Intelligent indoor integrated air monitoring and purifying structure for constructional engineering

Abstract

The invention relates to the technical field of air treatment, in particular to an intelligent indoor integrated air monitoring and purifying structure for constructional engineering, which comprises a treatment mechanism and a purifying mechanism, the purifying mechanism is arranged at the top of the treatment mechanism, and the treatment mechanism comprises a monitoring assembly, a drainage assembly, an adhesion assembly and a backflow assembly. The drainage assembly is arranged on the top of the monitoring assembly, the adhesion assembly is arranged on the inner side of the drainage assembly, the backflow assembly is arranged on the top of the inner side of the drainage assembly, and the purification mechanism comprises a positioning assembly, an interception assembly, a transmission assembly, a condensation assembly and a circulation assembly. The intelligent indoor integrated air monitoring and purifying structure for constructional engineering is provided with a separation treatment structure for dust and impurities floating in air needing to be purified, so that the dust and impurities floating in the air and other toxic and harmful substances needing to be filtered can be purified separately; and the flexibility of air purification is improved.

Description

Technical Field

[0001] This invention relates to the field of air treatment technology, specifically to an intelligent indoor integrated air monitoring and purification structure for building engineering. Background Technology

[0002] As is well known, the intelligent indoor integrated air monitoring and purification structure for building engineering is an intelligent system structure that integrates air monitoring and purification functions. It monitors indoor air quality parameters such as PM2.5, formaldehyde, temperature and humidity in real time through built-in sensors, and links purification components such as filters and negative ion generators with intelligent control modules to automatically adjust the purification intensity. This structure can be integrated into building components such as ceilings and walls to achieve efficient space utilization. It supports remote control and data feedback through Internet of Things technology, providing dynamic and accurate air quality assurance for the indoor environment.

[0003] A search revealed a Chinese patent for an air purification device, application publication number CN117463103B. This patent includes a purifier body, an air inlet plate fixedly connected to the top front side of the purifier body, a liquid outlet pipe located at the bottom front side of the purifier body, a liquid inlet pipe on one side of the purifier body, a diffusion assembly on the top of the purifier body, a partition fixedly connected to the top of the inner cavity of the purifier body, and a self-cleaning device inside the purifier body. This application, through its self-cleaning device, achieves multiple filtrations of externally absorbed air while maintaining the cleanliness of both the device and the air by changing the air pressure.

[0004] After monitoring the indoor air quality of a building project, the air to be purified is then treated using a corresponding purification structure. The problem with existing technologies is that, due to the lack of a structure to separate and treat floating dust and impurities in the air, it is impossible to purify the floating dust and impurities in the air from other toxic and harmful substances that need to be filtered, thus reducing the flexibility of air purification. Summary of the Invention

[0005] (a) Technical problems to be solved

[0006] To address the shortcomings of existing technologies, this invention provides an intelligent indoor integrated air monitoring and purification structure for building engineering. It has a structure for separating and treating floating dust and impurities in the air that needs to be purified. Therefore, it can purify floating dust and impurities in the air separately from other toxic and harmful substances that need to be filtered, thus improving the flexibility of air purification.

[0007] (II) Technical Solution

[0008] The above-mentioned technical objective of the present invention is achieved through the following technical solution: an intelligent indoor integrated air monitoring and purification structure for building engineering, comprising a processing mechanism and a purification mechanism, wherein the purification mechanism is disposed on top of the processing mechanism, the processing mechanism comprising a monitoring component, a diversion component, an adhesion component, and a return component, wherein the diversion component is disposed on top of the monitoring component, the adhesion component is disposed inside the diversion component, and the return component is disposed on top of the inner side of the diversion component, the purification mechanism comprising a positioning component, an interception component, a transfer component, a condensation component, and a circulation component, wherein the positioning component is disposed on top of the diversion component, the interception component is disposed on top of the positioning component, the transfer component is disposed inside the interception component, the condensation component is disposed on top of the transfer component, the circulation component is disposed on top of the condensation component, and the bottom of the circulation component is connected to the transfer component.

[0009] By adopting the above technical solution, through the setting of a treatment mechanism and a purification mechanism, the treatment mechanism can monitor the air in the building project and use physicochemical liquid to separate the floating impurities in the collected gas. The gas with the separated floating impurities is then sent into the purification mechanism, which can purify the gas by condensation and multi-layer filter screens.

[0010] The invention is further configured such that: the monitoring component includes a support leg, an air monitor, and a protective net, the air monitor being fixedly connected to the top of the support leg, and the protective net being snapped onto the top of the air monitor.

[0011] By adopting the above technical solution, and by setting up monitoring components, the support legs can cooperate with the air monitor and the protective net. The support legs provide support for the air monitor, allowing it to be positioned off the ground. This allows the air monitor to utilize the space off the ground to draw in surrounding air through the air intake components. The air monitor is an existing air monitoring device with its own supporting structure for collecting, analyzing, and transmitting signals of various substances in the air. After being connected to an external power source via an electrical wire, it can monitor various substances flowing through the air through its own preset program. The protective net can protect the output end of the air monitor at the top.

[0012] The present invention is further configured such that: the drainage component includes an exhaust fan, a water collection plate, and a diversion plate; the exhaust fan is located on the top of the air monitor; the water collection plate is fixedly connected to the top of the exhaust fan; and the diversion plate is fixedly connected to the top of the water collection plate.

[0013] Using the above technical solution, by setting up a diversion component, the exhaust fan can cooperate with the water collection plate and the diversion plate. The exhaust fan is an existing air delivery structure with a built-in intelligent control system and a wire connection port on its surface. After connecting the external wire connection port, the built-in intelligent control system can preset a program to deliver air from the air monitor to the diversion plate. The water collection plate can store the liquid guided by the return component and guide the air delivered by the exhaust fan to the diversion plate. The diversion plate can deliver the air to its own outlet and send it to the top of the water collection plate. Then, guided by the adhesion component, it is delivered to the return component. The diversion plate can also block the liquid guided by the return component and divert it to the outlet away from the water collection plate.

[0014] The present invention is further configured such that: the adhesion assembly includes a water storage tank, an atomizer, and a water pump; the water storage tank is fixedly connected to the top of the water collection plate; the atomizer is fixedly connected to the inside of the water storage tank; the water pump is connected to the bottom of the atomizer; and the input end of the bottom of the water pump is close to the top of the water collection plate.

[0015] Using the above technical solution, by setting up an adhesion component, the water storage tank can cooperate with the atomizer and the water pump. The water storage tank is connected to the water collection plate to form a semi-enclosed space, which can store the water drawn back by the return component. The water pump is an existing water pumping device with its own intelligent controller, connection lines, input pipe with a filter screen, and an electrical connection port that runs through the water storage tank. The atomizer is an existing liquid atomizing device with its own intelligent controller, connection lines, and an electrical connection port that runs through the water storage tank. After being connected to an external power source, the water pump can pump water from the water storage tank to the atomizer. After being connected to an external power source, the atomizer can atomize the water pumped by the water pump and spray it out. This allows the atomized water to come into contact with impurities floating in the air, and the impurities form droplets after contact with the mist water, which then fall into the water storage tank due to gravity. Excess mist water will flow upward with the airflow.

[0016] The present invention is further configured such that: the return assembly includes a flow guiding mesh plate, a positioning plate, and a flow guiding groove; the flow guiding mesh plate is disposed on the top of the inner side of the water storage tank; the positioning plate is fixedly connected to the top of the inner side of the water storage tank; the surface of the positioning plate is engaged with the surface of the flow guiding mesh plate; and the flow guiding groove is formed on the top of the positioning plate.

[0017] By adopting the above technical solution, and by setting up a return flow component, the diversion mesh plate can cooperate with the positioning plate and the diversion channel. The positioning plate limits the position of the diversion mesh plate, allowing it to be fixed to the top of the inner side of the water storage tank with the positioning plate as the support point. Thus, the mesh structure of the diversion mesh plate itself can be used to intercept particulate impurities in the passing air while allowing air to pass through. At the same time, it can block liquid dripping from the top. The diversion channel guides the liquid to the inner wall of the water storage tank, allowing the liquid to flow along the inner wall of the water storage tank onto the water collection plate. This prevents liquid from dripping onto the accumulated liquid and causing impact, thus avoiding accidental splashing of liquid onto the air outlet of the water collection plate and falling into the air monitoring device, which would have an impact.

[0018] The present invention is further configured such that: the positioning component includes a positioning bucket, an assembly partition plate, and a positioning partition plate, the positioning bucket being connected to the top of the water storage bucket, the assembly partition plate being fixedly connected to the inner side of the positioning bucket, and the positioning partition plate being fixedly connected to the top of the assembly partition plate.

[0019] By adopting the above technical solution, the positioning bucket can cooperate with the assembly partition and the positioning partition by setting the positioning component. With the top of the water storage bucket as the support point, the positioning bucket can form a channel for upward air conveyance with the water storage bucket. The positioning bucket can also support and limit the assembly partition. The positioning partition can form a limiting structure with the assembly partition to position up to six interception components, allowing each interception component to be independently limited within the space and position separated by the assembly partition and the positioning partition.

[0020] The present invention is further configured such that: the interception component includes an interception filter bag, a temperature-conducting filter, and an assembly filter bag, wherein the assembly filter bag is snapped onto the inner side of the assembly partition plate, the interception filter bag is fixedly connected to the top of the assembly filter bag, and the temperature-conducting filter is respectively disposed on the inner side of the interception filter bag and the inner side of the assembly filter bag.

[0021] Using the above technical solution, by setting up an interception component, the interception filter bag can work in conjunction with the temperature-conducting filter and the assembled filter bag to form a one-way air guiding channel structure. This structure can limit the movement of multiple temperature-conducting filters and simultaneously transport the airflow from the bottom positioning barrel upwards, allowing the airflow to flow through each temperature-conducting filter individually. Each temperature-conducting filter can then intercept the substances that need to be purified in the airflow. Since the interception filter bag and the assembled filter bag are divided into up to six independent air purification structures by the assembly partition plate and the positioning partition plate, each interception filter bag and the assembled filter bag that needs to be replaced can be replaced in real time as needed.

[0022] The present invention is further configured such that: the transfer component includes a cooling pipe, a drain pipe and a recovery pipe, the cooling pipe is respectively snapped into the inner side of the intercepting filter bag and the inner side of the temperature-conducting filter, the drain pipe is snapped into the top of the cooling pipe, and the recovery pipe is connected to the surface of the drain pipe.

[0023] Using the above technical solution, by setting up a transfer component, the cooling pipe can cooperate with the outer drain pipe and the recovery pipe. The cooling pipe is a U-shaped airflow delivery pipe, and both the input and output ends at the top have built-in snap-fit ​​structures. It can be connected to the bottom of the outer drain pipe and the bottom of the circulation component through the snap-fit ​​structures. When the circulation component sends in the cold airflow, the low temperature of the cold airflow is used to transfer the low temperature to each temperature-conducting filter. Together with the temperature-conducting filter, it condenses the surrounding air, allowing the moisture in the air to condense toxic and harmful substances into droplets, which then fall onto the temperature-conducting filter. The outer drain pipe is an annular airflow guiding pipe that can concentrate the airflow sent in by the cooling pipe and deliver it to the recovery pipe. The recovery pipe can deliver the airflow to the condensation component, and the condensed water will permeate through the interception component and flow back to the return component.

[0024] The present invention is further configured such that: the condensation assembly includes a centralized exhaust pipe, an air compressor, and an air supply pipe; the centralized exhaust pipe is fixedly connected to the top of the positioning partition plate; the air compressor is connected to the top of the recovery pipe; the air supply pipe is connected to the output end of the air compressor; the top of the air supply pipe passes through the centralized exhaust pipe and is fixedly connected to the centralized exhaust pipe; and the left side of the recovery pipe passes through the centralized exhaust pipe and is fixedly connected to the centralized exhaust pipe.

[0025] By adopting the above technical solution, and by setting up a condensation component, the centralized exhaust pipe can be used in conjunction with an air compressor and an air delivery pipe. The centralized exhaust pipe is a conical air delivery structure, which can concentrate the air delivered by the exhaust fan to the circulation component. By using its own conical structure to concentrate the air, the air velocity is increased, the air velocity delivered to the circulation component is increased, and the efficiency of the air carrying away heat from the circulation component is increased. The air compressor is an existing air compression device with a built-in intelligent controller, connection circuit, and power connection port through the centralized exhaust pipe. After connecting to an external power source via an electric wire, the airflow delivered by the recovery pipe is compressed and delivered to the air delivery pipe through the control system built into the intelligent controller, and then delivered to the circulation component through the air delivery pipe.

[0026] The present invention is further configured such that: the circulation component includes a flow pipe, heat dissipation fins and a heat dissipation pipe, the flow pipe is snapped onto the top of the cooling pipe, the heat dissipation fins are snapped onto the output end of the top of the centralized exhaust pipe, the heat dissipation pipe is connected to the inner side of the heat dissipation fins, the input end on the left side of the heat dissipation pipe is connected to the output end at the top of the air supply pipe, and the top of the flow pipe is connected to the output end at the rear side of the heat dissipation pipe.

[0027] By adopting the above technical solution, and by setting up a circulation component, the flow pipe can cooperate with the heat dissipation fins and heat dissipation pipe. The heat carried away by the heat dissipation fins with the high-speed airflow can absorb the heat of the condensed and heated gas in the heat dissipation pipe and dissipate it to the high-speed airflow, thereby achieving the effect of cooling the air flowing in the heat dissipation pipe. Furthermore, the flow pipe can transport the cooled gas to the input end of the cooling pipe connected to it, realizing the circulation and transportation of condensed air.

[0028] (III) Beneficial Effects

[0029] Compared with existing technologies, the present invention provides an intelligent indoor integrated air monitoring and purification structure for building engineering, which has the following beneficial effects:

[0030] This intelligent indoor integrated air monitoring and purification structure for building engineering, through the setting of a processing mechanism, allows the monitoring component to cooperate with the diversion component, adhesion component, and return component. The diversion component draws air from the monitoring component to the purification unit, allowing the air to monitor the substances in the air as it flows through the monitoring component. The adhesion component can form a liquid storage space with the diversion component and can atomize the liquid and deliver it into the flowing air, allowing the atomized liquid to contact and drip off floating impurities in the air, allowing the air no longer containing floating impurities to flow into the purification unit. The return component can intercept the dripping liquid at the purification unit and divert it to the adhesion component, preventing the dripping liquid from accidentally entering the monitoring component and causing any impact.

[0031] This intelligent indoor integrated air monitoring and purification structure for building engineering, through the setting of a purification mechanism, allows the positioning component to cooperate with the interception component, the transfer component, the condensation component, and the circulation component. The positioning component limits the movement of up to six interception components, allowing each interception component to filter the gas flowing in an independent space. The transfer component can use high-pressure gas delivered by the condensation component, and the circulation component cools the high-pressure gas and sends it into the transfer component, providing the low temperature required for condensation of the interception components. After condensation is completed, the gas is sent back to the condensation component to form a circulation. The condensation uses toxic and harmful substances in the air to be transported into the interception component in the form of droplets, improving the flexibility of purifying toxic and harmful substances. The liquid is sent back to the treatment mechanism through the interception component to form a liquid circulation. Attached Figure Description

[0032] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0033] Figure 2 This is a schematic diagram of the processing mechanism in this invention;

[0034] Figure 3 This is a schematic diagram of the monitoring component in this invention;

[0035] Figure 4 This is a schematic diagram of the drainage component in this invention;

[0036] Figure 5 This is a schematic diagram of the adhesion component in this invention;

[0037] Figure 6 This is a schematic diagram of the recirculation component in this invention;

[0038] Figure 7 This is a schematic diagram of the purification mechanism in this invention;

[0039] Figure 8 This is a schematic diagram of the positioning component in this invention;

[0040] Figure 9 This is a schematic diagram of the interception component in this invention;

[0041] Figure 10 This is a schematic diagram of the structure of the transmission component in this invention;

[0042] Figure 11 This is a schematic diagram of the condensation assembly in this invention;

[0043] Figure 12 This is a schematic diagram of the structure of the circulation component in this invention.

[0044] In the diagram: 1. Processing mechanism; 11. Monitoring component; 111. Support leg; 112. Air monitor; 113. Protective net; 12. Drainage component; 121. Exhaust fan; 122. Water collection plate; 123. Diverter plate; 13. Adhesion component; 131. Water tank; 132. Atomizer; 133. Water pump; 14. Return component; 141. Drainage mesh plate; 142. Positioning plate; 143. Drainage channel; 2. Purification mechanism; 21. Positioning component; 211. 212. Positioning tank; 213. Assembled partition plate; 22. Positioning partition plate; 22. Interception assembly; 221. Interception filter bag; 222. Temperature-conducting filter; 223. Assembled filter bag; 23. Transfer assembly; 231. Cooling pipe; 232. Outer drain pipe; 233. Recovery pipe; 24. Condensation assembly; 241. Central exhaust pipe; 242. Air compressor; 243. Air supply pipe; 25. Circulation assembly; 251. Flow pipe; 252. Heat dissipation fins; 253. Heat dissipation pipe. Detailed Implementation

[0045] 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.

[0046] Example 1

[0047] Please see Figure 1-6 An intelligent indoor integrated air monitoring and purification structure for building engineering includes a processing unit 1 and a purification unit 2. The purification unit 2 is located on top of the processing unit 1. The processing unit 1 includes a monitoring component 11, a diversion component 12, an adhesion component 13, and a return component 14. The diversion component 12 is located on top of the monitoring component 11, the adhesion component 13 is located inside the diversion component 12, and the return component 14 is located on top of the inner side of the diversion component 12. By setting up the processing unit 1, the monitoring component 11 can cooperate with the diversion component 12, the adhesion component 13, and the return component 14. The diversion component 12 diverts the monitored air into the purified air. Air is drawn from the monitoring component 11 to the purification unit 2, allowing the air to flow through the monitoring component 11 and monitor the substances in the air. The adhesion component 13 can form a liquid storage space with the drainage component 12, and can atomize the liquid and deliver it into the flowing air, allowing the atomized liquid to contact and drip off the floating impurities in the air, so that the air no longer contains floating impurities flows into the purification unit 2. The return component 14 can intercept the dripping liquid at the purification unit 2 and guide it to the adhesion component 13, preventing the dripping liquid from accidentally entering the monitoring component 11 and causing an impact.

[0048] The monitoring component 11 includes a support leg 111, an air monitor 112, and a protective net 113. The air monitor 112 is fixedly connected to the top of the support leg 111, and the protective net 113 is snapped onto the top of the air monitor 112. By setting up the monitoring component 11, the support leg 111 can cooperate with the air monitor 112 and the protective net 113. The support leg 111 provides support for the air monitor 112, allowing the air monitor 112 to be supported by the support leg 111 and away from the ground. This allows the air monitor to draw in surrounding air through the air intake component 12 using the space away from the ground. The air monitor 112 is an existing air monitoring device with its own structure for collecting, analyzing, and transmitting signals of various substances in the air. After being connected to an external power source via an electric wire, it can monitor various substances flowing through the air through its own preset program. The protective net 113 can protect the output end of the air monitor 112.

[0049] The air diversion assembly 12 includes an exhaust fan 121, a water collection plate 122, and a diverter plate 123. The exhaust fan 121 is located on top of the air monitor 112, the water collection plate 122 is fixedly connected to the top of the exhaust fan 121, and the diverter plate 123 is fixedly connected to the top of the water collection plate 122. By setting the air diversion assembly 12, the exhaust fan 121 can cooperate with the water collection plate 122 and the diverter plate 123. The exhaust fan 121 is an existing air delivery structure, and its surface has a built-in intelligent control system and a wire connection port. After connecting an external wire, it can be used to... The intelligent control system has a preset program that delivers air from the air monitor 112 to the diverter plate 123. The water collection plate 122 can store the liquid guided by the return assembly 14 and guide the air delivered by the exhaust fan 121 to the diverter plate 123. The diverter plate 123 can deliver the air to its own outlet and send it to the top of the water collection plate 122. It is then guided to the return assembly 14 by the adhesion assembly 13. The diverter plate 123 can also block the liquid guided by the return assembly 14 and divert it to the outlet away from the water collection plate 122.

[0050] The adhesion component 13 includes a water tank 131, an atomizer 132, and a water pump 133. The water tank 131 is fixedly connected to the top of the water collection plate 122, the atomizer 132 is fixedly connected to the inside of the water tank 131, and the water pump 133 is connected to the bottom of the atomizer 132. The input end of the bottom of the water pump 133 is close to the top of the water collection plate 122. By setting the adhesion component 13, the water tank 131 can cooperate with the atomizer 132 and the water pump 133 to form a semi-enclosed space through the connection between the water tank 131 and the water collection plate 122, which can store the water drawn back by the return component 14. The water pump 133 is an existing water pumping device with its own intelligent controller and connecting cable. The system includes an input pipe with a built-in filter and an electrical connection port that runs through the water tank 131. The atomizer 132 is an existing liquid atomizing device with a built-in intelligent controller, connection lines, and an electrical connection port that runs through the water tank 131. The water pump 133 can pump water from the water tank 131 to the atomizer 132 after being connected to an external power source via an electrical wire. The atomizer 132 can atomize the water pumped by the water pump 133 and spray it out after being connected to an external power source via an electrical wire. This allows the atomized water to come into contact with impurities floating in the air, and the impurities form droplets after contacting the atomized water. The droplets then fall into the water tank 131 due to gravity, and excess atomized water will flow upward with the airflow.

[0051] The reflux assembly 14 includes a flow guide plate 141, a positioning plate 142, and a flow channel 143. The flow guide plate 141 is located on the top of the inner side of the water storage tank 131. The positioning plate 142 is fixedly connected to the top of the inner side of the water storage tank 131, and the surface of the positioning plate 142 engages with the surface of the flow guide plate 141. The flow channel 143 is formed on the top of the positioning plate 142. By setting the reflux assembly 14, the flow guide plate 141 can cooperate with the positioning plate 142 and the flow channel 143. The positioning plate 142 limits the position of the flow guide plate 141, allowing the flow guide plate 141 to be positioned within the designated area. The positioning plate 142 is fixed to the top of the inner side of the water storage tank 131 as a support point. The mesh structure of the drainage mesh plate 141 can be used to intercept particulate impurities in the passing air and allow air to pass through. At the same time, it can block the liquid dripping from the top. The liquid is guided to the inner wall of the water storage tank 131 through the drainage channel 143, and the liquid flows along the inner wall of the water storage tank 131 to the water collection plate 122. This avoids the liquid dripping onto the accumulated liquid and causing impact, so that the liquid will not accidentally splash onto the air outlet of the water collection plate 122 and fall into the air monitoring instrument 112 and cause an impact.

[0052] The working principle of this embodiment is as follows: First, the processing unit 1 is connected to an external power supply via an electric wire. Then, the exhaust fan 121 draws air upwards from the bottom of the air monitor 112. As the air passes through the air monitor 112, it monitors the substances in the air. The air then enters the water collection plate 122 and flows along it from the water collection plate 122 to the water storage tank 131 via the diversion plate 123. From there, the air flows through the water storage tank 131 to the purification unit 2. At this time, the water pump 133 pumps the water from the water collection plate 122 into the atomizer 132. 132 will atomize the water and spray it into the air. Impurities floating in the air will form droplets after contacting the mist and fall onto the water collection plate 122 for storage due to gravity. Then, when the liquid drips from the purification mechanism 2, the drainage mesh plate 141 will intercept the liquid and transport it to the drainage channel 143. Only the liquid will flow along the drainage channel 143 to the inner wall of the water storage tank 131. The liquid will gradually accumulate on the positioning plate 142 near the water storage tank 131 and slowly seep down from the drainage mesh plate 141 near the water storage tank 131 and flow back to the water collection plate 122.

[0053] Example 2

[0054] refer to Figure 7-12An intelligent indoor integrated air monitoring and purification structure for building engineering also includes a purification mechanism 2. The purification mechanism 2 includes a positioning component 21, an interception component 22, a transfer component 23, a condensation component 24, and a circulation component 25. The positioning component 21 is located on top of the diversion component 12, the interception component 22 is located on top of the positioning component 21, the transfer component 23 is located inside the interception component 22, the condensation component 24 is located on top of the transfer component 23, and the circulation component 25 is located on top of the condensation component 24. The bottom of the circulation component 25 is connected to the transfer component 23. By setting the purification mechanism 2, the positioning component 21 can communicate with the interception component 22, the transfer component 23, the condensation component 24, and the circulation component 25. The component 25 works in conjunction with the positioning component 21 to limit up to six interception components 22, allowing each interception component 22 to filter the gas flowing in an independent space. The transfer component 23 can use the high-pressure gas delivered by the condensing component 24, and the high-pressure gas is cooled by the circulation component 25 and sent into the transfer component 23. This can provide the low temperature required for condensation of the interception components 22, and after condensation is completed, the gas is sent back to the condensing component 24 to form a cycle. The condensation is used to transport toxic and harmful substances in the air into the interception components 22 in the form of droplets, which improves the flexibility of purifying toxic and harmful substances, and the liquid is sent back to the processing unit 1 through the interception components 22 to form a liquid cycle.

[0055] The positioning component 21 includes a positioning bucket 211, an assembly partition plate 212, and a positioning partition plate 213. The positioning bucket 211 is connected to the top of the water storage bucket 131. The assembly partition plate 212 is fixedly connected to the inner side of the positioning bucket 211, and the positioning partition plate 213 is fixedly connected to the top of the assembly partition plate 212. By setting the positioning component 21, the positioning bucket 211 can cooperate with the assembly partition plate 212 and the positioning partition plate 213. With the top of the water storage bucket 131 as the support point, the positioning bucket 211 can form a channel for upward air delivery with the water storage bucket 131. The positioning bucket 211 can support and limit the assembly partition plate 212. The positioning partition plate 213 can form a limiting structure with the assembly partition plate 212 to position up to six interception components 22, allowing each interception component 22 to be independently limited within the space and position separated by the assembly partition plate 212 and the positioning partition plate 213.

[0056] The interception component 22 includes an interception filter bag 221, a temperature-conducting filter 222, and an assembled filter bag 223. The assembled filter bag 223 is snapped onto the inner side of the assembly partition plate 212, and the interception filter bag 221 is fixedly connected to the top of the assembled filter bag 223. The temperature-conducting filter 222 is disposed on the inner side of both the interception filter bag 221 and the assembled filter bag 223. By setting the interception component 22, the interception filter bag 221 can cooperate with the temperature-conducting filter 222 and the assembled filter bag 223 to form a one-way airflow. The guiding channel structure can limit the position of multiple temperature-conducting filters 222, and at the same time, it can transport the airflow delivered from the bottom positioning barrel 211 upward, allowing the airflow to flow through each temperature-conducting filter 222 respectively, so that each temperature-conducting filter 222 can intercept the substances to be purified in the airflow. Since the intercepting filter bag 221 and the assembled filter bag 223 are divided into up to six independent air purification structures by the assembly partition plate 212 and the positioning partition plate 213, each intercepting filter bag 221 and the assembled filter bag 223 that needs to be replaced can be replaced in real time as needed.

[0057] The transfer component 23 includes a cooling pipe 231, an outer drain pipe 232, and a recovery pipe 233. The cooling pipe 231 is respectively snapped into the inner side of the intercepting filter bag 221 and the inner side of the temperature-conducting filter 222. The outer drain pipe 232 is snapped into the top of the cooling pipe 231. The recovery pipe 233 is connected to the surface of the outer drain pipe 232. By setting the transfer component 23, the cooling pipe 231 can cooperate with the outer drain pipe 232 and the recovery pipe 233. The cooling pipe 231 is a U-shaped airflow delivery pipe, and both the input and output ends at the top have snap-fit ​​structures, which can be used to connect with the bottom of the outer drain pipe 232 and the circulation component respectively. The bottom of 25 is connected, and when the circulation component 25 sends in cold air, the low temperature of the cold air is used to transfer the low temperature to each temperature-conducting filter 222. Together with the temperature-conducting filter 222, it condenses the surrounding air, allowing the moisture in the air to condense toxic and harmful substances into droplets, which then fall onto the temperature-conducting filter 222. The outer drain pipe 232 is an annular airflow guiding pipe that can concentrate the airflow sent in by the cooling pipe 231 to the recovery pipe 233. The recovery pipe 233 can transport the airflow to the condensation component 24, and the condensed water will permeate through the interception component 22 and flow back to the return component 14.

[0058] The condensing assembly 24 includes a centralized exhaust pipe 241, an air compressor 242, and an air supply pipe 243. The centralized exhaust pipe 241 is fixedly connected to the top of the positioning partition plate 213. The air compressor 242 is connected to the top of the recovery pipe 233. The air supply pipe 243 is connected to the output end of the air compressor 242. The top of the air supply pipe 243 passes through the centralized exhaust pipe 241 and is fixedly connected to it. The left side of the recovery pipe 233 passes through the centralized exhaust pipe 241 and is fixedly connected to it. By setting the condensing assembly 24, the centralized exhaust pipe 241 can cooperate with the air compressor 242 and the air supply pipe 243. The centralized exhaust pipe 241 is conical. The air delivery structure can concentrate the air delivered by the exhaust fan 121 to the circulation component 25, thereby concentrating the air using its own conical structure, increasing the air velocity, improving the airflow velocity to the circulation component 25, and increasing the efficiency of the air carrying away heat from the circulation component 25. The air compressor 242 is an existing air compression device with its own intelligent controller, connection circuit, and power connection port through the centralized exhaust pipe 241. After being connected to an external power source by wires, the airflow delivered by the recovery pipe 233 is compressed and delivered to the air delivery pipe 243 through the control system of the intelligent controller, and then delivered to the circulation component 25 through the air delivery pipe 243.

[0059] The circulation component 25 includes a flow pipe 251, heat dissipation fins 252, and a heat dissipation pipe 253. The flow pipe 251 is snapped onto the top of the cooling pipe 231, the heat dissipation fins 252 are snapped onto the output end of the top of the centralized exhaust pipe 241, and the heat dissipation pipe 253 is connected to the inner side of the heat dissipation fins 252. The input end of the left side of the heat dissipation pipe 253 is connected to the output end of the top of the air supply pipe 243, and the top of the flow pipe 251 is connected to the output end of the rear side of the heat dissipation pipe 253. By setting the circulation component 25, the flow pipe 251 can cooperate with the heat dissipation fins 252 and the heat dissipation pipe 253. The heat carried away by the high-speed airflow through the heat dissipation fins 252 can absorb the heat of the condensed and heated gas in the heat dissipation pipe 253 and dissipate it to the high-speed airflow, thereby achieving the effect of cooling the air flowing in the heat dissipation pipe 253. In addition, the flow pipe 251 can transport the cooled gas to the input end of the cooling pipe 231 connected to it to realize the circulation and transportation of condensed air.

[0060] The working principle of this embodiment is as follows: First, the assembled filter bag 223 is installed inside the positioning partition plate 213 until the intercepting filter bag 221 contacts the assembled partition plate 212. After the positioning component 21 is connected to an external power supply via an electric wire, it is started. When the processing mechanism 1 delivers air into the positioning barrel 211, the air flows through the assembled filter bag 223, passes through the temperature-conducting filter 222, and then flows from the intercepting filter bag 221 into the centralized exhaust pipe 241. The centralized exhaust pipe 241 then gathers the upward airflow and delivers it to the heat dissipation fins 252, thereby allowing the air to carry away the heat from the heat dissipation fins 252. Then, the air compressor 242 draws in the air from the cooling pipe 231, pressurizes it, and delivers it to the air supply pipe 243. After that, the air supply pipe 243 delivers the pressurized air through the diffuser... Heat pipe 253 delivers heat to supply pipe 251, and heat dissipation fins 252 carry the heat from heat pipe 253 to the flowing air, thereby cooling the air inside heat pipe 253. Supply pipe 251 then sends the cooled air back to cooling pipe 231. At this time, the low temperature inside cooling pipe 231 absorbs the temperature of thermally conductive filter 222, thus absorbing the temperature of the surrounding air together with thermally conductive filter 222. The moisture in the air will condense into droplets along with toxic and harmful substances due to the cooling, and drip onto the assembled filter bag 223, thermally conductive filter 222 and interception filter bag 221. As the liquid increases, it gradually drips down back to the processing unit 1. Finally, the air will be discharged from the centralized exhaust pipe 241, thus completing the air purification.

[0061] This specific embodiment is merely an explanation of the present invention and is not intended to limit the invention. Those skilled in the art can make modifications to this embodiment without contributing any inventive step after reading this specification. Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An intelligent indoor integrated air monitoring and purification structure for building engineering, comprising a processing unit (1) and a purification unit (2), characterized in that: The purification mechanism (2) is located on top of the processing mechanism (1). The processing mechanism (1) includes a monitoring component (11), a drainage component (12), an adhesion component (13), and a return component (14). The drainage component (12) is located on top of the monitoring component (11), the adhesion component (13) is located inside the drainage component (12), and the return component (14) is located on top of the inside of the drainage component (12). The purification mechanism (2) includes a positioning component (21) and an interception component (22). The components include a transfer component (23), a condensation component (24), and a circulation component (25). The positioning component (21) is located on top of the diversion component (12), the interception component (22) is located on top of the positioning component (21), the transfer component (23) is located inside the interception component (22), the condensation component (24) is located on top of the transfer component (23), and the circulation component (25) is located on top of the condensation component (24). The bottom of the circulation component (25) is connected to the transfer component (23).

2. The intelligent indoor integrated air monitoring and purification structure for building engineering according to claim 1, characterized in that: The monitoring component (11) includes a support leg (111), an air monitor (112), and a protective net (113). The air monitor (112) is fixedly connected to the top of the support leg (111), and the protective net (113) is snapped onto the top of the air monitor (112).

3. The intelligent indoor integrated air monitoring and purification structure for building engineering according to claim 2, characterized in that: The diversion assembly (12) includes an exhaust fan (121), a water collection plate (122), and a diversion plate (123). The exhaust fan (121) is located on the top of the air monitor (112), the water collection plate (122) is fixedly connected to the top of the exhaust fan (121), and the diversion plate (123) is fixedly connected to the top of the water collection plate (122).

4. The intelligent indoor integrated air monitoring and purification structure for building engineering according to claim 3, characterized in that: The adhesion assembly (13) includes a water tank (131), an atomizer (132), and a water pump (133). The water tank (131) is fixedly connected to the top of the water collection plate (122). The atomizer (132) is fixedly connected to the inside of the water tank (131). The water pump (133) is connected to the bottom of the atomizer (132). The input end of the bottom of the water pump (133) is close to the top of the water collection plate (122).

5. The intelligent indoor integrated air monitoring and purification structure for building engineering according to claim 4, characterized in that: The return assembly (14) includes a flow guide plate (141), a positioning plate (142), and a flow channel (143). The flow guide plate (141) is located on the top of the inner side of the water storage tank (131). The positioning plate (142) is fixedly connected to the top of the inner side of the water storage tank (131). The surface of the positioning plate (142) is engaged with the surface of the flow guide plate (141). The flow channel (143) is opened on the top of the positioning plate (142).

6. The intelligent indoor integrated air monitoring and purification structure for building engineering according to claim 4, characterized in that: The positioning component (21) includes a positioning bucket (211), an assembly partition plate (212), and a positioning partition plate (213). The positioning bucket (211) is connected to the top of the water storage bucket (131), the assembly partition plate (212) is fixedly connected to the inside of the positioning bucket (211), and the positioning partition plate (213) is fixedly connected to the top of the assembly partition plate (212).

7. The intelligent indoor integrated air monitoring and purification structure for building engineering according to claim 6, characterized in that: The interception component (22) includes an interception filter bag (221), a temperature-conducting filter (222), and an assembly filter bag (223). The assembly filter bag (223) is snapped onto the inner side of the assembly partition plate (212). The interception filter bag (221) is fixedly connected to the top of the assembly filter bag (223). The temperature-conducting filter (222) is respectively disposed on the inner side of the interception filter bag (221) and the inner side of the assembly filter bag (223).

8. The intelligent indoor integrated air monitoring and purification structure for building engineering according to claim 7, characterized in that: The transfer assembly (23) includes a cooling pipe (231), an outer drain pipe (232), and a recovery pipe (233). The cooling pipe (231) is respectively snapped into the inner side of the intercepting filter bag (221) and the inner side of the temperature-conducting filter (222). The outer drain pipe (232) is snapped into the top of the cooling pipe (231). The recovery pipe (233) is connected to the surface of the outer drain pipe (232).

9. The intelligent indoor integrated air monitoring and purification structure for building engineering according to claim 8, characterized in that: The condensation assembly (24) includes a central exhaust pipe (241), an air compressor (242), and an air supply pipe (243). The central exhaust pipe (241) is fixedly connected to the top of the positioning partition plate (213). The air compressor (242) is connected to the top of the recovery pipe (233). The air supply pipe (243) is connected to the output end of the air compressor (242). The top of the air supply pipe (243) passes through the central exhaust pipe (241) and is fixedly connected to the central exhaust pipe (241). The left side of the recovery pipe (233) passes through the central exhaust pipe (241) and is fixedly connected to the central exhaust pipe (241).

10. The intelligent indoor integrated air monitoring and purification structure for building engineering according to claim 9, characterized in that: The circulation assembly (25) includes a flow pipe (251), heat dissipation fins (252) and a heat dissipation pipe (253). The flow pipe (251) is snapped onto the top of the cooling pipe (231). The heat dissipation fins (252) are snapped onto the output end of the top of the central exhaust pipe (241). The heat dissipation pipe (253) is connected to the inside of the heat dissipation fins (252). The input end on the left side of the heat dissipation pipe (253) is connected to the output end at the top of the air supply pipe (243). The top of the flow pipe (251) is connected to the output end at the rear side of the heat dissipation pipe (253).

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