Graphene cloth for massage equipment and preparation process of graphene cloth
By combining graphene powder with other fiber materials and using laser perforation technology, a graphene fabric with good thermal conductivity, high breathability, and high antibacterial properties has been prepared. This solves the problems of insufficient thermal conductivity, durability, and antibacterial properties of traditional massage equipment fabrics, thereby improving the massage experience and hygiene.
Patent Information
- Application Number
- CN202511027548.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-07-24
- Publication Date
- 2025-11-14
AI Technical Summary
Traditional massage equipment fabrics are inadequate in terms of thermal conductivity, durability, and antibacterial properties, leading to problems such as uneven temperature, excessive humidity, and bacterial growth during use, which affects the massage experience.
Graphene fabric is prepared by mixing, bonding and laser perforation processes using materials such as graphene powder, polyester fiber, cotton fiber, bamboo fiber, spandex and gold foil film. Additives are used to improve thermal conductivity, breathability and antibacterial properties.
It achieves even heat distribution, promotes local blood circulation, relaxes muscles, inhibits bacterial growth, improves durability and comfort, and enhances the user experience and hygiene of massage equipment.
Smart Images

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Abstract
Description
Technical Field
[0001] This invention relates to the field of functional materials technology, and in particular to a graphene fabric for massage equipment and its preparation process. Background Technology
[0002] With people paying increasing attention to health and a comfortable life, the market demand for massage equipment is constantly increasing. Massage equipment is not only used to relieve fatigue and relax muscles, but is also widely used in the fields of physiotherapy and rehabilitation.
[0003] Traditional massage equipment fabrics are mostly made of a single material. While they offer some comfort and breathability, they are lacking in thermal conductivity, durability, and antibacterial properties. This can lead to issues such as uneven temperature, excessive humidity, or bacterial growth during use, affecting the overall massage experience. Summary of the Invention
[0004] The purpose of this invention is to provide a graphene fabric for massage devices and its preparation process, thereby solving the technical problems existing in the prior art.
[0005] To achieve the above-mentioned objectives, the technical solution adopted by this invention is as follows:
[0006] A graphene fabric for massage equipment and its preparation process include the following raw materials: graphene powder, polyester fiber, cotton fiber, bamboo fiber, spandex, additives, and gold foil film.
[0007] Furthermore, the raw materials are: 5-10g graphene powder, 20-55g polyester fiber, 15-50g cotton fiber, 5-25g bamboo fiber, 3-15g spandex, 1-5g additives, and 15-25g gold leaf film.
[0008] Furthermore, the raw materials are: 10g graphene powder, 6g polyester fiber, 6g cotton fiber, 15g bamboo fiber, 6g spandex, 3g additives, and 2g gold leaf film.
[0009] Furthermore, the additives consist of one or more of the following: dispersants, antistatic agents, softeners, and antibacterial agents.
[0010] Further, the preparation method includes the following steps: S1: Take graphene powder, polyester fiber, cotton fiber, bamboo fiber, spandex, additives, and gold leaf film according to the corresponding weights; S2: Mix the graphene powder with polyester fiber, cotton fiber, bamboo fiber, spandex, and additives in a preset ratio to prepare a composite fiber substrate; S3: Place the mixed composite fiber substrate on a flat workbench, evenly apply adhesive, and then adhere the gold leaf film to the surface of the composite fiber substrate; S4: Use a laser drilling machine to evenly drill holes in the material in S3 according to preset parameters; S5: Sew the material in S4 to the massager.
[0011] Furthermore, the parameters in S4 include: laser power, laser speed, focal length, drilling diameter, drilling spacing, laser wavelength, and drilling mode.
[0012] Compared with the prior art, the present invention has the following beneficial effects:
[0013] The addition of graphene powder in this invention can evenly distribute heat to the local area, improve local blood circulation, promote muscle relaxation and pain relief, thereby effectively improving the heating effect and user experience of the massager. The addition of cotton and bamboo fibers provides excellent moisture absorption and breathability, effectively regulating the temperature and humidity of the fabric. The addition of additives effectively inhibits bacterial growth, improving the hygiene and antistatic properties of the fabric and preventing skin irritation and discomfort. The addition of spandex and polyester fibers allows the invention to quickly recover its original shape after stretching and deformation, and gives the fabric good durability, enabling repeated use without wear. The addition of a gold-plated film increases the wear resistance and stain resistance of the invention. In addition to massagers, this invention can also be applied to sportswear, home furnishings, and medical devices, with broad market prospects. Detailed Implementation
[0014] To make the objectives, technical solutions, and technical effects of this invention clearer, specific embodiments of this invention are described below. It should be understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention.
[0015] This embodiment provides a graphene fabric for massage devices and its preparation process, comprising the following raw materials: graphene powder, polyester fiber, cotton fiber, bamboo fiber, spandex, additives, and gold leaf film. Specific effects are as follows:
[0016] Graphene powder: It has extremely high thermal conductivity, electrical conductivity and strength; its uniform distribution in fabric can quickly and evenly conduct heat to local areas, and it can withstand large stretching and friction without being easily damaged.
[0017] Polyester fiber: It has excellent strength and abrasion resistance, which makes the entire fabric less prone to wear and tear during long-term use, and can maintain its use for a long time. In addition, it does not absorb water easily, can dry quickly, is easy to clean and maintain, and increases the convenience of use.
[0018] Cotton fiber: It has a good feel and provides excellent wearing comfort. It is suitable for direct contact with the skin and has good moisture absorption. It can effectively absorb sweat and moisture, regulate the temperature and humidity of the fabric, and improve the user experience.
[0019] Bamboo fiber: It has natural antibacterial properties and breathability, which can effectively inhibit bacterial growth, improve the hygiene of the fabric, and increase the comfort and applicability of the fabric.
[0020] Spandex: It provides excellent elasticity, allowing the fabric to quickly return to its original shape after being stretched or bent, increasing the fabric's applicability and comfort.
[0021] Additives: Used to improve the processing performance and additional properties of fabrics;
[0022] Gold leaf film: can increase the abrasion resistance of the fabric and give it a certain degree of stain resistance, making it easy to clean and maintain.
[0023] Example 1:
[0024] A graphene fabric for massage equipment and its preparation process, wherein the raw materials are: 5g graphene powder, 20g polyester fiber, 15g cotton fiber, 5g bamboo fiber, 3g spandex, 1g dispersant and 15g gold foil film.
[0025] S1: Take graphene powder, polyester fiber, cotton fiber, bamboo fiber, spandex, dispersant, and gold leaf film according to the corresponding weight; specifically, the graphene powder has a uniform particle size and excellent conductivity; the graphene powder can better cooperate with the heated infrared spectroscopy device.
[0026] S2: Graphene powder is mixed with polyester fiber, cotton fiber, bamboo fiber, spandex and additives in a mixer according to a preset ratio. Mechanical stirring is used for 30-50 minutes. During the process, it is necessary to ensure uniform mixing and avoid material separation to prepare a composite fiber substrate. The composite fiber substrate weighs 300g and has a preset elasticity.
[0027] S3: Place the mixed composite fiber substrate on a flat workbench and apply the adhesive evenly. During this process, the composite fiber substrate shall have at least three layers. The adhesive is polyurethane glue, which enhances the adhesion of subsequent layers. After the adhesive has initially cured, apply the gold foil film to the surface of the composite fiber substrate. During this process, it is necessary to ensure that the surface is smooth and the adhesion is firm.
[0028] S4: A laser punching machine is used to uniformly punch holes in the material in S3 according to preset parameters. The parameters include: laser power, laser speed, focal length, punching diameter, punching spacing, laser wavelength, and punching mode. Punching can significantly improve the breathability of the fabric, allowing for smooth airflow and reducing sweat and moisture generated by friction or heat, thereby improving user comfort. Furthermore, punching can reduce humidity and inhibit the growth of bacteria and fungi, ensuring that the device remains clean and reduces odor during use.
[0029] S5: Sew the material from S4 to the massager, and then package the sewn product after performance testing.
[0030] Example 2:
[0031] A graphene fabric for massage equipment and its preparation process, wherein the raw materials are: 10g graphene powder, 55g polyester fiber, 50g cotton fiber, 25g bamboo fiber, 15g spandex, 5g antistatic agent and 25g gold foil film.
[0032] Graphene powder 5g, polyester fiber 20g, cotton fiber 15g, bamboo fiber 5g, spandex 3g, antistatic agent 1g, and gold leaf film 15g;
[0033] S1: Take graphene powder, polyester fiber, cotton fiber, bamboo fiber, spandex, dispersant, and gold leaf film according to the corresponding weight; specifically, the graphene powder has a uniform particle size and excellent conductivity; the graphene powder can better cooperate with the heated infrared spectroscopy device.
[0034] S2: Graphene powder is mixed with polyester fiber, cotton fiber, bamboo fiber, spandex and additives in a mixer according to a preset ratio. The mixture is mechanically stirred for 30 minutes. During the process, it is necessary to ensure uniform mixing and avoid material separation to prepare a composite fiber substrate. The composite fiber substrate weighs 400g and has a preset elasticity.
[0035] S3: Place the mixed composite fiber substrate on a flat workbench and apply the adhesive evenly. During this process, the composite fiber substrate shall have at least three layers. The adhesive is polyurethane glue, which enhances the adhesion of subsequent layers. After the adhesive has initially cured, apply the gold foil film to the surface of the composite fiber substrate. During this process, it is necessary to ensure that the surface is smooth and the adhesion is firm.
[0036] S4: A laser punching machine is used to uniformly punch holes in the material in S3 according to preset parameters. The parameters include: laser power, laser speed, focal length, punching diameter, punching spacing, laser wavelength, and punching mode. Punching can significantly improve the breathability of the fabric, allowing for smooth airflow and reducing sweat and moisture generated by friction or heat, thereby improving user comfort. Furthermore, punching can reduce humidity and inhibit the growth of bacteria and fungi, ensuring that the device remains clean and reduces odor during use.
[0037] S5: Sew the material from S4 to the massager, and then package the sewn product after performance testing.
[0038] Example 3:
[0039] A graphene fabric for massage equipment and its preparation process, wherein the raw materials are: 10g graphene powder, 6g polyester fiber, 6g cotton fiber, 15g bamboo fiber, 6g spandex, 3g antibacterial agent and 2g gold foil film.
[0040] Graphene powder 5g, polyester fiber 20g, cotton fiber 15g, bamboo fiber 5g, spandex 3g, antibacterial agent 1g, and gold leaf film 15g;
[0041] S1: Take graphene powder, polyester fiber, cotton fiber, bamboo fiber, spandex, antibacterial agent and gold foil film according to the corresponding weight; specifically, the graphene powder has uniform particle size and excellent conductivity; the graphene powder can better cooperate with the heated infrared spectroscopy device.
[0042] S2: Graphene powder is mixed with polyester fiber, cotton fiber, bamboo fiber, spandex and additives in a mixer according to a preset ratio. The mixture is mechanically stirred for 50 minutes. During the process, it is necessary to ensure uniform mixing and avoid material separation to prepare a composite fiber substrate. The composite fiber substrate weighs 500g and has a preset elasticity.
[0043] S3: Place the mixed composite fiber substrate on a flat workbench and apply the adhesive evenly. During this process, the composite fiber substrate shall have at least three layers. The adhesive is polyurethane glue, which enhances the adhesion of subsequent layers. After the adhesive has initially cured, apply the gold foil film to the surface of the composite fiber substrate. During this process, it is necessary to ensure that the surface is smooth and the adhesion is firm.
[0044] S4: A laser punching machine is used to uniformly punch holes in the material in S3 according to preset parameters. The parameters include: laser power, laser speed, focal length, punching diameter, punching spacing, laser wavelength, and punching mode. Punching can significantly improve the breathability of the fabric, allowing for smooth airflow and reducing sweat and moisture generated by friction or heat, thereby improving user comfort. Furthermore, punching can reduce humidity and inhibit the growth of bacteria and fungi, ensuring that the device remains clean and reduces odor during use.
[0045] S5: Sew the material from S4 to the massager, and then package the sewn product after performance testing.
[0046] The specific structure of the performance testing is shown in Table (I):
[0047]
[0048]
[0049] Among them: in the evaluation of electrostatic performance, a half-life ≤ 10s indicates excellent antistatic performance; 10s ≤ half-life ≤ 30s indicates good antistatic performance; 30s ≤ half-life ≤ 60s indicates average antistatic performance; and a half-life > 60s indicates poor antistatic performance.
[0050] According to Table (I), Example 3 has the best performance in terms of color fastness to rubbing, pH value, color fastness to washing with soap, antibacterial rate, far-infrared performance, electrostatic performance evaluation, and fiber content.
[0051] It is worth noting that the fabric obtained through the above-mentioned preparation process not only possesses excellent thermal and electrical conductivity, enabling rapid heat transfer to the skin and thus enhancing the massage effect, but also combines the comfort of natural fibers with the durability of synthetic fibers, further enhancing the overall user experience. Simultaneously, it exhibits superior antibacterial and breathability, ensuring the product's advantages in hygiene and comfort. Furthermore, its aesthetically pleasing appearance and good stain resistance greatly enhance its market competitiveness. Moreover, this invention can also be applied to various fields such as clothing, furniture, and automotive interiors, possessing broad market prospects.
[0052] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention should be included within the scope of protection of the present invention.
Claims
1. A graphene fabric for massage devices, characterized in that: It is made from the following raw materials: graphene powder, polyester fiber, cotton fiber, bamboo fiber, spandex, additives, and gold leaf film.
2. The graphene fabric for massage devices according to claim 1, characterized in that: The raw materials are: 5-10g graphene powder, 20-55g polyester fiber, 15-50g cotton fiber, 5-25g bamboo fiber, 3-15g spandex, 1-5g additives, and 15-25g gold leaf film.
3. The graphene fabric for massage devices according to claim 2, characterized in that: The raw materials are: 10g graphene powder, 6g polyester fiber, 6g cotton fiber, 15g bamboo fiber, 6g spandex, 3g additives, and 2g gold leaf film.
4. The graphene fabric for massage devices according to claim 1, characterized in that: The additives consist of one or more of the following: dispersants, antistatic agents, softeners, and antibacterial agents.
5. The graphene fabric for massage devices and its preparation process according to any one of claims 1-4, characterized in that: The preparation methods include the following: S1: Take graphene powder, polyester fiber, cotton fiber, bamboo fiber, spandex, additives and gold foil film according to the corresponding weight; S2: Graphene powder is mixed with polyester fiber, cotton fiber, bamboo fiber, spandex and additives in a preset ratio to prepare a composite fiber substrate; S3: Place the mixed composite fiber substrate on a flat workbench, apply adhesive evenly, and then adhere the gold foil film to the surface of the composite fiber substrate. S4: Use a laser drilling machine to uniformly drill holes in the material in S3 according to preset parameters; S5: Sew the material from S4 to the massager.
6. The graphene fabric for massage devices and its preparation process according to claim 5, characterized in that: The parameters in S4 include: laser power, laser speed, focal length, drilling diameter, drilling spacing, laser wavelength, and drilling mode.