Negative ion fabric and its manufacturing method

Abstract

This application relates to the field of fabric production technology, providing a negative ion fabric and its manufacturing method. The negative ion fabric includes: a negative ion fiber storage layer; two protective layers located on opposite sides of the negative ion fiber storage layer; two negative ion fiber release layers correspondingly disposed on the sides of the two protective layers away from the negative ion fiber storage layer; and two surface layers correspondingly disposed on the sides of the two negative ion fiber release layers away from the negative ion fiber storage layer. With the negative ion fabric provided by this application, after a period of use, the negative ion fiber storage layer communicates with the surface layers or the negative ion fiber release layers, allowing the negative ions in the negative ion fiber storage layer to come into external contact and continue to release negative ions. This increases the duration of negative ion release and extends the service life of the negative ion fabric.

Description

Technical Field

[0001] This application relates to the field of fabric production technology, and in particular to a negative oxygen ion fabric and its manufacturing method. Background Technology

[0002] Negative ion fabric is a special type of textile made by spinning or blending negative ion materials or fibers with other fiber materials. It has the function of releasing negative ions. Negative ions are oxygen ions carrying a negative charge. They can combine with water molecules in the air to form active oxygen molecules, which have various benefits, such as improving air quality, enhancing human immunity, and reducing fatigue.

[0003] The negative ion release effect of the fabric in the related technology may weaken over time, especially after a period of use, the effect of the negative ion release fabric is significantly reduced, resulting in a short service life. Summary of the Invention

[0004] This application provides a negative ion fabric and its manufacturing method, which can improve the technical problem in related technologies where the effect of releasing negative ions is significantly reduced after a period of use, resulting in a short service life.

[0005] In a first aspect, embodiments of this application provide a negative ion fabric, comprising:

[0006] The negative oxygen ion fiber storage layer includes a first negative oxygen ion fiber line, wherein the first negative oxygen ion fiber line includes a first fiber baseline and a negative oxygen ion material disposed on the first fiber baseline.

[0007] Two protective layers are located on opposite sides of the negative oxygen ion fiber storage layer, and the protective layers are used to restrict the negative oxygen ion fiber storage layer from releasing negative oxygen ions outward.

[0008] Two negative ion fiber releasing layers are respectively disposed on the side of the two protective layers away from the negative ion fiber storage layer; each negative ion fiber releasing layer includes a second negative ion fiber thread, the second negative ion fiber thread including a second fiber baseline and the negative ion material disposed on the second fiber baseline; and

[0009] Two surface layers are disposed on the side of the two negative oxygen ion fiber releasing layers away from the negative oxygen ion fiber storage layer, corresponding to each other. The surface layers are used to protect and fix the negative oxygen ion fiber releasing layers and allow the negative oxygen ion fiber releasing layers to release negative oxygen ions outward.

[0010] The technical solutions described in this application embodiment have at least the following technical effects:

[0011] By using negative ion fiber threads as a negative ion fiber storage layer, negative ions can be effectively stored and released. The first negative ion fiber thread consists of a first fiber baseline and negative ion material, and the second negative ion fiber thread consists of a second fiber baseline and negative ion material, providing a stable and long-lasting negative ion release effect. Two protective layers are located on both sides of the negative ion fiber storage layer to protect it from external environmental influences. Two negative ion fiber release layers are located on one side of the protective layers, and two surface layers are located on one side of the negative ion fiber release layer. This ensures that the negative ion fiber release layer can fully release negative ions and transfer them to the external environment through the surface layers. The surface layers protect and fix the negative ion fiber release layer, while also providing a comfortable feel and appearance. After a period of use, the effectiveness of the negative ion fiber releasing layer in releasing negative ions decreases. At this time, the negative ion fiber storage layer is connected to the surface layer or the negative ion fiber releasing layer, so that the negative ions in the negative ion fiber storage layer can come into contact with the outside and continue to release negative ions. In this way, the duration of negative ion release of the negative ion fabric is increased, and the service life is extended.

[0012] In some embodiments, the negative ion fabric further includes a plurality of conductive elements, each of which is disposed on both sides of the negative ion fiber storage layer; the conductive elements on the same side are located between the surface layer and the negative ion fiber storage layer on the same side, and are used to conduct negative ions between the negative ion fiber storage layer and the surface layer or the negative ion fiber release layer when the insulating part of the conductive element loses its negative ion insulating effect.

[0013] In some embodiments, the conductive element is a conductive tube, and the conductive tube further includes:

[0014] A polyester elastic tube is located between the surface layer and the negative ion fiber storage layer, and is inserted through the protective layer; one end of the polyester elastic tube is located in the surface layer or the negative ion fiber release layer, and the other end of the polyester elastic tube is located in the negative ion fiber storage layer; and

[0015] A third negative oxygen ion fiber thread is disposed within the polyester elastic tube; the third negative oxygen ion fiber thread includes a third fiber baseline and the negative oxygen ion material disposed on the third fiber baseline.

[0016] The insulating part includes two sealing films, which are located at both ends of the polyester elastic tube and are used to isolate the inside of the polyester elastic tube from the outside by negative oxygen ions.

[0017] In some embodiments, the conductive element is a serial line, and the serial line further includes a fourth negative oxygen ion fiber line. The fourth negative oxygen ion fiber line is located between the surface layer and the negative oxygen ion fiber storage layer, and is repeatedly passed through the negative oxygen ion fiber storage layer and the negative oxygen ion fiber release layer. The fourth negative oxygen ion fiber line includes a fourth fiber baseline and the negative oxygen ion material disposed on the fourth fiber baseline.

[0018] The insulating part is a coating, which is disposed on the surface of the fourth negative oxygen ion fiber line to isolate the fourth negative oxygen ion fiber line from the outside.

[0019] Secondly, this application provides a method for manufacturing negative ion fabric, used to manufacture the negative ion fabric of any of the above embodiments. The method for manufacturing negative ion fabric includes:

[0020] Obtain the first negative oxygen ion fiber thread and the second negative oxygen ion fiber thread;

[0021] The first negative oxygen ion fiber yarn is woven to obtain the negative oxygen ion fiber storage layer, and the second negative oxygen ion fiber yarn is woven to obtain two negative oxygen ion fiber release layers.

[0022] Obtain the two protective layers and the two surface layers;

[0023] One of the protective layers is connected to cover one side of the negative oxygen ion fiber storage layer, then one of the negative oxygen ion fiber release layers is connected to cover the protective layer, and then one of the surface layers is connected to cover the negative oxygen ion fiber release layer.

[0024] Another protective layer is connected to cover the other side of the negative ion fiber storage layer, another negative ion fiber release layer is connected to cover the protective layer, and then another surface layer is connected to cover the negative ion fiber release layer to obtain a negative ion fabric.

[0025] In some embodiments, obtaining the first negative ion fiber thread and the second negative ion fiber thread includes:

[0026] Obtain the first fiber baseline and the second fiber baseline;

[0027] The negative oxygen ion material is adsorbed by the first fiber baseline and the second fiber baseline using a negative oxygen ion adsorption device to obtain the first negative oxygen ion fiber line and the second negative oxygen ion fiber line.

[0028] In some embodiments, the step of adsorbing the negative oxygen ion material onto the first fiber baseline and the second fiber baseline using a negative oxygen ion adsorption device to obtain the first negative oxygen ion fiber thread and the second negative oxygen ion fiber thread includes:

[0029] The first fiber baseline and the second fiber baseline are pressurized by a high-pressure device;

[0030] The first fiber baseline and the second fiber baseline are transported into the adsorption chamber and passed through the negative oxygen ion solvent pool, so that the first fiber baseline and the second fiber baseline adsorb the negative oxygen ion material.

[0031] The first and second fiber baselines, after being adsorbed with the negative oxygen ion material, are dried by a drying device to obtain the first negative oxygen ion fiber line and the second negative oxygen ion fiber line.

[0032] In some embodiments, drying the first fiber baseline and the second fiber baseline after adsorbing the negative oxygen ion material using a drying device to obtain the first negative oxygen ion fiber thread and the second negative oxygen ion fiber thread includes:

[0033] The first fiber baseline and the second fiber baseline are passed through a removal device to remove excess negative oxygen ion material from their surfaces;

[0034] The first and second fiber baselines, after being removed, are dried by a drying device to obtain the first negative ion fiber thread and the second negative ion fiber thread.

[0035] In some embodiments, the step of removing excess negative oxygen ion material from the surface of the first fiber baseline and the second fiber baseline using a removal device includes:

[0036] The first fiber baseline and the second fiber baseline are inserted into the rejection cavity through one end of the rejection member and are fitted into the rejection cavity;

[0037] The first fiber baseline and the second fiber baseline are pulled from the other end of the rejection member so that the excess negative oxygen ion material on the surface of the first fiber baseline and the second fiber baseline is blocked outside the rejection member by one end of the rejection member and detached from the first fiber baseline and the second fiber baseline.

[0038] In some embodiments, the method of connecting one of the protective layers to cover one side of the negative ion fiber storage layer, then connecting one of the negative ion fiber releasing layers to cover the protective layer, and then connecting one of the surface layers to cover the negative ion fiber releasing layer includes:

[0039] The first ends of a plurality of the conductive tubes are inserted into the negative ion fiber storage layer. One of the protective layers is passed through the second end of the conductive tube and connected to cover one side of the negative ion fiber storage layer. Then, one of the negative ion fiber release layers is passed through the second end of the conductive tube and connected to cover the protective layer. Finally, one of the surface layers is passed through the second end of the conductive tube and connected to cover the negative ion fiber release layer after the second end of the conductive tube is inserted into the surface layer. Attached Figure Description

[0040] In order to more clearly illustrate the technical solutions in the embodiments of the present application, the following briefly introduces the drawings required for use in the embodiments or descriptions of the prior art. Obviously, the drawings described below are only some embodiments of the present application. For ordinary technicians in this field, other drawings can be obtained based on these drawings without any creative work.

[0041] Figure 1 This is a schematic diagram of the structure of the negative oxygen ion fabric provided in the embodiments of this application;

[0042] Figure 2 A cross-sectional schematic diagram of the negative oxygen ion fabric provided in the embodiments of this application;

[0043] Figure 3 A cross-sectional schematic diagram of a negative oxygen ion fabric provided in another embodiment of this application;

[0044] Figure 4 This is a schematic cross-sectional view of the conductive tube provided in an embodiment of this application;

[0045] Figure 5 A schematic cross-sectional view of the stringer provided in an embodiment of this application;

[0046] Figure 6 A schematic flowchart illustrating the method for manufacturing negative ion fabric according to an embodiment of this application;

[0047] Figure 7 This is a schematic diagram of the structure of the negative oxygen ion adsorption device provided in the embodiments of this application.

[0048] The following are the labeling elements in the figure:

[0049] 100. Negative oxygen ion fabric; 10. Negative oxygen ion fiber storage layer; 20. Protective layer; 30. Negative oxygen ion fiber release layer; 40. Surface layer; 11. First negative oxygen ion fiber thread; 12. Second negative oxygen ion fiber thread; 50. Conductor; 51. Insulating part; 52. Polyester elastic tube; 13. Third negative oxygen ion fiber thread; 14. Fourth negative oxygen ion fiber thread; 60. Negative oxygen ion adsorption device; 61. High pressure device; 62. Negative oxygen ion solvent pool; 63. Drying device; 6001. Adsorption chamber; 64. Removal device; 641. Removal component; 6401. Removal cavity. Detailed Implementation

[0050] To make the technical problems, technical solutions, and beneficial effects to be solved by this application clearer, the following detailed description is provided in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and are not intended to limit the scope of this application.

[0051] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this application belongs; the terminology used herein is for the purpose of describing particular embodiments only and is not intended to limit the application. The terms “comprising” and “having”, and any variations thereof, in the specification, claims, and foregoing description of the drawings are intended to cover non-exclusive inclusion.

[0052] It should be noted that when a component is referred to as being "fixed to" or "set on" another component, it can be directly on or indirectly on that other component. When a component is referred to as being "connected to" another component, it can be directly connected to or indirectly connected to that other component.

[0053] It should be understood that the terms "length", "width", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this application.

[0054] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this application, "multiple" means two or more, unless otherwise explicitly specified.

[0055] In this application, "and / or" is merely a way of describing the relationship between related objects, indicating that three relationships can exist; for example, A and / or B can represent three cases: A existing alone, A and B existing simultaneously, and B existing alone. Additionally, the character " / " in this document generally indicates that the preceding and following related objects have an "or" relationship.

[0056] It should be noted that in this application, the words "in some embodiments," "exemplarily," and "for example" are used to indicate examples, illustrations, or descriptions. Any embodiment or design described in this application as "in some embodiments," "exemplarily," or "for example" should not be construed as being more preferred or advantageous than other embodiments or design solutions. Specifically, the use of words such as "in some embodiments," "exemplarily," and "for example" is intended to present related concepts in a specific manner, meaning that a particular feature, structure, or characteristic described in connection with the embodiment may be included in at least one embodiment of this application. The appearance of the above words in various places in the specification does not necessarily refer to the same embodiment, nor is it a separate or alternative embodiment that is mutually exclusive with other embodiments. Those skilled in the art will explicitly and implicitly understand that the embodiments described herein can be combined with other embodiments.

[0057] Negative ion fabric is a special type of textile made by spinning or blending negative ion materials or fibers with other fiber materials. It has the function of releasing negative ions. Negative ions are oxygen ions carrying a negative charge. They can combine with water molecules in the air to form active oxygen molecules, which have various benefits, such as improving air quality, enhancing human immunity, and reducing fatigue.

[0058] The negative ion release effect of the fabric in the related technology may weaken over time, especially after a period of use, the effect of the negative ion release fabric is significantly reduced, resulting in a short service life.

[0059] Based on this, in order to improve the problem that the effect of negative oxygen ion release of negative oxygen ion fabrics in related technologies is significantly reduced after a period of use, resulting in a short service life, the embodiments of this application provide the following solutions.

[0060] Please see Figures 1 to 3 The negative ion fabric 100 provided in this application embodiment will now be described. The negative ion fabric 100 includes a negative ion fiber storage layer 10, two protective layers 20, two negative ion fiber release layers 30, and two surface layers 40, wherein:

[0061] The negative oxygen ion fiber storage layer 10 includes a first negative oxygen ion fiber line 11, which includes a first fiber baseline and a negative oxygen ion material disposed on the first fiber baseline.

[0062] Two protective layers 20 are located on opposite sides of the negative oxygen ion fiber storage layer 10. The protective layers 20 are used to restrict the negative oxygen ion fiber storage layer 10 from releasing negative oxygen ions.

[0063] Two negative ion fiber release layers 30 are disposed one-to-one on the side of the two protective layers 20 away from the negative ion fiber storage layer 10; the negative ion fiber release layer 30 includes a second negative ion fiber line 12, the second negative ion fiber line 12 includes a second fiber baseline and negative ion material disposed on the second fiber baseline.

[0064] Two surface layers 40 are disposed one-to-one on the side of the two negative ion fiber releasing layers 30 away from the negative ion fiber storage layer 10. The surface layers 40 are used to protect and fix the negative ion fiber releasing layers 30 and allow the negative ion fiber releasing layers 30 to release negative ions outward.

[0065] It can be understood that a fiber baseline is a fine thread-like substance made of fibrous material, which can be made of natural fibers (such as cotton, linen, silk, etc.) or synthetic fibers (such as polyester fibers, nylon fibers, etc.). Negative oxygen ion material refers to a material with a negative charge that can release negative oxygen ions into the surrounding environment; that is, a negative oxygen ion fiber thread is a fine thread-like substance made of fibrous material that can release negative oxygen ions. The negative oxygen ion fiber storage layer 10 can be woven from the first negative oxygen ion fiber thread 11, or it can be blended with other fiber baselines. The negative oxygen ion fiber release layer 30 can be woven from the second negative oxygen ion fiber thread 12, or it can be blended with other fiber baselines. The protective layer 20 is made of a material with good waterproof performance and durability, such as polyurethane, polyvinyl chloride, etc., but not limited to these. The surface layer 40 has a certain degree of breathability, stability, and softness, and can be made of fibrous materials such as cotton or linen.

[0066] As can be seen from the above, the negative ion fabric 100 provided in this application embodiment, compared with the prior art, can effectively store and release negative ions by using negative ion fiber threads as the negative ion fiber storage layer 10. The first negative ion fiber thread 11 is composed of a first fiber baseline and negative ion material, and the second negative ion fiber thread 12 is composed of a second fiber baseline and negative ion material, which can provide a stable and long-lasting negative ion release effect. Two protective layers 20 are located on both sides of the negative ion fiber storage layer 10 to protect the negative ion fiber storage layer 10. This can protect the negative ion fiber storage layer 10 from the influence of the external environment. Two negative ion fiber release layers 30 are disposed on one side of the protective layer 20, and two surface layers 40 are disposed on one side of the negative ion fiber release layer 30, which can ensure that the negative ion fiber release layer 30 can fully release negative ions and transfer them to the external environment through the surface layers 40. The surface layers 40 are used to protect and fix the negative ion fiber release layer 30, while providing a comfortable touch and appearance. After the negative ion fabric 100 has been used for a period of time, the effect of the negative ion fiber releasing layer 30 in releasing negative ions decreases. At this time, the negative ion fiber storage layer 10 is connected to the surface layer 40, so that the negative ions in the negative ion fiber layer can come into contact with the outside through the surface layer 40 and continue to generate negative ions. In this way, the duration of negative ion release by the negative ion fabric 100 is increased, and the service life is extended.

[0067] Optionally, in some embodiments, please refer to Figure 2 and Figure 3 The negative ion fabric 100 also includes a plurality of conductive elements 50, each conductive element 50 being disposed on both sides of the negative ion fiber storage layer 10; the conductive elements 50 on the same side are located between the surface layer 40 and the negative ion fiber storage layer 10 on the same side, and are used to conduct negative ions between the negative ion fiber storage layer 10 and the surface layer 40 or the negative ion fiber release layer 30 when the isolation part 51 of the conductive element 50 loses its negative ion isolation function.

[0068] With this configuration, during the use of the negative ion fabric 100, the two negative ion fiber release layers 30 on both sides release negative ions respectively. The negative ions are released to the outside through the surface layers 40 on both sides, so as to achieve the function of air purification and providing additional oxygen by the negative ion fabric 100. At this time, the negative ion fiber storage layer 10 located inside is isolated from the outside, and the negative ions therein are not released to the outside. After a period of use, the negative oxygen ions in the negative oxygen ion fiber releasing layers 30 on both sides will gradually decrease, but the conductive element 50 will also slowly lose its insulating effect. At this time, the negative oxygen ion fiber storage layer 10 will be connected with the negative oxygen ion fiber releasing layer 30 or the surface layer 40. That is, the protective layer 20 loses its effect of restricting the negative oxygen ion fiber storage layer 10 from releasing negative oxygen ions. The negative oxygen ions in the negative oxygen ion fiber storage layer 10 can move directly to the negative oxygen ion fiber releasing layer 30 or the surface layer 40 through the conductive element 50, so that the negative oxygen ion fabric 100 can continue to release negative oxygen ions continuously, thereby greatly increasing the effect of the negative oxygen ion fabric 100 in releasing negative oxygen ions and the service life of the negative oxygen ion fabric 100.

[0069] In some embodiments, please refer to Figure 2 and Figure 4 The conductive element 50 is a conductive tube, which also includes a polyester elastic tube 52 and a third negative oxygen ion fiber line 13, wherein:

[0070] The polyester elastic tube 52 is located between the surface layer 40 and the negative oxygen ion fiber storage layer 10, and is inserted through the protective layer 20; one end of the polyester elastic tube 52 is located in the surface layer 40 or the negative oxygen ion fiber release layer 30, and the other end of the polyester elastic tube 52 is located in the negative oxygen ion fiber storage layer 10.

[0071] The third negative oxygen ion fiber line 13 is disposed inside the polyester elastic tube 52; the third negative oxygen ion fiber line 13 includes a third fiber baseline and negative oxygen ion material disposed on the third fiber baseline.

[0072] The insulating part 51 includes two sealing films, which are located at both ends of the polyester elastic tube 52, and are used to isolate the inside of the polyester elastic tube 52 from the outside by negative oxygen ions.

[0073] It is understood that polyester elastic pipe 52 is a type of pipe with elasticity and flexibility, made of polyester material, and has good corrosion resistance, pressure resistance, and light weight. The sealing membrane is made of biodegradable material, such as biodegradable material, water-soluble polymer material, etc., but not limited to these.

[0074] With this setup, after the negative ion fabric 100 has been used for a period of time, the negative ions in the negative ion fiber releasing layers 30 on both sides will gradually decrease. Simultaneously, the sealing membrane at the end of the polyester elastic tube 52 furthest from the negative ion fiber storage layer 10 remains in contact with the external environment, and is therefore slowly degraded by external microorganisms or other substances from the outside into the polyester elastic tube 52. The third negative ion fiber thread 13 inside the polyester elastic tube 52 can release negative ions to the outside, increasing the release effect. Because the sealing membrane at one end is degraded, the sealing membrane at the other end also begins to come into contact with the external environment, and will also be slowly degraded by external microorganisms or other substances from the inside of the polyester elastic tube 52 into the negative ion fiber storage layer 10. When the negative oxygen ions in the negative oxygen ion fiber releasing layers 30 on both sides are almost exhausted, the sealing film at the other end is also close to complete degradation. At this time, the negative oxygen ion fiber storage layer 10 is connected to the negative oxygen ion fiber releasing layer 30 or the surface layer 40 through the polyester elastic tube 52. That is, the negative oxygen ions in the negative oxygen ion fiber storage layer 10 move directly to the negative oxygen ion fiber releasing layer 30 or the surface layer 40 through the polyester elastic tube 52, so that the negative oxygen ion fabric 100 continues to release negative oxygen ions to the outside, thereby greatly increasing the effect of the negative oxygen ion fabric 100 in releasing negative oxygen ions and the service life of the negative oxygen ion fabric 100. By setting the sealing film and protective layer 20, the negative oxygen ions in the negative oxygen ion fiber storage layer 10 can be stored and will not be released to the outside immediately. The third negative oxygen ion fiber thread 13 can also release negative oxygen ions. By setting the polyester elastic tube 52, a path is provided for the negative oxygen ions in the negative oxygen ion fiber storage layer 10 to be released to the outside.

[0075] In some embodiments, please refer to Figure 3 and Figure 5 The conductive element 50 is a serial line, which also includes a fourth negative oxygen ion fiber line 14. The fourth negative oxygen ion fiber line 14 is located between the surface layer 40 and the negative oxygen ion fiber storage layer 10, and is repeatedly inserted between the negative oxygen ion fiber storage layer 10 and the negative oxygen ion fiber release layer 30. The fourth negative oxygen ion fiber line 14 includes a fourth fiber baseline and negative oxygen ion material disposed on the fourth fiber baseline.

[0076] The insulating part 51 is a coating, which is applied to the surface of the fourth negative oxygen ion fiber 14 to isolate the fourth negative oxygen ion fiber 14 from the outside.

[0077] It is understood that the coating is made of biodegradable materials, such as biodegradable materials, water-soluble polymer materials, etc., specifically polycaprolactone, polylactic acid, etc., but not limited to these.

[0078] With this configuration, after the negative ion fabric 100 has been used for a period of time, the negative ions in the negative ion fiber releasing layers 30 on both sides will gradually decrease. Simultaneously, the coating on the side of the fourth negative ion fiber line 14 away from the negative ion fiber storage layer 10 remains in contact with the external environment. Therefore, it is slowly degraded from the outside into the inside of the fourth negative ion fiber line 14 by external microorganisms or other substances. The side of the fourth negative ion fiber line 14 away from the negative ion fiber storage layer 10 is exposed and releases negative ions to the outside, increasing the release effect. Because the coating on one side is degraded, the coating on the other side also begins to come into contact with the external environment and will also be slowly degraded from the inside of the fourth negative ion fiber line 14 into the negative ion fiber storage layer 10 by external microorganisms or other substances. When the negative oxygen ions in the negative oxygen ion fiber releasing layers 30 on both sides are almost exhausted, the coating on the other side is also close to complete degradation. At this time, the negative oxygen ion fiber storage layer 10 is connected to the negative oxygen ion fiber releasing layer 30 or the surface layer 40 through the fourth negative oxygen ion fiber line 14. That is, the negative oxygen ions in the negative oxygen ion fiber storage layer 10 move directly to the negative oxygen ion fiber releasing layer 30 or the surface layer 40 through the fourth negative oxygen ion fiber line 14, so that the negative oxygen ion fabric 100 continues to release negative oxygen ions to the outside, thereby greatly increasing the effect of the negative oxygen ion fabric 100 in releasing negative oxygen ions and the service life of the negative oxygen ion fabric 100. By setting the coating and protective layer 20, the negative oxygen ions in the negative oxygen ion fiber storage layer 10 can be isolated and will not be released to the outside immediately. By setting the fourth negative oxygen ion fiber line 14, on the one hand, some negative oxygen ions can be released, and on the other hand, a path can be provided for the negative oxygen ions in the negative oxygen ion fiber storage layer 10 to be released to the outside.

[0079] Please see Figure 6 This application also provides a method for manufacturing negative ion fabric, used to manufacture the negative ion fabric 100 of any of the above embodiments. The method for manufacturing negative ion fabric includes:

[0080] S100, acquire the first negative oxygen ion fiber 11 and the second negative oxygen ion fiber 12.

[0081] S200, the first negative oxygen ion fiber thread 11 is woven to obtain the negative oxygen ion fiber storage layer 10, and the second negative oxygen ion fiber thread 12 is woven to obtain two negative oxygen ion fiber release layers 30.

[0082] S300, acquire two protective layers 20 and two surface layers 40.

[0083] S400, one of the protective layers 20 is connected to one side of the negative oxygen ion fiber storage layer 10, then one of the negative oxygen ion fiber release layers 30 is connected to cover the protective layer 20, and then one of the surface layers 40 is connected to cover the negative oxygen ion fiber release layer 30.

[0084] S500, another protective layer 20 is connected to cover the other side of the negative oxygen ion fiber storage layer 10, another negative oxygen ion fiber release layer 30 is connected to cover the protective layer 20, and then another surface layer 40 is connected to cover the negative oxygen ion fiber release layer 30 to obtain the negative oxygen ion fabric 100.

[0085] As described above, the method for manufacturing negative ion fabric provided in this application involves first obtaining a first negative ion fiber thread 11 and a second negative ion fiber thread 12. The first negative ion fiber thread 11 is then woven to form a negative ion fiber storage layer 10; the second negative ion fiber thread 12 is then woven to form two negative ion fiber release layers 30. Next, two protective layers 20 and two surface layers 40 are obtained. One of the protective layers 20 is then attached to cover one side of the negative ion fiber storage layer 10, and one of the negative ion fiber release layers 30 is attached to cover the protective layer 20. Then, one of the surface layers 40 is attached to cover the negative ion fiber release layer 30. The other protective layer 20 is attached to cover the other side of the negative ion fiber storage layer 10, and the other negative ion fiber release layer 30 is attached to cover the protective layer 20. Finally, the other surface layer 40 is attached to cover the negative ion fiber release layer 30, resulting in a negative ion fabric 100. In this way, negative ions are released simultaneously through both sides of the negative ion fabric 100. After the negative ion fabric 100 has been used for a period of time, the effect of the negative ion fiber releasing layer 30 in releasing negative ions decreases. At this time, the negative ion fiber storage layer 10 is connected to the surface layer 40, so that the negative ions in the negative ion fiber layer can come into contact with the outside through the surface layer 40 and continue to generate negative ions. In this way, the duration of negative ion release by the negative ion fabric 100 is increased, and the service life is extended.

[0086] Optionally, in some embodiments, please refer to Figure 7 In step S100, obtaining the first negative oxygen ion fiber 11 and the second negative oxygen ion fiber 12 includes:

[0087] S110, acquire the first fiber baseline and the second fiber baseline.

[0088] S120, the negative oxygen ion material is adsorbed by the first fiber baseline and the second fiber baseline through the negative oxygen ion adsorption device 60 to obtain the first negative oxygen ion fiber line 11 and the second negative oxygen ion fiber line 12.

[0089] It can be understood that the negative oxygen ion adsorption device 60 is a device for storing negative oxygen ion materials and for transporting negative oxygen ion materials to the first fiber baseline and the second fiber baseline.

[0090] With this configuration, negative oxygen ions are transported to the interior and surface of the first and second fiber baselines by the negative oxygen ion adsorption device 60, which enables the negative oxygen ion material to be adsorbed onto the first and second fiber baselines as much as possible. Thus, the negative oxygen ion fiber storage layer 10 made of the first fiber baseline and the negative oxygen ion fiber release layer 30 made of the second fiber baseline can increase the content of negative oxygen ions, thereby enhancing the effect and cycle of negative oxygen ion release of the negative oxygen ion fabric 100.

[0091] In some embodiments, please refer to Figure 7 In step S120, the negative oxygen ion adsorption device 60 adsorbs the negative oxygen ion material onto the first fiber baseline and the second fiber baseline to obtain the first negative oxygen ion fiber line 11 and the second negative oxygen ion fiber line 12, including:

[0092] S121, the first fiber baseline and the second fiber baseline are pressurized by the high-pressure device 61.

[0093] S122, the first fiber baseline and the second fiber baseline are transported into the adsorption chamber 6001 and pass through the negative oxygen ion solvent pool 62, so that the first fiber baseline and the second fiber baseline adsorb the negative oxygen ion material.

[0094] S123, the first and second fiber baselines after adsorbing the negative oxygen ion material are dried by the drying device 63 to obtain the first negative oxygen ion fiber line 11 and the second negative oxygen ion fiber line 12.

[0095] It can be understood that the negative oxygen ion device includes a high-voltage device 61, a negative oxygen ion solvent pool 62, a drying device 63, and an adsorption chamber 6001, wherein:

[0096] The adsorption chamber 6001 can be an internal cavity of the shell or protective device. The high-pressure device 61 is located at the front end and outside the adsorption chamber 6001. It is used to apply pressure to the first and second fiber baselines to change their internal structure and properties, thereby improving the adsorption of negative oxygen ions. For example, it can be a high-pressure gas jet or a high-pressure mechanical extruder. When the high-pressure device 61 is a high-pressure gas jet, gas can be injected into the first and second fiber baselines to increase the porosity and surface area of ​​the fibers, thus improving the adsorption of negative oxygen ions. When the high-pressure device 61 is a high-pressure mechanical extruder, the first and second fiber baselines can be placed on the high-pressure device 61, and the shape and structure of the fiber baselines can be changed through mechanical extrusion, etc., but not limited to these methods.

[0097] The negative oxygen ion solvent pool 62 is located at the rear end of the high-voltage device 61 and inside the adsorption chamber 6001. The negative oxygen ion solvent pool 62 contains negative oxygen ion materials.

[0098] The drying device 63 is located at the rear end of the negative ion solvent pool 62 and inside the adsorption chamber 6001. It is used to dry the first fiber baseline and the second fiber baseline output from the output end of the negative ion solvent pool 62. The drying device 63 is a device that provides heat energy, such as a hot air dryer, a microwave dryer, or a heating tube.

[0099] In this configuration, the first and second fiber baselines are pressurized by a high-pressure device 61 to alter their internal structure and properties. Then, the first and second fiber baselines are immersed in a negative ion solvent pool 62 containing negative ion solvent, allowing the negative ion material to adhere to their interiors and surfaces. This maximizes the adsorption of negative ion material onto the first and second fiber baselines. Finally, the first and second fiber baselines are dried by a drying device 63, ensuring stable adhesion of the negative ion material to the fiber baselines, resulting in the first negative ion fiber thread 11 and the second negative ion fiber thread 12. The negative ion fiber storage layer 10 made from the first fiber baseline and the negative ion fiber release layer 30 made from the second fiber baseline increase the negative ion content, enhancing the effect and duration of negative ion release in the negative ion fabric 100.

[0100] Optionally, please refer to Figure 7 In step S123, the first and second fiber baselines, after adsorbing the negative oxygen ion material, are dried by the drying device 63 to obtain the first negative oxygen ion fiber line 11 and the second negative oxygen ion fiber line 12, including:

[0101] S1231, the first fiber baseline and the second fiber baseline are passed through the removal device 64 to remove excess negative oxygen ion material from the surface.

[0102] S1232, the first and second fiber baselines after rejection are dried by the drying device 63 to obtain the first negative oxygen ion fiber line 11 and the second negative oxygen ion fiber line 12.

[0103] It is understood that the negative oxygen ion device also includes a rejection device 64, the input end of which is connected to the output end of the negative oxygen ion solvent pool 62, and the output end of the rejection device 64 is connected to the input end of the drying device 63.

[0104] With this setup, after the first and second fiber baselines pass through the negative ion solvent pool 62, both their surfaces and interiors are adsorbed with negative ion materials. However, due to different adsorption effects in different areas, some areas will adsorb too much, while others will not be saturated. The removal device 64 can remove the excess negative ion materials from the areas on the first and second fiber baselines that have adsorbed too much, and simultaneously replenish the areas that have not been saturated. Finally, the negative ion materials on the first and second fiber baselines are squeezed and stabilized to obtain a first negative ion fiber line 11 and a second negative ion fiber line 12 with uniformly distributed negative ion materials. This ensures that the final first negative ion fiber line 11 and the second negative ion fiber line 12 have a uniform negative ion release effect, and that the thickness of each part of the first negative ion fiber line 11 and the second negative ion fiber line 12 is the same, thus improving the quality and appearance of the first and second negative ion fiber lines 11 and 12.

[0105] Optionally, please refer to Figure 7 In step S1231, the first fiber baseline and the second fiber baseline are passed through the removal device 64 to remove excess negative oxygen ion material from their surfaces, including:

[0106] S12311, the first fiber baseline and the second fiber baseline are inserted into the rejection cavity 6401 through one end of the rejection member 641 and are attached to the rejection cavity 6401;

[0107] S12312, the first fiber baseline and the second fiber baseline are pulled from the other end of the rejection member 641 so that the excess negative oxygen ion material on the surface of the first fiber baseline and the second fiber baseline is blocked outside the rejection member 641 by one end of the rejection member 641 and is separated from the first fiber baseline and the second fiber baseline.

[0108] It is understood that the rejection device 64 includes a rejection element 641, the input end of which is connected to the output end of the negative oxygen ion solvent pool 62, and the output end of which is connected to the input end of the drying device 63; the rejection element 641 has a rejection cavity 6401.

[0109] With this setup, after the first and second fiber baselines pass through the negative ion solvent pool 62, both their surfaces and interiors are adsorbed with negative ion materials. However, due to the different adsorption effects in different parts, some areas will be over-adsorbed while others will not be saturated. By using the end face of one end of the rejection member 641, the excess negative ion materials on the areas of the first and second fiber baselines that have been over-adsorbed can be blocked out. The negative ion materials on the surfaces and interiors of the first and second fiber baselines that enter the rejection cavity 6401 will be squeezed and stabilized by the inner wall of the rejection cavity 6401. Meanwhile, after the end face of the rejecting component 641 blocks the excess negative oxygen ion material, the excess negative oxygen ion material will replenish the area that has not been adsorbed to saturation, so as to obtain the first negative oxygen ion fiber line 11 and the second negative oxygen ion fiber line 12 with uniformly distributed negative oxygen ion material. This ensures that the first negative oxygen ion fiber line 11 and the second negative oxygen ion fiber line 12 have a uniform negative oxygen ion release effect, and the thickness of each part of the first negative oxygen ion fiber line 11 is the same, and the thickness of each part of the second negative oxygen ion fiber line 12 is the same, thereby improving the quality and appearance of the first negative oxygen ion fiber line and the second negative oxygen ion fiber line 12.

[0110] Optionally, in step S120, after the negative oxygen ion material is adsorbed by the first fiber baseline and the second fiber baseline through the negative oxygen ion adsorption device 60 to obtain the first negative oxygen ion fiber line 11 and the second negative oxygen ion fiber line 12, the method further includes:

[0111] S130, the negative oxygen ion material is adsorbed by the third fiber baseline and the fourth fiber baseline through the negative oxygen ion adsorption device 60 to obtain the third negative oxygen ion fiber line 13 and the fourth negative oxygen ion fiber line 14.

[0112] S140, Obtain the polyester elastic tube 52 and the sealing film; Cut the third negative oxygen ion fiber 13 to a preset length, and place the cut third negative oxygen ion fiber 13 into the polyester elastic tube 52, and seal both ends with the sealing film to obtain the conductive tube.

[0113] S150, obtain liquid coating material, and apply the coating material evenly to the surface of the fourth negative oxygen ion fiber line 14, and finally dry it to obtain the twine.

[0114] Optionally, in step S400, one of the protective layers 20 is connected to one side of the negative ion fiber storage layer 10, then one of the negative ion fiber releasing layers 30 is connected to cover the protective layer 20, and then one of the surface layers 40 is connected to cover the negative ion fiber releasing layer 30, including:

[0115] S410A, the first ends of multiple conductive tubes are inserted into the negative oxygen ion fiber storage layer 10. One of the protective layers 20 is connected to and covers one side of the negative oxygen ion fiber storage layer 10 after being passed through and penetrated by the second end of the conductive tube. Then, one of the negative oxygen ion fiber release layers 30 is connected to and covers the protective layer 20 after being passed through and penetrated by the second end of the conductive tube. Finally, one of the surface layers 40 is connected to and covers the negative oxygen ion fiber release layer 30 after being passed through and penetrated by the second end of the conductive tube.

[0116] This design, by inserting the conductive tube while covering it, makes it easier to install the conductive tube inside, reducing the difficulty of making the negative ion fabric 100.

[0117] Optionally, in step S410A, the first ends of a plurality of conductive tubes are inserted into the negative ion fiber storage layer 10; one of the protective layers 20 is passed through and connected to cover one side of the negative ion fiber storage layer 10 after being penetrated by the second end of the conductive tube; then one of the negative ion fiber release layers 30 is passed through and connected to cover the protective layer 20 after being penetrated by the second end of the conductive tube; finally, one of the surface layers 40 is passed through and connected to cover the negative ion fiber release layer 30 after being inserted into the surface layer 40 by the second end of the conductive tube. This includes:

[0118] S410A1, firstly, each of the conductive tubes is injected into the corresponding special tubes. Then, the first end of the special tube is inserted into the negative oxygen ion fiber storage layer 10. One of the protective layers 20 is passed through the second end of the special tube and then through the second end of the conductive tube to connect and cover one side of the negative oxygen ion fiber storage layer 10. Then, one of the negative oxygen ion fiber release layers 30 is passed through the second end of the special tube and then through the second end of the conductive tube to connect and cover the protective layer 20.

[0119] S410A2, by first connecting each special tube with the removal device, and then while keeping the conductive tube fixed, pulling each special tube out from the side of the negative oxygen ion fiber release layer 30 away from the negative oxygen ion fiber storage layer 10.

[0120] S410A3, one of the surface layers 40 is connected to the negative oxygen ion fiber releasing layer 30 after the second end of the conductive tube is inserted into the surface layer 40.

[0121] It is understandable that the second end of the conduit is conical (the sealing membrane could be conical), making it easier to insert into the interior of the surface layer 40. The special tube is a tubular object with high hardness and relatively sharp ends, such as steel or alloy materials. The cross-section of the internal cavity of the special tube is smaller than the cross-section of the polyester elastic tube 52 in its natural state, meaning that after the conduit is injected into the special tube, the polyester elastic tube 52 has already undergone compression deformation. The removal device can fix the conduit in place by air pressure or mechanical compression.

[0122] This setup allows each conductive tube to be injected into a corresponding special tube, making it easier to install the conductive tubes internally and reducing the difficulty of manufacturing the negative ion fabric 100. After one of the negative ion fiber releasing layers 30 is passed through the second end of the special tube and through the second end of the conductive tube, and then connected to the protective layer 20, the special tubes are first connected using a removal device. While keeping the conductive tubes fixed, each special tube is pulled out from the side of the negative ion fiber releasing layer 30 away from the negative ion fiber storage layer 10. This ensures that the conductive tubes remain within each layer while the special tubes are removed. Furthermore, since the cross-section of the internal cavity of the special tube is smaller than the cross-section of the polyester elastic tube 52 in its natural state, the polyester elastic tube 52 deforms after the special tube is removed, filling the gaps left between the special tube and the layers. This makes it difficult for negative ions in the negative ion fiber storage layer 10 to be released to the outside. Finally, one of the surface layers 40 is connected to the negative oxygen ion fiber releasing layer 30 after the second end of the conductive tube is inserted into the surface layer 40. Since the second end of the conductive tube is conical, it is easier to insert the conductive tube into the interior of the surface layer 40. When the sealing film is a conical film, it can be at least partially placed into the surface layer 40. During the use of the negative oxygen ion fabric, the conical film is easily deformed when the surface layer 40 is subjected to external force. This facilitates the long-term damage of the sealing film to the negative oxygen ion fabric after a period of use. Just as the negative oxygen ion fabric is used for a period of time, the negative oxygen ion fiber storage layer 10 is connected to the negative oxygen ion fiber releasing layer 30 through the conductive tube to replenish negative oxygen ions.

[0123] Optionally, in step S500, another protective layer 20 is attached to cover the other side of the negative ion fiber storage layer 10, another negative ion fiber releasing layer 30 is attached to cover the protective layer 20, and then another surface layer 40 is attached to cover the negative ion fiber releasing layer 30, to obtain the negative ion fabric 100, comprising:

[0124] S510A, the first ends of multiple conductive tubes are inserted into the negative ion fiber storage layer 10 from the other side. Another protective layer 20 is connected to and covers one side of the negative ion fiber storage layer 10 after being passed through and penetrated by the second end of the conductive tube. Then, another negative ion fiber release layer 30 is connected to and covers the protective layer 20 after being passed through and penetrated by the second end of the conductive tube. Finally, another surface layer 40 is connected to and covers the negative ion fiber release layer 30 after being passed through and penetrated by the second end of the conductive tube.

[0125] Optionally, in another embodiment, step S400 involves connecting one of the protective layers 20 to one side of the negative ion fiber storage layer 10, then connecting one of the negative ion fiber releasing layers 30 to cover the protective layer 20, and then connecting one of the surface layers 40 to cover the negative ion fiber releasing layer 30, comprising:

[0126] S410B, one of the protective layers 20 is connected to one side of the negative ion fiber storage layer 10, and then one of the negative ion fiber releasing layers 30 is connected to cover the protective layer 20. Then, one of the surface layers 40 is connected to cover the negative ion fiber releasing layer 30, so that the thread passes through the inside of the surface layer 40, and is sequentially threaded through the negative ion fiber releasing layer 30 and the protective layer 20, then passes through the inside of the negative ion fiber releasing layer 30, and then sequentially threaded through the protective layer 20 and the negative ion fiber releasing layer 30 on the same side, and then passes through the inside of the surface layer 40, and is repeatedly threaded along the length and width directions of the negative ion fabric 100.

[0127] This configuration allows the connecting wires to not only release negative oxygen ions after a period of time, but also further connect the negative oxygen ion fiber storage layer 10, the protective layer 20, the negative oxygen ion fiber release layer 30, and the surface layer 40. Furthermore, because the connecting wires are continuously threaded through each layer, when the negative oxygen ion fiber storage layer 10 is connected to the outside, it can release negative oxygen ions to a greater extent through the connecting wires.

[0128] Optionally, in step S500, another protective layer 20 is attached to cover the other side of the negative ion fiber storage layer 10, another negative ion fiber releasing layer 30 is attached to cover the protective layer 20, and then another surface layer 40 is attached to cover the negative ion fiber releasing layer 30, to obtain the negative ion fabric 100, comprising:

[0129] S510B, another protective layer 20 is connected to cover the other side of the negative ion fiber storage layer 10, and another negative ion fiber releasing layer 30 is connected to cover the protective layer 20. Then another surface layer 40 is connected to cover the negative ion fiber releasing layer 30, so that the thread passes through the inside of the surface layer 40, and is sequentially threaded through the negative ion fiber releasing layer 30 and the protective layer 20, then passes through the inside of the negative ion fiber releasing layer 30, and then sequentially threaded through the protective layer 20 and the negative ion fiber releasing layer 30 on the same side, and then passes through the inside of the surface layer 40, and is repeatedly threaded along the length and width directions of the negative ion fabric 100 to obtain the negative ion fabric 100.

[0130] The above description is merely a preferred embodiment of this application and is not intended to limit this application. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of this application should be included within the protection scope of this application.

Claims

1. A negative oxygen ion fabric, characterized in that, include: The negative oxygen ion fiber storage layer includes a first negative oxygen ion fiber line, wherein the first negative oxygen ion fiber line includes a first fiber baseline and a negative oxygen ion material disposed on the first fiber baseline. Two protective layers are located on opposite sides of the negative ion fiber storage layer. The protective layers are used to restrict the release of negative ions from the negative ion fiber storage layer. The protective layers are made of a material with good waterproof performance and durability, and the material is one of polyurethane and polyvinyl chloride. Two negative ion fiber releasing layers are disposed on the side of the two protective layers away from the negative ion fiber storage layer, corresponding to each other; the negative ion fiber releasing layer includes a second negative ion fiber line, the second negative ion fiber line includes a second fiber baseline and the negative ion material disposed on the second fiber baseline; as well as Two surface layers are disposed on the side of the two negative oxygen ion fiber releasing layers away from the negative oxygen ion fiber storage layer, respectively. The surface layers are used to protect and fix the negative oxygen ion fiber releasing layers and allow the negative oxygen ion fiber releasing layers to release negative oxygen ions outward. The negative ion fabric further includes multiple conductive elements, each of which is disposed on both sides of the negative ion fiber storage layer. The conductive elements on the same side are located between the surface layer and the negative ion fiber storage layer on the same side, and are used to conduct negative ions between the negative ion fiber storage layer and the surface layer or the negative ion fiber release layer when the insulating part of the conductive element loses its negative ion insulating effect.

2. The negative ion fabric as described in claim 1, characterized in that, The conductive element is a conductive tube, and the conductive tube further includes: A polyester elastic tube is located between the surface layer and the negative ion fiber storage layer, and is inserted through the protective layer; one end of the polyester elastic tube is located in the surface layer or the negative ion fiber release layer, and the other end of the polyester elastic tube is located in the negative ion fiber storage layer; and A third negative oxygen ion fiber thread is disposed within the polyester elastic tube; the third negative oxygen ion fiber thread includes a third fiber baseline and the negative oxygen ion material disposed on the third fiber baseline. The insulating part includes two sealing films, which are located at both ends of the polyester elastic tube and are used to isolate the inside of the polyester elastic tube from the outside by negative oxygen ions.

3. The negative ion fabric as described in claim 1, characterized in that, The conductive element is a serial line, and the serial line further includes a fourth negative oxygen ion fiber line. The fourth negative oxygen ion fiber line is located between the surface layer and the negative oxygen ion fiber storage layer, and is repeatedly inserted between the negative oxygen ion fiber storage layer and the negative oxygen ion fiber release layer. The fourth negative oxygen ion fiber line includes a fourth fiber baseline and the negative oxygen ion material disposed on the fourth fiber baseline. The insulating part is a coating, which is disposed on the surface of the fourth negative oxygen ion fiber line to isolate the fourth negative oxygen ion fiber line from the outside.

4. A method for manufacturing negative oxygen ion fabric, characterized in that, For manufacturing the negative ion fabric as described in any one of claims 1 to 3, comprising: Obtain the first negative oxygen ion fiber thread and the second negative oxygen ion fiber thread; The first negative oxygen ion fiber yarn is woven to obtain the negative oxygen ion fiber storage layer, and the second negative oxygen ion fiber yarn is woven to obtain two negative oxygen ion fiber release layers. Obtain the two protective layers and the two surface layers; One of the protective layers is connected to cover one side of the negative oxygen ion fiber storage layer, then one of the negative oxygen ion fiber release layers is connected to cover the protective layer, and then one of the surface layers is connected to cover the negative oxygen ion fiber release layer. Another protective layer is connected to cover the other side of the negative ion fiber storage layer, another negative ion fiber release layer is connected to cover the protective layer, and then another surface layer is connected to cover the negative ion fiber release layer to obtain a negative ion fabric.

5. The method for manufacturing negative ion fabric as described in claim 4, characterized in that, The process of obtaining the first negative ion fiber thread and the second negative ion fiber thread includes: Obtain the first fiber baseline and the second fiber baseline; The negative oxygen ion material is adsorbed by the first fiber baseline and the second fiber baseline using a negative oxygen ion adsorption device to obtain the first negative oxygen ion fiber line and the second negative oxygen ion fiber line.

6. The method for manufacturing negative ion fabric as described in claim 5, characterized in that, The step of adsorbing negative oxygen ions onto the negative oxygen ion material using the first fiber baseline and the second fiber baseline via a negative oxygen ion adsorption device to obtain the first negative oxygen ion fiber thread and the second negative oxygen ion fiber thread includes: The first fiber baseline and the second fiber baseline are pressurized by a high-pressure device; The first fiber baseline and the second fiber baseline are transported into the adsorption chamber and passed through the negative oxygen ion solvent pool, so that the first fiber baseline and the second fiber baseline adsorb the negative oxygen ion material. The first and second fiber baselines, after being adsorbed with the negative oxygen ion material, are dried by a drying device to obtain the first negative oxygen ion fiber line and the second negative oxygen ion fiber line.

7. The method for manufacturing negative ion fabric as described in claim 6, characterized in that, The process of drying the first and second fiber baselines, after adsorbing the negative oxygen ion material, using a drying device to obtain the first and second negative oxygen ion fiber threads includes: The first fiber baseline and the second fiber baseline are passed through a removal device to remove excess negative oxygen ion material from their surfaces; The first and second fiber baselines, after being removed, are dried by a drying device to obtain the first negative ion fiber thread and the second negative ion fiber thread.

8. The method for manufacturing negative ion fabric as described in claim 7, characterized in that, The step of removing excess negative oxygen ion material from the surface of the first fiber baseline and the second fiber baseline using a removal device includes: The first fiber baseline and the second fiber baseline are inserted into the rejection cavity through one end of the rejection member and are fitted into the rejection cavity; The first fiber baseline and the second fiber baseline are pulled from the other end of the rejection member so that the excess negative oxygen ion material on the surface of the first fiber baseline and the second fiber baseline is blocked outside the rejection member by one end of the rejection member and detached from the first fiber baseline and the second fiber baseline.

9. The method for manufacturing negative ion fabric as described in claim 8, characterized in that, The step of connecting one of the protective layers to cover one side of the negative ion fiber storage layer, then connecting one of the negative ion fiber releasing layers to cover the protective layer, and then connecting one of the surface layers to cover the negative ion fiber releasing layer includes: The first ends of multiple conductive tubes are inserted into the negative ion fiber storage layer. One of the protective layers is passed through the second end of the conductive tube and connected to cover one side of the negative ion fiber storage layer. Then, one of the negative ion fiber release layers is passed through the second end of the conductive tube and connected to cover the protective layer. Finally, one of the surface layers is passed through the second end of the conductive tube and connected to cover the negative ion fiber release layer after the second end of the conductive tube is inserted into the surface layer.

Images