Constant-temperature antibacterial socks

Abstract

The utility model discloses a constant-temperature antibacterial sock which comprises a sock body, elastic ribs are arranged at the top of the sock body, a woven base layer is arranged on the sock body, and composite warp yarns and composite weft yarns are uniformly arranged on the woven base layer. According to the sock structure, the composite weft yarns and the like are installed, so that when the sock structure is used, the woven base layer is arranged on the sock body, and the composite warp yarns and the composite weft yarns are uniformly arranged on the woven base layer; the composite warp yarns and the composite weft yarns comprise composite fiber yarns, rebound extension fiber yarns, antibacterial fiber yarns and constant-temperature material spraying protective layers, and the constant-temperature material spraying protective layers formed by coating microcapsule particles with phase-change materials are utilized, so that a microcapsule-coated PCM type constant-temperature technology is formed; the temperature can be conveniently adjusted by absorbing and releasing heat, the temperature of the human body can be conveniently maintained in a comfortable range, the thermal comfort is improved, the breathing performance of the fiber is not affected, and the washing durability is high.

Description

Technical Field

[0001] This utility model relates to the field of sock technology, specifically to a constant temperature antibacterial sock. Background Technology

[0002] Socks are one of the most common items in people's daily lives. They mainly serve to protect the user's feet, keep warm, and provide cushioning. However, common socks still have some shortcomings in actual use.

[0003] Socks typically rely solely on insulating materials like wool for warmth. They lack the ability to absorb and release heat through microencapsulated PCM technology to regulate and maintain a constant temperature. This results in poor warmth and insufficient comfort. Furthermore, ordinary socks are made from a single material, making it difficult to integrate Lycra elastic fibers, copper fiber yarns, and embedded microparticles to achieve high resilience, antibacterial properties, and sweat-wicking capabilities. Consequently, ordinary socks are functionally deficient and fail to fully meet user needs. Utility Model Content

[0004] The purpose of this invention is to provide a constant temperature antibacterial sock to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, this utility model provides the following technical solution: a constant temperature antibacterial sock, comprising a sock body, the top of which is provided with elastic ribs, a woven base layer on which composite warp yarns and composite weft yarns are uniformly arranged, both of which include composite fiber filaments, resilient and stretchable fiber filaments, antibacterial fiber filaments, and a constant temperature material spray protective layer, wherein phase change material encapsulated microcapsule particles are uniformly arranged on the constant temperature material spray protective layer, and the composite fiber filaments include anti-pilling long fibers, antibacterial Xinjiang long-staple cotton filaments, embedded microparticles, and inner core holes.

[0006] Preferably, the sock body is prepared by seamless stitching, and the sock body is Y-shaped with eyelets, which makes the sock body more conform to the shape of the heel and foot, and more durable and hole-free.

[0007] Preferably, the composite fiber filaments, resilient extended fiber filaments, and antibacterial fiber filaments are interwoven and wound in a spiral shape, and the constant temperature material spray protective layer is respectively wrapped around the outside of the composite fiber filaments, resilient extended fiber filaments, and antibacterial fiber filaments, thereby improving the functionality and strength of the composite warp and composite weft yarns.

[0008] Preferably, the material of the elastic extended fiber filament is Lycra elastic fiber, and the material of the antibacterial fiber filament is copper fiber yarn.

[0009] Preferably, the embedded microparticles have a mirror-like cross-sectional shape when in normal operation, and a tooth-like cross-sectional shape when the external temperature and humidity conditions change, so that the embedded microparticles can utilize their deformation characteristics according to temperature and humidity, and achieve the function of absorbing sweat, wicking away sweat and drying quickly through the longitudinal grooves during deformation.

[0010] Preferably, the inner core hole is located in the middle of the antibacterial Xinjiang long-staple cotton filament, the embedded microparticles are fixed inside the inner core hole, and the anti-pilling long fibers are evenly distributed on the outer side wall of the antibacterial Xinjiang long-staple cotton filament, so that the anti-pilling effect of the composite fiber filament is improved by the anti-pilling long fibers distributed on the outside of the antibacterial Xinjiang long-staple cotton filament.

[0011] Compared with the prior art, the beneficial effects of this utility model are:

[0012] (1) On the one hand, by setting a woven base layer on the sock body, and uniformly setting composite warp and composite weft yarns on the woven base layer, and by spraying a protective layer of composite fiber filaments, elastic stretch fiber filaments, antibacterial fiber filaments and constant temperature material on both the composite warp and composite weft yarns, and by using a constant temperature material spraying protective layer composed of microcapsule particles encapsulated by phase change material, a microcapsule-encapsulated PCM constant temperature technology is formed, which is convenient to regulate the temperature by absorbing and releasing heat, which is convenient to maintain the human body temperature in the comfortable range, increases thermal comfort, does not affect the fiber breathability, and has high washing durability. On the other hand, by using elastic stretch fiber filaments made of Lycra elastic fiber and antibacterial fiber filaments made of copper fiber yarn, the sock structure has good elasticity and stretch performance, higher elasticity than ordinary socks, and is comfortable to wear without constricting the feet. The copper ions on the antibacterial fiber filaments can pierce the bacterial cell wall and achieve better sterilization and deodorization functions.

[0013] (2) On the one hand, by setting the inner core hole in the middle position inside the antibacterial Xinjiang long-staple cotton filament on the composite fiber filament, and fixing the embedded microparticles inside the inner core hole, based on the fact that the fiber cross-section shape of the embedded microparticles is mirror-shaped when the external temperature and humidity conditions of the embedded microparticles change, the fiber cross-section shape is tooth-shaped, thereby utilizing the characteristic of the embedded microparticles to adjust deformation according to temperature and humidity, and through the longitudinal concave and convex grooves during deformation, the function of sweat absorption, sweat wicking and quick drying is achieved. On the other hand, by uniformly setting the anti-pilling long fibers on the outer wall of the antibacterial Xinjiang long-staple cotton filament, the anti-pilling effect of the composite fiber filament is improved by utilizing the anti-pilling long fibers arranged on the outside of the antibacterial Xinjiang long-staple cotton filament.

[0014] (3) By setting up sock body and elastic rib, the sock structure can be made to fit the human body better and not slip off when actually used. Furthermore, by making the sock body through seamless stitching and making the sock body Y-shaped, the sock body is more in line with the shape of the heel and foot, wear-resistant and hole-free, and improves comfort. Attached Figure Description

[0015] Figure 1 This is a front view structural diagram of the present invention;

[0016] Figure 2 This is a partially enlarged three-dimensional structural diagram of the bottom of the sock body of this utility model;

[0017] Figure 3 This is a schematic diagram of the cross-sectional structure of the internal components of the sock body of this utility model;

[0018] Figure 4 This is a schematic diagram of the cross-sectional structure of the composite fiber filament of this utility model.

[0019] In the image: 1. Sock body; 2. Elastic rib; 3. Thermostatic material spray protective layer; 4. Phase change material encapsulated microcapsule particles; 5. Knitted base layer; 6. Composite warp yarn; 7. Composite weft yarn; 8. Composite fiber filament; 9. Resilient and stretchable fiber filament; 10. Antibacterial fiber filament; 11. Anti-pilling long pile; 12. Antibacterial Xinjiang long-staple cotton filament; 13. Embedded microparticles; 14. Inner core hole. Detailed Implementation

[0020] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present utility model without creative effort are within the scope of protection of the present utility model.

[0021] Please see Figure 1-4 One embodiment of this utility model is a constant temperature antibacterial sock, including a sock body 1, an elastic rib 2 on the top of the sock body 1, a woven base layer 5 on the sock body 1, and composite warp yarns 6 and composite weft yarns 7 evenly arranged on the woven base layer 5.

[0022] The sock body 1 is made by seamless stitching. The sock body 1 is Y-shaped with eyelets, which makes the sock body 1 more in line with the shape of the heel and foot, and wear-resistant and hole-free.

[0023] When in use, the elastic ribs 2 set at the top of the sock body 1 can make the sock structure fit the human body more closely and prevent it from slipping off. Furthermore, by making the sock body 1 through seamless stitching and making the sock body 1 Y-shaped, the sock body 1 can better fit the shape of the heel and foot, be wear-resistant and not tear, and improve comfort.

[0024] Both the composite warp yarn 6 and the composite weft yarn 7 include composite fiber filaments 8, elastic and stretchable fiber filaments 9, antibacterial fiber filaments 10, and a constant temperature material spraying protective layer 3. The constant temperature material spraying protective layer 3 is uniformly provided with phase change material encapsulated microcapsule particles 4.

[0025] Composite fiber filament 8, resilient extended fiber filament 9 and antibacterial fiber filament 10 are interwoven and spirally wound together. A constant temperature material spray protective layer 3 is respectively wrapped around the outside of composite fiber filament 8, resilient extended fiber filament 9 and antibacterial fiber filament 10, which enhances the functionality and strength of composite warp yarn 6 and composite weft yarn 7.

[0026] The material of the elastic stretch fiber filament 9 is Lycra elastic fiber, and the material of the antibacterial fiber filament 10 is copper fiber yarn;

[0027] In use, on the one hand, a woven base layer 5 is set on the sock body 1, and composite warp yarns 6 and composite weft yarns 7 are evenly arranged on the woven base layer 5. Furthermore, since both the composite warp yarns 6 and composite weft yarns 7 include composite fiber filaments 8, elastic stretch fiber filaments 9, antibacterial fiber filaments 10, and a constant temperature material spraying protective layer 3, a microcapsule-encapsulated PCM constant temperature technology is formed by using a constant temperature material spraying protective layer 3 composed of microcapsule particles 4 encapsulated by phase change material. This facilitates temperature regulation by absorbing and releasing heat, making it easier to maintain the human body temperature within a comfortable range, increasing thermal comfort, not affecting fiber breathability, and possessing high wash durability. On the other hand, the elastic stretch fiber filaments 9 made of Lycra elastic fiber and the antibacterial fiber filaments 10 made of copper fiber yarn respectively make the sock structure have good elasticity and stretch performance, higher elasticity than ordinary socks, comfortable to wear and not constricting the feet, and the copper ions on the antibacterial fiber filaments 10 can pierce the bacterial cell wall to achieve better sterilization and deodorization functions.

[0028] The composite fiber filament 8 includes anti-pilling long fibers 11, antibacterial Xinjiang long-staple cotton fibers 12, embedded microparticles 13, and inner core pores 14;

[0029] When the embedded microparticles 13 are in normal condition, the fiber cross-section is mirror-shaped. When the external temperature and humidity conditions of the embedded microparticles 13 change, the fiber cross-section becomes tooth-shaped. This allows the embedded microparticles 13 to utilize their deformation characteristics according to temperature and humidity, and to achieve the function of absorbing sweat, wicking away sweat and drying quickly through the longitudinal grooves during deformation.

[0030] The inner core hole 14 is located in the middle of the antibacterial Xinjiang long-staple cotton filament 12. Embedded microparticles 13 are fixed inside the inner core hole 14. Anti-pilling long fibers 11 are evenly distributed on the outer wall of the antibacterial Xinjiang long-staple cotton filament 12, so that the anti-pilling effect of the composite fiber filament 8 is improved by the anti-pilling long fibers 11 distributed on the outside of the antibacterial Xinjiang long-staple cotton filament 12.

[0031] In this embodiment, the elastic ribbed knit 2 at the top of the sock body 1 makes the sock structure fit the human body better and prevents it from slipping off. Furthermore, by fabricating the sock body 1 with seamless stitching and making it Y-shaped, the sock body 1 better conforms to the shape of the heel and foot, is wear-resistant and does not tear, and improves comfort. Simultaneously, by providing a woven base layer 5 on the sock body 1, and uniformly distributing composite warp yarns 6 and composite weft yarns 7 on the woven base layer 5, and by including composite fiber filaments 8, resilient extended fiber filaments 9, antibacterial fiber filaments 10, and a temperature-regulating material spraying protective layer 3 in both the composite warp yarns 6 and composite weft yarns 7, and utilizing a temperature-regulating material spraying protective layer 3 composed of phase change material-encapsulated microcapsule particles 4, a microcapsule-encapsulated PCM temperature-regulating technology is formed. This facilitates temperature regulation by absorbing and releasing heat, maintaining the human body temperature within a comfortable range, increasing thermal comfort, not affecting fiber breathability, and possessing high wash durability. On the other hand, the resilient extended fiber filaments 9, made of Lycra elastic fiber... The antibacterial fiber 10, made of copper fiber yarn, makes the sock structure have good elasticity and stretch, higher elasticity than ordinary socks, and comfortable to wear without constricting the feet. The copper ions on the antibacterial fiber 10 can pierce the bacterial cell wall to achieve better sterilization and deodorization. In addition, by setting the inner core hole 14 in the middle position inside the antibacterial Xinjiang long-staple cotton filament 12 on the composite fiber filament 8, and fixing the embedded microparticles 13 inside the inner core hole 14, the embedded microparticles 13 are normally mirror-shaped and become tooth-shaped when the external temperature and humidity conditions change. The embedded microparticles 13 can be used to adjust the deformation according to temperature and humidity, and the longitudinal grooves during deformation can achieve the function of sweat absorption, perspiration and quick drying. On the other hand, by uniformly setting the anti-pilling long fibers 11 on the outer wall of the antibacterial Xinjiang long-staple cotton filament 12, the anti-pilling effect of the composite fiber filament 8 is improved.

Claims

1. A temperature-controlled antibacterial sock, characterized in that, The sock body (1) is provided with elastic rib (2) at the top. A woven base layer (5) is provided on the sock body (1). Composite warp yarns (6) and composite weft yarns (7) are uniformly provided on the woven base layer (5). Both the composite warp yarns (6) and composite weft yarns (7) include composite fiber filaments (8), elastic stretch fiber filaments (9), antibacterial fiber filaments (10), and a constant temperature material spray protective layer (3). Phase change material encapsulated microcapsule particles (4) are uniformly provided on the constant temperature material spray protective layer (3). The composite fiber filaments (8) include anti-pilling long fibers (11), antibacterial Xinjiang long-staple cotton filaments (12), embedded microparticles (13), and inner core holes (14).

2. The constant temperature antibacterial sock according to claim 1, characterized in that: The sock body (1) is prepared by seamless stitching and has a Y-shaped eyelet.

3. The constant temperature antibacterial sock according to claim 1, characterized in that: The composite fiber filament (8), the resilient extended fiber filament (9), and the antibacterial fiber filament (10) are intertwined and spirally wound together, and the constant temperature material spray protective layer (3) is respectively wrapped around the outside of the composite fiber filament (8), the resilient extended fiber filament (9), and the antibacterial fiber filament (10).

4. The constant temperature antibacterial sock according to claim 1, characterized in that: The material of the elastic extended fiber filament (9) is Lycra elastic fiber, and the material of the antibacterial fiber filament (10) is copper fiber yarn.

5. The constant temperature antibacterial sock according to claim 1, characterized in that: The embedded microparticles (13) have a mirror-like cross-section when they are in normal condition, and a tooth-like cross-section when the external temperature and humidity conditions of the embedded microparticles (13) change.

6. The constant temperature antibacterial sock according to claim 1, characterized in that: The inner core hole (14) is located in the middle of the antibacterial Xinjiang long-staple cotton filament (12), the embedded microparticles (13) are fixed inside the inner core hole (14), and the anti-pilling long fibers (11) are evenly distributed on the outer side wall of the antibacterial Xinjiang long-staple cotton filament (12).

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