A breathing wall for intelligent multi-channel multicast interaction in an indoor space

Abstract

The application provides a respiratory wall for intelligent multi-channel multi-point transmission interaction in an indoor space, comprising a wall body, an outer shell, an inner partition plate and an air duct, a bottom shell is arranged at the front end of the wall body, an inner plate body is arranged in the bottom shell, the air duct is arranged in the inner plate body, and a wind guide equipment main body is arranged at the left side of the air duct, compared with the prior art, the application has the beneficial effects that: the external air can be guided to the inside of the left and right sides of the upper end of the air guiding air slice through the air folding bin and the air guiding edge, the seat body is protected and fixed in position at the same time through the temperature guide plate, the connecting shell, the fixing shell and the connecting socket, the external air can be guided into the inside of the rotary vane through the air guide pick plate and the rotary vane, the resistance generated when the rotary vane rotates is reduced through the arc-shaped air spade plate and the bearing seat, the air inhaled in the inside of the ventilation groove I and the ventilation groove II can be collected and absorbed, and the amount of external air entering is increased through the sealing seat and the air connection seat.

Description

Technical Field

[0001] This invention is a breathing wall for intelligent multi-channel, multi-point transmission and interaction in indoor spaces, belonging to the field of breathing wall technology. Background Technology

[0002] A breathing wall is an air purification device in buildings. Its function is to filter, purify, and regulate air through an air handling system, and then deliver clean, fresh air into the room through the wall's conduction mechanism, achieving good indoor air quality. During the ventilation process of a breathing wall, the stability of the air input is crucial for ensuring indoor air quality, protecting human health, and improving productivity.

[0003] First, a stable air input ensures good indoor air quality. The air handling system of the breathing wall filters out outdoor pollutants and odors, while simultaneously providing appropriate humidification, ventilation, and temperature control to maintain stable indoor air quality. Unstable air input leads to fluctuations in indoor air quality, which can have serious consequences for places with high requirements for indoor air quality, such as hospitals, laboratories, and electronics factories.

[0004] Secondly, a stable air supply protects human health. The air handling system of the breathing wall can filter out pollutants such as bacteria and viruses, reducing pathogens in indoor air and thus lowering the risk of infection. If the air supply is unstable, the concentration of pollutants in indoor air will fluctuate drastically, which will burden the human respiratory system and lead to respiratory diseases.

[0005] Third, stable airflow can improve production efficiency. In industrial production environments with high requirements for indoor air quality, such as electronics factories and semiconductor plants, indoor dust and static electricity can affect production equipment, thereby impacting production efficiency. Breathing wall air handling systems can reduce indoor dust and static electricity, ensuring the normal operation of production equipment. Unstable airflow will cause changes in indoor dust and static electricity, thus affecting production efficiency.

[0006] In conclusion, stable air input is crucial for the ventilation process of a breathing wall, ensuring indoor air quality, protecting human health, and improving productivity. Therefore, the design and use of breathing walls should prioritize stable air input to provide a healthier and more comfortable indoor environment. Consequently, there is an urgent need for a breathing wall with intelligent multi-channel, multi-point air delivery and interaction capabilities to address these issues. Summary of the Invention

[0007] To address the shortcomings of existing technologies, the present invention aims to provide a breathing wall for intelligent multi-channel, multi-point transmission and interaction in indoor spaces. This is achieved by adding a wall, outer shell, inner partition, inner panel, bottom shell, air guiding device body, and air duct to solve the problems mentioned in the background technology.

[0008] The technical solution of this invention is implemented as follows: A breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor space includes: a wall, an outer shell, an inner partition, and an air duct. The front end of the wall is provided with a bottom shell, the bottom shell is provided with an inner plate, the inner plate is provided with an air duct, the left side of the air duct is provided with a main body of an air guiding device, the front end of the inner plate is provided with an outer shell, the outer shell is provided with an inner partition, the main body of the air guiding device includes a circuit interface, an outer frame, an air inlet group, and a drive shaft, the heat dissipation plate group includes an aluminum plate, an upper circulation port, and a lower water inlet, and the guide groove includes a connecting inner ring and an inner moving wheel.

[0009] In a preferred embodiment, the circuit interface has an outer frame on the right side, an air inlet assembly at the upper end of the outer frame, an air outlet assembly at the lower end of the outer frame, a heat sink assembly at the front end of the outer frame, four coolant holes on the outer side of the front end of the heat sink assembly, two connectors on the inner side of the air inlet assembly, a sealing seat at the lower end of the inner side of the air inlet assembly, an air inlet at the lower end of the sealing seat, a groove on the inner side of the air inlet, a circular retainer on the inner side of the groove, and an embedded groove on the inner side of the circular retainer. A connecting seat is provided on the inner side of the groove. A sealing layer is provided on the outer side of the connecting seat. A partition net is provided inside the connecting seat. A set of air guides is provided on both the upper left and right ends of the inner side of the outer frame. A set of air deflectors is provided on the upper end of each of the two sets of air guides. An air guide plate is provided on the lower end of the inner side of each of the two sets of air deflectors. A support frame is provided on the lower end of the air guide. Several sets of connecting shells are provided on the inner side of the lower end of the support frame. A connecting socket is provided inside the connecting shell. A temperature guiding plate is provided on the inner side of the connecting shell. A seat is provided on the inner side of the temperature guiding plate. A fixing bolt is provided inside the seat.

[0010] In a preferred embodiment, a wire groove is provided inside the lower end of the connecting shell, and a wire storage buckle is provided inside the wire groove. Several sets of wires are provided inside the circuit interface. The several sets of wires are interlocked with the wire storage buckle. The wire storage buckle is fixed to the wire groove by bolts. The outer frame has a hollow structure inside. The cross-section of the air inlet group is an elliptical structure. There are four air inlet groups and four air outlet groups. The four air outlet groups have the same internal structure as the air inlet groups. The air inlet group is made of an aluminum alloy material.

[0011] Each air inlet group is integrated with a set of sealing seats and a set of air inlets. The sealing seat is made of a rubber material and has an inwardly concave arc-shaped structure. The air outlet group has an inner cavity. The inner cavity, the sealing seat, and the inlet groove are interconnected. The inlet groove has several sets of circular retainers.

[0012] The circular card seat has a cross-section shaped like the inner wall of a groove. Each group of air inlets corresponds to a set of connecting seats that fit together. The connecting seat has an elliptical cross-section. Several sets of grooves and circular card seats are sealed and fitted together. The cross-sectional structure of the grooves is the same as that of the circular card seat. The sealing layer is a high-density silicone pad. The connecting seat has an inner cavity II. The inner cavity II has an arc-shaped limiting baffle.

[0013] The limiting baffle and the internal mesh are interlocked and fixed by bolts, which can quickly introduce external air through the air inlet, air nozzle and connecting seat. At the same time, it filters the external air through the groove, circular seat and mesh, and facilitates the replacement of the connecting seat by the staff. The limiting baffle, mesh and bolts facilitate the replacement of the mesh.

[0014] In a preferred embodiment, the air inlet assembly has two sets of connectors inside, and the lower ends of the two sets of connectors are provided with sealing brackets. The sealing brackets are located on the inner side of the upper end of the air inlet assembly. The sealing brackets are made of a rubber material and are movably and sealingly connected to the inner side of the upper end of the air inlet assembly. The air inlet assembly is a detachable mechanism. The upper end of the air inlet assembly is connected to the air duct. The main body of the air guiding device is modularly embedded with the external total heat exchange fresh air device.

[0015] The air duct is a rectangular air duct. A convex sealing gasket is installed between the air duct and the air inlet group. The interior of the connector, the interior of the air inlet group and the interior of the deflector are interconnected. The cross-section of the deflector is a triangular structure. There are two sets of deflectors. The interior of the two sets of deflectors is mirror-symmetrically arranged with the middle position of the outer frame as the axis. The air guide is an arc structure.

[0016] The air guide edge and the support frame are an integrated mechanism. The support frame is fixed to the inner side of the outer frame by bolts. The temperature guide plate is provided in four groups. Each group of temperature guide plate, connecting shell, fixing shell, connecting socket and base body constitutes a group of air mechanism components. There are four groups of air mechanism components. The four groups of air mechanism components are the same in specifications. The four groups of air mechanism components are all connected to each other in the four groups of air outlet groups.

[0017] The base is equipped with a set of brushless motors, which are connected to the drive shaft. The drive shaft and the embedded column are integrally formed. The drive shaft and the embedded column are interlocked with the drive groove. There are several sets of swivel blades, and all sets of swivel blades are connected and fixed to the swivel base. The external air can be guided to the upper left and right sides of the air guide plate through the air folding chamber and the air guide edge. At the same time, the base is protected and limited and fixed by the temperature guide plate, the connecting shell, the fixing shell and the connecting socket.

[0018] In a preferred embodiment, the swivel blades are provided in several groups, and each group of swivel blades is made of an aluminum alloy material. The cross-section of the swivel blades is a ring structure, and the swivel blades are also a semi-circular structure. An air-guiding plate is also provided on the outside of the swivel blades. The cross-section of the air-guiding plate is a rectangular structure. The air-guiding plate and the swivel blades are an integral part of the swivel blades. Several groups of arc-shaped air-shoveling plates are also provided inside the air-guiding plate. A bearing seat is provided at the middle position of the front end of the temperature-conducting plate.

[0019] The bearing housing is provided with a mating movable column on the outside, and the mating movable column is provided with mating teeth on the outside. The mating teeth and the transmission groove are mated together. In actual use, the external air can be introduced into the inside of the rotor blade through the air-guiding plate and the rotor blade. At the same time, the resistance generated when the rotor blade rotates is reduced by the arc-shaped air-shoveling plate and the bearing housing.

[0020] In a preferred embodiment, the aluminum plate has a temperature-conducting cavity on the left and right sides of the middle position, an inner temperature-conducting wall on the right side of the temperature-conducting cavity, a tube inside the inner temperature-conducting wall, and contact cavities on both the upper and lower sides of the temperature-conducting cavity. The upper front side of the aluminum plate has an upper circulation port, the upper right side of the aluminum plate has an upper water inlet, the lower front side of the aluminum plate has a lower circulation port, and the lower right side of the aluminum plate has a lower water inlet.

[0021] In a preferred embodiment, the aluminum plate is made of several sets of aluminum strips spliced ​​together, and the several sets of aluminum strips are arranged in a vertical row. A circular cavity is opened inside the aluminum plate, and the circular cavity is connected and fixed to an inner thermally conductive wall. The inner thermally conductive wall is made of an aluminum alloy material. A P-type semiconductor and an N-type semiconductor are provided at the rear end of the aluminum plate, and a DC copper conduit is provided between the P-type semiconductor and the N-type semiconductor. The DC copper conduit is electrically connected to an external DC power source.

[0022] The N-type semiconductor is bonded to the front surface of the aluminum plate. A silicone thermal pad is provided on the outside of the N-type semiconductor. The interior of the temperature-conducting cavity is a hollow structure. A set of water-conducting pipes is provided inside the upper and lower ends of the aluminum plate. The interior of the water-conducting pipes is interconnected with the interior of the temperature-conducting cavity. The interior of the temperature-conducting cavity is in contact with the inner temperature-conducting wall, which is made of an aluminum alloy material. The interior of the mounting cavity is interlocked with the temperature-conducting plate, which is also made of an aluminum alloy material.

[0023] The inner side of the heat-conducting plate is in contact with the connecting shell, which is made of an aluminum alloy material. It can absorb heat from the N-type semiconductor through the P-type semiconductor, N-type semiconductor and DC copper conduit, thereby reducing the surface temperature of the N-type semiconductor. The internal temperature of the aluminum plate is reduced through the water pipe and the heat-conducting cavity.

[0024] In a preferred embodiment, the upper left side of the air guide plate is provided with a ventilation groove one, the upper right side of the air guide plate is provided with a ventilation groove two, the upper inside of the air guide plate is provided with an air filter, the ventilation groove one and the ventilation groove two are provided with an exchange groove, the exchange groove is provided with a ventilation block, the front end of the inner side of the ventilation block is provided with an air intake cavity, the outer side of the air intake cavity is provided with an inner sealing seat, and the rear end of the air intake cavity is provided with a flow guide cavity.

[0025] In a preferred embodiment, the ventilation slot 1 is provided with several groups, the ventilation slot 2 is provided with several groups, the cross-section of the ventilation slot 1 is a rectangular structure, the inclination angle of the ventilation slot 1 is 50°, the ventilation slot 2 is arranged in a mirror manner with the ventilation slot 1, the cross-section of the communication slot is an X-shaped structure, and the interior of the communication slot is interconnected with the interior of the ventilation slot 1 and the interior of the ventilation slot 2.

[0026] The air filter is equipped with filter cotton, bamboo charcoal layer and activated carbon particle layer. There are several groups of ventilation blocks, and the specifications of the ventilation blocks are the same. The inner diameter of the cross-section of the air intake cavity increases from front to back. The center position of the cross-section of the air intake cavity is the same as the center point of the intersection of a group of ventilation slots one and two.

[0027] The guide cavity extends through the ventilation block, and its rear end is connected to ventilation slot one and ventilation slot two. It can collect and absorb the air drawn in from ventilation slot one and ventilation slot two, and at the same time increase the amount of external air entering through the sealing seat and air receiving seat.

[0028] After adopting the above technical solution, the beneficial effects of the present invention are as follows: it can quickly introduce external air through the air inlet group, air nozzle and connecting seat, and filter the external air through the groove, circular seat and partition, and facilitate the replacement of the connecting seat by the operator. The partition can be easily replaced through the limiting baffle, partition and bolts. It can guide the external air to the upper left and right sides of the air guide plate through the air folding chamber and air guide edge. At the same time, the seat body is protected and limited and fixed by the temperature guide plate, connecting shell, fixing shell and connecting socket. It can introduce external air into the inside of the vortex blade through the air duct and the vortex blade. At the same time, the resistance generated when the vortex blade rotates is reduced by the arc-shaped air scraper and bearing seat. It can collect and absorb the air drawn in into the ventilation slot one and ventilation slot two. At the same time, the amount of external air entering is increased by the sealing seat and air receiving seat. Attached Figure Description

[0029] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0030] Figure 1 This is a schematic diagram of the structure of a breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor space according to the present invention;

[0031] Figure 2 This is a schematic diagram of the internal structure of a breathing wall for intelligent multi-channel multi-point transmission and interaction in an indoor space, as described in this invention.

[0032] Figure 3 This is a schematic diagram of the main structure of the air guiding device in the breathing wall of an intelligent multi-channel multi-point transmission and interaction system for indoor spaces, according to the present invention.

[0033] Figure 4 This is a schematic diagram of the air inlet and connecting seat in a breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor space according to the present invention.

[0034] Figure 5 This is a front view of the internal structure of the outer frame of a breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor space, as described in this invention.

[0035] Figure 6 This is a schematic diagram of the internal structure of the aluminum plate in a breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor space according to the present invention.

[0036] Figure 7This is a front view of the internal structure of the air-guiding air vent in a breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor space, according to the present invention.

[0037] Figure 8 This is a schematic diagram of the internal structure of the ventilation block in a breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor space according to the present invention.

[0038] Figure 9 This is a schematic diagram of the internal structure of the vortex blade in a breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor space according to the present invention.

[0039] Figure 10 This is a front view of the internal structure of the guide channel in a breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor space according to the present invention.

[0040] Figure 11 This is a schematic diagram of the internal structure of the P-type semiconductor and N-type semiconductor in a breathing wall for intelligent multi-channel multi-point transmission and interaction in an indoor space according to the present invention.

[0041] Figure 12 This is a front view of the internal structure of the limiting device in a breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor space according to the present invention.

[0042] In the diagram, 1-wall, 2-outer shell, 3-inner partition, 4-inner panel, 5-bottom shell, 6-main body of air guide device, 7-air duct;

[0043] 62-Circuit interface, 63-Outer frame, 64-Air inlet assembly, 65-Heat sink assembly, 66-Air outlet assembly, 67-Coolant hole, 68-Sealing seat, 69-Air inlet, 60-Connecting groove;

[0044] 602-Circular bracket, 603-Connecting seat, 604-Inset groove, 605-Sealing layer, 606-Spacing mesh, 607-Connecting head, 608-Air guide plate, 609-Air folding chamber, 610-Support frame, 611-Connecting shell, 612-Fixing shell, 613-Connecting socket, 614-Fixing bolt, 615-Temperature guide plate, 616-Seat body, 617-Ventilation slot one, 618-Ventilation slot two, 619-Fixing hole, 620-Air filter, 621-Ventilation block, 622-Exchange slot, 623-Air intake cavity, 624-Inner air seat, 625-Flow guide cavity, 626-Rotating blade, 627-Guide groove, 628-Rotating seat, 629-Transmission connecting groove, 630-Inset column, 631-Transmission shaft, 632-Limiting baffle;

[0045] 64a-Aluminum plate, 64b-Upper circulation port, 64c-Contact cavity, 64d-Temperature-conducting cavity, 64e-Inner temperature-conducting wall, 64f-Pipe body, 64g-Mounting cavity, 64h-Lower circulation port, 64i-Upper water inlet, 64j-Lower water inlet, 64k-N-type semiconductor, 64l-DC copper conduit, 64m-P-type semiconductor;

[0046] 627a-Connecting inner ring, 627b-Fixing bolt, 627c-Outer guide wheel, 627d-Slide block, 627e-Inner guide wheel, 627f-Inner moving wheel. Detailed Implementation

[0047] 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.

[0048] Please see Figures 1-12 A breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor spaces includes: a wall body 1, an outer shell 2, an inner partition 3, and an air duct 7. The front end of the wall body 1 is provided with a bottom shell 5, the inner shell 5 is provided with an inner plate 4, the inner plate 4 is provided with an air duct 7, and the left side of the air duct 7 is provided with a main body of the air guiding device 6. The front end of the inner plate 4 is provided with an outer shell 2, the inner partition 3 is provided inside the outer shell 2. The main body of the air guiding device 6 includes a circuit interface 61, an outer frame 62, an air inlet group 63, and a drive shaft 631. The heat dissipation plate group 64 includes an aluminum plate 64a, an upper circulation port 64b, and a lower water inlet 64j. The guide groove 627 includes a connecting inner ring 627a and an inner moving wheel 627f.

[0049] Please see Figures 1-5The circuit interface 61 has an outer frame 62 on the right side. An air inlet group 63 is located at the upper end of the outer frame 62, and an air outlet group 65 is located at the lower end. A heat sink group 64 is located at the front end of the outer frame 62. Four coolant holes are located on the outer side of the front end of the heat sink group 64. Two connectors 606 are located inside the air inlet group 63. A sealing seat 67 is located at the lower end of the inner side of the air inlet group 63. An air inlet 68 is located at the lower end of the sealing seat 67. A groove 69 is opened inside the air inlet 68. A circular retainer 601 is located inside the groove 69. A recess 603 is located inside the circular retainer 601. A connector 602 is located inside the recess 603. 2. A sealing layer 604 is provided on the outer side. A partition net 605 is provided inside the connecting seat 602. A set of air guides 607 is provided on both the upper left and right sides of the inner side of the outer frame 62. A set of air deflectors 609 is provided on the upper end of the two sets of air guides 607. An air deflector plate 608 is provided on the lower inner side of the two sets of air deflectors 609. A support frame 610 is provided on the lower end of the air guides 607. Several sets of connecting shells 611 are provided on the inner side of the lower end of the support frame 610. A connecting socket 613 is provided inside the connecting shell 611. A temperature guide plate 615 is provided on the inner side of the connecting shell 611. A seat 616 is provided on the inner side of the temperature guide plate 615. A fixing bolt 614 is provided inside the seat 616.

[0050] Please see Figures 1-6 The lower end of the connecting shell 611 has a wire groove with a wire storage clip inside. The circuit interface 61 has several sets of wires inside, which interlock with the wire storage clips. The wire storage clips are fixed to the wire groove with bolts. The outer frame 62 has a hollow structure. The air inlet group 63 has an elliptical cross-section and four sets. The air outlet group 65 also has four sets, with the four sets having the same internal structure as the air inlet group 63. The air inlet group 63 is made of aluminum alloy. Each air inlet group 63 is integrated with a sealing seat 67 and an air inlet 68. The sealing seat 67 is made of rubber and has a concave arc-shaped internal structure. The main body 6 of the air guide device is modularly integrated with the external total heat exchange fresh air device. The air outlet group 65 has an inner cavity, which is interconnected with the sealing seat 67 and the receiving groove 69. The receiving groove 69 has several sets of circular brackets 601, the cross-section of which is set to the shape of the inner wall of the receiving groove 69. Each air inlet group 63 corresponds to a set of connecting seats 602, which are interlocked. The cross-section of the connecting seat 602 is an elliptical structure. Several sets of grooves 603 are interlocked with the circular brackets 601, and the cross-sectional structure of the grooves 603 is the same as that of the circular brackets 601. The sealing layer 604 is a high-density silicone pad. The connecting seat 602 has an inner cavity, which has an arc-shaped limiting baffle 632. The limiting baffle 632 is interlocked with the mesh 605 and fixed by bolts.

[0051] Please see Figures 1-7 The air inlet assembly 63 has two sets of connectors 606 inside. The lower ends of the two sets of connectors 606 are equipped with sealing seats, which are located on the inner side of the upper end of the air inlet assembly 63. The sealing seats are made of a rubber material and are movably and sealingly connected to the inner side of the upper end of the air inlet assembly 63. The air inlet assembly 63 is a detachable mechanism. The upper end of the air inlet assembly 63 is connected to the air duct 7, which is a rectangular duct. A convex sealing gasket is installed between the air duct 7 and the air inlet assembly 63. The interiors of the connectors 606, the air inlet assembly 63, and the deflector chambers 609 are interconnected. The deflector chambers 609 have a triangular cross-section and two sets. The interiors of both sets of deflector chambers 609 are mirror-symmetrically arranged with the middle position of the outer frame 62 as the axis. The air guide edge 607 is an arc-shaped structure and is an integral part of the support frame 610. The support frame 610 is fixed to the inner side of the outer frame 62 by bolts. The temperature guide plate 615 has four... Each set consists of a temperature-conducting plate 615, a connecting shell 611, a fixing shell 612, a connecting socket 613, and a base 616, forming a set of air-conditioning components. There are four sets of air-conditioning components, and the four sets of air-conditioning components are of the same specifications and are interconnected with the four sets of air outlet groups 65. A set of brushless motors is installed inside the base 616. The brushless motors are connected to the drive shaft 631. The drive shaft 631 and the embedded column 630 are integrally formed. The drive shaft 631 and the embedded column 630 are interlocked with the drive connecting groove 629. Several sets of swivel blades 626 are provided, and all sets of swivel blades 626 are connected and fixed to the swivel base 628. They can guide the external air to the upper left and right sides of the air guide plate 608 through the air deflector 609 and the air guide edge 607. At the same time, the temperature-conducting plate 615, the connecting shell 611, the fixing shell 612, and the connecting socket 613 protect the base 616 and limit and fix it.

[0052] Please see Figures 1-7 As a first embodiment of the present invention, when the user starts the brushless motor, the brushless motor drives the drive shaft 631 to rotate. When the drive shaft 631 rotates, it drives the insert 630 and the rotating seat 628 to rotate simultaneously. Since the drive shaft 631 and the insert 630 are integrally formed, the drive shaft 631 and the insert 630 are interlocked with the drive connecting groove 629. Thus, the insert 630 drives the rotating seat 628 to rotate, and the rotating seat 628 drives several sets of blades 626 to rotate. Subsequently, the rotation of the blades 626 drives the external air to enter through the internal connector 606 of the air inlet group 63 and into the air inlet group 63.

[0053] Because a convex sealing gasket is installed between the air duct 7 and the air inlet group 63, it can prevent external air from flowing out.

[0054] Air enters the sealing seat 67 and the receiving groove 69 through the air inlet group 63. The cross-sectional length of the air inlet group 63 is greater than the cross-sectional length of the connecting seat 602. Subsequently, a large amount of air enters the air deflector 609. Since the air guide edge 607 is an arc-shaped structure, and the air guide edge 607 and the support frame 610 are an integral mechanism, the arc-shaped air guide edge 607 guides the external air into the air guide plate 608 for mixing in an arc-shaped path.

[0055] When used for extended periods, the air intake assembly 63, air inlet 68, and connecting seat 602 rapidly introduce a large volume of external air. Simultaneously, the mesh 605 filters the external air. When the mesh 605 needs replacement or cleaning, the slot 603 and circular retainer 601 are disengaged, allowing the connecting seat 602 to be removed. This facilitates replacement of the connecting seat 602. Furthermore, the inner cavity is equipped with an arc-shaped limiting baffle 632, which is interlocked with and bolted to the mesh 605. By removing the bolts, the limiting baffle 632 and the mesh 605 can be disassembled, facilitating replacement of the mesh 605 and reducing operating costs to some extent.

[0056] Please see Figure 6 , Figure 7 , Figure 11 The rotor blades 626 are provided in several groups, and each group of rotor blades 626 is made of an aluminum alloy material. The cross-section of the rotor blades 626 is a ring structure, and the rotor blades 626 are also a semi-circular structure. The outer side of the rotor blades 626 is also provided with an air-guiding plate. The cross-section of the air-guiding plate is a rectangular structure. The air-guiding plate and the rotor blades 626 are an integral mechanism. The air-guiding plate is also provided with several groups of arc-shaped air-shoveling plates inside. The front middle position of the temperature guide plate 615 is provided with a bearing seat. The outer side of the bearing seat is provided with an interlocking movable column. The outer side of the interlocking movable column is provided with interlocking teeth. The interlocking teeth are interlocked with the transmission connecting groove 629.

[0057] Please see Figure 6 , Figure 7 , Figure 11 A temperature-conducting cavity 64d is provided on the left and right sides of the middle position of the aluminum plate 64a. An inner temperature-conducting wall 64e is provided on the right side of the temperature-conducting cavity 64d. A tube body 64f is opened inside the inner temperature-conducting wall 64e. Contact cavities 64c are opened on both the upper and lower sides of the temperature-conducting cavity 64d. An upper circulation port 64b is provided on the upper front side of the aluminum plate 64a. An upper water inlet 64i is provided on the upper right side of the aluminum plate 64a. A lower circulation port 64h is provided on the lower front side of the aluminum plate 64a. A lower water inlet 64j is provided on the lower right side of the aluminum plate 64a.

[0058] Please see Figure 6 , Figure 7 , Figure 11The aluminum plate 64a is made of several sets of aluminum strips spliced ​​together, and the sets of aluminum strips are arranged in a vertical row. A circular cavity is formed inside the aluminum plate 64a, which is connected and fixed to an inner thermally conductive wall 64e. The inner thermally conductive wall 64e is made of an aluminum alloy material. A P-type semiconductor 64m and an N-type semiconductor 64k are provided at the rear end of the aluminum plate 64a. A DC copper conduit 64l is provided between the P-type semiconductor 64m and the N-type semiconductor 64k, and the DC copper conduit 64l is electrically connected to an external DC power supply. The N-type semiconductor 64k is attached to the front surface of the aluminum plate 64a, and a silicone thermal pad is provided on the outside of the N-type semiconductor 64k. The thermally conductive cavity 64d has a hollow structure inside. A set of... The water pipe is interconnected with the interior of the temperature-conducting cavity 64d. The interior of the temperature-conducting cavity 64d is in contact with the inner temperature-conducting wall 64e, which is made of aluminum alloy. The mounting cavity 64g is fitted and connected to the temperature-conducting plate 615, which is also made of aluminum alloy. The inner side of the temperature-conducting plate 615 is in contact with the connecting shell 611, which is also made of aluminum alloy. The P-type semiconductor 64m, the N-type semiconductor 64k, and the DC copper conduit 64l can generate a heat absorption effect on the N-type semiconductor 64k, thereby reducing the surface temperature of the N-type semiconductor 64k. The water pipe and the temperature-conducting cavity 64d can also reduce the internal temperature of the aluminum plate 64a.

[0059] Please see Figure 1 , Figure 6 as well as Figure 7 As a second embodiment of the present invention, the operator introduces the external coolant conduit into the upper inlet 64i and the lower inlet 64j. When the fan component is in use, its coolant conduit enters through the water pipe, and the coolant temperature decreases the water pipe temperature. Then, when the coolant enters the temperature conducting cavity 64d through the water pipe, the coolant accumulates inside the temperature conducting cavity 64d and maintains the low-temperature conduction effect inside the aluminum plate 64a. Furthermore, the aluminum alloy materials of the inner temperature conducting wall 64e, the temperature conducting plate 615, and the connecting shell 611 can efficiently increase their low-temperature ductility.

[0060] Similarly, when the temperature of the water pipe and the temperature-conducting cavity 64d decreases, the temperature inside the aluminum plate 64a can also be reduced. Subsequently, the cooled liquid after heat exchange is discharged through the lower water inlet 64j, thereby performing a hot and cold cycle on the cooled liquid after heat exchange.

[0061] Subsequently, since the rear end of the aluminum plate 64a is provided with a P-type semiconductor 64m and an N-type semiconductor 64k, and a DC copper conduit 64l is provided between the P-type semiconductor 64m and the N-type semiconductor 64k, when DC current passes through the thermocouple formed by the two different semiconductor materials connected in series, heat can be absorbed and released at the two ends of the thermocouple respectively. The N-type semiconductor 64k is attached to the front surface of the aluminum plate 64a, and a silicone thermal pad is provided on the outside of the N-type semiconductor 64k. The N-type semiconductor 64k can further reduce the temperature of the aluminum plate 64a. At the same time, when the temperature of the aluminum plate 64a is reduced, it can effectively suppress the overall temperature of several sets of fan components. When the equipment is installed inside the wall 1, it can effectively reduce equipment failure caused by high temperature of the fan components.

[0062] Please see Figures 5-7 The upper left side of the air guide plate 608 is provided with a ventilation slot 1 617, and the upper right side of the air guide plate 608 is provided with a ventilation slot 2 618. An air filter 620 is provided inside the upper part of the air guide plate 608. An exchange slot 622 is provided inside the ventilation slot 1 617 and the ventilation slot 2 618. A ventilation block 621 is provided inside the exchange slot 622. An air intake cavity 623 is provided at the front end of the inner side of the ventilation block 621. An inner sealing seat is provided on the outer side of the air intake cavity 623. A flow guide cavity 625 is provided at the rear end of the air intake cavity 623.

[0063] Please see Figure 7 The ventilation slot 617 has several sets, and the ventilation slot 618 has several sets. The cross-section of the ventilation slot 617 is a rectangular structure, and the inclination angle of the ventilation slot 617 is 50°. The ventilation slot 618 is set in a mirror image of the ventilation slot 617. The cross-section of the communication slot 622 is an X-shaped structure. The interior of the communication slot 622 is interconnected with the interior of the ventilation slot 617 and the interior of the ventilation slot 618. The air filter 620 has a filter cotton, a bamboo charcoal layer, and an activated carbon particle layer inside. There are several sets of ventilation blocks 621, and the several sets of ventilation blocks 621 are of the same specifications. The inner diameter of the cross-section of the air intake cavity 623 decreases from front to back. The center point of the cross-section of the air intake cavity 623 is the same as the center point of the intersection of one set of ventilation slot 617 and one set of ventilation slot 618. The interior of the guide cavity 625 penetrates the interior of the ventilation block 621, and the rear end of the guide cavity 625 is interconnected with the ventilation slot 617 and the ventilation slot 618.

[0064] Please see Figures 5-8 As a third embodiment of the present invention, as described in Embodiment 1, when the rotor blade 626 rotates, the rotor blade 626 drives the induced draft plate and the arc-shaped shovel plate to rotate together with it. The rectangular structure of the induced draft plate and the arc-shaped shovel plate can effectively reduce the air resistance generated by the rotor blade 626 during high-speed rotation.

[0065] Meanwhile, the semi-circular swivel blade 626 introduces external air into the inner side of the swivel blade 626 through the air-guiding plate and the swivel blade 626, thereby increasing the intake volume of external air and reducing power consumption during long-term use.

[0066] A large amount of air enters ventilation slot 1 617 and ventilation slot 2 618 through two sets of deflector chambers 609. Since the deflector chamber 1 617 is inclined at an angle of 50°, and ventilation slot 2 618 is set in a mirror manner with ventilation slot 1 617, the air flows smoothly into the interior of ventilation slot 1 617 and ventilation slot 2 618 according to the air guide edge 607 of the arc structure, and causes the external air to swirl in the deflector chamber 609, and causes the particles and dust in the air to rotate and form a collection following the direction of air flow.

[0067] Subsequently, based on the coordinated airflow from several sets of ventilation components, the air inside the deflector 609 is vertically introduced into the ventilation slot 1 617 and the ventilation slot 2 618.

[0068] Furthermore, since the air filter 620 is equipped with filter cotton, bamboo charcoal layer and activated carbon particle layer, the filter cotton can intercept particulate matter and impurities in the air, and the bamboo charcoal layer and activated carbon particle layer can quickly purify the air. After filtration and purification, the air enters the internal circulation tank 622, thereby mixing the purified air and increasing the resistance of air flow in the air guide plate 608 to prevent excessive air suction force from causing poor air filtration effect. In addition, the inner diameter of the cross-section of the air intake cavity 623 decreases from front to back.

[0069] When air flows, the air intake volume is increased. Since the center point of the cross-section of the air intake cavity 623 is the same as the center point of the intersection of a set of ventilation slots 617 and 618, the air can directly enter the interior of the air intake cavity 623 through ventilation slots 617 and 618, thereby increasing the air intake effect of the filtered air and making the air flow introduced by the swivel blade 626 more stable and smooth. At the same time, it avoids the problem of uneven air pressure leading to poor air output.

[0070] Please see Figures 1-3As a fourth embodiment of the present invention, when the external total heat exchange fresh air device and the main body 6 of the air guide device are modularly embedded and combined, under the condition of the total heat exchange fresh air system device, the fresh air delivery and air exchange interaction of multiple unit channels are realized. Since the upper end of the air inlet group 63 is connected to the air duct 7, and the air duct 7 is a rectangular air duct, a convex sealing gasket is installed between the air duct 7 and the air inlet group 63, which can have a good sealing effect and a quiet effect. Similarly, the position of the air duct 7 can be arbitrarily arranged according to specific needs, and the equipment installation is highly flexible. It provides clean and healthy air with a three-dimensional surface and a long spray distance for the room, while simultaneously exhausting poor-quality air to the outside through multiple points on the three-dimensional surface. Furthermore, different micro-positive / negative pressure air states can be generated by adjusting the air intake and exhaust system wind force.

[0071] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A breathing wall for intelligent multi-channel, multi-point transmission and interaction in indoor spaces, comprising: The wall (1), the outer shell (2) and the air duct (7) are characterized in that: the front end of the wall (1) is provided with a bottom shell (5); The bottom shell (5) has an inner plate (4) inside, the inner plate (4) has an air duct (7) inside, the air duct (7) has a main body (6) of the air guide device on the left side, the inner plate (4) has an outer shell (2) at the front end, and the outer shell (2) has an inner partition (3) inside. The main body (6) of the air guiding device includes a circuit interface (61), an outer frame (62), an air inlet group (63) and a drive shaft (631). The circuit interface (61) is provided with an outer frame (62) on the right side. The upper end of the outer frame (62) is provided with an air inlet group (63). The lower end of the outer frame (62) is provided with an air outlet group (65). The front end of the outer frame (62) is provided with a heat dissipation plate group (64). The heat sink assembly (64) has four sets of coolant holes (66) on the outer side of the front end. The air inlet assembly (63) has two sets of connectors (606) on the inner side. The air inlet assembly (63) has a sealing seat (67) at the lower end of the inner side. The sealing seat (67) has an air inlet (68) at the lower end. The air inlet (68) has a groove (69) on the inner side. The groove (69) has a circular card seat (601) on the inner side. The circular card holder (601) has a groove (603) on its inner side, and a connecting seat (602) is provided on the inner side of the groove (603). A sealing layer (604) is provided on the outer side of the connecting seat (602), and a mesh (605) is provided inside the connecting seat (602). A set of air guides (607) is provided on both the upper left and right sides of the inner side of the outer frame (62). A set of air deflectors (609) is provided on the upper end of each of the two sets of air guides (607). An air guide plate (608) is provided on the lower end of the inner side of each of the two sets of air deflectors (609). A support frame (610) is provided on the lower end of the air guide (607). Several sets of connecting shells (611) are provided on the inner side of the lower end of the support frame (610). A connecting socket (613) is provided inside the connecting shell (611). A temperature-conducting plate (615) is provided on the inner side of the air guide plate (615), a seat (616) is provided on the inner side of the temperature-conducting plate (615), a fixing bolt (614) is provided inside the seat (616), a ventilation slot one (617) is provided on the left side of the upper end of the air guide plate (608), a ventilation slot two (618) is provided on the right side of the upper end of the air guide plate (608), an air filter (620) is provided at the upper end of the air guide plate (608), an exchange slot (622) is provided inside the ventilation slot one (617) and the ventilation slot two (618), a ventilation block (621) is provided inside the exchange slot (622), an air duct (623) is provided at the front end of the inner side of the ventilation block (621), an inner sealing seat is provided on the outer side of the air duct (623), and a flow guide cavity (625) is provided at the rear end of the air duct (623). The heat sink assembly (64) includes an aluminum plate (64a), an upper circulation port (64b), and a lower water inlet (64j). The aluminum plate (64a) has a heat-conducting cavity (64d) on both sides of the middle position. The heat-conducting cavity (64d) has an inner heat-conducting wall (64e) on the right side. The inner heat-conducting wall (64e) has a tube (64f) inside. The heat-conducting cavity (64d) has a contact cavity (64c) on both the upper and lower sides. The aluminum plate (64a) has an upper circulation port (64b) on the upper front side. The aluminum plate (64a) has an upper water inlet (64i) on the upper right side. The aluminum plate (64a) has a lower circulation port (64h) on the lower front side. The aluminum plate (64a) has a lower water inlet (64j) on the lower right side.

2. The breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor spaces according to claim 1, characterized in that: The lower end of the connecting shell (611) has a wire groove, and the wire groove has a wire storage buckle. The circuit interface (61) has several sets of wires, and the several sets of wires are interlocked with the wire storage buckle. The wire storage buckle is fixed to the wire groove by bolts. The outer frame (62) has a hollow structure inside, and the air inlet group (63) has an elliptical cross-section. The air inlet group (63) is provided in four groups, and the air outlet group (65) is also provided in four groups. The internal structure of the four groups of air outlet groups (65) is the same as that of the air inlet group (63). The air inlet group (63) is made of an aluminum alloy material. Each group of air inlet groups (63) is integrated with a set of sealing seats (67) and a set of air inlets (68). The sealing seat (67) is made of a rubber material. The interior of the sealing seat (67) is a concave arc structure. The air outlet group (65) is provided with an inner cavity. The interior of the inner cavity, the interior of the sealing seat (67) and the interior of the groove (69) are interconnected. The main body (6) of the air guide device is modularly embedded with the external total heat exchange fresh air device. The groove (69) is provided with several sets of circular brackets (601). The cross-section of the circular brackets (601) is set in the shape of the inner wall of the groove (69). Each set of air inlet groups (63) corresponds to a set of connecting seats (602) that fit together. The cross-section of the connecting seat (602) is an elliptical structure. Several sets of grooves (603) are sealed and fitted together with the circular brackets (601). The cross-sectional structure of the grooves (603) is the same as that of the circular brackets (601). The sealing layer (604) is a high-density silicone pad. The connecting seat (602) has an inner cavity II. The inner cavity II is provided with an arc-shaped limiting baffle (632). The limiting baffle (632) fits together with the mesh (605) and is fixed by bolts.

3. The breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor spaces according to claim 2, characterized in that: The air intake assembly (63) is provided with two sets of connectors (606) inside. The lower ends of the two sets of connectors (606) are provided with sealing seats. The sealing seats are located on the inner side of the upper end of the air intake assembly (63). The sealing seats are made of a rubber material and are movably and sealingly connected to the inner side of the upper end of the air intake assembly (63). The air inlet assembly (63) is a detachable mechanism. The upper end of the air inlet assembly (63) is connected to the air duct (7). The air duct (7) is a rectangular air duct. A convex sealing gasket is installed between the air duct (7) and the air inlet assembly (63). The interior of the connector (606), the interior of the air inlet assembly (63), and the interior of the deflector (609) are interconnected. The cross-section of the deflector (609) is a triangular structure. There are two sets of deflectors (609). The interior of the two sets of deflectors (609) is mirror-symmetrically arranged with the middle position of the outer frame (62) as the axis. The air guide edge (607) is an arc-shaped structure. The air guide edge (607) and the support frame (610) are an integral structure. The support frame (610) and the inner side of the outer frame (62) are fixed by bolts. The temperature guide plate (615) is provided in four groups. Each group of temperature guide plate (615), connecting shell (611), fixing shell (612), connecting socket (613) and base (616) forms a group of air mechanism components. The air mechanism components are provided in four groups, and the four groups of air mechanism components have the same specifications. The four groups of air mechanism components are all connected to the four groups of air outlet groups (65). The base (616) is provided with a brushless motor. The brushless motor is connected to the drive shaft (631). The drive shaft (631) and the insert (630) are integrally formed. The drive shaft (631) and the insert (630) are interlocked with the drive groove (629). The blades (626) are provided in several groups, and the blades (626) are all connected and fixed to the base (628). The external air can be guided to the upper left and right sides of the air guide plate (608) through the air deflector (609) and the air guide edge (607). At the same time, the base (616) is protected and limited and fixed by the temperature plate (615), the connecting shell (611), the fixing shell (612) and the connecting socket (613).

4. The breathing wall for intelligent multi-channel multi-point transmission and interaction in indoor spaces according to claim 1, characterized in that: The aluminum plate (64a) is made of several sets of aluminum strips spliced ​​together, and the several sets of aluminum strips are arranged in a vertical row. A circular cavity is opened inside the aluminum plate (64a), and the circular cavity is connected and fixed to the inner thermally conductive wall (64e). The inner thermally conductive wall (64e) is made of an aluminum alloy material. A P-type semiconductor (64m) and an N-type semiconductor (64k) are provided at the rear end of the aluminum plate (64a). A DC copper conduit (64l) is provided between the P-type semiconductor (64m) and the N-type semiconductor (64k). The DC copper conduit (64l) is electrically connected to an external DC power source. The N-type semiconductor (64k) is attached to the front surface of the aluminum plate (64a). A silicone thermal pad is provided on the outside of the N-type semiconductor (64k). The interior of the thermally conductive cavity (64d) is a cavity structure. A set of water pipes is provided inside the upper and lower ends of the aluminum plate (64a). The interior of the water pipes is interconnected with the interior of the thermally conductive cavity (64d). The interior of the thermally conductive cavity (64d) is in contact with the inner thermally conductive wall (64e).

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