Female shoes

Abstract

The utility model relates to the field of shoes, and discloses a women's shoe which comprises a vamp, a sole and an insole, the insole comprises an insole body and a first damping unit arranged at the bottom of the insole body, and the shape of the insole body is consistent with that of the sole; the first damping units are made of elastic materials, the first damping units are arranged at the bottom of the insole body, the damping performance of the insole is greatly enhanced, and therefore the comfort level of women's shoes is effectively improved. Wherein the first damping unit comprises a plurality of damping elements, and the multiple damping elements work cooperatively, so that the damping effect of the first damping unit is enhanced, and the bearing capacity is improved; the damping elements are arranged in an array mode, the adjacent damping elements are connected, and the structural stability of the first damping units is improved; in practical application, the array layout and parameters of the damping elements are reasonably set, the damping effect of the first damping units can be adjusted according to different use requirements and use positions, and the adaptability of the insole is improved while the comfort degree is improved.

Description

Technical Field

[0001] This utility model relates to the field of footwear technology, and in particular to a women's shoe. Background Technology

[0002] As living standards improve, women's demands for shoes are no longer limited to aesthetics; they are increasingly focusing on comfort and functionality. Consumers expect suitable shoes to provide a comfortable wearing experience in various scenarios, such as daily walking, work, sports, and social situations, while also meeting their needs for foot health support, breathability, and shock absorption.

[0003] Furthermore, people are increasingly aware that unsuitable shoes can damage the feet, leading to various foot conditions such as flat feet, hallux valgus, and plantar fasciitis. Therefore, this heightened awareness of foot health has made consumers more willing to choose women's shoes with good functionality, providing sufficient arch support, a stable heel structure, and adequate toe box space to protect foot health.

[0004] In recent years, athleisure style has occupied an important position in the fashion industry. Women have a strong demand for athleisure shoes that combine style and comfort. This trend has prompted footwear companies to continuously develop structures with comfortable functionality, integrating sports technology into women's shoe designs, so that women's shoes not only provide excellent performance during exercise but also showcase a sense of style for everyday wear.

[0005] The emergence of new materials has opened up more possibilities for the comfortable and functional design of women's shoes. For example, polymer materials with good elasticity, shock absorption, and breathability can be used in soles and insoles to provide better cushioning and support; soft, breathable upper materials with certain antibacterial properties can keep feet dry and comfortable. At the same time, the application of ergonomics has also improved the comfort of women's shoes to some extent. Through in-depth research on the structure and biomechanics of the human foot, designers can optimize the internal space and sole curves of the shoe according to the characteristics of women's feet, such as arch height, heel width, and toe shape, so that the shoe fits the foot better, reduces pressure points, and improves comfort.

[0006] In the face of fierce market competition, footwear companies are constantly increasing their investment in the research and development of comfortable and functional women's shoes in order to stand out. They are striving to launch products with innovative technologies and unique functions to attract consumers and improve brand competitiveness and market share.

[0007] Despite the continuous development of comfortable and functional women's shoes driven by factors such as upgrading consumer demand, increased health awareness, and technological advancements, existing women's shoes still face numerous challenges in terms of comfort. High-performance comfort materials are expensive, limiting their widespread adoption in low- and mid-range products, resulting in many women's shoes not using high-quality materials to ensure comfort. Some new materials lack durability and stability, leading to a rapid decline in comfort over time. While ergonomics is applied, the significant differences in women's foot shapes make it difficult to achieve completely personalized fits, leaving pressure points unresolved. In terms of manufacturing processes, advanced equipment requires substantial investment, making it difficult for many small and medium-sized enterprises to adopt, thus compromising product precision and comfort. Furthermore, intense industry competition leads some companies to prioritize profits over research and development and quality, resulting in many women's shoes failing to meet advertised comfort levels, ultimately leaving the overall comfort level of existing women's shoes at a relatively low level. Utility Model Content

[0008] The purpose of this utility model is to provide a women's shoe to solve the problems existing in the above-mentioned related technologies, improve the comfort of women's shoes, and minimize the damage to the wearer's feet caused by poor shoe comfort.

[0009] To achieve the above objectives, this utility model provides the following solution:

[0010] This utility model provides a women's shoe, comprising:

[0011] vamp;

[0012] The sole is located at the bottom of the upper and the two are connected, and the sole and the upper form a shoe cavity that can accommodate the human foot;

[0013] An insole, located inside the shoe cavity and detachably connected to the sole; the insole includes a pad body and a first shock-absorbing unit disposed at the bottom of the pad body, the pad body conforming to the shape of the sole; the first shock-absorbing unit is made of an elastic material, the first shock-absorbing unit including a plurality of shock-absorbing elements, the shock-absorbing elements being arranged in an array and adjacent shock-absorbing elements being connected.

[0014] Preferably, the damping elements are arranged in a rectangular array.

[0015] Preferably, the damping element has one or more of the following shapes:

[0016] Sphere, ellipsoid, spherical cap, table, spherical segment, cylinder, irregular shape.

[0017] Preferably, the insole further includes a second shock-absorbing unit, which is made of an elastic material and is located between the insole body and the first shock-absorbing unit, with the first shock-absorbing unit and the second shock-absorbing unit corresponding one-to-one.

[0018] Preferably, the sole includes an outsole and a midsole disposed on top of the outsole, the bottom of the outsole has a heel, the pad body is detachably connected to the midsole, the midsole has a mounting groove adapted to the first shock-absorbing unit, the first shock-absorbing unit is detachably connected to the midsole via the mounting groove, and the first shock-absorbing unit in an undeformed state protrudes from the mounting groove.

[0019] Preferably, the forefoot area and heel area of ​​the midsole are each provided with the mounting groove, and the first shock-absorbing unit corresponds to the mounting groove one by one.

[0020] Preferably, the pad body is bonded to the midsole;

[0021] or,

[0022] The pad body is detachably connected to the midsole using buckles, Velcro, or straps.

[0023] Preferably, the women's shoes further include an anti-slip element, which is disposed on the inner side of the upper near the heel end of the sole, and the anti-slip element is made of an elastic material.

[0024] Preferably, the anti-heel slippage element is bonded to the inner side of the shoe upper;

[0025] The anti-heel-drop element includes a surface layer and a filling layer, wherein the filling layer fills the space enclosed by the surface layer, and the filling layer is made of foam material.

[0026] Preferably, the inner side of the forefoot area of ​​the upper near the sole is provided with a toe-protecting cotton structure layer, which is made of an elastic material.

[0027] This utility model achieves the following technical effects compared to related technologies: The women's shoes of this utility model include an upper, a sole, and an insole, wherein the sole is located at the bottom of the upper and the two are connected, and the sole and the upper form a shoe cavity that can accommodate the human foot; the insole is located inside the shoe cavity and is detachably connected to the sole; the insole includes a pad body and a first shock-absorbing unit disposed at the bottom of the pad body, the shape of the pad body is consistent with that of the sole; the first shock-absorbing unit is made of elastic material, and the first shock-absorbing unit includes multiple shock-absorbing elements, which are arranged in an array and adjacent shock-absorbing elements are connected.

[0028] This invention relates to women's shoes, which feature a removable insole within the shoe cavity. A first shock-absorbing unit, made of elastic material, is located at the bottom of the insole body, significantly enhancing its shock-absorbing performance and thus effectively improving the comfort of the women's shoes. The first shock-absorbing unit comprises multiple shock-absorbing elements that work collaboratively to enhance its shock-absorbing effect and improve load-bearing capacity. These elements are arranged in an array, with adjacent elements connected, improving the structural stability of the first shock-absorbing unit. In practical applications, by rationally setting the array layout and parameters of the shock-absorbing elements, the shock-absorbing effect of the first shock-absorbing unit can be adjusted according to different usage needs and locations. This helps meet the shock-absorbing requirements of different parts of the insole, improving comfort and adaptability, and enabling women's shoes to meet the personalized needs of different wearers. Attached Figure Description

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

[0030] Figure 1 A schematic diagram of the disassembly structure of women's shoes disclosed in the embodiment of the utility model;

[0031] Figure 2 This is a schematic diagram of the structure of the first shock-absorbing unit of a women's shoe disclosed in an embodiment of the utility model.

[0032] In the diagram: 1. Upper; 2. Pad body; 3. First shock absorption unit; 301. Shock absorption element; 4. Second shock absorption unit; 5. Outsole; 6. Midsole; 601. Mounting groove; 7. Heel; 8. Anti-heel slippage element; 9. Toe protection cotton structural layer. Detailed Implementation

[0033] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0034] The purpose of this utility model is to provide a women's shoe to solve the problems existing in the above-mentioned related technologies, improve the comfort of women's shoes, and minimize the damage to the wearer's feet caused by poor shoe comfort.

[0035] To make the above-mentioned objectives, features and advantages of this utility model more apparent and understandable, the utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments.

[0036] Example 1

[0037] This embodiment provides a women's shoe; please refer to it. Figures 1-2 The shoe includes an upper 1, a sole, and an insole. The sole is located at the bottom of the upper 1 and the two are connected. The sole and the upper 1 form a shoe cavity that can accommodate the human foot. The insole is located inside the shoe cavity and is detachably connected to the sole. The insole includes a pad body 2 and a first shock-absorbing unit 3 disposed at the bottom of the pad body 2. The shape of the pad body 2 is consistent with that of the sole. The first shock-absorbing unit 3 is made of elastic material and includes a plurality of shock-absorbing elements 301. The shock-absorbing elements 301 are arranged in an array and adjacent shock-absorbing elements 301 are connected.

[0038] This invention relates to women's shoes, which feature a removable insole within the shoe cavity. A first shock-absorbing unit 3, made of elastic material, is located at the bottom of the insole body 2, significantly enhancing its shock-absorbing performance and thus effectively improving the comfort of the women's shoes. The first shock-absorbing unit 3 comprises multiple shock-absorbing elements 301, which work collaboratively to enhance its shock-absorbing effect and improve its load-bearing capacity. The shock-absorbing elements 301 are arranged in an array, with adjacent elements connected, improving the structural stability of the first shock-absorbing unit 3. In practical applications, by rationally setting the array layout and parameters of the shock-absorbing elements 301, the shock-absorbing effect of the first shock-absorbing unit 3 can be adjusted according to different usage needs and locations. This helps meet the shock-absorbing requirements of different parts of the insole, improving comfort and adaptability, and enabling women's shoes to meet the personalized needs of different wearers.

[0039] In this specific embodiment, the shock-absorbing elements 301 are arranged in a rectangular array. In practical applications, the shock-absorbing elements 301 can be arranged in one or more layers in a rectangular array. When multiple layers are arranged, the shock-absorbing elements 301 are arranged in a three-dimensional rectangular array. The rectangular array arrangement of the shock-absorbing elements 301 ensures the shock absorption effect of the first shock-absorbing unit 3 while improving the structural stability of the first shock-absorbing unit 3, thus enhancing the comfort of the insole while maintaining the overall structural strength of the insole.

[0040] In practical applications, the damping element 301 can be one or more of the following shapes: sphere, ellipsoid, spherical cap, spherical frustum, spherical segment, cylinder, or irregular shape. In this specific embodiment, the damping element 301 adopts a spherical structure, and multiple damping elements 301 are combined to form a single-layer or multi-layer structure, forming the first damping unit 3 of the elastomer, thereby achieving the damping effect. The shape of the damping element 301 is not limited to a sphere; it can be constructed using one or more of the above shapes to resemble a crystalline lens structure with four compartments or two compartments. In this specific embodiment, the first damping unit 3 can be made of an elastomer such as TPU.

[0041] Meanwhile, the insole also includes a second shock-absorbing unit 4, which is made of elastic material and is located between the insole body 2 and the first shock-absorbing unit 3. The first shock-absorbing unit 3 and the second shock-absorbing unit 4 correspond one-to-one. This invention adds a second shock-absorbing unit 4 between the first shock-absorbing unit 3 and the insole body 2, further improving the comfort of the insole and women's shoes, and preventing the unevenness caused by the irregular structure of the shock-absorbing element 301 in the first shock-absorbing unit 3 from affecting the wearing experience.

[0042] Specifically, the sole includes an outsole 5 and a midsole 6 located on top of the outsole 5. The bottom of the outsole 5 has a heel 7. The insole body 2 is detachably connected to the midsole 6, facilitating the removal and replacement of the insole. The midsole 6 has a mounting groove 601 adapted to the first shock-absorbing unit 3. The first shock-absorbing unit 3 is detachably connected to the midsole 6 via the mounting groove 601, and the first shock-absorbing unit 3 protrudes from the mounting groove 601 in an undeformed state. The detachable connection between the insole and the midsole 6 via the mounting groove 601 enhances the positioning effect of the insole and prevents misalignment of the insole from affecting the wearing experience.

[0043] In other specific embodiments achievable with this utility model, mounting grooves 601 are provided in both the forefoot and heel areas of the midsole 6, with the first shock-absorbing unit 3 corresponding to each mounting groove 601. This enhances the shock-absorbing support effect of the women's shoe on the forefoot and heel areas, further improving the comfort of the shoe. In practical applications, the position of the first shock-absorbing unit 3 can be adjusted according to different wearing needs to meet various requirements.

[0044] In practical applications, the pad body 2 and the midsole 6 can be connected by adhesive bonding. In this specific embodiment, the pad body 2 and the midsole 6 are connected at the middle. In practical applications, the connection position can be adjusted according to different shoe shapes or needs to meet different insole installation requirements.

[0045] In other specific embodiments achievable with this invention, the insole body 2 can also be detachably connected to the midsole 6 using buckles, Velcro, or laces. Using buckles, Velcro, snap fasteners, or laces to connect to the midsole 6 facilitates the removal and replacement of the insole, providing convenience for subsequent cleaning of women's shoes. Furthermore, multiple sizes of insoles can be provided to meet different wearing needs of women's shoes, enhancing their adaptability.

[0046] It should also be emphasized that the women's shoes of this utility model also include an anti-slip element 8, which is disposed on the inner side of the upper 1 near the heel end of the sole. The anti-slip element 8 is made of elastic material. The anti-slip element 8 can adopt a "thick in the middle and thin at both ends" structure, with the thicker part in the middle positioned directly opposite the center line of the sole's length direction, allowing it to contact the wearer's heel, increasing the friction between the upper 1 and the foot, thus preventing the heel from sliding down. It also provides shock absorption, further enhancing the comfort of the women's shoes.

[0047] In this specific embodiment, the anti-heel slippage element 8 is bonded to the inner side of the shoe upper 1, making installation and replacement convenient. It should be noted that special water-soluble or low-tack adhesives can be used for bonding, which are firm when attached and leave little residue when removed; the appropriate selection of adhesive type is a common practice among those skilled in the art and will not be elaborated here.

[0048] In other specific embodiments achievable with this invention, the anti-heel-drop element 8 includes a surface layer and a filling layer. The filling layer fills the space enclosed by the surface layer and is made of a foamed material. The anti-heel-drop element 8 employs a structure of a surface layer and a filling layer, which, while ensuring the overall structural integrity of the anti-heel-drop element 8, enhances its structural strength and improves its durability. The filling layer can be made of a foamed material, including EVA foam, PU foam, supercritical foam, etc. The thickness of the foamed material is generally between 3mm and 5mm, and the width is between 3mm and 50mm.

[0049] Furthermore, in the women's shoes of this utility model, the inner side of the forefoot area near the sole of the shoe upper 1 is provided with a toe protection cotton structure layer 9. The toe protection cotton structure layer 9 is made of elastic material, which can also play a role in shock absorption and improving comfort, and protect the wearer's toes.

[0050] The women's shoes of this utility model have a toe protection cotton structure layer 9 on the inner side of the toe of the upper 1 and an anti-heel slippage element 8 on the inner side of the heel of the upper 1, which play a role in shock absorption and anti-heel slippage. At the same time, combined with the first shock absorption unit 3 and the second shock absorption unit 4 of the insole, the overall support and shock absorption effect on the wearer are enhanced, and the comfort of the women's shoes is improved.

[0051] Example 2

[0052] This embodiment provides a women's shoe. The first shock-absorbing unit 3 includes multiple shock-absorbing elements 301. The shock-absorbing elements 301 have a hollow structure, which enhances the elastic deformation ability of the shock-absorbing elements 301, further enhances the shock-absorbing effect of the first shock-absorbing unit 3, and improves the comfort of the women's shoe.

[0053] The other structures of the women's shoes in this embodiment are the same as those in Embodiment 1, and will not be described again here.

[0054] This utility model uses specific examples to illustrate its principles and implementation methods. The above description of the embodiments is only for the purpose of helping to understand the method and core idea of ​​this utility model. At the same time, for those skilled in the art, there will be changes in the specific implementation methods and application scope based on the idea of ​​this utility model. In summary, the content of this specification should not be construed as a limitation of this utility model.

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