Nano composite material capable of increasing production efficiency of far infrared ray and manufacturing method thereof

Abstract

The invention provides a nano composite material capable of increasing the production efficiency of far infrared ray and a manufacturing method thereof. The method comprises the following steps: evenly mixing soluble noble metal compounds, far infrared ray particles, a reducing agent, soluble acryl powder, a soluble adhesive and other components in water to form a mixed solution; drying the mixed solution; and performing mechanical grinding on the material obtained after completely drying the mixed solution to obtain the nano composite material in the invention, wherein noble metal nano particles are evenly and stably attached on the surfaces of the far infrared ray particles in the nano composite material. When the material or a fabric is attached to the human body surface or is arranged close to the human body by a user, namely, the noble metal nano particles are utilized as an efficient energy conversion material to absorb ambient luminous energy and heat energy, the far infrared ray particles are excited to convert the luminous energy and heat energy into far infrared ray and feed back the far infrared ray into the human body, thus warming the partial tissues in the human body to lead the capillaries to expand, and achieving the efficacies and effects of promoting blood circulation and metabolism.

Description

technical field [0001] The present invention relates to a kind of nanocomposite material and its preparation method, especially a kind of nanocomposite material that can make noble metal nanoparticles attach to far-infrared particles. The nanocomposite material is added to non-metallic plastic materials, or When coated on the surface of non-metallic fabrics and attached to the surface of the human body or very close to the human body, the far-infrared particles in it can use noble metal nanoparticles as high-efficiency energy conversion materials to absorb the surrounding light energy and heat energy, and convert Light energy and heat energy are converted into far-infrared rays, which feed back into the human body to achieve the function and effect of promoting blood circulation and metabolism. Background technique [0002] Generally speaking, sunlight can be roughly divided into visible light and invisible light. After visible light is refracted by a prism, it will produce ...

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Problems solved by technology

[0005] In recent years, although many operators have applied far-infrared raw materials to various non-metallic fabrics (such as: underwear, elbow pads, waist support, gloves, scarves and jackets, etc.) and non-metallic plastic materials (such as: emulsion, In the production of latex, silica gel and fiber, etc.), these far-infrared raw materials need to be within the range of human body temperature 36.5°C-37.0°C to produce far-infrared rays with the best effect on the human body and the maximum emissivity. However, due to the Such far-infrared raw materials are mixed in these materials or fabrics. Most of the far-infrared raw materials cannot be exposed to light, and the heat energy of the human body is absorbed by the far-infrared raw materials and converted into far-infrared rays. Raw materials excite far-infrared rays that have the best effect on the human body, so the performance of these materials or fabrics to produce far-infrared rays is not good, and it is difficult to achieve the expected health care and treatment effects

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