Intelligent temperature response mask cloth
By adopting the combined structure of the temperature response layer and the viscous fiber mesh in the mask cloth, the problem of the existing mask cloth suction fluid and the lack of release of performance is solved, and the dynamic adjustment of the mask cloth at different temperatures has improved, which improves the mask of the mask Use effect.
Patent Information
- Application Number
- CN202420940244.7
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-05-01
- Publication Date
- 2025-01-24
- Estimated Expiration
- 2034-05-01
AI Technical Summary
The existing mask cloth has insufficient liquid absorbency and essence solution release performance, which makes it difficult for the mask to effectively release the solution after applying it, affecting the use effect.
The mask cloth structure containing the middle temperature response layer, upper fiber mesh, lower fiber mesh, upper fiber surface layer, and lower fiber surface layer. The middle temperature response layer is the branches polymerization LCST temperature response polymer gel fiber layer , Able to adjust fluid absorption and release speed according to temperature changes.
It realizes the change of liquid absorption of the mask cloth at different temperatures, adjusts the liquid absorption and the release performance of the essence solution as needed, and improves the actual effect of the mask.
Smart Images
Figure CN222387753U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to an improvement of a material for a beauty and skin care product, in particular to an improvement of a facial mask cloth with temperature response. Background Art
[0002] The mask cloth is the carrier of the essence in the mask. The density, permeability and stretchability of the mask cloth material will greatly affect the absorption and skin feel. A good mask cloth will help the essence to penetrate and absorb better, while a bad mask cloth will not only affect the use experience, but may also irritate the skin. Currently, the common non-woven mask cloths on the market are mainly made of chemical fibers such as polyester, polypropylene, nylon, spandex, and acrylic. They are low-cost and can be mass-produced, but their liquid-carrying rate is low, and it is difficult to release the solution in the mask cloth to the face as much as possible after applying it on the face; due to the water absorption of the mask cloth itself, it is difficult to effectively release it during application. If a mask cloth with poor liquid absorption is selected, the mask itself will carry less liquid and it is difficult to have a real effect; if a mask cloth with good liquid absorption is selected, the solution release effect on the mask cloth will be poor. Utility Model Content
[0003] The purpose of the utility model is to provide an intelligent temperature-responsive facial mask cloth in response to the defects and shortcomings of the prior art. The intelligent temperature-responsive facial mask cloth can adjust the release rate of the essence solution in the membrane cloth according to the temperature change of the membrane cloth itself. When the membrane cloth is at different temperatures, its own liquid absorption will also change with the change of temperature, so that the facial mask cloth has better liquid absorption and good essence solution release performance as needed.
[0004] To achieve the above-mentioned purpose, the utility model adopts the following technical scheme: it comprises an intermediate temperature response layer 1, an upper fiber mesh layer 2, a lower fiber mesh layer 3, an upper fiber surface layer 4, and a lower fiber surface layer 5. The upper fiber mesh layer 2 and the lower fiber mesh layer 3 are respectively covered on the upper and lower surfaces of the intermediate temperature response layer 1, the upper surface of the upper fiber mesh layer 2 is covered with the upper fiber surface layer 4, and the lower surface of the lower fiber mesh layer 3 is covered with the lower fiber surface layer 5; the intermediate temperature response layer 1 is a grafted polymerized LCST temperature response polymer gel fiber layer.
[0005] The upper fiber mesh layer 2 and the lower fiber mesh layer 3 are both viscous mesh fiber layers. The use of a viscous fiber mesh layer can ensure that the intermediate temperature response layer 1 absorbs and releases the essence solution. At the same time, the viscous fiber mesh layer can also fix and position the fibers of the intermediate temperature response layer 1, ensuring that the fibers of the intermediate temperature response layer 1 are stable, and the stability of the entire intermediate layer can be maintained regardless of how much solution is absorbed; because the thickness of the intermediate temperature response layer 1 will change due to the temperature and the amount of solution absorbed, in order to ensure the stability of the fibers of the intermediate temperature response layer 1, the upper fiber mesh layer 2 and the lower fiber mesh layer 3 are added, and the upper fiber mesh layer 2 and the lower fiber mesh layer 3 are viscous.
[0006] The lower fiber surface layer 5 is evenly provided with a plurality of shrinkage holes 51, and the shrinkage holes 51 are provided with water-locking cotton balls 511. The shrinkage holes 51 and the water-locking cotton balls 511 are provided in the lower fiber surface layer 5. The lower fiber surface layer 5 is the side that the user applies to the face when using the mask, so it needs better absorption and release capabilities of the essence solution.
[0007] The upper fiber surface layer 4 is a water-locking fiber layer. Since the upper fiber surface layer 4 is away from the user's skin when the mask is used, the upper fiber surface layer 4 needs to have a certain water-locking function during use. Therefore, the surface is selected to be a water-locking fiber layer, so that the essence solution of the product can be better and more utilized, so that the product has a better practical effect.
[0008] The working principle of the utility model is that it mainly utilizes the different swelling degrees of the intermediate temperature response layer 1 at low and high temperatures to achieve high liquid absorption at low temperatures and low liquid absorption at high temperatures, and realizes the slow-release and controlled-release function of the encapsulated active substances under the support of human skin temperature. When preparing the mask in a low temperature environment, the intermediate temperature response layer 1 is allowed to absorb as much essence solution as possible; and when using the mask, the high temperature and low liquid absorption of the intermediate temperature response layer 1 can be used to release more essence solution.
[0009] After adopting the above technical scheme, the beneficial effect of the utility model is: it can adjust the release rate of the essence solution in the membrane cloth according to the temperature change of the membrane cloth itself. When the membrane cloth is at different temperatures, its own liquid absorption will also change with the change of temperature, so that the mask cloth has better liquid absorption and good essence solution release performance as needed. BRIEF DESCRIPTION OF THE DRAWINGS
[0010] In order to more clearly illustrate the embodiments of the utility model or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the utility model. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative labor.
[0011] Figure 1 It is a structural schematic diagram of the utility model;
[0012] Figure 2 It is a schematic diagram of the structure of the upper fiber mesh layer 2 in the utility model;
[0013] Figure 3 It is a schematic diagram of the structure of the lower fiber surface layer 5 of the utility model;
[0014] Figure 4 yes Figure 3 sectional view of .
[0015] Explanation of the reference numerals: intermediate temperature response layer 1 , upper fiber mesh layer 2 , lower fiber mesh layer 3 , upper fiber surface layer 4 , lower fiber surface layer 5 , shrinkage pores 51 , water-locking cotton balls 511 . DETAILED DESCRIPTION
[0016] See also Figure 1-4 As shown, the technical solution adopted in this specific embodiment is: it consists of an intermediate temperature response layer 1, an upper fiber mesh layer 2, a lower fiber mesh layer 3, an upper fiber surface layer 4, and a lower fiber surface layer 5. The upper fiber mesh layer 2 and the lower fiber mesh layer 3 are respectively covered on the upper and lower surfaces of the intermediate temperature response layer 1, the upper surface of the upper fiber mesh layer 2 is covered with the upper fiber surface layer 4, and the lower surface of the lower fiber mesh layer 3 is covered with the lower fiber surface layer 5; the intermediate temperature response layer 1 is a grafted polymerized LCST temperature response polymer gel fiber layer; the upper fiber mesh layer 2 and the lower fiber mesh layer 3 are both viscous mesh fiber layers; a plurality of shrinkage pores 51 are evenly arranged in the lower fiber surface layer 5, and water-locking cotton balls 511 are arranged in the shrinkage pores 51; the upper fiber surface layer 4 is a water-locking fiber layer.
[0017] The working principle of the utility model: it mainly utilizes the different swelling degrees of the intermediate temperature response layer 1 at low temperature and high temperature, thereby achieving high liquid absorption at low temperature and low liquid absorption at high temperature, and realizing the slow-release and controlled-release function of the active substance wrapped under the support of human skin temperature. When preparing the mask, in a low temperature environment, the intermediate temperature response layer 1 is allowed to absorb as much essence solution as possible; and when in use, the high temperature and low liquid absorption of the intermediate temperature response layer 1 can be used to release more essence solution. The use of a sticky fiber mesh layer can ensure the absorption and release of the essence solution by the intermediate temperature response layer 1, and at the same time, the sticky fiber mesh layer can also fix and position the fibers of the intermediate temperature response layer 1, ensuring that the fibers of the intermediate temperature response layer 1 are stable, and the stability of the entire intermediate layer can be maintained regardless of how much solution is absorbed; because the intermediate temperature response layer 1 will change in thickness due to the temperature and the amount of solution absorbed, in order to ensure the stability of the fibers of the intermediate temperature response layer 1, an upper fiber mesh layer 2 and a lower fiber mesh layer 3 are added, and the upper fiber mesh layer 2 and the lower fiber mesh layer 3 are sticky. Since the upper fiber surface layer 4 is away from the user's skin when the mask is in use, the upper fiber surface layer 4 needs to have a certain water-locking function during use, so the surface is a water-locking fiber layer, and the essence solution of the product can be better and more utilized, so that the product has a better actual effect. Shrinkage holes 51 and water-locking cotton balls 511 are set on the lower fiber surface layer 5. The lower fiber surface layer 5 is the side that the user applies to the face when using the mask, so it needs better absorption and release capabilities of the essence solution.
[0018] After adopting the above technical scheme, it can adjust the release rate of the essence solution in the membrane cloth according to the temperature change of the membrane cloth itself. When the membrane cloth is at different temperatures, its own liquid absorption will also change with the change of temperature, so that the mask cloth has better liquid absorption and good essence solution release performance as needed.
[0019] The above description is only used to illustrate the technical solution of the utility model rather than to limit it. Other modifications or equivalent substitutions made to the technical solution of the utility model by ordinary technicians in this field should be included in the scope of the claims of the utility model as long as they do not depart from the spirit and scope of the technical solution of the utility model.
Claims
1. An intelligent temperature-responsive facial mask fabric, characterized in that: It comprises an intermediate temperature responsive layer (1), an upper fiber mesh layer (2), a lower fiber mesh layer (3), an upper fiber surface layer (4), and a lower fiber surface layer (5); the upper fiber mesh layer (2) and the lower fiber mesh layer (3) are respectively covered on the upper and lower surfaces of the intermediate temperature responsive layer (1); the upper surface of the upper fiber mesh layer (2) is covered with the upper fiber surface layer (4), and the lower surface of the lower fiber mesh layer (3) is covered with the lower fiber surface layer (5); the intermediate temperature responsive layer (1) is a grafted polymerized LCST temperature responsive polymer gel fiber layer.
2. The intelligent temperature-responsive facial mask cloth according to claim 1, characterized in that: The upper fiber mesh layer (2) and the lower fiber mesh layer (3) are both layers of sticky mesh fibers.
3. The intelligent temperature-responsive facial mask fabric according to claim 1, characterized in that: A plurality of shrinkage holes (51) are evenly arranged in the lower fiber surface layer (5), and water-locking cotton balls (511) are arranged in the shrinkage holes (51).
4. The intelligent temperature-responsive facial mask fabric according to claim 1, characterized in that: The upper fiber surface layer (4) is a water-locking fiber layer.