A collective indoor intelligent safety management linkage system

Abstract

The application provides a collective indoor intelligent safety management linkage system, which comprises a box body, a surface cover, a water supply assembly, an atomization assembly, an air path system, a control system and a disinfecting and killing assembly. The sliding sleeve of the disinfecting and killing assembly is sleeved in the adjusting pipe of the atomization assembly and can be driven to slide transversely by a driving mechanism. The upper end of the hose is connected to the bottom of a disinfecting tank, and the lower end is connected to the second through hole of the sliding sleeve. When the control system controls the bidirectional axial flow fan to provide forward air supply, the driving mechanism is controlled to make the first through hole and the atomization output pipe butt joint as an atomization outlet for inward output. When the control system controls the bidirectional axial flow fan to provide reverse air extraction, the driving mechanism is controlled to make the second through hole and the atomization output pipe butt joint as an air extraction outlet for outward output. The system integrates sensors, a control system and various safety protection means, and can effectively comprehensively intelligently manage, environmentally regulate and safely warn the indoor environment.

Description

TECHNICAL FIELD

[0001] The present application belongs to the technical field of indoor regulation monitoring equipment, and particularly relates to a collective indoor intelligent safety management linkage system. BACKGROUND

[0002] Since the advent of smart home and IOT (Internet of Things), intelligent safety management linkage devices have rapidly developed in the market. It integrates sensors, remote control, artificial intelligence and other advanced technologies, not only improving safety, but also improving environmental awareness and automation levels, helping to save energy and comfort. It has gradually been widely accepted for commercial, household and industrial use. With the early warning and linkage capabilities of intelligent devices, potential safety hazards can be detected in advance, reducing losses caused by negligence. Intelligent safety systems can automatically or manually control environmental parameters to create a more comfortable living, learning and working environment for users. This advanced system can automatically adjust devices, reduce energy waste, and is of great help to environmental protection and energy saving. However, such systems usually collect (including images) and analyze a large amount of environmental and personal data, which may involve user privacy. For the general user, the home automation system may sometimes be too complex, requiring experience and professional knowledge to correctly set and use. The cost of intelligent safety management linkage devices and their installation and maintenance is relatively high, which may deter some consumers. The remote control function of the intelligent safety management linkage device is extremely dependent on the network, and once the network is interrupted, it may affect the normal work of the device.

[0003] An important defect of the existing similar products is that in the closed-loop environmental management device, especially with humidification function, because its internal environment is humid for a long time, it is easy to provide a breeding environment for microorganisms such as bacteria and mold. If not cleaned in time, these microorganisms may be discharged into the environment with the atomized mist in the device, affecting the respiratory health of the user.

[0004] In order to further improve the safety of the use of the device and the system, it is necessary to have a self-cleaning and disinfecting function, which is very necessary. Based on the above situation, a more perfect intelligent safety management linkage device is needed. SUMMARY

[0005] In view of the defects and problems existing in the existing similar products, the present application provides a collective indoor intelligent safety management linkage system to achieve comprehensive intelligent management of indoor environment, providing functions including environmental regulation, safety warning and automatic disinfection of internal components of the device.

[0006] The technical problem of the present application is solved by adopting a collective indoor intelligent safety management linkage system, which comprises a box body, a cover, a water supply assembly, an atomization assembly, an air path system and a control system, a sensor assembly, an input keyboard and a display screen, and a disinfection and killing assembly, the atomization assembly comprises a vertically arranged atomization barrel, an atomization generator and a horizontally arranged adjusting pipe, the top of the atomization barrel is communicated with the adjusting pipe, the middle of the adjusting pipe is provided with an atomization output pipe, and the atomization generator is located in the atomization barrel; the disinfection and killing assembly comprises a sliding sleeve, a disinfection tank and a hose, and a driving mechanism, the sliding sleeve is sleeved in the adjusting pipe and can be driven to slide horizontally by the driving mechanism, the sliding sleeve comprises first and second through holes arranged side by side, the upper end of the hose is connected with the bottom of the disinfection tank, and the lower end is connected with the second through hole; the air path system comprises a bidirectional axial flow fan, when the control system controls the bidirectional axial flow fan to provide forward air supply, the driving mechanism is controlled at the same time to make the first through hole butt joint with the atomization output pipe as an inward output atomization outlet, and when the control system controls the bidirectional axial flow fan to provide reverse air extraction, the driving mechanism is controlled at the same time to make the second through hole butt joint with the atomization output pipe as an outward output air extraction port.

[0007] Preferably, a pipe sleeve is arranged at the top of the atomization barrel, the adjusting pipe is matched and sleeved in the pipe sleeve, and the bottom of the adjusting pipe is provided with an orifice communicated with the inner cavity of the atomization barrel.

[0008] Preferably, the atomization generator comprises an inner sleeve, the bottom of the inner sleeve is provided with a sealed air chamber, and the top center of the air chamber is provided with an ultrasonic transducer.

[0009] Preferably, the water supply assembly comprises a fixed screw sleeve and a water purification barrel, a through hole is arranged at the top right side of the box body and is provided with a fixed screw sleeve, a thread is arranged at the upper middle part of the water purification barrel, after the water purification barrel is inserted into the fixed screw sleeve, the thread is installed together with the fixed screw sleeve by rotating the knob, a butt joint plug assembly is arranged at the bottom of the water purification barrel, the plug assembly is communicated with the inner cavity of the atomization barrel through a communication pipe, so that the water storage of the water purification barrel is introduced into the atomization chamber; the butt joint plug assembly comprises a joint control plug and a joint control socket, and the communication pipe is located at one side of the joint control socket.

[0010] Preferably, the joint control plug comprises an outer sleeve, a flower slide block, an upper thrust spring and a pressure rod, wherein a screw hole is arranged at the edge of the output port of the bottom of the water purification barrel, the upper end of the outer sleeve is fixedly connected with the screw hole, the flower slide block is matched and sleeved in the inner cavity of the outer sleeve, the edge of the flower slide block is respectively provided with a plurality of side holes, the bottom center of the flower slide block is provided with a conical body, the lower end of the outer sleeve is provided with a conical sleeve on the inner wall of the port, when the flower slide block moves downward, the conical body can be matched and sleeved with the conical sleeve, the upper part of the flower slide block is provided with an upper thrust spring, and the center of the conical body is fixedly provided with a pressure rod.

[0011] Preferably, the joint control socket comprises a seat body, a slider and a downward thrust spring, wherein a central vertical inner sleeve is fixed in the seat body, thereby forming an annular cavity between the seat body and the inner sleeve, a diameter hole is arranged on the lower side wall of the inner sleeve, the central cavity of the inner sleeve is communicated with the annular cavity through the diameter hole, the slider is matched and sleeved in the inner sleeve, the downward thrust spring is installed on the bottom of the slider, a central top rod is arranged in the center of the slider, and a dynamic diameter hole is arranged on the peripheral side wall of the slider.

[0012] Preferably, the bidirectional axial flow fan of the air path system is fixedly installed at the bottom of the box body, one side of the bidirectional axial flow fan is connected with an air guide pipe arranged to be directed to the outdoor, the other side of the bidirectional axial flow fan is provided with an inner interface, the inner interface is provided with an electromagnetic three-way valve, a first branch pipe is connected with the positive pressure pipe, a second branch pipe is connected with the negative pressure pipe, the direction of the electromagnetic three-way valve is controlled by the controller, the positive pressure pipe is communicated with the top of the atomization barrel, and the negative pressure pipe is communicated with the bottom of the atomization barrel.

[0013] Preferably, the sensor group comprises a smoke sensor, a temperature sensor and a humidity sensor, each sensor is fixed side by side on the edge of the circuit board, and the probe part of each sensor faces outward of the face cover; or each sensor group is a composite sensor fixed together in pairs, the probe of the outer sensor of each pair of sensors is located on the outer side of the face cover, the probe of the inner sensor of each pair of sensors is located in the closed chamber, and the corresponding closed chamber is communicated with the negative pressure pipe through the branch pipe, and a reverse stop valve is installed on the negative pressure pipe and controlled by the controller and opened when detection is needed, so that the inner sensor of the composite sensor is used to directly detect the condition of the suction gas, and the detection data of the probe of each sensor is corrected.

[0014] Preferably, the drainage assembly comprises a collection barrel and a fixed plug, the inner cavity of the fixed plug is communicated with the drainage pipe at the bottom of the atomization barrel, a forward stop valve is installed on the drainage pipe, the inner end of the collection barrel is sleeved in the fixed plug, and the outer end of the collection barrel is connected with the lower screw sleeve of the box body through external threads.

[0015] The intelligent safety management linkage device and system integrate sensors, control systems and various safety protection means, can effectively comprehensively intelligently manage the indoor environment, and provide multiple services including environment regulation, safety warning and automatic air cleaning.

[0016] Multiple monitoring: a variety of sensors are used for monitoring, a smoke sensor, a temperature sensor and a humidity sensor are arranged on the inner side of the machine main body, real-time monitoring and feedback can help the system to identify and handle safety risks in time, and the indoor environment is stable and safe.

[0017] Automatic water supply and automatic disinfection: the water supply component in the system can be separated and connected to automatically provide water source for the atomization component, and this is very convenient even at a remote place. When disinfection or cleaning is needed, the system can automatically spray disinfectant to the output port and open the air extraction function at the same time to ensure that indoor harmful gases are discharged outside. This design maintains the environment while ensuring the cleanliness and hygiene of the environment.

[0018] Ubiquity and intelligent control: the system can be operated by a remote controller or remotely controlled by a mobile phone App, bringing great convenience to the user. This means that no matter where the user is, as long as there is network connection, the user can control and understand the running state of the device. The control system in the system can automatically adjust each module of the device, so that the corresponding components work at the required time and place without manual intervention. Such design not only reduces the operation difficulty, but also improves the efficiency of risk prevention and response. BRIEF DESCRIPTION OF DRAWINGS

[0019] Figure 1 is a schematic diagram of the appearance structure of the device of the present application;

[0020] Figure 2 is Figure 1 is a schematic diagram of the internal structure after removing the face cover;

[0021] Figure 3 is a schematic diagram of the cooperation relationship of each component of the present application;

[0022] Figure 4 is a schematic diagram of the switching state of the disinfection component;

[0023] Figure 5 is a schematic diagram of one assembly relationship of the control plug and the control socket;

[0024] Figure 6 is a system block diagram of the present application.

[0025] Numbering in the diagram: 1-Box body; 2-Face cover; 3-Water supply assembly; 4-Drainage assembly; 5-Atomizing assembly; 6-Disinfection assembly; 7-Air duct system; 8-Control system; 9-Linkage assembly; 31-Fixing screw sleeve; 32-Clean water tank; 33-Interlocking plug; 34-Interlocking socket; 35-Connecting pipe; 41-Lower screw sleeve; 42-Collection tank; 43-Sealing knob; 44-Fixing plug; 51-Atomizing tank; 52-Tube sleeve; 53-Adjusting pipe; 54-Atomizing output pipe; 55-Inner casing; 56-Air chamber; 57-Ultrasonic transducer; 58-Vertical carrier plate; 59-Horizontal carrier plate; 61-Sliding assembly; 62-First through hole; 63 - Second through hole; 64- Disinfection tank; 65- Tank cap; 66- Hose; 67- Nozzle; 68- Electromagnetic lock; 69- Reset spring; 71- Bidirectional axial flow fan; 72- Air duct; 73- Internal interface; 74- Positive pressure pipe; 75- Negative pressure pipe; 76- Branch pipe; 81- Circuit board; 82- Display screen; 83- Indicator light; 84- Sensor group; 85- Electromagnetic three-way valve; 86- Forward shut-off valve; 87- Reverse shut-off valve; 91- Cylinder body; 92- Linkage rod; 93- Main piston; 94- Auxiliary piston; 95- Energy storage spring; 96- Sealing joint; 97- Pressure pipe; 98- Main pipe check valve; 99- Branch pipe check valve. Detailed Implementation

[0026] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0027] Example 1: A kind of Figure 1 The intelligent safety management linkage device and system shown is a type of control and regulation system. This system includes multiple functional units such as various sensor detection functions, atomization functions, and disinfection functions. Through these multiple functional units, the system can monitor or test the indoor environment. Figure 1 Combination Figure 2The system structure mainly includes a housing 1, a cover 2, a water supply assembly 3, a drainage assembly 4, an atomizing assembly 5, a disinfection assembly 6, an air duct system 7, and a control system 8. It also includes sensor components, an input keyboard, a display screen and ports, and a communication module for information transmission and interaction with a backend server, which remotely monitors or configures the system. The floor inside the housing 1 has mounting holes and is fixed to the wall using expansion bolts. The cover 2 is fastened to the outside of the housing 1. The left side of the housing 1 houses a circuit board 81, a display screen 82, and indicator lights 83, while the right side houses the water supply assembly 3, drainage assembly 4, atomizing assembly 5, and disinfection assembly 6. The sensor group 84 includes a smoke sensor, a temperature sensor, and a humidity sensor, all fixed side-by-side to the edge of the circuit board with their probes facing outwards. The cover 2 has clearance holes for the display screen, indicator lights, and sensor probes. The keyboard assembly is located on the inner right side of the cover 2 and is visible through a perforation on the cover surface for easy operation. The system can also be configured with a remote control, which communicates with the main unit via a communication module for remote operation. Furthermore, the system could also consider allowing remote control via a mobile app.

[0028] like Figure 3 The atomizing assembly 5 shown has the following specific structural form: it includes an atomizing barrel 51, a sleeve 52, an adjusting tube 53, an atomizing output tube 54, an inner sleeve 55, an air chamber 56, an ultrasonic transducer 57, a vertical support plate 58, and a horizontal support plate 59. The vertical support plate 58 and the horizontal support plate 59 are integrated and fixed to the bottom of the housing 1. The top of the atomizing barrel 51 communicates with the sleeve 52, and the atomizing output tube 54 is located in the middle of the sleeve 52. The atomizer is located in the atomizing barrel 51. To facilitate adjustment of the direction of the atomizing output tube 54, a sleeve 52 is provided at the top of the atomizing barrel 51. The adjusting tube 53 is fitted into the sleeve 52, and an orifice is provided at the bottom of the adjusting tube 53, communicating with the inner cavity of the atomizing barrel 51 through this orifice. The atomizer can be any existing atomizer type, for example... Figure 3 The inner wall of the atomizing barrel is fitted with a barrel-shaped inner sleeve 55. The bottom of the inner sleeve 55 is provided with a sealed air chamber 56. An ultrasonic transducer 57 is installed at the top center of the air chamber 56. The controller output terminal of the control system outputs a corresponding pulse signal to drive the ultrasonic transducer to work as needed.

[0029] like Figure 3The water supply assembly 3 in the box body 1 comprises a fixed nut 31 and a water purification bucket 32. The fixed nut 31 is arranged at the top right side of the box body 1 through a hole. The middle part of the water purification bucket 32 is provided with a screw thread. After the water purification bucket 32 is inserted into the fixed nut 31, the screw thread is installed together with the fixed nut through a knob. The bottom of the water purification bucket 32 is provided with a docking plug assembly. The plug assembly is communicated with the inner cavity of the atomizing bucket 51 through a communication pipe 35, so as to introduce the water storage of the water purification bucket 32 into the atomizing chamber.

[0030] The structure of the docking plug assembly is various. The above scheme does not limit any plug assembly, Figure 5 A plug assembly with joint control function is provided in the box body 1, which can be better applied to the above scheme. As shown in Figure 5 The docking plug assembly in the box body 1 comprises a joint control plug 33 and a joint control socket 34. The communication pipe 35 is located on one side of the joint control socket 34. The joint control plug 33 mainly comprises an outer sleeve 332, a flower sliding block 333, an upper thrust spring 334 and a pressing rod 338. A screw port 331 is arranged at the edge of the bottom outlet of the water purification bucket 32. The upper end of the outer sleeve 332 is fixedly connected with the screw port 331. The flower sliding block 333 is matched and sleeved in the inner cavity of the outer sleeve 332. The edge of the flower sliding block 333 is respectively provided with a plurality of side holes 335. The bottom center of the flower sliding block 333 is provided with a conical body 336. The inner wall of the lower end of the outer sleeve 332 is provided with a conical sleeve 337. When the flower sliding block 333 moves downward, the conical body 336 can be matched and sleeved with the conical sleeve 337. The upper part of the flower sliding block 333 is provided with the upper thrust spring 334. The center of the conical body 336 is fixedly provided with the pressing rod 338. In the natural state, the flower sliding block 333 is pressed by the upper thrust spring 334, so that the conical body 336 is matched and sealed with the conical sleeve 337. Correspondingly, the joint control socket 34 comprises a seat body 341, a sliding block 345 and a lower thrust spring 347. The center of the seat body 341 is vertically fixedly provided with an inner sleeve 342, so that an annular cavity 343 is formed between the seat body 341 and the inner sleeve 342. The side wall of the inner sleeve 342 is provided with a diameter hole 344 at the lower position. The center cavity of the inner sleeve 342 is communicated with the annular cavity 343 through the diameter hole 344.

[0031] The slider 345 is matched and assembled in the inner sleeve 342, the bottom of the slider 345 is provided with a lower thrust spring 347, the center of the slider 345 is provided with a center top rod, and the peripheral side wall of the slider 345 is provided with a dynamic diameter hole 346. When the water purification bucket 32 is moved downward by screwing, the downward movement of the pressing rod 338 will press the center top rod of the slider 345, so as to make the slider 345 move downward until the dynamic diameter hole 346 of the slider 345 corresponds to the fixed diameter hole 344 (for example, an inner stop table is arranged to prevent continuous movement). When the water purification bucket 32 continues to move downward, the pressing rod 338 is forced to move reversely, so that the flower slider 333 moves upward, the conical body 336 is separated from the conical sleeve 337, and the stored water in the water purification bucket 32 enters the annular cavity 343 through the conical sleeve 337 and the inner sleeve 342, and then enters the inner cavity of the atomization bucket 51 through the communication pipe 35.

[0032] The disinfection assembly 6 is an important part of the above-mentioned scheme, and the purpose of its application is to periodically disinfect the atomization pipeline and the air pipeline by automatic or manual control, and to discharge the toxic gas generated in the disinfection process to the outside. As shown in Figure 4 The disinfection assembly 6 includes a sliding sleeve 61, a disinfection tank 64, a hose 66, and a driving mechanism. The sliding sleeve 61 is matched and assembled in the adjusting pipe 53 and can be driven to slide laterally by the driving mechanism. The sliding sleeve 61 includes a first through hole 62 and a second through hole 63 arranged side by side. The upper end of the hose 66 is connected to the bottom of the disinfection tank 64, and the lower end is connected to the second through hole 63. On the basis of the above-mentioned scheme, the linkage assembly 9 shown in Figure 4 The linkage assembly 9 is used to provide continuous positive pressure to the disinfection tank 64 when the disinfection function is started, so as to make the atomization nozzle provide sufficient mist-shaped disinfectant liquid into the second through hole. The linkage assembly 9 includes a cylinder body 91 and a connected piston. The cylinder body 91 is fixed to the center of the end of the adjusting pipe 53. The connected piston assembled in the linkage assembly 9 includes a main piston 93, a secondary piston 94, and an energy storage spring 95. The main piston 93 is fixedly connected to the end of the sliding sleeve 61 through a linkage rod 92. The distal chamber of the cylinder body 91 is connected to the top of the disinfection tank 64 through a pressure pipe 97, a main pipe one-way valve 98, and a sealing joint 96. A branch pipe one-way valve 99 is arranged on the branch pipe connected to the pressure pipe 97.

[0033] As shown in Figure 2The shown air path system 7 includes a bidirectional axial fan 71, an air duct 72, an inner interface 73, a positive pressure pipe 74 and a negative pressure pipe 75. The bidirectional axial fan 71 is fixedly installed at the bottom of the box body 1. One side of the bidirectional axial fan 71 is connected to the air duct 72, which is arranged to be directed to the outside. The other side of the bidirectional axial fan 71 has the inner interface 73. After the electromagnetic three-way valve 85 is installed on the inner interface 73, a first branch pipe is connected to the positive pressure pipe 74, and a second branch pipe is connected to the negative pressure pipe 75. The controller controls the direction of the electromagnetic three-way valve 85. The positive pressure pipe 74 is connected to the top of the atomization barrel 51, and the negative pressure pipe 75 is connected to the bottom of the atomization barrel 51.

[0034] When the control system 8 controls the bidirectional axial fan 71 to provide positive air supply, the driving mechanism is controlled at the same time to make the first through hole 62 and the atomization output pipe 54 butt joint as the atomization outlet for inward output. When the control system controls the bidirectional axial fan 71 to provide reverse air extraction, the driving mechanism is controlled at the same time to make the second through hole 63 and the atomization output pipe 54 butt joint as the air extraction outlet for outward output. It can be seen that when the reverse air extraction is performed, the disinfecting and killing assembly 6 plays a disinfecting and killing role. The disinfectant in the disinfecting tank 64 is discharged to the second through hole 63 through the hose 66. A spray head 67 can be installed at the end of the hose 66, or a fiber layer can be filled in the second through hole 63 to absorb the disinfectant.

[0035] It should be noted that when the reverse air extraction is performed, the water in the atomization barrel 51 needs to be first emptied. This process needs to rely on the drainage assembly 4. As shown in FIG. 6, the atomization barrel 51 is connected to the drainage assembly 4 through the first through hole 62. The drainage assembly 4 includes a drainage pump 41, a drainage pipe 42 and a drainage valve 43. The drainage pump 41 is connected to the drainage pipe 42, and the drainage pipe 42 is connected to the drainage valve 43. The drainage valve 43 is connected to the first through hole 62. Figure 3The drainage assembly 4 in the box body 1 comprises a collecting barrel 42 and a fixed plug 44, the bottom of the atomizing barrel 51 is communicated with the inner cavity of the fixed plug 44 through a drainage pipe 50, a forward stop valve 86 is installed on the drainage pipe 50, the inner end of the collecting barrel 42 is sleeved in the fixed plug 44, and the outer end of the collecting barrel 42 is connected with the lower screw sleeve 41 of the box body 1 through external threads. An airtight knob 43 is installed on the outer end of the collecting barrel 42, which comprises a composite knob with external thread airtightness and internal thread airtightness, but when the knob is airtight in the internal thread, only the internal thread airtightness can be removed, and when the knob is airtight in the external thread, the entire collecting barrel 42 can be removed. In addition, the collecting barrel 42 can be provided with two parts of a waste liquid tank and a water storage tank, and the drainage pipe 50 is provided with an electromagnetic three-way valve, and the controller controls the electromagnetic three-way valve to select drainage to the waste liquid tank and the water storage tank. When the disinfecting function is performed, drainage to the waste liquid tank is selected, and in other cases, drainage to the water storage tank is selected. At the same time, the controller controls the water pump to pump the water storage tank into the clean water barrel 32, so that the cycle is realized. Thus, the atomizing barrel can be frequently emptied, and the reverse suction and air exchange functions are realized. By means of the composite sensor, the suction gas can be directly detected during the reverse air exchange function, so as to correct the detection data of the probe in each sensor. For example, each sensor group 84 is a composite sensor fixed together in pairs, the probe of the outer sensor of each pair of sensors is located on the outer side of the face cover 2, the probe of the inner sensor of each pair of sensors is located in the closed chamber, and the corresponding closed chamber is communicated with the negative pressure pipe 75 through a branch pipe, and a reverse stop valve 87 is installed on the negative pressure pipe 75. The reverse stop valve 87 is controlled by the controller and is opened when detection is needed, and the suction gas is directly detected by the inner sensor of the composite sensor, so as to correct the detection data of the probe in each sensor.

[0036] The implementation process of the above-mentioned intelligent safety management linkage device and system is as follows:

[0037] 1. Installation and setting: first, the main box body 1 of the system is fixed to the wall through the installation hole, then the display screen 82, the indicator light 83 and the sensor in the device can be seen through the display screen accommodation hole, the indicator light accommodation hole and the sensor probe accommodation hole on the face cover 2, and some necessary initial settings are input, including the baseline value of the humidity sensor, the smoke sensor and the temperature sensor.

[0038] 2. Starting and monitoring: then the system is started, and the sensors such as the smoke sensor, the humidity sensor and the temperature sensor start to monitor the indoor environment. The system will decide whether to increase the humidity, change the environmental temperature or monitor any possible fire according to the feedback of these sensors.

[0039] 3. Atomization and water supply: When the indoor environment needs to adjust humidity, the water supply component 3 will introduce water into the atomization barrel 51. Under the action of the ultrasonic transducer 57, the water is converted into mist, which is sprayed out through the atomization output pipe 54 to adjust the indoor humidity.

[0040] 4. Automatic opening disinfection: When the system detects that the atomization and air duct system needs to be cleaned or disinfected, the disinfection component 6 will be automatically started, and the disinfectant will be injected through the hose 66 into the second through hole 63 to clean and disinfect the system. Then, the system will start the reverse air extraction function to exhaust possible toxic gases outside.

[0041] 5. Adjustment of air duct system: According to environmental needs, the air duct system 7 can provide positive air supply or reverse air extraction. This is controlled by the control system 8, when the control bidirectional axial flow fan 71 provides positive air supply, the first through hole 62 is used as the atomization outlet to increase the humidity of the environment; when the control bidirectional axial flow fan 71 provides reverse air extraction, the second through hole 63 is used to exhaust possible harmful gases.

[0042] 6. Remote control and feedback: Users can remotely control through a remote control or a mobile phone APP, so as to monitor or change settings in real time. Users can also manually control when needed, such as when special disinfection treatment or environmental adjustment is needed.

[0043] When the indoor environment changes or needs to be operated (such as disinfection), this system can automatically adjust, providing users with very convenient environmental safety management.

[0044] The above specific embodiments of the present application are only used for illustrative or explanatory purposes, and do not constitute a limitation on the present application. Therefore, any modification, equivalent replacement, improvement, etc. made without departing from the spirit and scope of the present application shall be included in the protection scope of the present application.

Claims

1. A collective indoor intelligent safety management linkage system, comprising a housing (1), a cover (2), a water supply component (3), an atomizing component (5), a ventilation system (7), and a control system (8), as well as sensor components, an input keyboard, and a display screen, characterized in that, It also includes a disinfection component (6), the atomizing component (5) including a vertically placed atomizing barrel (51), an atomizing generator and a horizontally placed regulating tube (53), the top of the atomizing barrel (51) is connected to the regulating tube (53), the regulating tube (53) is provided with an atomizing output tube (54) in the middle, and the atomizing generator is located in the atomizing barrel (51); the disinfection component (6) includes a sliding kit (61), a disinfection tank (64) and a hose (66), as well as a driving mechanism, the sliding kit (61) is fitted inside the regulating tube (53) and can be driven by the driving mechanism to slide horizontally, the sliding kit (61) includes parallel first through holes (62) The upper end of the hose (66) is connected to the bottom of the disinfection tank (64), and the lower end is connected to the second through hole (63). The air path system (7) includes a bidirectional axial flow fan (71). When the control system (8) controls the bidirectional axial flow fan (71) to provide forward air supply, it simultaneously controls the drive mechanism to connect the first through hole (62) with the atomization output pipe (54) as an inward atomization outlet. When the control system controls the bidirectional axial flow fan (71) to provide reverse air supply, it simultaneously controls the drive mechanism to connect the second through hole (63) with the atomization output pipe (54) as an outward air outlet.

2. The collective indoor intelligent safety management linkage system according to claim 1, characterized in that, A sleeve (52) is provided at the top of the atomizing barrel (51), and an adjusting tube (53) is fitted into the sleeve (52). An opening is provided at the bottom of the adjusting tube (53), which communicates with the inner cavity of the atomizing barrel (51).

3. The collective indoor intelligent safety management linkage system according to claim 1, characterized in that, The atomizer includes an inner kit (55), with a sealed air chamber (56) at the bottom of the inner kit (55) and an ultrasonic transducer (57) installed at the top center of the air chamber (56).

4. The collective indoor intelligent safety management linkage system according to claim 1, characterized in that, The water supply assembly (3) includes a fixing screw sleeve (31) and a water tank (32). A through hole is provided on the top right side of the box body (1) and a fixing screw sleeve (31) is installed. A thread is provided in the upper middle part of the water tank (32). After inserting the water tank (32) into the fixing screw sleeve (31), the thread is installed together with the fixing screw sleeve by turning the knob. A docking plug assembly is provided at the bottom of the water tank (32). The plug assembly is connected to the inner cavity of the atomizing tank (51) through the connecting pipe (35), so that the water stored in the water tank (32) is introduced into the atomizing chamber. The docking plug assembly includes a control plug (33) and a control socket (34). The connecting pipe (35) is located on one side of the control socket (34).

5. The collective indoor intelligent safety management linkage system according to claim 4, characterized in that, The control plug (33) includes an outer tube (332), a sliding block (333), an upper thrust spring (334), and a pressure rod (338). A screw (331) is provided at the edge of the bottom outlet of the water tank (32). The upper end of the outer tube (332) is fixedly connected to the screw (331). The sliding block (333) is fitted into the inner cavity of the outer tube (332). The edge of the sliding block (333) has multiple side holes (335). A cone (336) is provided at the bottom center of the sliding block (333). A cone sleeve (337) is provided on the inner wall of the lower port of the outer tube (332). When the sliding block (333) moves downward, the cone (336) can be fitted into the cone sleeve (337). An upper thrust spring (334) is installed on the upper part of the sliding block (333). A pressure rod (338) is fixed at the center of the cone (336).

6. The collective indoor intelligent safety management linkage system according to claim 4, characterized in that, The control socket (34) includes a base (341), a slider (345), and a downward thrust spring (347). The center of the base (341) is vertically fixed with an inner sleeve (342), thereby forming an annular cavity (343) between the base (341) and the inner sleeve (342). A sizing hole (344) is provided on the lower side wall of the inner sleeve (342). The central chamber of the inner sleeve (342) and the annular cavity (343) are connected through the sizing hole (344). The slider (345) is fitted into the inner sleeve (342). A downward thrust spring (347) is installed at the bottom of the slider (345). A central push rod is provided at the center of the slider (345). A moving diameter hole (346) is provided on the peripheral side wall of the slider (345).

7. The collective indoor intelligent safety management linkage system according to claim 1, characterized in that, The bidirectional axial flow fan (71) of the air duct system (7) is fixedly installed at the bottom of the box (1). One side of the bidirectional axial flow fan (71) is connected to the air duct (72), which is arranged to lead to the outside. The other side of the bidirectional axial flow fan (71) has an inner interface (73). After the inner interface (73) is equipped with an electromagnetic three-way valve (85), the first branch pipe is connected to the positive pressure pipe (74), and the second branch pipe is connected to the negative pressure pipe (75). The controller controls the direction of the electromagnetic three-way valve (85). The positive pressure pipe (74) is connected to the top of the atomizing barrel (51), and the negative pressure pipe (75) is connected to the bottom of the atomizing barrel (51).

8. The collective indoor intelligent safety management linkage system according to claim 7, characterized in that, The sensor group (84) includes a smoke sensor, a temperature sensor and a humidity sensor. Each sensor is fixed in parallel on the edge of the circuit board, and the probe of each sensor faces outward from the cover (2). Alternatively, each sensor group (84) is a pair of composite sensors fixed together. The probe of the outermost sensor in each pair is located outside the cover (2), and the probe of the innermost sensor is located in the closed chamber. The corresponding closed chamber is connected to the negative pressure pipe (75) through a branch pipe. At the same time, a reverse shut-off valve (87) is installed on the negative pressure pipe (75). The reverse shut-off valve (87) is controlled by the controller and opens when detection is required. The gas is directly detected by the innermost sensor of the composite sensor to correct the detection data of the probes in each sensor.

9. The collective indoor intelligent safety management linkage system according to claim 1, characterized in that, The drainage assembly (4) includes a collection bucket (42) and a fixed plug (44). The bottom of the atomizing bucket (51) is connected to the inner cavity of the fixed plug (44) through a drain pipe (50). A positive shut-off valve (86) is installed on the drain pipe (50). The inner end of the collection bucket (42) is fitted into the fixed plug (44), and the outer end of the collection bucket (42) is connected to the lower screw sleeve (41) of the box body (1) through an external thread.

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