Bacteriostatic mildew-proof oxford fabric
By introducing a structural design of damp-dispersing layer, antibacterial sheet and absorbent sheet into the Oxford cloth, combined with breathable holes and breathable grooves, the problems of poor breathability and easy bacterial mold growth are solved, and good breathability and antibacterial and antibacterial effects are achieved.
Patent Information
- Application Number
- CN202422521123.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-18
- Publication Date
- 2025-08-01
- Estimated Expiration
- 2034-10-18
AI Technical Summary
Oxford cloth is poorly breathable when worn, is prone to sweating and prone to bacteria and mold.
The structural design of the wet-dispersing layer, antibacterial sheet and absorbent sheet is adopted. The ventilation holes and breathable grooves are arranged, combined with the use of bamboo charcoal fibers and cotton fibers, and the breathable permeability and bacteriality are enhanced.
It improves the breathability and antibacterial properties of Oxford cloth, avoids the feeling of stuffy heat and bacterial growth, and keeps the skin dry and comfortable.
Smart Images
Figure CN223176321U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of Oxford cloth, and more specifically, to antibacterial and mildew-proof Oxford cloth. Background Art
[0002] Oxford cloth, also known as Oxford spin, is a textile fabric with diverse functions and wide applications. Oxford cloth is usually woven from polyester fibers or nylon fibers. Polyester fibers and nylon fibers have high strength and wear resistance, enabling the clothing made of Oxford cloth to withstand friction and pulling during daily use without being easily damaged or deformed. Therefore, Oxford cloth is widely used in the production of luggage, clothing, home decoration, and outdoor products.
[0003] However, polyester fibers and nylon fibers themselves have poor air permeability, resulting in a stuffy feeling when wearing the made Oxford cloth, being prone to sweating and the generated sweat not being able to be dissipated in time through a good air circulation effect, causing the Oxford cloth to be in a warm and humid environment wetted by sweat for a long time, thus being prone to bacterial growth and mildew.
[0004] Therefore, a new solution is needed to solve the problem that Oxford cloth is prone to bacterial growth and mildew during daily wearing. Content of the Utility Model
[0005] Aiming at the deficiencies of the existing technology, the purpose of the utility model is to provide antibacterial and mildew-proof Oxford cloth, achieving the purpose of improving the overall air permeability and antibacterial and mildew-proof performance of Oxford cloth through a new structural setting.
[0006] The above technical purpose of the utility model is achieved through the following technical solutions: The antibacterial and mildew-proof Oxford cloth includes a moisture-dispersing layer. On one side of the moisture-dispersing layer, a number of antibacterial sheets are symmetrically arranged along its length direction. On the side of the adjacent antibacterial sheet away from the moisture-dispersing layer, a moisture-absorbing sheet is provided. Antibacterial strips are provided between the moisture-dispersing layer and the antibacterial sheet and between the moisture-dispersing layer and the moisture-absorbing sheet. The moisture absorption of the antibacterial sheet is the same as that of the antibacterial strip. The moisture absorption of the antibacterial sheet is greater than that of the moisture-absorbing sheet and less than that of the moisture-dispersing layer. An air-permeable space one is formed between the moisture-dispersing layer and the antibacterial strip and the antibacterial sheet, and an air-permeable space two is formed between the moisture-dispersing layer and the antibacterial strip and the moisture-absorbing sheet. A number of air-permeable grooves communicating with the air-permeable space one and the air-permeable space two are provided on the side of the antibacterial sheet close to the moisture-dispersing layer.
[0007] The utility model is further arranged as follows: The side of the moisture-dispersing layer close to the antibacterial sheet is wavy. The peripheral wall of the antibacterial strip abuts against the trough of the moisture-dispersing layer. The width of the antibacterial sheet is greater than the distance between adjacent wave crests on the moisture-dispersing layer. The two length sides on the side of the antibacterial sheet away from the moisture-absorbing sheet respectively abut against the adjacent wave crests on the moisture-dispersing layer.
[0008] The present utility model is further configured such that: the width of the moisture absorption sheet is greater than the distance between adjacent antibacterial sheets, and the two sides of the length of the moisture absorption sheet close to the moisture dissipation layer respectively abut against the sides of the adjacent antibacterial sheets away from the moisture dissipation layer. At the abutting positions of the antibacterial sheets with the moisture dissipation layer and the moisture absorption sheet, they are fixedly stitched through moisture dissipation yarns.
[0009] The present utility model is further configured such that: a protrusion is provided on the side of the antibacterial sheet away from the moisture dissipation layer. The diameter of the antibacterial strip is the same as the distance obtained by adding the depth of the trough on the moisture dissipation layer and the thickness of the antibacterial sheet. The protrusion is integrally formed after the acting force when the antibacterial sheet is supported by the antibacterial strip deforms along the side away from the moisture dissipation layer. An air permeable space three is formed between the protrusion and the adjacent moisture absorption sheet.
[0010] The present utility model is further configured such that: a number of air permeable holes one and a number of air permeable holes two that are respectively communicated with the air permeable space one and the air permeable space two are formed through the moisture dissipation layer. An air permeable hole three that is communicated with the air permeable space one and the air permeable space three is formed through the antibacterial sheet. The air permeable hole three and the air permeable groove are arranged alternately along the width direction of the moisture dissipation layer. A number of air permeable holes four that are communicated with the air permeable space two are formed through the moisture absorption sheet.
[0011] The present utility model is further configured such that: the moisture dissipation layer is made by weaving moisture dissipation yarns through a through-hole structure. The moisture dissipation yarns are formed by twisting a first strand and a second strand. The first strand is formed by twisting polyester profiled fibers with a six-leaf cross-section. The second strand is formed by twisting ramie fibers.
[0012] The present utility model is further configured such that: the antibacterial sheet is made by weaving antibacterial yarns through a through-hole structure. The antibacterial yarns are formed by twisting a first strand and a third strand. The third strand is formed by twisting bamboo charcoal fibers. The antibacterial strip is formed by twisting multiple strands of antibacterial yarns and then cutting.
[0013] The present utility model is further configured such that: the moisture absorption sheet is made by weaving moisture absorption yarns through a through-hole structure. The moisture absorption yarns are formed by twisting a first strand and a fourth strand. The fourth strand is formed by twisting cotton fibers.
[0014] In summary, the present utility model has the following beneficial effects: through a number of air permeable holes one, air permeable holes two, air permeable holes three and air permeable holes four, the overall Oxford cloth has good air permeability, avoiding a stuffy feeling during wearing. The a number of moisture absorption sheets made by blending cotton fibers and polyester profiled fibers can quickly absorb the sweat on the skin when abutting against the skin, keeping the skin dry and comfortable. At the same time, it reduces the contact friction area between the Oxford cloth and the skin, increases the gap between the fabric and the skin, and avoids discomfort caused by the Oxford cloth sticking to the skin. By adding a number of antibacterial sheets and antibacterial strips, the made Oxford cloth has good antibacterial effects. Brief Description of the Drawings
[0015] Figure 1 is a schematic structural diagram of the present utility model;
[0016] Figure 2 is Figure 1 an enlarged view of part A in
[0017] Figure 3 is an exploded view of the present utility model;
[0018] Figure 4 is Figure 3 an enlarged view of part B in
[0019] Figure 5 is a tangent diagram of the moisture-dispersing yarn;
[0020] Figure 6 is a sectional view of the antibacterial yarn;
[0021] Figure 7 is a sectional view of the moisture-absorbing yarn.
[0022] In the figure: 1. Moisture-dispersing layer; 2. Antibacterial sheet; 3. Moisture-absorbing sheet; 4. Antibacterial strip; 5. First ventilation space; 6. Second ventilation space; 7. Ventilation groove; 8. Moisture-dispersing yarn; 9. Protrusion; 10. Third ventilation space; 11. First ventilation hole; 12. Second ventilation hole; 13. Third ventilation hole; 14. Fourth ventilation hole; 15. First strand; 16. Second strand; 17. Antibacterial yarn; 18. Third strand; 19. Moisture-absorbing yarn; 20. Fourth strand. Detailed Embodiment
[0023] The present utility model will be described in detail below with reference to the drawings and embodiments.
[0024] Embodiment: The antibacterial and mildew-proof Oxford cloth, as shown in Figure 1 , Figure 2 and Figure 5As shown in the figure, it includes a moisture-dispersing layer 1. The moisture-dispersing layer 1 is made by feeding moisture-dispersing yarn 8 into a jet loom and weaving it in a through-hole weave. The moisture-dispersing yarn 8 is formed by twisting a first strand 15 and a second strand 16 by a twisting machine. The first strand 15 is formed by twisting a polyester profiled fiber with a six-leaf cross-section by a twisting machine. The polyester profiled fiber with a six-leaf cross-section is spun through a spinneret. After the polyester fiber is profiled, it obtains larger voids and surface area, thereby improving the moisture absorption and air permeability of the polyester fiber. The second strand 16 is formed by twisting ramie fibers by a twisting machine. Ramie fibers have a natural antibacterial effect while having high moisture absorption and air permeability, and can quickly disperse the moisture inside. A number of ventilation holes 11 and ventilation holes 12 arranged in an array are formed through the moisture-dispersing layer 1. A number of ventilation holes 11 and ventilation holes 12 are integrally formed on the moisture-dispersing layer 1 by the weaving method of the through-hole weave, so that the moisture-dispersing layer 1 has good air permeability, moisture-dispersing property and antibacterial property, and avoids the stuffy feeling when the made oxford cloth is worn.
[0025] As Figure 1 , Figure 2 and Figure 6 shown, after hot pressing on one side of the moisture-dispersing layer 1 with a hot press, it is wavy. A number of antibacterial sheets 2 are symmetrically arranged along the length direction on the wavy side of the moisture-dispersing layer 1. A moisture-absorbing sheet 3 is provided on the side of the adjacent antibacterial sheet 2 away from the moisture-dispersing layer 1. Antibacterial strips 4 are provided between the moisture-dispersing layer 1 and the antibacterial sheet 2 and between the moisture-dispersing layer 1 and the moisture-absorbing sheet 3. The antibacterial strips 4 are formed by twisting two antibacterial yarns 17 by a twisting machine and then cutting them with a cutting machine. The antibacterial sheet 2 is made by feeding the antibacterial yarn 17 into a jet loom and weaving it in a through-hole weave to form a base layer and then cutting it with a cutting machine. The antibacterial yarn 17 is formed by twisting a first strand 15 and a third strand 18 by a twisting machine. The third strand 18 is formed by twisting bamboo charcoal fibers. Bamboo charcoal fibers have good antibacterial and deodorizing effects. By adding a number of antibacterial components and antibacterial sheets 2, the made oxford cloth can effectively inhibit the growth of bacteria.
[0026] As Figure 1 [[ID=1)]]and Figure 7 shown, the moisture-absorbing sheet 3 is made by feeding the moisture-absorbing yarn 19 into a jet loom and weaving it in a through-hole weave to form a base layer and then cutting it with a cutting machine. The moisture-absorbing yarn 19 is formed by twisting a first strand 15 and a fourth strand 20 by a twisting machine. The fourth strand 20 is formed by twisting cotton fibers. Cotton fibers have good moisture absorption and air permeability, so that the moisture-absorbing sheet 3 can quickly absorb the sweat generated on the skin when it touches the skin, keeping the skin dry and comfortable. At the same time, the soft and comfortable touch of the cotton fibers improves the comfort of the oxford cloth when worn.
[0027] As Figure 1 and Figure 2As shown in the figure, the peripheral wall of the antibacterial strip 4 abuts against the trough of the moisture-dispersing layer 1. The diameter of the antibacterial strip 4 is the same as the distance obtained by adding the depth of the trough on the moisture-dispersing layer 1 and the thickness of the antibacterial sheet 2, such that the peripheral wall of the antibacterial strip 4 on the side away from the moisture-dispersing layer 1 abuts against the moisture-absorbing sheet 3. The width of the antibacterial sheet 2 is greater than the distance between adjacent wave crests on the moisture-dispersing layer 1. The two sides of the length of the antibacterial sheet 2 on the side away from the moisture-absorbing sheet 3 respectively abut against the adjacent wave crests on the moisture-dispersing layer 1, such that a plurality of air-permeable spaces I 5 are formed between the moisture-dispersing layer 1 and a plurality of antibacterial strips 4 and a plurality of antibacterial sheets 2. The width of the moisture-absorbing sheet 3 is greater than the distance between adjacent antibacterial sheets 2. The two sides of the length of the moisture-absorbing sheet 3 on the side close to the moisture-dispersing layer 1 respectively abut against the sides of the adjacent antibacterial sheets 2 on the side away from the moisture-dispersing layer 1, such that a plurality of air-permeable spaces II 6 are formed between the moisture-dispersing layer 1 and a plurality of antibacterial strips 4 and a plurality of moisture-absorbing sheets 3. Through the plurality of air-permeable spaces I 5 and the air-permeable spaces II 6, the air circulation effect inside the Oxford cloth is improved, and the overall air permeability of the Oxford cloth is enhanced.
[0028] As Figures 1 - 5 shown in the figure, after the moisture-dispersing layer 1 is laid flat with its wavy surface facing upward, the moisture-absorbing strips are conveyed and rolled into the troughs and then covered with the antibacterial sheets 2. After the moisture-absorbing sheets 3 are covered on the adjacent antibacterial sheets 2, a sewing machine is used to reciprocally sew and fix at the abutting positions of the antibacterial sheets 2 with the moisture-dispersing layer 1 and the moisture-absorbing sheets 3 through the moisture-dispersing yarns 8. An arc-shaped protrusion 9 is provided on the side of the antibacterial sheet 2 away from the moisture-dispersing layer 1. The protrusion 9 on the antibacterial sheet 2 is integrally formed after being deformed along the side away from the moisture-dispersing layer 1 under the supporting force of the antibacterial strip 4 during the sewing and fixing of the antibacterial sheet 2. The protrusion 9 is located between the moisture-absorbing sheets 3, such that an air-permeable space III 10 is formed between the protrusion 9 and the adjacent moisture-absorbing sheets 3. At the same time, through the air-permeable space III 10, the contact friction area between the Oxford cloth and the skin during wearing is reduced, the gap between the Oxford cloth and the skin is increased, and the air circulation effect between the Oxford cloth and the skin is improved.
[0029] As Figure 1 and Figure 2 shown in the figure, the moisture absorption of the bamboo charcoal fiber is less than that of the ramie fiber and greater than that of the polyester fiber and the cotton fiber, such that the moisture absorption of the antibacterial sheet 2 is the same as that of the antibacterial strip 4, the moisture absorption of the antibacterial sheet 2 is greater than that of the moisture-absorbing sheet 3 and less than that of the moisture-dispersing layer 1, such that the sweat absorbed in the plurality of moisture-absorbing sheets 3 can be transferred to the outer layer through the plurality of antibacterial sheets 2 and the antibacterial strips 4 for dissipation, thereby maintaining the dryness of the moisture-absorbing sheets 3 and preventing the plurality of moisture-absorbing sheets 3 from adhering to the skin after being wetted by sweat.
[0030] As Figures 1 - 4As shown in the figure, on one side of the antibacterial sheet 2 close to the moisture-dispersing layer 1, a number of air vents 7 are provided which are interconnected with the first air-permeable space 5 and the second air-permeable space 6. The number of air vents 7 are symmetrically arranged along the width direction of the moisture-dispersing layer 1. The concave surface of the air vent 7 is interconnected with the adjacent first air-permeable space 5, and both ends of the air vent 7 are respectively interconnected with the adjacent second air-permeable space 6, so that the first air-permeable space 5 and the second air-permeable space 6 can be interconnected. A number of first air holes 11 on the moisture-dispersing layer 1 are arranged in an array above the antibacterial sheet 2, and a number of second air holes 12 on the moisture-dispersing layer 1 are arranged in an array above the moisture-absorbing sheet 3, so that the first air holes 11 and the second air holes 12 are respectively interconnected with the first air-permeable space 5 and the second air-permeable space 6. The antibacterial sheet 2 is provided with a third air hole 13 which is interconnected with the first air-permeable space 5 and the third air-permeable space 10. The third air hole 13 and the air vent 7 are arranged in a staggered manner along the width direction of the moisture-dispersing layer 1. The moisture-absorbing sheet 3 is provided with a number of fourth air holes 14 which are interconnected with the second air-permeable space 6. The third air holes 13 arranged in an array on the antibacterial sheet 2 and the fourth air holes 14 arranged in an array on the moisture-absorbing sheet 3 are integrally formed by the weaving method of the through-hole structure. Through the interconnected first air-permeable space 5, second air-permeable space 6, third air-permeable space 10, first air holes 11, second air holes 12, third air holes 13 and fourth air holes 14, the air circulation effect between the inside and outside of the Oxford cloth is improved, the moisture-dispersing performance of the whole Oxford cloth is enhanced, the moisture inside can be quickly dispersed, the dryness of the whole Oxford cloth is maintained, and the growth of bacteria and mildew is avoided in the warm and humid environment of long-term sweat wetting, achieving good air permeability and antibacterial and mildew-proof performance.
[0031] The above is only the preferred embodiment of the present invention, and the protection scope of the present invention is not limited to the above embodiments. All technical solutions falling within the idea of the present invention belong to the protection scope of the present invention. It should be pointed out that for those of ordinary skill in the art, without departing from the principle of the present invention, several improvements and modifications should also be regarded as the protection scope of the present invention.
Claims
1. Antibacterial and mildew-proof Oxford cloth, including a moisture-dispersing layer (1), characterized in that: On one side of the moisture-dispersing layer (1), a number of antibacterial tablets (2) are symmetrically arranged along its length direction. On the side of the adjacent antibacterial tablets (2) away from the moisture-dispersing layer (1), a moisture-absorbing sheet (3) is provided. Antibacterial strips (4) are provided between the moisture-dispersing layer (1) and the antibacterial tablets (2) as well as between the moisture-dispersing layer (1) and the moisture-absorbing sheet (3). The moisture absorbency of the antibacterial tablets (2) is the same as that of the antibacterial strips (4). The moisture absorbency of the antibacterial tablets (2) is greater than that of the moisture-absorbing sheet (3) and less than that of the moisture-dispersing layer (1). An air-permeable space one (5) is formed between the moisture-dispersing layer (1) and the antibacterial strips (4) and the antibacterial tablets (2), and an air-permeable space two (6) is formed between the moisture-dispersing layer (1) and the antibacterial strips (4) and the moisture-absorbing sheet (3). On the side of the antibacterial tablets (2) close to the moisture-dispersing layer (1), a number of air-permeable grooves (7) are formed which are in communication with the air-permeable space one (5) and the air-permeable space two (6).
2. The antibacterial and mildew-proof Oxford cloth according to claim 1, characterized in that: The side of the moisture-dispersing layer (1) close to the antibacterial tablets (2) is wavy. The peripheral wall of the antibacterial strip (4) abuts against the trough of the moisture-dispersing layer (1). The width of the antibacterial tablets (2) is greater than the distance between adjacent peaks on the moisture-dispersing layer (1). The two sides of the length of the side of the antibacterial tablets (2) away from the moisture-absorbing sheet (3) respectively abut against the adjacent peaks on the moisture-dispersing layer (1).
3. The antibacterial and mildew-proof Oxford cloth according to claim 1, characterized in that: The width of the moisture-absorbing sheet (3) is greater than the distance between adjacent antibacterial tablets (2). The two sides of the length of the side of the moisture-absorbing sheet (3) close to the moisture-dispersing layer (1) respectively abut against the sides of the adjacent antibacterial tablets (2) away from the moisture-dispersing layer (1). At the abutting positions of the antibacterial tablets (2) with the moisture-dispersing layer (1) and the moisture-absorbing sheet (3), they are sutured and fixed by moisture-dispersing yarns (8).
4. The antibacterial and mildew-proof Oxford cloth according to claim 3, characterized in that: On the side of the antibacterial tablets (2) away from the moisture-dispersing layer (1), a protrusion (9) is provided. The diameter of the antibacterial strip (4) is the same as the distance obtained by adding the depth of the trough on the moisture-dispersing layer (1) and the thickness of the antibacterial tablets (2). The protrusion (9) is integrally formed after the acting force of the antibacterial tablets (2) supported by the antibacterial strips (4) deforms along the side away from the moisture-dispersing layer (1). An air-permeable space three (10) is formed between the protrusion (9) and the adjacent moisture-absorbing sheet (3).
5. The antibacterial and mildew-proof Oxford cloth according to claim 4, characterized in that: The moisture-dispersing layer (1) is provided with a number of air-permeable holes one (11) and a number of air-permeable holes two (12) which are respectively in communication with the air-permeable space one (5) and the air-permeable space two (6). The antibacterial tablets (2) are provided with air-permeable holes three (13) which are in communication with the air-permeable space one (5) and the air-permeable space three (10). The air-permeable holes three (13) and the air-permeable grooves (7) are arranged staggered along the width direction of the moisture-dispersing layer (1). The moisture-absorbing sheet (3) is provided with a number of air-permeable holes four (14) which are in communication with the air-permeable space two (6).
6. The antibacterial and mildew-proof Oxford cloth according to claim 5, characterized in that: The moisture-dispersing layer (1) is made by the weaving method of a moisture-dispersing yarn (8). The moisture-dispersing yarn (8) is formed by twisting a first strand (15) and a second strand (16). The first strand (15) is formed by twisting a polyester profiled fiber with a six-leaf cross-section, and the second strand (16) is formed by twisting ramie fibers.
7. The antibacterial and mildew-proof Oxford cloth according to claim 6, characterized in that: The antibacterial sheet (2) is made by knitting antibacterial yarns (17) in a through-hole structure. The antibacterial yarns (17) are formed by twisting a first strand (15) and a third strand (18). The third strand (18) is formed by twisting bamboo charcoal fibers. The antibacterial strip (4) is formed by twisting multiple antibacterial yarns (17) and then cutting.
8. The antibacterial and mildew-proof Oxford cloth according to claim 7, characterized in that: The moisture-absorbing sheet (3) is made by knitting moisture-absorbing yarns (19) in a through-hole structure. The moisture-absorbing yarns (19) are formed by twisting a first strand (15) and a fourth strand (20). The fourth strand (20) is formed by twisting cotton fibers.