Antibacterial and deodorant cowhide leather
Patent Information
- Application Number
- CN202521894028.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-09-03
- Publication Date
- 2026-09-11
- Estimated Expiration
- 2035-09-03
AI Technical Summary
[0002]牛皮革以天然牛皮为原料,经脱毛、浸灰、鞣制、整理等多道工艺加工而成,凭借其卓越的物理性能和天然质感,在众多领域占据重要地位,在鞋类制造中,无论是正装皮鞋的挺括有型,还是休闲鞋履的舒适耐穿,牛皮革都能凭借良好的柔韧性和支撑性,适配不同款式需求;箱包领域里,它的耐磨特性让手提包、背包在日常使用中不易变形,细腻的纹理与多样的涂饰工艺更能凸显产品的高端质感;家居场景中,牛皮革沙发、座椅不仅触感柔软,还能通过压花、印花等工艺呈现丰富的装饰效果,兼具实用性与美观性;汽车内饰方面,其耐老化、抗污性使其成为座椅、方向盘的优选材料,为驾乘者营造舒适的空间,此外,在高端服饰、表带、手套等制品中,牛皮革也因透气性佳、贴合皮肤的特性,成为品质的象征,不过,传统牛皮革在长期使用中,由于天然纤维结构易吸附汗液、皮脂,可能滋生微生物,进而产生异味,尤其在贴身或密闭环境中,这一问题会影响使用体验
[0010]本实用新型的有益效果是:通过设置抗菌荧光混编外层与除臭层,二者协同作用赋予牛皮革优异的抗菌除臭性能:抗菌荧光混编外层可有效抑制细菌滋生,从源头减少异味产生,同时其荧光特性在低光环境下能提升辨识度与安全性;除臭层则针对性吸附、分解已产生的异味分子,双重保障长效洁净。搭配均匀分布的第一透气微孔与第二透气微孔,确保空气流通,让皮革在实现功能强化的同时,依然保持良好透气性,兼顾实用性能与舒适体验。
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Figure CN224739000U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of cow leather and the technical field, and in particular to an antibacterial and deodorizing cow leather. Background Technology
[0002] Cow leather, made from natural cowhide, undergoes multiple processes including hair removal, liming, tanning, and finishing. Thanks to its superior physical properties and natural texture, it holds an important position in many fields. In footwear manufacturing, whether it's the structured look of formal leather shoes or the comfort and durability of casual footwear, cow leather's good flexibility and support adapt to different style requirements. In the bag industry, its abrasion-resistant properties prevent handbags and backpacks from deforming during daily use, while its fine texture and diverse finishing processes further highlight the product's high-end quality. In home furnishings, cow leather sofas and chairs not only offer a pleasant tactile experience... Soft and versatile, cowhide leather can be embossed and printed to create rich decorative effects, combining practicality and aesthetics. In automotive interiors, its resistance to aging and stains makes it a preferred material for seats and steering wheels, creating a comfortable space for drivers and passengers. In addition, cowhide leather is a symbol of quality in high-end clothing, watch straps, gloves, and other products due to its breathability and skin-friendly properties. However, with long-term use, traditional cowhide leather may develop odors due to the natural fiber structure's tendency to absorb sweat and sebum, which can lead to the growth of microorganisms. This problem can affect the user experience, especially in close-fitting or enclosed environments. Utility Model Content
[0003] To overcome the technical defects of the existing technology, this utility model provides an antibacterial and deodorizing cow leather that integrates antibacterial and deodorizing functions while also having good breathability.
[0004] The technical solution adopted by this utility model is as follows: from the outside to the inside, it includes: An antibacterial fluorescent blended outer layer is formed by blending antibacterial filaments and fluorescent filaments. The antibacterial filaments are nano-zeolite antibacterial fibers loaded with silver ions, and the fluorescent filaments are light-resistant strontium aluminate phosphorescent fluorescent fibers. A puncture-resistant mesh layer, wherein the puncture-resistant mesh layer is woven from ultra-high molecular weight polyethylene fibers; The leather layer is cowhide that has undergone tanning and retanning treatment; The deodorizing layer is made of activated carbon and bamboo fiber blend, wherein the activated carbon is nano-porous activated carbon and the bamboo fiber is bamboo fiber that has been treated with antibacterial agents.
[0005] Preferably, in order to make the puncture-resistant mesh layer breathable, the mesh aperture of the puncture-resistant mesh layer is 0.08mm.
[0006] Preferably, in order to allow the antibacterial fluorescent braided outer layer and the deodorizing layer to be breathable, the antibacterial fluorescent braided outer layer is provided with a first breathable micropore, and the deodorizing layer is provided with a second breathable micropore.
[0007] Preferably, in order to ensure that the first and second breathable micropores are evenly distributed, the first and second breathable micropores are evenly distributed on the antibacterial fluorescent blended outer layer and the deodorizing layer, respectively, and the diameters of the first and second breathable micropores are equal.
[0008] Preferably, in order to connect the layers, the deodorizing layer is connected to the leather layer by an adhesive, the puncture-resistant mesh layer is connected to the leather layer by an adhesive, and the antibacterial fluorescent braided outer layer is connected to the puncture-resistant mesh layer by an adhesive.
[0009] Preferably, to facilitate the use of the antibacterial fluorescent braided outer layer and the deodorizing layer, the thickness of the antibacterial fluorescent braided outer layer and the deodorizing layer are equal.
[0010] The beneficial effects of this invention are as follows: By setting an antibacterial fluorescent blended outer layer and a deodorizing layer, the two work synergistically to give cowhide excellent antibacterial and deodorizing properties. The antibacterial fluorescent blended outer layer can effectively inhibit bacterial growth, reducing odor generation at the source. At the same time, its fluorescent properties can improve visibility and safety in low-light environments. The deodorizing layer specifically adsorbs and decomposes odor molecules that have already been generated, providing double protection for long-lasting cleanliness. Combined with evenly distributed first and second breathable micropores, air circulation is ensured, allowing the leather to maintain good breathability while achieving enhanced functionality, thus balancing practicality and comfort. Attached Figure Description
[0011] Figure 1 This is a schematic diagram of the structure of this utility model.
[0012] Figure 2 This is a schematic diagram of the exploded structure of this utility model.
[0013] Figure 3 for Figure 2 A magnified structural diagram of point A in the middle.
[0014] Figure 4 This is a schematic diagram of the connection structure between the antibacterial filaments and the fluorescent filaments in this utility model.
[0015] Explanation of reference numerals in the attached figures: 1. Antibacterial fluorescent braided outer layer; 101. Antibacterial filament; 102. Fluorescent filament; 2. Puncture-resistant mesh layer; 3. Leather layer; 4. Deodorizing layer; 5. First breathable micropore; 6. Second breathable micropore. Detailed Implementation
[0016] The present invention will be further described below with reference to the accompanying drawings: like Figures 1-4 As shown, this embodiment provides an antibacterial and deodorizing cow leather, comprising, from the outside to the inside: an antibacterial fluorescent blended outer layer 1, which is composed of antibacterial filaments 101 and fluorescent filaments 102, wherein the antibacterial filaments 101 are nano-zeolite antibacterial fibers loaded with silver ions, and the fluorescent filaments 102 are light-resistant strontium aluminate phosphorescent fluorescent fibers; a puncture-resistant mesh layer 2, which is woven from ultra-high molecular weight polyethylene fibers; a leather layer 3, which is cow leather that has undergone tanning and retanning treatment; and a deodorizing layer 4, which is composed of activated carbon and bamboo fiber blend, wherein the activated carbon is nano-porous activated carbon, and the bamboo fiber is bamboo fiber that has undergone antibacterial treatment. The antibacterial fluorescent blended outer layer 1 and the deodorizing layer 4 have the same thickness.
[0017] In daily use, when this antibacterial and deodorizing cowhide is used to make shoes, bags, and other products, the outermost antibacterial fluorescent woven outer layer 1 is in direct contact with the outside environment. The silver ions in the antibacterial filaments 101 can continuously inhibit the growth of attached bacteria and prevent microorganisms in stains from penetrating. In the dark or at night, the light-gathering properties of the fluorescent filaments 102 will allow them to emit light naturally, improving the visibility of the products. For example, backpacks can serve as a safety indicator when traveling at night. The middle puncture-resistant mesh layer 2 can enhance the overall structural strength, reduce damage, and protect the inner leather layer 3. The leather layer 3, on the other hand, relies on... The tanning process ensures good toughness, maintaining the product's crisp shape while cushioning external pressure. The inner deodorizing layer 4 adheres closely to the contact surfaces in the usage environment. When sweat or moisture is generated, the nanoporous activated carbon quickly adsorbs odor molecules. The antibacterial bamboo fiber further inhibits bacterial growth between the fibers. Combined with the structural balance brought about by the equal thickness design of the antibacterial fluorescent braided outer layer 1 and the deodorizing layer 4, the first and second breathable micropores 5 and 6 can smoothly circulate air, avoiding stuffiness. Even with long-term use, it can remain clean and odorless, balancing durability and comfort.
[0018] The puncture-resistant mesh layer 2 has a mesh size of 0.08mm, which allows air to pass through smoothly. Together with the first breathable micropores 5 and the second breathable micropores 6 of the antibacterial fluorescent braided outer layer 1 and the deodorizing layer 4, they form a through airflow channel.
[0019] The antibacterial fluorescent braided outer layer 1 has a first breathable micropore 5, and the deodorizing layer 4 has a second breathable micropore 6. The first breathable micropore 5 and the second breathable micropore 6 are evenly distributed on the antibacterial fluorescent braided outer layer 1 and the deodorizing layer 4, respectively, and the diameters of the first breathable micropore 5 and the second breathable micropore 6 are equal.
[0020] The first breathable micropores 5 of the antibacterial fluorescent blended outer layer 1 and the second breathable micropores 6 of the deodorizing layer 4 have the same diameter and are evenly distributed, forming a highly efficient "breathing channel" during use: when leather products come into contact with the skin or are in a confined environment, heat and moisture are quickly expelled through the first breathable micropores 5 of the outer layer, while fresh air from the outside can enter through these micropores and then circulate through the second breathable micropores 6 of the deodorizing layer 4, preventing internal heat buildup. The evenly distributed design makes the breathability more balanced.
[0021] The deodorizing layer 4 is connected to the leather layer 3 by adhesive, the puncture-resistant mesh layer 2 is connected to the leather layer 3 by adhesive, and the antibacterial fluorescent braided outer layer 1 is connected to the puncture-resistant mesh layer 2 by adhesive. The design of connecting each layer with adhesive can firmly lock the overall structure during use.
[0022] The foregoing has shown and described the basic principles and main features of this invention, as well as its advantages. Those skilled in the art should understand that this invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of this invention. Various changes and modifications can be made to this invention without departing from its spirit and scope. All such changes and modifications fall within the scope of this invention as defined by the appended claims and their equivalents.
Claims
1. An antibacterial and deodorizing cowhide leather, characterized by, From the outside to the inside, the following are included: The antibacterial fluorescent braided outer layer (1) is made of antibacterial filaments (101) and fluorescent filaments (102). The antibacterial filaments (101) are nano-zeolite antibacterial fibers loaded with silver ions, and the fluorescent filaments (102) are light-resistant strontium aluminate phosphorescent fluorescent fibers. Puncture-resistant mesh layer (2), wherein the puncture-resistant mesh layer (2) is woven from ultra-high molecular weight polyethylene fiber; Leather layer (3), wherein the leather layer (3) is cow leather that has been tanned and retanned; The deodorizing layer (4) is made of activated carbon and bamboo fiber blend, wherein the activated carbon is nano-porous activated carbon and the bamboo fiber is bamboo fiber treated with antibacterial agents.
2. The antibacterial and deodorizing cowhide leather according to claim 1, characterized in that: The puncture-resistant mesh layer (2) has a mesh size of 0.08 mm.
3. The antibacterial and deodorizing cowhide leather according to claim 1, characterized in that: The antibacterial fluorescent braided outer layer (1) has a first breathable micropore (5), and the deodorizing layer (4) has a second breathable micropore (6).
4. The antibacterial and deodorizing cowhide leather according to claim 3, characterized in that: The first breathable micropore (5) and the second breathable micropore (6) are uniformly distributed on the antibacterial fluorescent braided outer layer (1) and the deodorizing layer (4), respectively, and the diameters of the first breathable micropore (5) and the second breathable micropore (6) are equal.
5. The antibacterial and deodorizing cowhide leather according to claim 1, characterized in that: The deodorizing layer (4) and the leather layer (3) are connected by an adhesive, the puncture-resistant mesh layer (2) and the leather layer (3) are connected by an adhesive, and the antibacterial fluorescent braided outer layer (1) and the puncture-resistant mesh layer (2) are connected by an adhesive.
6. The antibacterial and deodorizing cowhide leather according to claim 1, characterized in that: The thickness of the antibacterial fluorescent braided outer layer (1) is equal to that of the deodorizing layer (4).