阅读说明：本技术 一种负氧离子蚊帐的制作方法 (Method for manufacturing negative oxygen ion mosquito net ) 是由 蒋思前 卿筠 蒋勰 张宪文 于 2020-05-25 设计创作，主要内容包括：本发明提出了一种负氧离子蚊帐的制作方法,其核心原料负氧离子原浆按由以下成分组成：高纯度锗石15份、氧化钸5份、高纯度电气石40份、导电钛白粉10份、麦饭石10份、钕铁硼10份、稀土锆2份、稀土镝5份、稀土镧1份、稀土铽1份、稀土镱1份、纯净水若干；本发明的有益效果是：本负氧离子蚊帐,使用定制上等纯棉蚊帐,核心原料负氧离子原浆制作采用矿物质成分,经过3000℃左右的高温煅烧,有效的去除了矿物质中的硫、磷等有害成分,环保健康并无辐射污染。同时通过负氧离子的作用,可以有效杀菌抗菌并建立绿色的氧吧空间,保证蚊帐笼罩范围内卫生且拥有大自然般的空气质量。通过营造优秀的睡眠环境带来高效舒适的睡眠质量。(The invention provides a method for manufacturing a negative oxygen ion mosquito net, which comprises the following core raw materials of negative oxygen ion protoplasm: 15 parts of high-purity germanite, 5 parts of ceria, 40 parts of high-purity tourmaline, 10 parts of conductive titanium dioxide, 10 parts of medical stone, 10 parts of neodymium iron boron, 2 parts of rare earth zirconium, 5 parts of rare earth dysprosium, 1 part of rare earth lanthanum, 1 part of rare earth terbium, 1 part of rare earth ytterbium and a plurality of purified water; the invention has the beneficial effects that: the negative oxygen ion mosquito net uses a customized first-class pure cotton mosquito net, the core raw material negative oxygen ion protoplasm is prepared from mineral components, and the mineral components are calcined at high temperature of about 3000 ℃, so that harmful components such as sulfur, phosphorus and the like in the mineral are effectively removed, and the negative oxygen ion mosquito net is environment-friendly, healthy and free of radiation pollution. Meanwhile, through the action of negative oxygen ions, the mosquito net can effectively sterilize and resist bacteria and establish a green oxygen bar space, so that the mosquito net cage is sanitary in range and has natural air quality. The high-efficiency and comfortable sleep quality is brought by creating excellent sleep environment.)

1. A method for manufacturing a negative oxygen ion mosquito net is characterized in that negative oxygen ions are implanted by a special method based on a primary negative oxygen ion pulp as a core.

2. The method for making a negative oxygen ion mosquito net according to claim 1, wherein the following steps of making the primary negative oxygen ion pulp are included:

s1, preparing materials: the following materials were prepared separately: 15 parts of high-purity germanite, 5 parts of ceria, 40 parts of high-purity tourmaline, 10 parts of conductive titanium dioxide, 10 parts of medical stone, 10 parts of neodymium iron boron, 2 parts of rare earth zirconium, 5 parts of rare earth dysprosium, 1 part of rare earth lanthanum, 1 part of rare earth terbium, 1 part of rare earth ytterbium and a plurality of purified water;

s2, preparing rare earth terbium and rare earth ytterbium balls: respectively grinding the rare earth ytterbium and the rare earth terbium in a grinder until the fineness particle size is not more than 300 meshes, then preparing the rare earth ytterbium powder into small balls with the diameter of 3-3.5mm, and preparing the rare earth terbium into small balls with the diameter of 1.5-2mm for later use;

s3 grinding neodymium iron boron into powder: putting 10 parts of neodymium iron boron (N4OSH) into a high-temperature nano grinder, heating to 400 ℃, keeping the temperature for 24 hours, and grinding to 1250 meshes for later use;

s4 preparation of rare earth dysprosium particles: 5 parts of rare earth dysprosium is taken and crushed to about 100 meshes for standby;

s5 preparation of a mixture: crushing 15 parts of high-purity germanite, 5 parts of ceria, 40 parts of high-purity tourmaline, 10 parts of medical stone, 2 parts of rare earth zirconium and 1 part of rare earth lanthanum which are prepared in the first step to 100 meshes according to the set weight parts, putting the crushed materials into a stirrer, and stirring the crushed materials at a speed of 100r/min for 15-30 minutes to obtain a uniform mixture for later use;

calcining the S6 mixture: calcining the mixture of S5 in a vacuum heating furnace, heating to 2950-3000 ℃, keeping the temperature constant for 120 hours, cooling to 2550 ℃, injecting rare earth dysprosium particles of S4, keeping the temperature constant for 24 hours, cooling to 1330 ℃, injecting 1 part by weight of rare earth terbium globules of S2, keeping the temperature constant for 24 hours, cooling to 800 ℃, injecting 1 part by weight of rare earth ytterbium particles of S2 and 10 parts by weight of conductive titanium dioxide, keeping the temperature constant for 12 hours, cooling to 400 ℃, injecting neodymium iron boron powder of S3, keeping the temperature constant for 12 hours, cooling to 20 ℃, injecting 150 parts by weight of water, opening a furnace cover after half an hour, and filtering with a 50-mesh steel net to obtain the crude negative oxygen ion protoplasm;

s7 grinding coarse material: grinding the coarse material obtained in the step S6 in a grinder to 1250 meshes to obtain high-concentration negative oxygen ion raw stock;

s8 recovering rare earth ytterbium and terbium: recovering the rare earth ytterbium and terbium from the residue of S6: pouring the residues into a stainless steel screen with the diameter of 2.5mm, and shaking the screen to obtain rare earth ytterbium spheres in the screen; and putting the remainder of the step into a screen with the diameter of 1mm, and shaking the screen to obtain the rare earth terbium spheres.

3. The method for making a negative oxygen ion mosquito net according to claim 1, wherein the following method for implanting negative oxygen ions based on the original negative oxygen ion pulp is adopted:

heating the primary pulp of the negative oxygen ions to 45 ℃ and keeping the temperature, then putting the customized upper-grade mosquito net into the primary pulp, and soaking for 240 minutes to ensure that each cotton spinning thread of the mosquito net absorbs enough amount of the primary pulp of the negative oxygen ions. Then taking out the mosquito net, and baking the mosquito net in an environment of 60 ℃ until the primary pulp is completely solidified. And when the processing is finished, the negative oxygen ion mosquito net can release the concentration of the negative oxygen ions enough to cover the wrapping range of the negative oxygen ion mosquito net, so that the sleeping environment is improved.

Technical Field

The technology belongs to the technical field of health care, and relates to a manufacturing method of a negative oxygen ion mosquito net.

Background

In recent years, the moving rhythm is rapidly increased, the fast rhythm life brings more benefits to people, and meanwhile, a new problem is brought to a large number of people.

Insomnia, a very common symptom of mankind in modern society. Living in faster and faster pace, failure to ensure sleep quality can severely impact work efficiency, and even more, can cause a series of very serious complications due to insufficient physical rest.

In view of the above, the invention discloses a method for manufacturing a negative oxygen ion mosquito net, which can not only effectively sterilize bacteria and ensure the sanitary condition of a sleeping environment, but also create forest-like air quality for a user by using the concentration of negative oxygen ions through implanting the primary negative oxygen ion pulp by a special method, thereby creating a nearly perfect sleeping space and ensuring the sleeping quality of the user in the aspect of an external space.

Disclosure of Invention

The invention provides a method for manufacturing a negative oxygen ion mosquito net, which perfectly blends a negative oxygen ion material into each cotton spinning thread of the mosquito net to release high-concentration negative oxygen ions for a long time, can effectively sterilize and resist bacteria and bring air quality like a forest.

In order to achieve the purpose, the invention adopts the following technical scheme:

1. the negative oxygen ion raw stock is prepared by a special technology, so that the negative oxygen ion raw stock is non-toxic, harmless and free of radiation pollution;

2. the primary negative oxygen ion pulp is implanted into the first-class pure cotton mosquito net to efficiently release negative oxygen ions, so that a high-quality air oxygen bar space is formed, and the sleeping environment is ensured.

The beneficial effect of this patent technique lies in:

1. mineral components are selected, and the high-temperature calcination manufacturing process ensures that the primary pulp efficiently releases negative oxygen ions, is environment-friendly, healthy and free of radiation pollution;

2. through the effect of negative oxygen ions, effectively disinfect and resist bacteria and establish green oxygen bar space, guarantee user's sleep sanitation and possess the air quality as nature. The high-efficiency and comfortable sleep quality is brought by creating excellent sleep environment.

Drawings

FIG. 1 is a flow chart of the preparation of a primary pulp of negative oxygen ions

In the figure: s1: preparation of rare earth terbium by S2, preparation of rare earth ytterbium globule S3 neodymium iron boron milled powder S4, preparation of rare earth dysprosium particle S5, preparation of mixture S6, mixture calcination S7, grinding of coarse material S8, recovery of rare earth ytterbium and rare earth terbium

The method comprises the following specific implementation steps:

the technical solutions in the embodiments of the present invention will be clearly and completely described below, and it is obvious that the described embodiment is only one embodiment of the present invention, and not all embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.

1. As shown in fig. 1, the process of making the negative oxygen ion raw stock comprises:

s1, preparing materials: the following materials were prepared separately: 15 parts of high-purity germanite, 5 parts of cerium oxide, 40 parts of high-purity tourmaline, 10 parts of conductive titanium dioxide, 10 parts of medical stone, 10 parts of neodymium iron boron, 2 parts of rare earth zirconium, 5 parts of rare earth dysprosium, 1 part of rare earth lanthanum, 1 part of rare earth terbium, 1 part of rare earth ytterbium and a plurality of purified water;

s2, preparing rare earth terbium and rare earth ytterbium balls: respectively grinding the rare earth ytterbium and the rare earth terbium in a grinder until the fineness particle size is not more than 300 meshes, then preparing the rare earth ytterbium powder into small balls with the diameter of 3-3.5mm, and preparing the rare earth terbium into small balls with the diameter of 1.5-2mm for later use;

s3 grinding neodymium iron boron into powder: putting 10 parts of neodymium iron boron (N40SH) into a high-temperature nano grinder, heating to 400 ℃, keeping the temperature for 24 hours, and grinding to 1250 meshes for later use;

s4 preparation of rare earth dysprosium particles: 5 parts of rare earth dysprosium is taken and crushed to about 100 meshes for standby;

s5 preparation of a mixture: crushing 15 parts of the high-purity germanite, 5 parts of cerium oxide, 40 parts of high-purity tourmaline, 10 parts of medical stone, 2 parts of rare earth zirconium and 1 part of rare earth lanthanum which are prepared in the first step to 100 meshes by weight, and stirring the crushed materials in a stirrer at a speed of 100r/min for 15 to 30 minutes to obtain a uniform mixture for later use;

calcining the S6 mixture: calcining the mixture of S5 in a vacuum heating furnace, heating to 2950-3000 ℃, keeping the temperature constant for 120 hours, cooling to 2550 ℃, injecting rare earth dysprosium particles of S4, keeping the temperature constant for 24 hours, cooling to 1330 ℃, injecting 1 part by weight of rare earth terbium globules of S2, keeping the temperature constant for 24 hours, cooling to 800 ℃, injecting 1 part by weight of rare earth ytterbium particles of S2 and 10 parts by weight of conductive titanium dioxide, keeping the temperature constant for 12 hours, cooling to 400 ℃, injecting neodymium iron boron powder of S3, keeping the temperature constant for 12 hours, cooling to 20 ℃, injecting 150 parts by weight of water, opening a furnace cover after half an hour, and filtering with a 50-mesh steel net to obtain the crude negative oxygen ion protoplasm;

s7 grinding coarse material: grinding the coarse material obtained in the step S6 in a grinder to 1250 meshes to obtain high-concentration negative oxygen ion raw stock;

s8 recovering rare earth ytterbium and terbium: recovering the rare earth ytterbium and terbium from the residue of S6: pouring the residues into a stainless steel screen with the diameter of 2.5mm, and shaking the screen to obtain rare earth ytterbium spheres in the screen; and putting the remainder of the step into a screen with the diameter of 1mm, and shaking the screen to obtain the rare earth terbium spheres.

2. The method for implanting negative oxygen ions based on the negative oxygen ion primary pulp comprises the following steps:

heating the primary pulp of the negative oxygen ions to 45 ℃ and keeping the temperature, then putting the customized first-class pure cotton mosquito net into the primary pulp, and soaking for 240 minutes to ensure that each cotton spinning thread of the mosquito net absorbs enough amount of the primary pulp of the negative oxygen ions. And taking the mosquito net out, draining water, and baking at 60 ℃ until the primary pulp is completely solidified. And when the processing is finished, the negative oxygen ion mosquito net can release more than 3000 negative oxygen ion concentrations enough to cover the wrapping range of the negative oxygen ion mosquito net, so that the sleeping environment is improved.

The negative oxygen ion mosquito net manufactured by the steps can efficiently release negative oxygen ions beneficial to a human body, has efficient sterilization and antibiosis effects, forms an air environment like nature in the range of the mosquito net cage, and promotes high-quality sleep quality by using a high-quality sleep environment.