Super-permeable nano-scale small molecular group water

Abstract

The invention provides super-permeable nanoscale small-molecular-group water, and relates to the field of small-molecular-group water. The ultra-permeable nano-scale small molecular group water comprises the following raw materials in percentage by weight: 30%-40% of tourmaline, 30%-40% of medical stone, 20%-30% of limonite and purified water, the purified water adopts distilled water and accounts for 10-20 times of the total amount of the materials, the tourmaline adopts high-purity tourmaline powder, the granularity of the tourmaline is larger than or equal to 100 meshes, and the ultra-permeable nano-scale small molecular group water is prepared from the following raw materials in percentage by weight: 30%-40% of tourmaline, 30%-40% of medical stone and 20%-30% of limonite. The medical stone is used for releasing negative ions and far infrared rays in the heating process, the medical stone is treated medical stone powder with the particle size being larger than or equal to 100 meshes, and the limonite powder obtained after screening is conducted on the limonite with the particle size being larger than or equal to 100 meshes. Through the synergistic effect of the tourmaline, the medical stone and the Muyu stone, water molecular groups are effectively cracked to form small molecular group water, and through the application of technologies such as heating stirring, ultrasonic treatment and filtering purification, high quality and multifunctionality of water are ensured.

Description

Technical Field

[0001] This invention relates to the field of small molecule cluster water technology, specifically to a super-permeable nanoscale small molecule cluster water. Background Technology

[0002] Water molecules do not exist in nature as single molecules, but rather as clusters of different sizes formed through hydrogen bonding. Water clusters in ordinary water typically consist of 10 to 13 water molecules. These larger clusters affect the physical and chemical properties of water, such as solubility, permeability, and bioavailability. Smaller water clusters (composed of 5 to 6 water molecules) have higher permeability, solubility, and bioavailability because their smaller size allows them to more easily cross cell membranes.

[0003] Due to its unique physicochemical properties, small molecule cluster water has a wide range of applications in various fields. However, the electrolysis of water requires the periodic replacement of electrodes, which may lead to the generation of harmful byproducts during the electrolysis process. Therefore, those skilled in the art have provided an ultra-permeable nanoscale small molecule cluster water solution to address the problems mentioned in the background. Summary of the Invention

[0004] (a) Technical problems to be solved To address the shortcomings of existing technologies, this invention provides an ultra-permeable nanoscale small molecule cluster water, which solves the problems of more environmentally friendly preparation of small molecule cluster water and shorter processing time.

[0005] (II) Technical Solution To achieve the above objectives, the present invention is implemented through the following technical solution: a super-permeable nano-sized small molecule cluster water, comprising the following raw materials: tourmaline, maifan stone, mokuyu stone and purified water.

[0006] Preferably, the percentage of the ultra-permeable nano-sized small molecular cluster water is: 30% to 40% tourmaline, 30% to 40% maifan stone, 20% to 30% mokuyu stone, and the purified water is distilled water, accounting for 10 to 20 times the total amount of the above materials.

[0007] Preferably, the tourmaline is high-purity tourmaline powder with a particle size ≥100 mesh, used to release negative ions and far-infrared rays during heating; the maifan stone is processed maifan stone powder with a particle size ≥100 mesh, used to adsorb impurities and harmful substances in the water and release beneficial trace elements; and the screened mochi stone powder with a particle size ≥100 mesh is used to further improve water quality by utilizing ion exchange capacity.

[0008] Preferably, a method for preparing superpermeable nanoscale small molecule cluster water includes the following steps: S1. Use an electronic scale to weigh the required amount of tourmaline, maifanite, and mochi stone separately to ensure accurate proportions. Place the weighed materials into a mixer and stir thoroughly for 10-15 minutes to ensure even distribution of all components. S2. Place the mixed materials into a high-temperature furnace, set the furnace temperature to 1200℃-1500℃, and start heating. Maintain the high temperature for 2-3 hours, stirring every 30 minutes to prevent clumping and uneven melting. After melting, turn off the furnace power and allow the melt to cool naturally to about 800℃ inside the furnace. S3.1 Remove the molten material from the high-temperature furnace and place it in the cooling chamber, allowing the melt to cool slowly to room temperature in the cooling chamber: S3.2 First, put the cooled melt into a pulverizer for pulverization. Use nano-level pulverization equipment to obtain finer particles. The particle size of the pulverized particles should be controlled below 100 mesh. Sieve the pulverized material to ensure uniform particle size. S4.1. Mix the pulverized material with purified water at a ratio of 1:10 to 1:20. After mixing, place the mixture in a heated stirrer and set the temperature to 60℃-80℃. Stir continuously for 1-2 hours to ensure that the material and water are fully mixed. S4.2 Transfer the heated and stirred mixture to an ultrasonic generator, set the ultrasonic frequency to 20kHz-40kHz, and the treatment time to 30-60 minutes. Use ultrasonic treatment to further reduce the size of water molecule clusters. S5.1. Use a multi-layer filter to filter the treated water to remove suspended solids and impurities, ensuring a filtration accuracy of 0.1 microns or higher during the filtration process. Finally, pass the filtered water through an activated carbon filter to further remove trace amounts of harmful substances and ions. S5.1. Use ion exchange resin to perform ion exchange on water to remove excess minerals such as calcium and magnesium: S6. Aseptically package the treated small molecule cluster water to ensure that the water quality is not contaminated. Store the packaged water in a cool, dry, and dark place, avoiding high temperature and direct sunlight. Ensure that the storage temperature is controlled between 5℃ and 25℃.

[0009] Preferably, in step S2, during the heating and melting process, the required heat needs to be calculated to ensure complete melting of the material, and the power of the heating equipment is determined based on the heat to ensure that the target temperature is reached within a reasonable time. The following formula is used: Calorie calculation:

[0010] in, It is the required calories. It's about the quality of the materials. It is specific heat capacity. It's a temperature change: Power calculation:

[0011] in, It's power. It is the required calories. It's time.

[0012] Preferably, in step S4.2, when using ultrasonic treatment to reduce the size of water molecule clusters, it is necessary to determine the wavelength of the ultrasonic waves to ensure the treatment effect. Simultaneously, it is also necessary to determine the power density of the ultrasonic generator to ensure effective treatment. The following formula is required: The relationship between ultrasonic frequency and wavelength:

[0013] in, It's the wavelength. It is the speed of sound (approximately 1500 m / s in water). It is frequency: Ultrasonic power density:

[0014] Preferably, the purified water is distilled water and its conductivity is also required to be below 10 μS / cm.

[0015] Preferably, in step S4.2, bubbles may be generated during the ultrasonic treatment process, and a vacuum degassing device is used to eliminate the bubbles.

[0016] (III) Beneficial Effects This invention provides an ultra-permeable nanoscale small molecule cluster water. It has the following beneficial effects: 1. By using the synergistic effect of tourmaline, maifanite, and moyu stone, water molecule clusters are effectively broken down into smaller water molecule clusters. The negative ions released by tourmaline and the porous structure of maifanite work together to enhance the water's solubility.

[0017] 2. By using technologies such as heating and stirring, ultrasonic treatment, and filtration purification, the high quality and multifunctionality of the water are ensured. Natural materials and physical treatment methods are used to reduce the impact on the environment. Among them, the cavitation effect of ultrasound further reduces the size of water molecule clusters and enhances the permeability of water. The heating and stirring process helps to break the hydrogen bonds between water molecules, forming smaller and more stable water molecule clusters. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the process of the present invention; Figure 2 A schematic diagram of the process for preparing the materials for this invention; Figure 3 This is a schematic diagram of the small molecule processing flow of the present invention; Figure 4 This is a schematic diagram of the filtration and purification process of the present invention. Detailed Implementation

[0019] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0020] Example 1: like Figure 1-4 As shown, this embodiment of the invention provides a super-permeable nano-sized small molecule cluster water, comprising the following raw materials: tourmaline, maifan stone, mokuyu stone and purified water.

[0021] It should be noted that the far-infrared rays and negative ions released by tourmaline during heating help neutralize free radicals, the porous structure of maifan stone can adsorb harmful substances in water and reduce oxidative stress, and the ion exchange capacity of mokuyu stone helps regulate the pH and mineral content of water. Furthermore, tourmaline, maifan stone, and mokuyu stone are all natural materials and are environmentally friendly.

[0022] The percentage of ultra-permeable nano-sized small molecule cluster water used is: tourmaline 30%–40%, maifan stone 30%–40%, mokuyu stone 20%–30%, and the pure water used is distilled water, which accounts for 10 to 20 times the total amount of the above materials.

[0023] Tourmaline uses high-purity tourmaline powder with a particle size ≥100 mesh, which is used to release negative ions and far-infrared rays during heating. Maifan stone uses processed maifan stone powder with a particle size ≥100 mesh, which is used to adsorb impurities and harmful substances in water and release beneficial trace elements. Mokuyu stone uses screened mokuyu stone powder with a particle size ≥100 mesh, which is used to further improve water quality by utilizing ion exchange capacity.

[0024] It should be noted that by using the synergistic effect of tourmaline, maifanite, and moyu stone, water molecule clusters are effectively broken down into smaller water molecule clusters. The negative ions released by tourmaline and the porous structure of maifanite work together to enhance the water's solubility.

[0025] A method for preparing superpermeable nanoscale small molecule cluster water includes the following steps: S1. Use an electronic scale to weigh the required amount of tourmaline, maifanite, and mochi stone separately to ensure accurate proportions. Place the weighed materials into a mixer and stir thoroughly for 10-15 minutes to ensure even distribution of all components. S2. Place the mixed materials into a high-temperature furnace, set the furnace temperature to 1200℃-1500℃, and start heating. Maintain the high temperature for 2-3 hours, stirring every 30 minutes to prevent clumping and uneven melting. After melting, turn off the furnace power and allow the melt to cool naturally to about 800℃ inside the furnace. S3.1 Remove the molten material from the high-temperature furnace and place it in the cooling chamber, allowing the melt to cool slowly to room temperature in the cooling chamber: S3.2 First, put the cooled melt into a pulverizer for pulverization. Use nano-level pulverization equipment to obtain finer particles. The particle size of the pulverized particles should be controlled below 100 mesh. Sieve the pulverized material to ensure uniform particle size. S4.1. Mix the pulverized material with purified water at a ratio of 1:10 to 1:20. After mixing, place the mixture in a heated stirrer and set the temperature to 60℃-80℃. Stir continuously for 1-2 hours to ensure that the material and water are fully mixed. S4.2 Transfer the heated and stirred mixture to an ultrasonic generator, set the ultrasonic frequency to 20kHz-40kHz, and the treatment time to 30-60 minutes. Use ultrasonic treatment to further reduce the size of water molecule clusters. S5.1. Use a multi-layer filter to filter the treated water to remove suspended solids and impurities, ensuring a filtration accuracy of 0.1 microns or higher during the filtration process. Finally, pass the filtered water through an activated carbon filter to further remove trace amounts of harmful substances and ions. S5.1. Use ion exchange resin to perform ion exchange on water to remove excess minerals such as calcium and magnesium: S6. Aseptically package the treated small molecule cluster water to ensure that the water quality is not contaminated. Store the packaged water in a cool, dry, and dark place, avoiding high temperature and direct sunlight. Ensure that the storage temperature is controlled between 5℃ and 25℃.

[0026] It should be noted that by using technologies such as heating and stirring, ultrasonic treatment, and filtration purification, the high quality and multifunctionality of the water are ensured. The use of natural materials and physical treatment methods reduces the impact on the environment. Among these, the cavitation effect of ultrasound further reduces the size of water molecule clusters and enhances the permeability of water. The heating and stirring process helps to break the hydrogen bonds between water molecules, forming smaller and more stable water molecule clusters.

[0027] In step S2, during the heating and melting process, it is necessary to calculate the required heat to ensure that the material is completely melted, and determine the power of the heating equipment based on the heat to ensure that the target temperature is reached within a reasonable time. The following formula will be used: Calorie calculation:

[0028] in, It is the required calories. It's about the quality of the materials. It is specific heat capacity. It's a temperature change: Power calculation:

[0029] in, It's power. It is the required calories. It's time.

[0030] In step S4.2, when using ultrasonic treatment to reduce the size of water molecule clusters, it is necessary to determine the wavelength of the ultrasonic waves to ensure the treatment effect. It is also necessary to determine the power density of the ultrasonic generator to ensure effective treatment. The following formula is required: The relationship between ultrasonic frequency and wavelength:

[0031] in, It's the wavelength. It is the speed of sound (approximately 1500 m / s in water). It is frequency: Ultrasonic power density:

[0032] When using distilled water, it is also necessary to ensure that the conductivity is below 10 μS / cm. In step S4.2, bubbles may be generated during the ultrasonic treatment process. A vacuum degassing device is used to eliminate the bubbles.

[0033] Working Principle: Weigh the required tourmaline, maifanite, and mochi stone separately using an electronic scale to ensure accurate proportions. Place the weighed materials into a mixer and stir thoroughly for 10-15 minutes to ensure uniform distribution of components. Place the mixed material into a high-temperature furnace, set the furnace temperature to 1200℃-1500℃, and begin heating. Maintain this high temperature for 2-3 hours, stirring every 30 minutes to prevent clumping and uneven melting. After melting, turn off the furnace power and allow the melt to cool naturally to approximately 800℃. Remove the molten material from the high-temperature furnace and place it in a cooling chamber, allowing it to cool slowly to room temperature. First, pulverize the cooled melt using a nano-level pulverizer to obtain finer particles. The particle size should be controlled below 100 mesh. Sieve the pulverized material to ensure uniform particle size. Mix the pulverized material with pure water at a ratio of 1:10 to 1:20. After mixing, place the mixture in a heated stirrer and set the temperature to 60℃-80℃, stirring continuously for 1-2 hours to ensure thorough mixing of the materials and water. Transfer the heated and stirred mixture to an ultrasonic generator, setting the ultrasonic frequency to 20kHz-40kHz and the treatment time to 30-60 minutes. Use ultrasonic treatment to further reduce the size of water molecule clusters. Use a multi-layer filter to filter the treated water to remove suspended solids and impurities, ensuring a filtration accuracy of 0.1 microns or higher during the filtration process. Finally, pass the filtered water through an activated carbon filter to further remove trace amounts of harmful substances and ions. Use ion exchange resin to perform ion exchange on the water to remove excess minerals such as calcium and magnesium. Aseptically package the treated small molecule cluster water to ensure that the water quality is not contaminated. Store the packaged water in a cool, dry, and dark place, avoiding high temperatures and direct sunlight, ensuring that the storage temperature is controlled between 5℃ and 25℃.

[0034] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A super-permeated nanoscale small molecular group water, characterized in that: Including the following raw materials: Tourmaline, maifanite, mokuyu stone, and purified water.

2. The super-permeated nanometer-sized small molecular group water according to claim 1, characterized in that: The percentage of ultra-permeable nano-sized small molecule cluster water used is as follows: tourmaline 30%–40%, maifan stone 30%–40%, mokuyu stone 20%–30%, and the purified water is distilled water, accounting for 10 to 20 times the total amount of the above materials.

3. The super-permeated nanometer-sized small molecular group water according to claim 1, characterized in that: The tourmaline is made of high-purity tourmaline powder with a particle size ≥100 mesh, used to release negative ions and far-infrared rays during heating. The maifan stone is made of processed maifan stone powder with a particle size ≥100 mesh, used to adsorb impurities and harmful substances in the water and release beneficial trace elements. The sifted mochi stone powder with a particle size ≥100 mesh is used to further improve water quality by utilizing ion exchange capacity.

4. The method of claim 1, wherein the method is characterized by: Includes the following steps: S1. Use an electronic scale to weigh the required amount of tourmaline, maifanite, and mochi stone separately to ensure accurate proportions. Place the weighed materials into a mixer and stir thoroughly for 10-15 minutes to ensure even distribution of all components. S2. Place the mixed materials into a high-temperature furnace, set the furnace temperature to 1200℃-1500℃, and start heating. Maintain the high temperature for 2-3 hours, stirring every 30 minutes to prevent clumping and uneven melting. After melting, turn off the furnace power and allow the melt to cool naturally to about 800℃ inside the furnace. S3.1 Remove the molten material from the high-temperature furnace and place it in the cooling chamber, allowing the melt to cool slowly to room temperature in the cooling chamber: S3.2 First, put the cooled melt into a pulverizer for pulverization. Use nano-level pulverization equipment to obtain finer particles. The particle size of the pulverized particles should be controlled below 100 mesh. Sieve the pulverized material to ensure uniform particle size. S4.

1. Mix the pulverized material with purified water at a ratio of 1:10 to 1:

20. After mixing, place the mixture in a heated stirrer and set the temperature to 60℃-80℃. Stir continuously for 1-2 hours to ensure that the material and water are fully mixed. S4.2 Transfer the heated and stirred mixture to an ultrasonic generator, set the ultrasonic frequency to 20kHz-40kHz, and the treatment time to 30-60 minutes. Use ultrasonic treatment to further reduce the size of water molecule clusters. S5.

1. Use a multi-layer filter to filter the treated water to remove suspended solids and impurities, ensuring a filtration accuracy of 0.1 microns or higher during the filtration process. Finally, pass the filtered water through an activated carbon filter to further remove trace amounts of harmful substances and ions. S5.

1. Use ion exchange resin to perform ion exchange on water to remove excess minerals such as calcium and magnesium: S6. Aseptically package the treated small molecule cluster water to ensure that the water quality is not contaminated. Store the packaged water in a cool, dry, and dark place, avoiding high temperature and direct sunlight. Ensure that the storage temperature is controlled between 5℃ and 25℃.

5. The super-permeated nanometer-sized small molecular group water according to claim 4, characterized in that: In step S2, during the heating and melting process, it is necessary to calculate the required heat to ensure that the material is completely melted, and determine the power of the heating equipment based on the heat to ensure that the target temperature is reached within a reasonable time. The following formula will be used: Calorie calculation: ； where, Q is the heat required, m is the mass of the material, C is the specific heat capacity, ΔT is the temperature change: Power calculation: ； wherein, is power, is the required heat, is time.

6. The super-permeated nanometer-sized small molecular group water according to claim 4, characterized in that: In step S4.2, when using ultrasonic treatment to reduce the size of water molecule clusters, it is necessary to determine the wavelength of the ultrasonic waves to ensure the treatment effect. Simultaneously, it is also necessary to determine the power density of the ultrasonic generator to ensure effective treatment. The following formula is required: The relationship between ultrasonic frequency and wavelength: ； wherein, is the wavelength, is the speed of sound (approximately 1500 m / s in water), is the frequency: Ultrasonic power density: 。 7. The super-permeated nanometer-sized small molecular group water according to claim 1, characterized in that: The purified water used is distilled water, and its conductivity must be less than 10 μS / cm.

8. The super-permeated nanometer-sized small molecular group water according to claim 4, characterized in that: In step S4.2, bubbles may be generated during the ultrasonic treatment process. A vacuum debubbling device is used to eliminate the bubbles.

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