Multilayer antibacterial skin-friendly cool fabric

Abstract

The utility model discloses a kind of multi-layer antibacterial skin-friendly cool fabric, belong to fabric technical field, including from top to bottom sequentially arranged surface layer, breathable layer, antibacterial layer and skin-friendly layer;First air hole is equipped on the surface layer, second air hole is equipped on the breathable layer, adsorption interlayer is equipped in the antibacterial layer, activated carbon particles are in adsorption interlayer, second air hole is communicated with adsorption interlayer by third air hole being equipped on the antibacterial layer, gas outlet groove is equipped in the breathable layer, gas outlet groove is communicated with adsorption interlayer by fourth air hole being equipped in the breathable layer.The utility model fabric improves the bacteriostatic property of bacteriostatic layer by activated carbon particles, and activated carbon particles can absorb moisture, keep the dryness of skin-friendly layer, simultaneously, air flow can be introduced into adsorption interlayer by air-permeable component, so that fabric inside keeps cool under the action of air flow, and activated carbon particles are dried, ensure that activated carbon particles can continuously absorb moisture.

Description

Technical Field

[0001] This utility model relates to the field of fabric technology, specifically to a multi-layer antibacterial and skin-friendly cooling fabric. Background Technology

[0002] Fabric, as one of the three essential elements of clothing, not only interprets the style and characteristics of clothing but also directly influences the color and shape of the garment. With continuous technological advancements, people's requirements for clothing fabrics have evolved from practicality to comfort.

[0003] High temperatures lead to increased perspiration, and people hope to use clothing to quickly wick away sweat, keeping their skin dry and comfortable and reducing perceived body temperature. However, existing multi-layered composite fiber fabrics have poor breathability, preventing sweat from being quickly wicked away, and have poor antibacterial properties. As the wearer's time increases, bacteria can easily grow on the fabric, resulting in a poor user experience. Utility Model Content

[0004] To solve the above-mentioned technical problems, this utility model provides a multi-layer antibacterial and skin-friendly cooling fabric.

[0005] The technical solution of this utility model is: a multi-layer antibacterial and skin-friendly cooling fabric, comprising a surface layer, a breathable layer, an antibacterial layer, and a skin-friendly layer arranged sequentially from top to bottom; the surface layer is provided with a plurality of first breathable holes, the breathable layer is provided with second breathable holes that correspond one-to-one with the first breathable holes, an adsorption interlayer is provided transversely inside the antibacterial layer, the adsorption interlayer is filled with activated carbon particles, the second breathable holes are connected to the adsorption interlayer through a plurality of third vents provided on the antibacterial layer, the breathable layer is provided with a plurality of air outlet grooves, and the air outlet grooves are all connected to the adsorption interlayer through fourth breathable holes provided in the breathable layer.

[0006] Explanation: The above-mentioned fabric enhances the antibacterial properties of the antibacterial layer by adsorbing activated carbon particles in the interlayer. The activated carbon particles can also absorb moisture, keeping the skin-friendly layer dry and improving wearing comfort. At the same time, the first and second ventilation holes can introduce airflow into the adsorption interlayer, keeping the inside of the fabric cool under the action of airflow. Meanwhile, the airflow can dry the activated carbon particles, ensuring that the activated carbon particles can continuously absorb moisture.

[0007] Furthermore, the bottom surface of the skin-friendly layer is provided with several heat-conducting strips, and metal wires are provided on the heat-conducting strips. Both ends of the metal wires pass through the skin-friendly layer and the antibacterial layer in sequence and extend into the adsorption interlayer.

[0008] Explanation: The heat-conducting strip can quickly transfer heat to the entire metal wire. When the airflow passes through the adsorption interlayer, the activated carbon particles adsorb moisture, and the airflow will cool down under the action of moisture, which will quickly cool down the metal wire in the adsorption interlayer, so that the heat-conducting strip can continuously provide a cooling sensation.

[0009] Furthermore, moisture-absorbing fibers are wound around the metal wire located within the adsorption interlayer.

[0010] Note: Moisture-wicking fibers can absorb moisture from the skin-friendly layer and distribute it on the metal threads. When airflow passes through, the moisture evaporates more quickly, carrying away the heat from the metal threads and improving the cooling effect of the fabric.

[0011] Furthermore, the diameter of the second vent is smaller than that of the first vent.

[0012] Note: The smaller diameter of the second vent allows for faster airflow, thus reducing the temperature of the gas entering the fabric.

[0013] Furthermore, each air outlet groove is disposed between two adjacent first air vents.

[0014] Note: By limiting the position of the air outlet groove, the airflow entering the adsorption jacket can pass through the adsorption jacket fully, ensuring that the activated carbon particles in the adsorption jacket can be fully dried.

[0015] The beneficial effects of this utility model are: (1) The fabric of this utility model improves the antibacterial performance of the antibacterial layer by adsorbing activated carbon particles in the interlayer. The activated carbon particles can absorb moisture and keep the skin-friendly layer dry. At the same time, the breathable component can introduce airflow into the adsorption interlayer, so that the inside of the fabric can be kept cool under the action of airflow. Meanwhile, the airflow can dry the activated carbon particles and ensure that the activated carbon particles can continuously absorb moisture.

[0016] (2) This utility model can quickly conduct heat to the entire metal wire through the heat conduction strip. When the airflow passes through the adsorption interlayer, the airflow will cool down due to the adsorption of water in the activated carbon particles. This will cause the metal wire in the adsorption interlayer to cool down quickly, so that the heat conduction strip can continuously provide a cooling sensation. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the overall structure of Embodiment 1 of this utility model; Figure 2 This is a partial structural diagram of the second vent hole in Embodiment 1 of this utility model; Figure 3 This is a schematic diagram of the heat-conducting strip structure in Embodiment 2 of this utility model; Figure 4 This is a schematic diagram of the metal wire structure in Embodiment 3 of this utility model; Among them, 1-surface layer, 11-first vent, 2-breathable layer, 21-second vent, 3-antibacterial layer, 31-adsorption interlayer, 32-air outlet groove, 33-third vent, 34-fourth vent, 35-metal wire, 4-skin-friendly layer, 41-heat-conducting strip. Detailed Implementation

[0018] The present invention will now be described in more detail with reference to specific embodiments, so as to better demonstrate the advantages of the present invention.

[0019] Example 1: As Figure 1 , Figure 2 As shown, a multi-layered antibacterial and skin-friendly cooling fabric includes, from top to bottom, a surface layer 1, a breathable layer 2, an antibacterial layer 3, and a skin-friendly layer 4. The surface layer 1 has several first air vents 11. The breathable layer 2 has second air vents 21 that correspond one-to-one with the first air vents 11. An adsorption interlayer 31 is laterally arranged inside the antibacterial layer 3, and the adsorption interlayer 31 is filled with activated carbon particles. The second air vents 21 communicate with the adsorption interlayer 31 through three third air vents 33 on the antibacterial layer 3. The pore size of the pore 33 is 0.2 mm smaller than the particle size of the activated carbon particles. The breathable layer 2 is provided with a number of air outlet grooves 32. The air outlet grooves 32 are all connected to the adsorption interlayer 31 through the fourth air outlet pore 34 provided in the breathable layer 2. The pore size of the second air outlet pore 21 is 0.6 mm smaller than the first air outlet pore 11. Each air outlet groove 32 is arranged between two adjacent first air outlet pores 11. The surface layer 1 is made of acrylic fiber fabric, the breathable layer 2 is made of polyester fiber fabric, the antibacterial layer 3 is made of linen fiber fabric, and the skin-friendly layer 4 is made of cotton fiber fabric.

[0020] The working principle of the above-mentioned cooling fabric is as follows: the skin-friendly layer 4 of the fabric can absorb the sweat produced by the human body during exercise, and the activated carbon particles in the antibacterial layer 3 can absorb the moisture in the skin-friendly layer 4. At the same time, the gas can enter the adsorption interlayer 31 through the first vent 11, the second vent 21 and the third vent 33, and then be discharged from the air outlet 32 ​​through the fourth vent 34, so that the airflow dries the moisture in the activated carbon particles. At the same time, when the moisture in the activated carbon particles dries, it can reduce the temperature of the airflow, so that the heat in the fabric can be quickly discharged, and the fabric can provide a cooling sensation.

[0021] Example 2: Figure 3 As shown, this embodiment is basically the same as embodiment 1, except that the bottom surface of the skin-friendly layer 4 is provided with a plurality of heat-conducting strips 41, and the heat-conducting strips 41 are provided with metal wires 35. Both ends of the metal wires 35 pass through the skin-friendly layer 4 and the antibacterial layer 3 in sequence and extend into the adsorption interlayer 31. The metal wires 35 are made of copper, and the heat-conducting strips are made of ice silk fiber fabric.

[0022] The working principle of the above-mentioned heat-conducting strip 41 is as follows: the heat-conducting strip 41 can absorb human body heat and transfer it to the metal wire 35. When the airflow passes through the adsorption interlayer 31, the airflow can quickly carry away the heat on the metal wire 35, thereby reducing the overall heat of the metal wire 35 and allowing the heat-conducting strip 41 to continuously provide a cooling sensation.

[0023] Example 3: As Figure 4 As shown, this embodiment is basically the same as embodiment 1, except that the metal wire 35 located in the adsorption interlayer 31 is wrapped with moisture-absorbing fibers, which are Coolmax fibers.

[0024] The working principle of the metal wire 35 is as follows: the moisture-absorbing fiber can absorb moisture. Since the moisture-absorbing fiber is wrapped around the metal wire 35, the evaporation area of ​​the moisture is increased. When the airflow passes by, the moisture evaporation can quickly take away the heat on the metal wire 35.

Claims

1. A multi-layered antibacterial, skin-friendly, cooling fabric, characterized in that, The material includes a surface layer (1), a breathable layer (2), an antibacterial layer (3), and a skin-friendly layer (4) arranged sequentially from top to bottom. The surface layer (1) is provided with a number of first breathable holes (11). The breathable layer (2) is provided with a number of second breathable holes (21) that correspond one-to-one with the first breathable holes (11). An adsorption interlayer (31) is provided horizontally inside the antibacterial layer (3). The adsorption interlayer (31) is filled with activated carbon particles. The second breathable holes (21) are connected to the adsorption interlayer (31) through a number of third vent holes (33) provided on the antibacterial layer (3). The breathable layer (2) is provided with a number of air outlet grooves (32). The air outlet grooves (32) are all connected to the adsorption interlayer (31) through a fourth breathable hole (34) provided in the breathable layer (2).

2. The multi-layer antibacterial and skin-friendly cooling fabric according to claim 1, characterized in that, The bottom surface of the skin-friendly layer (4) is provided with several heat-conducting strips (41), and metal wires (35) are provided on the heat-conducting strips (41). Both ends of the metal wires (35) pass through the skin-friendly layer (4) and the antibacterial layer (3) in sequence and extend into the adsorption interlayer (31).

3. The multi-layer antibacterial and skin-friendly cooling fabric according to claim 2, characterized in that, Moisture-absorbing fibers are wound around the metal wire (35) located in the adsorption interlayer (31).

4. The multi-layer antibacterial and skin-friendly cooling fabric according to claim 1, characterized in that, The diameter of the second vent (21) is smaller than the diameter of the first vent (11).

5. The multi-layer antibacterial and skin-friendly cooling fabric according to claim 1, characterized in that, Each air outlet (32) is located between two adjacent first air vents (11).

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