Ventilating and sweat-absorbing household shoes

Abstract

The application relates to the field of household articles, in particular to a ventilative and sweat-repellent household shoe. The vamp of the shoe is arranged around the shoe sole, and the insole is arranged on the shoe sole; the vamp and the insole are both flannelette warm layers; the insole is provided with a first quilting line, a second quilting line, a third quilting line, a fourth quilting line, a fifth quilting line and a sixth quilting line; the first quilting line forms an arch area with the insole and forms a first sweat guide area with the second quilting line; the third quilting line forms a heel area with the insole and forms a second sweat guide area with the fourth quilting line; the second quilting line and the fourth quilting line form an outer side area; the fifth quilting line forms an anti-skid area with the insole and forms a third sweat guide area with the sixth quilting line. The vamp and the insole are both flannelette warm layers, the functional areas are divided by the quilting lines on the insole, the feet are effectively supported, and the sweat is quickly discharged, so that the warm-keeping property, the comfort and the dry degree of the internal environment of the household shoe are improved.

Description

Technical Field

[0001] This application relates to the field of home furnishings, and in particular to a breathable and sweat-wicking home shoe. Background Technology

[0002] Lounge shoes, also known as indoor shoes, are footwear designed specifically for indoor environments, prioritizing comfort and warmth. The structure of lounge shoes typically consists of an upper that wraps around the foot, a sole that supports the foot, and an insole for added comfort. There are many types of lounge shoes available; for summer, lightweight and breathable cotton lounge shoes are a good choice, while for winter, warmer wool or suede lounge shoes are preferable.

[0003] However, with the improvement of living standards and the enhancement of health awareness, consumers' demand for lounge shoes is no longer limited to warmth and comfort, but also pays more attention to functionality and health.

[0004] Especially in cold environments, home shoes are often made of warm materials to keep the feet warm, covering them completely and fitting snugly to improve warmth. However, when there is a lot of activity indoors or the indoor temperature is high, the feet tend to sweat, and the sweat is difficult to evaporate in a short time, causing the feet to feel stuffy and reducing the comfort of wearing home shoes. Summary of the Invention

[0005] To ensure that the slippers have both excellent warmth retention and effective moisture absorption and breathability, this application provides a breathable and moisture-wicking slipper.

[0006] To achieve the above objectives, this application provides a breathable and sweat-wicking slipper, including an upper, a sole, and an insole. The upper surrounds the sole to form an inner cavity, and the insole is disposed within the inner cavity of the sole. Both the upper and the insole are made of fleece insulation. The insole has a first quilted seam, a second quilted seam, a third quilted seam, and a fourth quilted seam. The first quilted seam and the insole near the inner edge of the shoe form an arch area. The second quilted seam is spaced apart from the first quilted seam near the outer edge of the shoe and forms a first sweat-wicking area between them. The third quilted seam and the... The insole forms a heel area away from the toe edge. A fourth quilted seam is spaced near one end of the third quilted seam, forming a second sweat-wicking area between them. An outer area is formed between the second and fourth quilted seams. The vertical height H of the upper surface of the arch area from the lower surface of the sole is denoted as H. The vertical height h of the upper surface of the first sweat-wicking area from the lower surface of the sole is denoted as h, where h:H ranges from 6 to 8. The vertical height G of the upper surface of the heel area from the lower surface of the sole is denoted as G, where g:G ranges from 6 to 8. By adopting the above technical solution, both the upper and insole use a fleece insulating layer design, effectively improving moisture-wicking capacity while ensuring wearing comfort and warmth. Specifically, the quilting structure on the insole cleverly divides multiple functional zones: the arch area formed by the first quilting seam and the insole near the inner edge, and the first sweat-wicking zone formed between the second and first quilting seams. Because the height ratio of the first sweat-wicking zone is designed as h:H=6-8, this height difference allows sweat to quickly diffuse and escape from the arch area under the influence of gravity, thus preventing moisture buildup in the arch area and causing dampness or odor. Simultaneously, the heel area formed by the third quilting seam and the insole away from the toe edge, and the second sweat-wicking zone formed between the fourth and third quilting seams, also utilize a similar height ratio g:G=6-8 to guide heat and sweat from the foot along specific paths to a dry environment. Furthermore, the outer area defined by the second and fourth quilting seams further enhances overall ventilation, allowing for smoother airflow throughout the shoe and achieving better breathability and sweat wicking. In summary, this design not only improves the user experience but also extends the lifespan of the shoes. Preferably, the width of the insole is *a*, and the distance between the first quilting line and the second quilting line is *c*, where *a*:*c* is 13-16:1. By adopting the above technical solution, the distance between the first and second quilting lines of the insole is precisely designed, ensuring that the width ratio of this area is coordinated with the overall width of the insole. Specifically, when the insole width is *a*, the distance *c* between the first and second quilting lines is set to satisfy a ratio of *a*:*c* of 13-16:1.This design not only ensures sufficient support for the arch area but also provides ample space for the first sweat-wicking zone. Because the spacing c is relatively small compared to the total insole width a, it effectively improves sweat wicking efficiency while maintaining a compact structure, thus enhancing wearing comfort. Preferably, the insole length is b, and the spacing between the third and fourth quilting seams is d, with a b:d ratio of 40-50:1. By adopting the above technical solution, the insole length and the spacing between the third and fourth quilting seams are designed in a 40-50:1 ratio, allowing the insole to effectively optimize the spatial distribution of the sweat-wicking area while maintaining overall structural stability. Specifically, the longer insole length ensures sufficient support area for the entire foot, while the smaller spacing ensures that the second sweat-wicking zone can achieve efficient sweat wicking within a limited area. This proportional relationship, after careful consideration, avoids the problem of poor sweat wicking due to excessive spacing and prevents the situation where excessive spacing affects the rationality of the insole's internal spatial layout, thus achieving a balance between wearing comfort and functionality. Preferably, the distance between the projection point closest to the toe on the shoe opening and the position furthest from the heel on the insole is f, where f:b is 1 / 3-1 / 2. By adopting the above technical solution, setting the distance between the projection point closest to the toe on the shoe opening and the position furthest from the heel on the insole in a specific proportional relationship can effectively optimize wearing comfort. Specifically, by controlling the ratio of this distance f to the insole length b within the range of 1 / 3 to 1 / 2, the shoe opening area will not compress the instep due to too short a distance, nor will it cause a decrease in the overall support performance of the shoe due to too long a distance. This design not only improves the fit of the shoe, but also ensures reasonable foot movement space during long-term wear, thereby reducing discomfort caused by concentrated local pressure. At the same time, the reasonable spacing distribution also helps to maintain the stability of the internal shoe structure, further enhancing the user's wearing experience. Preferably, the fleece insulation layer of the upper and the insole is a coral fleece layer. By adopting the above technical solution and designing the fleece insulation layer of the upper and the insole as a coral fleece layer, the overall comfort and warmth performance of the slippers can be significantly improved. Specifically, coral fleece material is soft and skin-friendly, effectively reducing friction and irritation to the skin inside the shoe, thus improving wearing comfort. Simultaneously, coral fleece itself possesses excellent thermal insulation properties, preventing rapid heat loss in winter or other cold environments for better warmth. Furthermore, the coral fleece layer also has a certain moisture-wicking function, helping to maintain a dry environment inside the shoe, further enhancing the user experience. Preferably, the thickness of the coral fleece layer is 1cm-2cm. By adopting the above technical solution and setting the thickness of the coral fleece layer to 1cm-2cm, a balance between warmth and comfort can be effectively achieved.On the one hand, the coral fleece layer within this thickness range provides sufficient fluffiness and softness, reducing foot pressure and enhancing overall comfort during walking or prolonged standing. On the other hand, this thickness range ensures good insulation, preventing heat loss, without compromising the utilization of internal space and hindering movement due to excessive thickness. Therefore, this design optimizes the user experience while maintaining breathability and sweat-wicking properties. Preferably, the TPE layer thickness is 14mm-18mm. By adopting the above technical solution, adding a TPE layer between the coral fleece layer in the arch area and the sole, and limiting the TPE layer thickness to within the range of 14mm to 18mm, the overall support and comfort of the shoe can be effectively improved. Specifically, TPE material has good elasticity and cushioning properties. A TPE layer within this thickness range can provide moderate support to the arch area when the user walks or stands, while avoiding the bulkiness caused by excessive thickness or the insufficient support caused by insufficient thickness. Furthermore, this design can evenly distribute foot pressure, reducing fatigue from prolonged wear and significantly improving the user experience. Preferably, the thickness of the foamed EVA layer is 5mm-10mm. By adopting the above technical solution, the foamed EVA layer is positioned between the coral fleece layer in the heel area and the sole. Due to the good elasticity and cushioning properties of the foamed EVA material, it can effectively absorb the impact force on the heel area during walking. When the thickness of the foamed EVA layer is controlled within the range of 5mm-10mm, sufficient shock absorption is ensured without compromising the overall structural stability and comfort due to excessive thickness. Simultaneously, the foamed EVA layer within this thickness range can optimize the spatial layout of the insole, ensuring coordinated operation with other functional areas such as the arch area and sweat-wicking area, thereby comprehensively improving the wearing experience and maintaining comfort for extended use. Preferably, the first sweat-wicking area is semi-circular, and the second sweat-wicking area is elongated. By adopting the above technical solution, designing the first sweat-wicking area as a semi-circular shape can effectively guide sweat out along the middle area of ​​the foot. Furthermore, due to its semi-circular structure, it can better conform to the curve around the arch of the foot, improving sweat-wicking efficiency without adding extra pressure. The second sweat-wicking zone is designed in a long strip shape, primarily targeting the straight sweat flow path from the heel to the ball of the foot, helping to concentrate and quickly guide sweat to the outside. Combining these two different design features maximizes sweat management in different areas of the foot, significantly improving the overall dryness and comfort of the shoe's interior. Preferably, the insole has a fifth quilted seam and a sixth quilted seam. The fifth quilted seam follows the shape of the toes, forming an anti-slip zone near the toes. The sixth quilted seam is spaced apart from the fifth quilted seam near the anti-slip zone, forming a third sweat-wicking zone between them.By adopting the above technical solution, adding a fifth and sixth quilting seam to the insole further optimizes its functional zoning. Specifically, the fifth quilting seam follows the shape of the toes, enhancing the structural stability of the front area of ​​the insole and creating an anti-slip zone around the wearer's toes. This design effectively increases the friction between the toes and the insole, preventing discomfort or wear caused by foot movement during wear. Simultaneously, the sixth quilting seam is spaced at the end of the fifth quilting seam near the anti-slip zone, forming a third sweat-wicking zone. Since this third sweat-wicking zone is located near the toes, an area where sweat is typically concentrated, it efficiently guides sweat to diffuse in other directions, preventing localized moisture buildup and improving overall breathability and dryness. Therefore, this design improves both the insole's anti-slip performance and the overall breathability and sweat-wicking effect of the shoe.

[0007] Preferably, the shoe opening is provided with an elastic band to adjust the tightness of the shoe opening.

[0008] By adopting the above technical solution, an elastic band is set at the shoe opening, which can effectively fix the ankle, reduce foot slippage during activities, improve stability when wearing, simplify the process of putting on and taking off shoes, eliminate the need for tedious shoelace tying or adjusting buckles, and can adaptively adjust according to the wearer's foot shape to ensure that the shoes fit the foot closely in different activity states, avoiding discomfort caused by being too tight or too loose.

[0009] In summary, this application includes at least one of the following beneficial technical effects: 1. The quilted design on the insole forms an arch area, a heel area, and a sweat-wicking area, which can effectively guide the dispersion and flow of sweat and accelerate evaporation, significantly improving the breathability and sweat-wicking performance of the slippers; 2. The design of the fleece insulation layer combined with the elastic support layer and the shock-absorbing layer ensures excellent warmth while improving wearing comfort and support, meeting multifunctional needs. Attached Figure Description

[0010] Figure 1 A structural diagram of a breathable and sweat-wicking loungewear shoe; Figure 2 This is a schematic diagram of the insole structure of a breathable and sweat-wicking loungewear shoe; Figure 3 yes Figure 2 A structural schematic diagram of the AA cross section.

[0011] Explanation of reference numerals in the attached diagram: 1. Upper; 2. Sole; 3. Insole; 4. Arch area; 5. Heel area; 6. Outer side area; 7. First quilting seam; 8. Second quilting seam; 9. Third quilting seam; 10. Fourth quilting seam; 11. First wicking zone; 12. Second wicking zone; 13. TPE layer; 14. EVA foam layer; 15. Fifth quilting seam; 16. Sixth quilting seam; 17. Anti-slip zone; 18. Third wicking zone; 19. Elastic band. Detailed Implementation

[0012] The following is in conjunction with the appendix Figure 1-3 This application will be described in further detail.

[0013] This application discloses a breathable and sweat-wicking pair of lounge shoes, referring to... Figure 1 and Figure 2The shoe consists of an upper 1, a sole 2, and an insole 3. The upper 1 wraps around the edge of the sole 2, creating a closed internal space, while the insole 3 is placed inside this space, closely attached to the sole 2. This slipper incorporates functions such as sweat wicking, slip resistance, arch support, and heel cushioning to enhance breathability and functionality. Specifically, the upper 1 is formed by stitching together a toe cap and two upper connecting pieces. This modular assembly method facilitates manufacturing and enhances overall structural strength. Furthermore, the use of multiple connecting pieces allows the slipper to fit the foot more snugly, improving comfort. An elastic band 19 with elastic support is provided at the shoe opening between the toe cap and each upper connecting piece. The band can be made of materials with good tensile recovery properties, such as rubber or nylon weave. This facilitates on and off while ensuring appropriate pressure support for the instep without being too tight or uncomfortable. In this embodiment, both the upper 1 and the insole 3 are made of coral fleece, with a thickness of 1cm-2cm. The coral fleece layer has good water absorption and warmth retention. In other embodiments, other materials may be used, as long as they meet the requirements of high warmth retention and good water absorption and breathability. Specifically, the insole 3 has a first quilted seam 7 forming the arch area 4; the second quilted seam 8 is spaced apart on one side of the first quilted seam 7, together forming the first sweat-wicking area 11; the third quilted seam 9 combines with the edge of the insole 3 to establish the heel area 5; finally, the fourth quilted seam 10 maintains a suitable distance from the third quilted seam 9, and together they establish the second sweat-wicking area 12. The second quilted seam 8 and the fourth quilted seam 10 form the outer area 6; the fifth quilted seam 15 and the sixth quilted seam 16 are spaced apart at the toe area of ​​the insole 3, forming the anti-slip area 17 and the third sweat-wicking area 18 on the insole 3. The six quilted seams precisely plan their respective working areas, not only clearly defining the spatial positioning of each important physiologically active area, but also cleverly building a set of scientific and reasonable sweat-wicking functional areas, allowing foot sweat to quickly diffuse and evaporate in all directions, avoiding accumulation inside the shoe and causing sweaty and stuffy feet. In this embodiment, the first sweat-wicking area 11 has a semi-circular ring structure, which facilitates the formation of the arch area 4 that fits the foot. The second sweat-wicking area 12 is elongated, which facilitates the rapid expulsion of sweat along a straight line. The vertical height H between the upper surface of the arch area 4 and the lower surface of the sole 2 is the same as the vertical height h between the upper surface of the first sweat-wicking area 11 and the lower surface of the sole 2, where h:H ranges from 6 to 8. The vertical height G between the upper surface of the heel area 5 and the lower surface of the sole 2 is the same as the vertical height g between the upper surface of the second sweat-wicking area 12 and the lower surface of the sole 2, where g:G ranges from 6 to 8. Adjustments are made according to different shoe sizes. Customized slippers can also be made due to individual differences. To further enhance the functional characteristics of specific areas, such as... Figure 3As shown, this embodiment adds specialized support components to the arch area 4 and heel area 5. Specifically, the arch area 4 uses a TPE layer 13 with a thickness ranging from 14mm to 18mm; the heel area 5 uses a foamed EVA layer 14 with a thickness controlled between 5mm and 10mm. The addition of these two components ensures sufficient softness and resilience even after prolonged standing or walking, reducing fatigue. In other embodiments, other elastic and resilient layer structures can also be used.

[0014] Specifically, in the foot entrance of this embodiment, the distance between the projection point closest to the toe on the shoe opening and the position furthest from the heel on the insole 3 is f, and f:b is 1 / 3-1 / 2. This ensures that the shoe opening area will not compress the instep due to too short a distance, nor will it cause a decrease in the overall support performance of the shoe due to too long a distance.

[0015] In summary, this shoe achieves functions such as sweat wicking, arch support, and heel cushioning through modular upper assembly, the selection of specific materials, and a scientifically designed quilting layout. Upper 1 is formed by stitching together a toe cap and two upper connecting pieces, enhancing structural strength and improving comfort. An elastic band at the foot entrance facilitates on and off and provides appropriate pressure support. The insole 3 uses highly warm, absorbent, and breathable coral fleece, precisely divided into four quilted zones: arch zone 4, heel zone 5, lateral zone 6, first sweat-wicking zone 11, second sweat-wicking zone 12, anti-slip zone 17, and third sweat-wicking zone 18. The spacing, length, and height of these zones are carefully designed to ensure rapid sweat diffusion and evaporation, preventing accumulation. Furthermore, the arch zone 4 features a TPE layer 13, while the heel zone 5 uses a foamed EVA layer 14. Both layers are adjusted in thickness according to shoe size and individual differences, further enhancing comfort and rebound during prolonged standing or walking. Through these designs, these slippers not only offer excellent breathability and sweat-wicking properties, but also combine functionality and comfort.

[0016] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A breathable and sweat-wicking slipper, comprising an upper (1), a sole (2), and an insole (3), wherein the upper (1) surrounds the sole (2) to form an inner cavity, and the insole (3) is disposed within the inner cavity of the sole (2), characterized in that, Both the upper (1) and the insole (3) are made of fleece for warmth. The insole (3) is provided with a first quilting thread (7), a second quilting thread (8), a third quilting thread (9) and a fourth quilting thread (10). The first quilting line (7) and the insole (3) form the arch area (4) near the inner edge of the shoe. The second quilting thread (8) is spaced apart from the outer edge of the shoe on one side of the first quilting thread (7), and forms a first sweat-wicking area (11) between the second quilting thread (7) and the first quilting thread (7). The third quilting line (9) and the insole (3) form the heel area (5) away from the edge of the toe. The fourth quilting thread (10) is spaced near the toe and positioned at one end of the third quilting thread (9), forming a second sweat-wicking zone (12) between the fourth quilting thread (9) and the third quilting thread (9). An outer region (6) is formed between the second quilting thread (8) and the fourth quilting thread (10). The vertical distance from the upper surface of the arch area (4) to the lower surface of the sole (2) is H, and the vertical distance from the upper surface of the first sweat-wicking area (11) to the lower surface of the sole (2) is h, where h:H ranges from 6 to 8. The vertical height of the upper surface of the heel area (5) from the lower surface of the sole (2) is G, and the vertical height of the upper surface of the second sweat-wicking area (12) from the lower surface of the sole (2) is g, where g:G ranges from 6 to 8.

2. The breathable and sweat-wicking home shoes according to claim 1, characterized in that, The width of the insole (3) is a, and the distance between the first quilting line (7) and the second quilting line (8) is c, where a:c is 13-16:

1.

3. The breathable and sweat-wicking home shoes according to claim 1, characterized in that, The length of the insole (3) is b, and the distance between the third quilting line (9) and the fourth quilting line (10) is d, where b:d is 40-50:

1.

4. The breathable and sweat-wicking home shoes according to claim 1, characterized in that, The distance between the projection point closest to the toe on the shoe opening and the position furthest from the heel on the insole (3) is f, and f:b is 1 / 3-1 / 2.

5. The breathable and sweat-wicking home shoes according to claim 1, characterized in that, The velvet insulation layer of the upper (1) and the insole (3) is a coral fleece layer with a thickness of 1cm-2cm.

6. The breathable and sweat-wicking home shoes according to claim 1, characterized in that, A TPE layer (13) is provided between the coral fleece layer of the arch area (4) and the sole (2), and the thickness of the TPE layer (13) is 14mm-18mm.

7. A breathable and sweat-wicking loungewear shoe according to claim 1, characterized in that, A foamed EVA layer (14) is provided between the coral fleece layer of the heel area (5) and the sole (2), and the thickness of the foamed EVA layer (14) is 5mm-10mm.

8. The breathable and sweat-wicking home shoes according to claim 1, characterized in that, The first sweat-wicking area (11) is semi-circular in shape, and the second sweat-wicking area (12) is elongated in shape.

9. A breathable and sweat-wicking loungewear shoe according to claim 1, characterized in that, The insole (3) is provided with a fifth quilting thread (15) and a sixth quilting thread (16). The fifth quilting thread (15) is arranged along the shape of the toes. The insole (3) forms an anti-slip area (17) near the toes. The sixth quilting thread (16) is spaced apart from the fifth quilting thread (15) near the anti-slip area (17) and forms a third sweat-wicking area (18) between the fifth quilting thread (15) and the fifth quilting thread (15).

10. A breathable and sweat-wicking loungewear shoe according to claim 1, characterized in that, The shoe opening is provided with an elastic band (19) to adjust the tightness of the shoe opening.

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