment displacement frame 10 drives the clamping part 11 to move downward. When the clamping part 11 contacts the opening valve of the fire-fighting equipment, according to the type and opening method of the fire-fighting equipment (such as rotary valve, push valve, etc.), the multi-axis small transmission arm 9 starts to move. For the rotary valve, the multi-axis small transmission arm 9 drives the clamping part 11 to rotate the valve to the open position through the corresponding rotating joint; for the push valve, the multi-axis small transmission arm 9 controls the clamping part 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 put into use for firefighting, and the firefighters can directly use the opened fire-fighting equipment to perform fire-fighting operations, thereby improving the timeliness and efficiency of firefighting.

[0026] The wiring diagram of the energy-saving control motor 51, ultrasonic detector 57, electric derivation response rod 73, multi-axis small transmission arm 9, signal receiver, microprocessor and positioning sensor in the present invention is common knowledge in the field, and its working principle is a well-known technology. The model is selected according to the actual use, so the control method and wiring arrangement of the energy-saving control motor 51, ultrasonic detector 57, electric derivation response rod 73, multi-axis small transmission arm 9, signal receiver, microprocessor and positioning sensor will not be explained in detail.

[0027] The method of using the device and its working principle: First, the fire risk detection sensors pre-distributed in various areas of the building are used to monitor the surrounding environment in real time. Once changes in fire-related parameters (such as smoke concentration, temperature rise, etc.) are detected, the data is transmitted to the signal receiver at the side of the fire fighting box 1. The signal receiver transmits the received fire risk type data (such as solid fire, liquid fire, electrical fire, etc.) to the microprocessor. The microprocessor analyzes and judges the received data, and determines the required type of fire extinguisher based on the matching relationship between the fire type and the fire extinguishing equipment pre-stored in the big data system. At the same time, the microprocessor sends a signal to the control energy-saving motor 51, so that the control energy-saving motor 51 is started, driving the connecting gear 52 to rotate. Since the connecting gear 5 2 meshes with the rotating gear 53, and the rotating gear 53 rotates accordingly, and the steering wheel frame 54 on the top of the rotating gear 53 starts to rotate, and the steering wheel frame 54 slides on the peripheral side of the steering positioning ring diameter wheel 55. During the rotation process, the stator and rotor structure drives the ultrasonic probe 56 of the device body to rotate, and the ultrasonic detector 57 starts to work to detect the fire-fighting auxiliary components 7 inside the fire-fighting box 1. The ultrasonic detector 57 detects the position and state of each fire-fighting auxiliary component 7 (such as whether it is damaged, whether the fire-fighting agent is sufficient, etc.), and detects the type of fire-fighting equipment at the same time, and transmits the detection data back to the microprocessor, so that the microprocessor determines the specific position and state information of the target fire-fighting auxiliary component 7 according to these data for precise control, and the microprocessor determines the specific position and state information of the target fire-fighting auxiliary component 7 according to the ultrasonic detector. The detection result of 57 and the previously determined fire extinguishing demand are used to control the further action of the rotating fixed-point regulating 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 pushed to start, and the connected rotating fixed-point regulating component 5 is pushed to move along the guide rail toward the exit direction of the fire-fighting box 1, and the fire-fighting auxiliary component 7 is pushed to a position that is convenient for use, so that firefighters can receive the prompt information (such as light, sound, etc.) issued by the control structure 3 according to the signal, quickly find and use the pushed out suitable fire-fighting auxiliary component 7 to perform fire-fighting operations, and effectively respond to and adjust fire-fighting equipment in a timely manner according to fire and fire risk information, reduce the time consumed by fire rescue selection, and improve rescue efficiency. , so that when a fire occurs, the signal receiving control structure 3 of the fire fighting box 1 receives the fire risk data and determines the type of fire fighting equipment required through analysis by the microprocessor, and then the microprocessor sends a command to the positioning sensor of the fire fighting auxiliary component 7. The positioning sensor controls the positioning slide block 71 to slide on the inside of the steering positioning circle wheel 55 according to the command, driving the entire fire fighting auxiliary component 7 to start fixed-point rotation and move toward the front end of the fire fighting box 1. During the rotation of the positioning slide block 71, the type display end on the side of the outer guard frame displays the type of fire fighting equipment currently installed in the outer guard frame according to the information pre-stored in the microprocessor. This information is synchronously transmitted to the indicator light or display screen on the fire fighting box 1, so that fire fighters can know whether the equipment in the component is required at a distance.When the positioning slide block 71 rotates to the specified position, that is, the position at the front end of the fire fighting box 1 that is convenient for access, the positioning sensor feeds back the positioning information to the microprocessor, and the microprocessor records the position of the component and prepares for the next operation, so that the microprocessor sends a start signal to the electric derivation response rod 73 according to the fire situation and the determined fire fighting strategy, so that the electric derivation response rod 73 pushes the rotating structure 74, and the rotating structure 74 rotates in the outer protective frame with the rotating shaft as the center, and pushes the fire fighting equipment clamped by the elastic clamping hoop 75 out of the outer protective frame. After the fire fighter sees the information displayed on the type display end and confirms that it is the required equipment, he quickly takes out the fire fighting equipment from the elastic clamping hoop 75 for fire fighting operation, and takes out the fire fighting equipment. During use, the elastic clamping hoop 75 has a certain elasticity, which can facilitate firefighters to quickly extract equipment. At the same time, it can ensure that the equipment is firmly placed before it is used to prevent the equipment from slipping or moving due to unexpected situations such as box vibration. When the firefighter uses the firefighting equipment, the microprocessor records the information that the component has been used. If it is necessary to replenish equipment or replace other types of equipment during the fire-fighting process, the microprocessor can control other fire-fighting auxiliary components 7 to repeat the above process again, further improving the efficiency of firefighting and rescue. At the same time, after the signal receiving control structure 3 receives the fire risk information and the microprocessor analyzes and decides, the fixed-point control component 5 is rotated to start action, driving the connected fire-fighting auxiliary component 7 to be positioned to The front end of the fire fighting box 1 is in a suitable position. At the same time, the position connecting rod 8 rotates with the rotation of the steering wheel frame 54, and is kept facing the open door end of the fire fighting box 1 by the rotating bearing, ensuring that the subsequent components such as the multi-axis small transmission arm 9 can accurately face the fire fighting equipment. In the process of the fire fighting auxiliary component 7 pushing the fire fighting equipment out of the outer protective frame, the multi-axis small transmission arm 9 is also driven by the position connecting rod 8 to move to the upper area close to the opening valve of the fire fighting equipment, ready to open the valve operation. At this time, the pneumatic adjustment displacement frame 10 adjusts its own height and angle according to the preset program or the real-time instruction of the microprocessor, so that the clamping member 11 is aligned with the opening valve of the fire fighting equipment, and the pneumatic adjustment displacement frame 10 drives The movable clamping member 11 moves downward. When the clamping member 11 contacts the opening valve of the fire-fighting equipment, the multi-axis small transmission arm 9 starts to move according to the type and opening method of the fire-fighting equipment (such as rotary valve, push-type valve, etc.). For the rotary valve, the multi-axis small transmission arm 9 drives the clamping member 11 to rotate the valve to the open position through the corresponding rotating joint; for the push-type valve, the multi-axis small 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 put into use for firefighting, and firefighters can directly use the opened fire-fighting equipment to perform firefighting operations, which improves the timeliness and efficiency of firefighting.

[0028] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A fire emergency platform based on big data, characterized by: The fire fighting box (1) comprises a fire fighting box body (1), wherein the side end of the back side of the fire fighting box body (1) is integrally formed with an embedded cabinet body (2), and the side end of the fire fighting box body (1) is installed with a signal receiving control structure (3), and the signal receiving control structure (3) comprises a signal receiver and a microprocessor, and the signal receiver transmits the monitored fire risk type data to the microprocessor under the monitoring of an external fire risk detection sensor, so that the microprocessor selects a fire extinguisher according to the type of fire risk and the required fire risk after analysis and judgment, and the internal bottom end surface of the fire fighting box body (1) is provided with a driving guide rail (4), and the internal part of the driving guide rail (4) is slidably connected with a rotating fixed point control component (5), and a position connecting rod (8) is installed on the top of the central end of the rotating fixed point control component (5), and the external peripheral side of the rotating fixed point control component (5) is slidably connected with a plurality of fire fighting auxiliary components (7); The rotating fixed-point control component (5) comprises a control energy-saving motor (51), the control energy-saving motor (51) and a microprocessor form a signal connection, the side output end of the control energy-saving motor (51) is connected to a connecting rotating tooth (52), the side end of the connecting rotating tooth (52) is meshingly connected to a rotating gear (53), a steering wheel frame (54) is installed on the top of the rotating gear (53), the circumferential side of the steering wheel frame (54) is slidably connected to a steering positioning ring diameter wheel (55), a stator-rotor structure is installed on the bottom of the steering wheel frame (54), a side end of the stator-rotor structure is fastened to a body detection ultrasonic probe (56), and an ultrasonic detector (57) is installed on the side end of the body detection ultrasonic probe (56).

2. The fire emergency platform based on big data according to claim 1 is characterized by: The fire fighting auxiliary component (7) comprises a positioning sliding block (71), the positioning sliding block (71) comprising a positioning sensor and a sliding saddle, the positioning sensor being rotated to a fixed point to the front end of the fire fighting box (1) according to data analysis by a microprocessor, and the side end of the positioning sliding block (71) being fastened to a sliding engagement rotating wheel (72).

3. The fire emergency platform based on big data according to claim 2 is characterized in that: The side end of the sliding connection wheel (72) is fastened to the outer guard frame, and a type display terminal is installed on the side surface of the outer guard frame. The type display terminal is used to display the type of fire-fighting equipment inside the outer guard frame when the outer guard frame is rotated through the positioning sliding block (71), so as to facilitate firefighters to observe and take them in time. The side end of the positioning sliding block (71) is installed with an electric derivation response rod (73).

4. The fire emergency platform based on big data according to claim 3 is characterized by: A rotating structure (74) is installed inside the outer protective frame. The rotating structure (74) is rotated on the frame of the outer protective frame by a rotating shaft rod under the action of an electric derivation response rod (73) to adjust the angle of rotation, so as 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 to keep it stable.

5. The fire emergency platform based on big data according to claim 1 is characterized by: The position connecting rod (8) is located at 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 located at the open cabinet door end facing the fire fighting box body (1), and a multi-axis small transmission arm (9) is installed at the front end of the position connecting rod (8).

6. The fire emergency platform based on big data according to claim 5 is 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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