A micro-magnetic vibration energy-gathering antibacterial cabin

Abstract

The present invention discloses a micro-magnetic vibration energy-concentrating antibacterial cabin, comprising: a cabin body, which (excluding an electric switch door) is arranged in order from the outside to the inside as an aluminum alloy layer, a permanent magnet layer, a heating layer, a terahertz wave energy layer, and a metal plate layer; a movable frame is installed in the cabin body, and the movable frame includes multiple rows of ultraviolet lamp assemblies arranged vertically. The ultraviolet lamp assembly includes a pair of ultraviolet generating tubes, and the ultraviolet generating tubes include a transparent tube body, in which the ultraviolet lamp tube is sleeved; a first reflector at the bottom and a second elastic reflector at the top are installed between the pair of transparent tubes; the first reflector is provided with a first perforation and a first ultraviolet reflecting mirror surface; the second reflector is provided with a second perforation and a second ultraviolet reflecting mirror surface; the first ultraviolet reflecting mirror surface and the second ultraviolet reflecting mirror surface are staggered vertically along the connecting line of the pair of transparent tube bodies. The present invention solves the shortcomings of existing silver ion antibacterial technology, which is inherently harmful to the human body, cannot be in long-term contact with, and is expensive.

Description

Technical Field

[0001] The present invention relates to the field of antibacterial cabins, and in particular to a micro-magnetic vibration energy-gathering antibacterial cabin. Background Art

[0002] With the continuous improvement of living standards and the enhancement of health awareness, people's desire for healthy products is also increasing. Many manufacturers of home appliances, communication products and daily necessities have successively developed a variety of antibacterial products to meet people's requirements for improving the quality of life.

[0003] Currently, most companies typically use chemical coatings on garments and fabrics to achieve antimicrobial effects. For example, nanosilver ion (polygiene) technology can disrupt bacterial metabolism, thereby achieving an antibacterial effect. However, its actual use on clothing is extremely limited, and not all countries can use silver ion technology due to its inherent harmfulness to the human body, its inappropriate long-term exposure, and its high cost. Against this backdrop, the development of physical antimicrobial technologies that are both healthy, environmentally friendly, and effective in combating bacteria is urgent. Summary of the Invention

[0004] In response to the above problems, the present invention proposes a micro-magnetic vibration energy-gathering antibacterial cabin, which solves the defects of the existing silver ion antibacterial technology, which is harmful to the human body, cannot be used for a long time and is expensive.

[0005] The technical solution adopted by the present invention is as follows:

[0006] A micro-magnetic vibration energy-concentrating antibacterial cabin comprises: a cabin body, which (excluding an electric switch door) is arranged in sequence from the outside to the inside as an aluminum alloy layer, a permanent magnet layer, a heating layer, a terahertz wave energy layer and a metal plate layer. After assembly, the aluminum alloy layer, the permanent magnet layer, the heating layer, the terahertz wave energy layer and the metal plate layer form a six-sided covering at the front, top, bottom, left, right and rear; a movable frame is installed in the cabin body, and the movable frame includes multiple rows of ultraviolet lamp assemblies arranged vertically. The ultraviolet lamp assembly includes a pair of ultraviolet generating tubes, and the ultraviolet generating tubes include a transparent tube body, in which the ultraviolet lamp tube is sleeved. A first reflector located at the bottom and a second reflector located at the top and having elasticity are installed between the pair of transparent tube bodies, the first reflector plate is provided with a first perforation and a first ultraviolet reflecting mirror surface, the second reflector plate is provided with a second perforation and a second ultraviolet reflecting mirror surface, and the first ultraviolet reflecting mirror surface and the second ultraviolet reflecting mirror surface are staggered up and down along the connecting line of the pair of transparent tube bodies. This invention utilizes a UV lamp assembly to kill and inhibit bacteria and other microorganisms in clothing. Simultaneously, it energizes the strong magnetic structure and heating structure within the cabin wall. The strong magnetic structure generates a magnetic field, and the heating structure heats the materials within the cabin. The magnetic field acts on the materials, imparting a weak magnetic field to the materials, providing them with a long-term "mite-proof, mildew-proof, and antibacterial" effect. This invention overcomes the drawbacks of existing silver ion antibacterial technology, which is inherently harmful to the human body, cannot be used for long-term contact, and is expensive.

[0007] Optionally, an electric opening and closing door is installed on the front side of the cabin.

[0008] Optionally, a mobile power supply is provided inside the ultraviolet lamp tube, and the mobile power supply is used to supply power to the ultraviolet lamp tube for luminescence.

[0009] Optionally, the ultraviolet lamp tube includes a wick and a reflector, and the reflector is a concave mirror.

[0010] Optionally, the first ultraviolet reflecting mirror surface and the second ultraviolet reflecting mirror surface are arranged to overlap and face each other vertically along the length direction of a pair of transparent tubes.

[0011] Optionally, when the second reflective plate is not load-bearing, its upwardly arched curved surface causes one of the second ultraviolet reflective mirror surfaces to reflect the ultraviolet light emitted from the first ultraviolet reflective mirror surface located on one side of the second ultraviolet reflective mirror surface to the first ultraviolet reflective mirror surface located on the other side of the second ultraviolet reflective mirror surface; when the second reflective plate is load-bearing, it is concave downward to form a flat surface, so that one of the second ultraviolet reflective mirror surfaces reflects the ultraviolet light emitted from the first ultraviolet reflective mirror surface located on one side of the second ultraviolet reflective mirror surface to deflect away from the first ultraviolet reflective mirror surface located on the other side of the second ultraviolet reflective mirror surface.

[0012] Optionally, a first side plate and a second side plate arranged parallel to the first side plate are further provided between the first reflecting plate and the second reflecting plate.

[0013] Optionally, a directional light source emitter is mounted on the first side panel, a plurality of photosensors arranged vertically are mounted on the second side panel, and a reflective sheet for reflecting light emitted by the directional light source emitter is mounted on the second reflective panel.

[0014] Optionally, a control unit is further included, which is electrically connected to the photosensor. The control unit determines whether a single photosensor receives a signal and then determines the degree of bending of the second reflective plate, and then determines the weight of the fabric placed on the second reflective plate.

[0015] Optionally, two ends of the second reflective plate are connected to the transparent tube body via a telescopic elastic member.

[0016] Beneficial effects

[0017] 1. The present invention provides a micro-magnetic vibration energy-gathering cabin, in which each face of the cabin is provided with an aluminum alloy layer, a permanent magnet layer, a heating layer, a terahertz wave energy layer and a metal plate layer in sequence from the outside to the inside, so that these layers are formed to cover the cabin. Based on magnetic field theory, optoelectronics principles and technology, shoes, clothes, home textiles, accessories and other items are placed in the cabin, and permanent magnets and micro-magnetic generation technology are used in combination with photoelectricity to treat the fibers of the placed items through a terahertz wave frequency of 0.1-10THz (wavelength: 3000-30um) in an external magnetic field, and the fiber micro-electromagnetic field is reshaped at the molecular structure level through the principle of physical resonance. The present invention can achieve the energy-gathering effect after being treated in the micro-magnetic vibration energy-gathering cabin for 40 minutes, so that the placed items have the functions of "anti-mite, anti-mildew and antibacterial".

[0018] 2. In the present invention, clothes are placed on the movable rack. When the second reflector is not bearing any weight, its upwardly arched curved surface causes one of the second ultraviolet reflective mirror surfaces to reflect the ultraviolet light emitted from the first ultraviolet reflective mirror surface located on one side of the second ultraviolet reflective mirror surface to the first ultraviolet reflective mirror surface located on the other side of the second ultraviolet reflective mirror surface; when the second reflector is bearing any weight, it is concave downward to form a flat surface, causing one of the second ultraviolet reflective mirror surfaces to reflect the ultraviolet light emitted from the first ultraviolet reflective mirror surface located on one side of the second ultraviolet reflective mirror surface to deflect away from the first ultraviolet reflective mirror surface located on the other side of the second ultraviolet reflective mirror surface, thereby making the range of upward and downward heat dissipation of the ultraviolet light wider, and the gap between the first reflector plate and the second reflector plate also utilizes the volatilization of moisture in the fabric and makes the fabric more fluffy, which is beneficial to the transmission of heat and penetration of the magnetic field side.

[0019] 3. In the present invention, when light emitted by the directional light source emitter is reflected by the reflective sheet onto multiple photosensors on the second side panel, and when the clothing loaded on the second reflective panel does not reach a predetermined weight, the light emitted by the directional light source emitter is reflected by the reflective sheet onto a predetermined photosensor on the second side panel. When the clothing loaded on the second reflective panel reaches a predetermined weight, the light emitted by the directional light source emitter moves longitudinally and is reflected by the reflective sheet onto another predetermined photosensor on the second side panel. The directional light source emission control unit determines whether a signal is received by a single photosensor, thereby determining the degree of curvature of the second reflective panel and, therefore, the weight of the fabric placed on the second reflective panel. This eliminates the need for a weighing mechanism. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 3D diagram of the micro-magnetic vibration energy-gathering antibacterial cabin of Example 1 of the present invention;

[0021] Figure 2 1 is a top cross-sectional view of the micro-magnetic vibration energy-gathering antibacterial cabin of Example 1 of the present invention;

[0022] Figure 3 The antibacterial effect of the micro-magnetic vibration energy-gathering antibacterial cabin of Example 1 of the present invention Figure 1 ;

[0023] Figure 4 The antibacterial effect of the micro-magnetic vibration energy-gathering antibacterial cabin of Example 1 of the present invention Figure 2 ;

[0024] Figure 5 2 is a structural diagram of a micro-magnetic vibration energy-gathering antibacterial cabin according to Example 2 of the present invention;

[0025] Figure 6 The micro-magnetic vibration energy-gathering antibacterial cabin of embodiment 2 of the present invention Figure 5 A partial enlarged view of part A;

[0026] Figure 7 2 is a cross-sectional view of the ultraviolet lamp assembly of the micro-magnetic vibration energy-concentrating antibacterial cabin of Example 2 of the present invention from a frontal perspective;

[0027] Figure 8 1 is a cross-sectional view of the ultraviolet lamp assembly of the micro-magnetic vibration energy-concentrating antibacterial cabin of Example 2 of the present invention from a side perspective;

[0028] Figure 9 This is an assembly structure diagram of the ultraviolet lamp and drive component of the micro-magnetic vibration energy-concentrating antibacterial cabin of Example 2 of the present invention;

[0029] Figure 10 This is a flow chart of the control unit of the micro-magnetic vibration energy-gathering antibacterial cabin of Example 2 of the present invention.

[0030] The reference numerals in the figures are:

[0031] 1. Cabin, 2. Electric door, 3. Control panel, 4. Aluminum alloy layer, 5. Permanent magnet layer, 6. Heating layer, 7. Terahertz wave energy layer, 8. Metal plate layer, 9. Electrical box, 10. Movable frame, 11. UV lamp assembly, 12. UV generator tube, 13. Transparent tube, 14. UV lamp tube, 15. First reflector, 16. Second reflector, 17. First perforation, 18. First UV reflective mirror, 19. Second perforation, 20. Second UV reflective mirror, 21. Pulley, 22. Wick, 23. Reflector, 24. First side panel, 25. Second side panel, 26. Directional light source emitter, 27. Photosensor, 28. Control unit, 29. Telescopic elastic member, 30. Drive assembly, 31. Reflector. DETAILED DESCRIPTION

[0032] The following examples are used to illustrate the present invention but are not intended to limit the scope of the present invention.

[0033] In the description of the present invention, unless otherwise specified, the meaning of "multiple" is two or more; the orientations or positional relationships indicated by the terms "upper", "lower", "left", "right", "inner", "outer", "front end", "rear end", "head", "tail", etc. are based on the orientations or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the devices or elements referred to must have a specific orientation, be constructed and operate in a specific orientation, and therefore cannot be understood as limiting the present invention. In addition, the terms "first", "second", "third", etc. are only used for descriptive purposes and cannot be understood as indicating or implying relative importance. In the description of the present invention, it should be noted that, unless otherwise clearly specified and limited, the terms "connected" and "connected" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection, a direct connection, or an indirect connection through an intermediate medium. For those of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0034] Example 1

[0035] The technical solution adopted by the present invention is as follows:

[0036] like Figure 1 and Figure 2 As shown, the present invention discloses a micro-magnetic vibration energy-concentrating antibacterial cabin, comprising a cabin 1 and an electric door 2 connected to the cabin to open and close the cabin. The cabin is equipped with a control panel 3, located to the right of the electric door, which contains buttons for opening and closing the electric door. A control box 9 is located on one side of the cabin.

[0037] In one embodiment, the cabin (excluding the electric switch door) is arranged in order from the outside to the inside as an aluminum alloy layer 4, a permanent magnet layer 5, a heating layer 6, a terahertz wave energy layer 7 and a metal plate layer 8. After the aluminum alloy layer, the permanent magnet layer, the heating layer, the terahertz wave energy layer and the metal plate layer are assembled, they form a six-sided covering in the front, top, bottom, left, right and back. When the item is placed in the cabin and the electric door is closed, the fiber of the item can be processed from six directions, and the fiber micro-electromagnetic field can be reshaped at the molecular structure level through the principle of physical resonance. It should be noted that the cabin is a hexahedron, but is not limited to a hexahedron. It can be a sphere, a pyramid, etc. The heating layer is a far-infrared heating layer, so that the temperature of its heating can be maintained at a constant temperature or a continuously heated state. The terahertz wave energy layer is composed of a terahertz frequency band wave generator. The two ends of the second reflector are connected to the transparent tube body by a telescopic elastic member 29.

[0038] In one embodiment, the cabin is a multi-faceted solid. The front side of the cabin is equipped with an electric opening and closing door.

[0039] In one embodiment, the permanent magnet layer is a series of circular magnetic members evenly arranged between the metal plate layer and the energy layer.

[0040] In one embodiment, a control screen is located on the right side of the cabin for settings and operations. The control unit of the present invention can be a computer system electrically connected to the control screen. This knitted fabric has been tested by a nationally recognized testing agency and has demonstrated antibacterial properties that meet national AAA standards, and deodorizing properties that meet national standards.

[0041] During implementation, the heat generated by the heating layer, prior to conduction, diffuses to both the micromagnetic layer and the terahertz wave energy layer, raising the cabin temperature to 40-50°C. The micromagnetic layer, utilizing permanent magnets and micromagnetic generation technology, and the energy layer, utilizing a terahertz wave frequency of 0.1-10THz, accelerate the propagation of the energy wave and enhance its penetration. Through the principles of physical resonance, the fiber's microelectromagnetic field is reshaped at the molecular level. This results in anti-mite, anti-mildew, and antibacterial properties when used.

[0042] Example 2

[0043] The difference between this embodiment 2 and embodiment 1 is that, Figure 5 、 Figure 6 、 Figure 7 、 Figure 8 、 Figure 9 and Figure 10As shown, the cabin is equipped with a movable frame 10, which includes multiple rows of ultraviolet lamp assemblies 11 arranged vertically. The ultraviolet lamp assemblies include a pair of ultraviolet generating tubes 12, each of which includes a transparent tube body 13, in which an ultraviolet lamp tube 14 is housed. A first reflector 15 at the bottom and a second elastic reflector 16 at the top are installed between the pair of transparent tubes. The first reflector has a first through-hole 17 and a first ultraviolet reflective mirror 18, while the second reflector has a second through-hole 19 and a second ultraviolet reflective mirror 20. The first and second ultraviolet reflective mirrors are arranged in an alternating pattern along the line connecting the pair of transparent tubes. A pulley 21 is provided at the bottom of the movable frame.

[0044] The UV lamp is equipped with a mobile power supply for powering the lamp. The UV lamp includes a wick 22 and a concave reflector 23. The first and second UV reflector surfaces are arranged vertically and overlappingly along the length of the pair of transparent tubes. When unloaded, the second reflector's upwardly curved surface allows one of the second UV reflector surfaces to reflect UV light emitted from the first UV reflector surface on one side of the second UV reflector surface to the first UV reflector surface on the other side of the second UV reflector surface. When loaded, the second reflector is concave downward to form a flat surface, allowing one of the second UV reflector surfaces to reflect UV light emitted from the first UV reflector surface on one side of the second UV reflector surface away from the first UV reflector surface on the other side of the second UV reflector surface. A first side panel 24 and a second side panel 25 arranged parallel to the first side panel are also provided between the first and second reflector plates. A directional light source emitter 26 is installed on the first side panel, and a plurality of photosensors 27 arranged vertically are installed on the second side panel. The micro-magnetic vibration focused antibacterial cabin also includes a control unit 28, which is electrically connected to the photosensor. The control unit determines whether a single photosensor receives a signal and then determines the degree of bending of the second reflector, and then determines the weight of the fabric placed on the second reflector. The ultraviolet lamp is also externally connected to a drive assembly 30, which is used to drive the ultraviolet lamp to rotate. A reflective sheet 31 is installed in the middle of the second reflector for reflecting the light emitted by the directional light source emitter.

[0045] During implementation of this embodiment, when clothing is placed on the movable rack, when the second reflector is not bearing any weight, its upwardly arched curved surface causes one of the second ultraviolet reflective mirror surfaces to reflect the ultraviolet light emitted from the first ultraviolet reflective mirror surface located on one side of the second ultraviolet reflective mirror surface to the first ultraviolet reflective mirror surface located on the other side of the second ultraviolet reflective mirror surface; when the second reflector is bearing any weight, it is recessed downward to form a plane, causing one of the second ultraviolet reflective mirror surfaces to reflect the ultraviolet light emitted from the first ultraviolet reflective mirror surface located on one side of the second ultraviolet reflective mirror surface to deflect away from the first ultraviolet reflective mirror surface located on the other side of the second ultraviolet reflective mirror surface, thereby making the range of upward and downward heat dissipation of the ultraviolet light wider, and the gap between the first reflector plate and the second reflector plate also utilizes the volatilization of moisture in the fabric and makes the fabric more fluffy, which is beneficial to the transmission of heat and penetration of the magnetic field side.

[0046] When the light emitted by the directional light source emitter is reflected by the reflective sheet onto multiple photosensors on the second side panel, and when the clothing placed on the second reflective panel does not reach a predetermined weight, the light emitted by the directional light source emitter is reflected by the reflective sheet onto a predetermined photosensor on the second side panel. When the clothing placed on the second reflective panel reaches a predetermined weight, the light emitted by the directional light source emitter moves longitudinally and is reflected by the reflective sheet onto another predetermined photosensor on the second side panel. The directional light source emission control unit determines whether a signal is received from a single photosensor, thereby determining the degree of curvature of the second reflective panel and the weight of the fabric placed on the second reflective panel. This eliminates the need for a weighing structure.

[0047] Example 3

[0048] The present invention also discloses a knitted fabric with antibacterial and deodorizing properties. The fabric is composed, by mass percentage, of the following fibers: 65-80% long-staple cotton, 5-10% lycra, 5-10% spandex, and 10-15% modal. The knitted fabric is obtained by processing and implanting it with micromagnetic resonance technology. The micromagnetic resonance treatment intensity is 20-600 mT, the processing time is 45-90 minutes, and the processing temperature is 35-45°C.

[0049] Determination of antibacterial rate

[0050] The antibacterial rate is tested and determined using the national standard FZ / T73023-2006 "Antibacterial Knitwear".

[0051] Table 1 Antibacterial rate test results

[0052]

[0053] Determination of deodorizing properties

[0054] The deodorizing performance is tested and determined according to the national standard GB / T 33610.2-2017.

[0055] Test sample: prepared knitted fabric with antibacterial and deodorizing functions.

[0056] The test results are shown in Table 2:

[0057] Table 2 Deodorization performance test results

[0058]

[0059] In summary, this embodiment provides a knitted fabric with antibacterial and deodorizing functions and a preparation method thereof, and the relevant inspection and testing results meet the national standards.

[0060] The above description is only a preferred embodiment of the present invention and does not limit the scope of patent protection of the present invention. Any equivalent structural transformation made by using the contents of the description and drawings of the present invention, directly or indirectly applied to other related technical fields, is also included in the scope of protection of the present invention.

Claims

1. A micro-magnetic vibration energy-gathering antibacterial cabin, characterized in that: include: The cabin body, excluding the electric opening and closing door, is sequentially arranged from the outside to the inside as an aluminum alloy layer, a permanent magnet layer, a heating layer, a terahertz wave energy layer and a metal plate layer. After the aluminum alloy layer, the permanent magnet layer, the heating layer, the terahertz wave energy layer and the metal plate layer are assembled, six sides of the front, top, bottom, left, right and rear are formed. A movable frame is installed in the cabin body, and the movable frame includes multiple rows of ultraviolet lamp assemblies arranged up and down. The ultraviolet lamp assembly includes a pair of ultraviolet generating tubes, and the ultraviolet generating tubes include a transparent tube body, in which the ultraviolet lamp tube is sleeved. A first reflector located at the bottom and a second elastic reflector located at the top are installed between the pair of transparent tube bodies. The first reflector plate is provided with a first through-hole and a first ultraviolet reflecting mirror surface, and the second reflector plate is provided with a second through-hole and a second ultraviolet reflecting mirror surface. The first ultraviolet reflecting mirror surface and the second ultraviolet reflecting mirror surface are staggered up and down along the connecting line of the pair of transparent tube bodies. When the second reflector is not bearing any weight, its upwardly arched curved surface causes one of the second ultraviolet reflective mirror surfaces to reflect the ultraviolet light emitted from the first ultraviolet reflective mirror surface located on one side of the second ultraviolet reflective mirror surface to the first ultraviolet reflective mirror surface located on the other side of the second ultraviolet reflective mirror surface; when the second reflector is bearing any weight, it is concave downward to form a flat surface, causing one of the second ultraviolet reflective mirror surfaces to reflect the ultraviolet light emitted from the first ultraviolet reflective mirror surface located on one side of the second ultraviolet reflective mirror surface to deflect away from the first ultraviolet reflective mirror surface located on the other side of the second ultraviolet reflective mirror surface.

2. The micro-magnetic vibration energy-gathering antibacterial cabin according to claim 1, characterized in that: The front side of the cabin body is equipped with an electric opening and closing door.

3. The micro-magnetic vibration energy-gathering antibacterial cabin according to claim 1, characterized in that: A mobile power supply is provided inside the ultraviolet lamp tube, and the mobile power supply is used to supply power to the ultraviolet lamp tube for lighting.

4. A micro-magnetic vibration energy-gathering antibacterial cabin according to claim 1, 2 or 3, characterized in that: The ultraviolet lamp tube comprises a lamp core and a reflector, and the reflector is a concave mirror.

5. The micro-magnetic vibration energy-gathering antibacterial cabin according to claim 1, characterized in that: A first side plate and a second side plate arranged in parallel with the first side plate are further provided between the first reflecting plate and the second reflecting plate.

6. The micro-magnetic vibration energy-gathering antibacterial cabin according to claim 5, characterized in that: The first side panel is provided with a directional light source emitter, the second side panel is provided with a plurality of photosensors arranged up and down, and the second reflecting panel is provided with a reflecting sheet for reflecting light emitted by the directional light source emitter.

7. The micro-magnetic vibration energy-gathering antibacterial cabin according to claim 6, characterized in that: It also includes a control unit, which is electrically connected to the photosensor. The control unit determines whether a single photosensor receives a signal and then determines the degree of bending of the second reflective plate, and then determines the weight of the fabric placed on the second reflective plate.

8. A micro-magnetic vibration energy-gathering antibacterial cabin as described in claim 1, 2 or 3, characterized in that: Two ends of the second reflective plate are connected to the transparent tube body via a telescopic elastic member.

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