Formula of hydrogen, selenium-rich and strontium-rich mineral micromolecule drinking water

Abstract

The invention discloses a hydrogen, selenium-rich and strontium-rich mineral micromolecule drinking water formula, and belongs to the technical field of drinking water treatment. According to the formula, common tap water is converted into high-quality drinking water through a specific process. Firstly, high-quality hydrogen production materials, selenium-containing ore, tillite, strontium jade, stone aerolite, stone iron aerolite and sillimanite are selected, and safety is ensured through component analysis and impurity detection. The method comprises the following steps: mixing 10-30% of a hydrogen production material and 10-30% of selenium-containing ore according to a ratio, crushing by using a professional crusher, cleaning, disinfecting, treating by using ultraviolet rays and a 0.1-0.3% food-grade hydrogen peroxide solution, manufacturing a filter element, and filling ion exchange resin or activated carbon in the filter element. Finally, the water quality is comprehensively detected, and physical, microbial, chemical and toxicological indexes are covered. The formula can be used for stably preparing the drinking water which meets the drinking standard and is rich in various beneficial minerals, so that the requirements of different consumers are met.

Description

Technical Field

[0001] The present invention relates to the technical field of drinking water treatment, specifically referring to a formula for small molecule drinking water containing hydrogen, selenium, strontium and other minerals. Through specific raw material selection, treatment and filtration processes, ordinary tap water is converted into high-quality drinking water rich in hydrogen, selenium, strontium and other beneficial minerals and meeting drinking standards. Background Art

[0002] With the improvement of people's living standards, the quality requirements for drinking water are getting higher and higher. Traditional tap water, after simple disinfection treatment, can meet the basic hygiene standards, but the mineral content in the water is relatively single and difficult to meet the human body's demand for various trace elements. At the same time, tap water in some areas may have problems such as excessive heavy metals and residual chlorine, and long-term drinking may pose a potential threat to human health.

[0003] In order to improve the quality of drinking water, various types of drinking water products have emerged on the market, such as purified water, mineral water, etc. Although purified water removes impurities and harmful substances in the water, it also removes beneficial minerals for the human body; mineral water supplements trace elements in the water by artificially adding minerals, but the types and contents of minerals added in this way are relatively limited and there may be problems with uneven addition.

[0004] In addition, as a new type of healthy drinking water, hydrogen-rich water has received more and more attention from consumers due to its potential effects such as antioxidant and anti-inflammatory. Selenium and strontium, as essential trace elements for the human body, play important roles in physiological processes such as human growth and development, metabolism, and immune regulation. Selenium has effects such as antioxidant, enhancing immunity, and preventing cancer; strontium has a positive impact on bone health, cardiovascular health, etc. However, there are relatively few drinking water products on the market that are rich in hydrogen, selenium, strontium and other minerals at the same time, and the preparation process is not perfect enough.

[0005] Therefore, developing a formula and process for effectively preparing drinking water rich in hydrogen, selenium, and strontium minerals has important market demand and practical significance. The purpose of the present invention is to provide a safe, efficient, and stable method for preparing drinking water rich in hydrogen, selenium, and strontium minerals by reasonably selecting raw materials and optimizing the treatment process. Summary of the Invention

[0006] The present invention aims to solve the above technical problems and provide a formula for small molecule drinking water containing hydrogen, selenium, and strontium minerals. Through scientific and reasonable raw material selection, precise proportioning, strict treatment processes, and comprehensive water quality detection, high-quality drinking water rich in hydrogen, selenium, strontium and other beneficial minerals and meeting drinking standards is prepared to meet people's needs for healthy drinking water.

[0007] In order to solve the above technical problems, the technical solution provided by the present invention is: a formula of drinking water containing multiple minerals including hydrogen, selenium and strontium, including the steps of preparing drinking water, specifically including:

[0008] S1: Ore selection and testing

[0009] Select high-quality hydrogen-producing materials, selenium-containing ores, moraine, strontium jade, stony meteorites, stony-iron meteorites and silica-based stones without obvious impurities and damage, and conduct component analysis and impurity testing on each ore to ensure that it meets the safety standards for drinking water filtration materials and avoids the introduction of harmful substances;

[0010] S2: Proportion determination and mixing

[0011] Mix according to the ratio of 10-30% hydrogen-producing material, 10-30% selenium-containing ore, 20-30% moraine, 10-30% strontium jade, 10-30% stony meteorite, 5-25% stony-iron meteorite, and 5-25% silica-based stone;

[0012] S3: Crushing

[0013] Choose a professional ore crusher that can adjust the crushing particle size to meet the requirement of an average particle size of 1-5 mm;

[0014] S4: Cleaning

[0015] Put the crushed mixed ore particles into the cleaning tank, add enough clean water, turn on the stirring device, and make the ore particles roll fully in the water to remove dust and impurities on the surface. The stirring time can be set to 15-30 minutes. Repeat the rinse 3-5 times until the discharged water is clear and transparent without obvious impurities.

[0016] S5: Disinfection

[0017] The cleaned ore particles are evenly spread on the conveyor belt of the ultraviolet disinfection equipment for transmission and disinfection;

[0018] Then, completely immerse the ore particles in the prepared hydrogen peroxide solution for 30-60 minutes. After the immersion is completed, remove the ore particles and rinse them with plenty of water until no hydrogen peroxide residue is detected.

[0019] S6: Making filter element

[0020] Use fine filter and coarse filter to surround a double-layer cylinder, where the fine filter roll is a solid columnar structure, and the ore particles are filled between the fine filter and the coarse filter; install the filter element on the filter device and connect the faucet;

[0021] S7: Water quality testing

[0022] Comprehensively detect the water quality before and after filtration. The detection items include but are not limited to: physical indicators, microbial indicators, chemical indicators, and toxicological indicators.

[0023] Furthermore, in the S3 crushing treatment step, sample and detect the ore after the initial crushing. For the parts that do not meet the particle size requirements, secondary crushing or screening treatment can be carried out.

[0024] Furthermore, in the S5 disinfection treatment step, use a food-grade hydrogen peroxide solution with a concentration of 0.1%-0.3%.

[0025] Furthermore, in the S6 step of making the filter element, the coarse filter screen is a stainless steel coarse filter screen with a pore diameter of 2-3 mm, and the fine filter screen is a food-grade nylon fine filter screen with a pore diameter of 0.1-0.3 mm.

[0026] Furthermore, in the S6 step of making the filter element, the fine filter screen is a hollow cylindrical structure, and the inside is filled with ion exchange resin or activated carbon.

[0027] Furthermore, in the S1 ore selection and inspection step, the hydrogen-producing material is a magnesium-based alloy, and the selenium-containing ore is clausthalite.

[0028] Furthermore, in the S1 ore selection and inspection step, the hydrogen-producing material is sodium borohydride, and the selenium-containing ore is guanajuatite.

[0029] The advantages of the present invention compared with the prior art are as follows:

[0030] 1. Rich in various beneficial minerals: By reasonably selecting raw materials and ratios, it is possible to prepare drinking water rich in various minerals beneficial to the human body such as hydrogen, selenium, and strontium, meeting the human body's demand for various trace elements and helping to maintain normal physiological functions of the human body.

[0031] 2. Safe and reliable: Strictly select and inspect the raw materials to ensure compliance with the safety standards of drinking water filter materials. Use ultraviolet disinfection and food-grade hydrogen peroxide solution for disinfection to effectively kill microorganisms and avoid secondary pollution. Comprehensive water quality detection further guarantees the safety of drinking water.

[0032] 3. Excellent water quality: Through the synergistic effect of the coarse filter screen, fine filter screen, ion exchange resin, and activated carbon, etc., effectively remove impurities, heavy metal ions, residual chlorine, and organic substances in the water, improving the quality of drinking water and making the taste of the water better.

[0033] 4. Strong adjustability: By adjusting the ratios of various raw materials, drinking water with different mineral contents can be prepared according to the needs of different consumers to meet personalized needs. Detailed implementation manners

[0034] In order to make the technical problems, technical solutions and beneficial effects to be solved by the present invention more clear and understandable, the present invention will be further described in detail below in conjunction with embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not used to limit the present invention.

[0035] I. Working principle of the present invention:

[0036] S1: Ore selection and inspection

[0037] Select hydrogen-producing materials, selenium-containing ores, tillite, strontium jade, stone meteorites, stony-iron meteorites and silicon-based stones with excellent quality, no obvious impurities and damage. Conduct component analysis and impurity detection on each ore to ensure that it meets the safety standards of drinking water filtration materials and avoid introducing harmful substances. The hydrogen-producing materials can be magnesium-based alloys, sodium borohydride, etc.; the selenium-containing ores can be galena selenide, bismuthinite selenide, etc. For example, when the hydrogen-producing material is a magnesium-based alloy, its main component magnesium is an essential macroelement for the human body and is beneficial to human health when ingested in an appropriate amount. And galena selenide has a relatively high selenium content, and the selenium content in water can be effectively increased after appropriate treatment.

[0038] S2: Ratio determination and mixing

[0039] Mix according to the ratio of 10-30% of hydrogen-producing materials, 10-30% of selenium-containing ores, 20-30% of tillite, 10-30% of strontium jade, 10-30% of stone meteorites, 5-25% of stony-iron meteorites, and 5-25% of silicon-based stones. Different raw material ratios will affect the contents of minerals such as hydrogen, selenium, and strontium in the final drinking water. For example, if it is desired to prepare drinking water with a higher hydrogen content, the ratio of hydrogen-producing materials can be appropriately increased; if more attention is paid to the contents of selenium and strontium, the ratios of selenium-containing ores and strontium jade can be adjusted accordingly. By reasonably adjusting the ratios of each raw material, the mineral content requirements of different consumers can be met.

[0040] S3: Crushing treatment

[0041] Select a professional ore crusher, which should have the function of adjustable crushing particle size to meet the requirement of an average particle size of 1-5 mm. Take samples of the ore after the initial crushing for detection, and for the parts that do not meet the particle size requirements, secondary crushing or screening treatment can be carried out. The appropriate particle size range can not only ensure that the ore particles have a sufficient specific surface area to improve the contact efficiency with water, but also avoid blockage of the water flow caused by too small particles. For example, ore particles with an average particle size of 3 mm can make the water flow pass through the filter element more smoothly while ensuring sufficient reaction.

[0042] S4: Cleaning

[0043] Put the crushed mixed ore particles into the cleaning tank, add sufficient clean water, and turn on the stirring device to make the ore particles tumble fully in the water to remove the dust and impurities on the surface. The stirring time can be set to 15 - 30 minutes, and the specific time is adjusted according to the amount of impurities. After stirring, drain the sewage through the drain port, then add clean water again for rinsing, and repeat the rinsing 3 - 5 times until the drained water is clear and transparent without obvious impurities. The cleaning process can effectively remove the impurities on the surface of the ore particles and avoid their adverse effects on subsequent filtration and water quality.

[0044] S5: Disinfection treatment

[0045] Lay the cleaned ore particles evenly on the conveyor belt of the ultraviolet disinfection equipment for conveyor disinfection. Then completely immerse the ore particles in the prepared food - grade hydrogen peroxide solution with a concentration of 0.1% - 0.3%, and set the soaking time to 30 - 60 minutes. After soaking, take out the ore particles and rinse them with a large amount of clean water until no hydrogen peroxide residue can be detected. Ultraviolet disinfection can kill some microorganisms on the surface of the ore particles, and soaking in the hydrogen peroxide solution can further disinfect to ensure the removal of microorganisms and avoid secondary pollution to the water quality.

[0046] S6: Make the filter element

[0047] Use a stainless - steel coarse filter screen with a pore size of 2 - 3 mm and a food - grade nylon fine filter screen with a pore size of 0.1 - 0.3 mm to form a double - layer cylinder. The fine filter screen roll is a solid columnar structure, and the ore particles are filled between the fine filter screen and the coarse filter screen. The coarse filter screen can intercept larger particulate impurities in the water, such as rust and sediment, to protect the subsequent filter materials. The fine filter screen prevents the ore particles from flowing out and ensures the purity of the effluent. In addition, the fine filter screen can be a hollow cylinder structure with ion - exchange resin or activated carbon filled inside. The ion - exchange resin can remove heavy metal ions in the water, and the activated carbon can adsorb residual chlorine, organic substances, etc. in the water to further improve the water quality. After loading the filter element onto the filtering device and connecting the faucet, tap water can be filtered.

[0048] S7: Water quality detection

[0049] Conduct a comprehensive detection of the water quality before and after filtration. The detection items include but are not limited to physical indicators (acidity - alkalinity (pH value), conductivity, turbidity, chromaticity, etc.), microbial indicators (total number of bacteria, number of Escherichia coli groups, pathogenic bacteria, etc.), chemical indicators (heavy metal content, mineral content, residual chlorine content, etc.), and toxicological indicators (nitrite, fluoride, etc.). Through comprehensive detection, ensure that the filtered drinking water meets the relevant national drinking standards and guarantee the health of consumers.

[0050] Taking magnesium-based alloy as an example, the magnesium in magnesium-based alloy reacts chemically with water to produce hydrogen, thereby enriching the filtered drinking water with hydrogen. If sodium borohydride is used as a hydrogen-producing material, the hydrogen-enriching effect can be achieved under the action of a catalyst.

[0051] Take selenium-lead ore as an example. After crushing, grinding, leaching and other treatments, the selenium in the selenium-lead ore is dissolved out in the form of ions and enters the water, increasing the selenium content in the water. The same is true for selenium-containing ores such as bismuth ore. Through appropriate treatment processes, the selenium element is released into the water to achieve the purpose of selenium enrichment.

[0052] Strontium jade is rich in strontium. When it comes into contact with water, the strontium is slowly released into the water, making the drinking water rich in strontium. 2. Specific implementation methods:

[0054] Example 1

[0055] S1 Raw material selection and processing

[0056] Ore selection and testing: magnesium-based alloys are selected as hydrogen-producing materials, selenium-lead ore is selected as selenium-containing ore, and high-quality moraine, strontium jade, stony meteorite, stony-iron meteorite and silica-based stone are selected. Each ore is strictly analyzed for composition and impurities to ensure that it meets the safety standards for drinking water filtration materials.

[0057] S2 ratio determination and mixing: accurately weigh the proportions of 20% hydrogen-producing material, 20% selenium-containing ore, 25% tillite, 15% strontium jade, 10% stony meteorite, 5% stony-iron meteorite, and 5% silica-based stone, and then use mechanical stirring equipment to fully mix.

[0058] S3 crushing: Use a professional ore crusher with adjustable particle size to crush the mixed ore. During the crushing process, closely monitor the particle size, and finally make the average particle size of the ore reach 3 mm. Sample the initial crushing product for testing, and put the part that does not meet the particle size requirements into the crusher for secondary crushing.

[0059] S4 cleaning: Put the crushed mixed ore particles into a cleaning tank with a stirring device and add sufficient clean water. Turn on the stirring device and stir for 20 minutes to make the ore particles roll fully to remove dust and impurities on the surface. After stirring, drain the sewage and then add clean water to rinse again. Repeat the rinse 4 times until the discharged water is clear and transparent without obvious impurities.

[0060] S5 Disinfection treatment: First, evenly spread the washed ore particles on the conveyor belt of the ultraviolet disinfection equipment and convey them at an appropriate speed for disinfection. Then, prepare a food-grade hydrogen peroxide solution with a concentration of 0.2%, completely immerse the ore particles in it, and soak for 45 minutes. After the soaking is completed, fish out the ore particles and rinse them with a large amount of clear water until no hydrogen peroxide residue can be detected.

[0061] S6 Filter Element Manufacturing and Installation

[0062] Manufacture of the filter element: Use a stainless steel coarse filter screen with a pore diameter of 2 mm and a food-grade nylon fine filter screen with a pore diameter of 0.2 mm to form a double-layer cylinder. Roll the fine filter screen into a solid columnar structure, and evenly fill the ore particles treated above between the fine filter screen and the coarse filter screen. Ion exchange resin is filled inside the fine filter screen to enhance the ability to remove heavy metal ions.

[0063] S7 Installation and Connection: Carefully load the manufactured filter element onto the filtering device and ensure a tight connection with the faucet to prevent water leakage.

[0064] S8 Water Quality Detection

[0065] Conduct a comprehensive detection of the water quality before and after filtration:

[0066] Physical indicators: pH value: 7.5; Conductivity: 250 μS / cm; Turbidity: 0.5 NTU; Chromaticity: 5 degrees.

[0067] Microbial indicators: Total number of bacteria: 10 CFU / mL; Number of Escherichia coli groups: Not detected; Pathogenic bacteria: Not detected;

[0068] Chemical indicators.

[0069] Heavy metal content: Lead < 0.001 mg / L; Mercury < 0.0001 mg / L; Cadmium < 0.0005 mg / L; Chromium < 0.005 mg / L, all far lower than the national standard limits.

[0070] Mineral content: Hydrogen content reaches 1.2 ppm, selenium content is 30 μg / L, and strontium content is 0.8 mg / L.

[0071] Example 2

[0072] S1 Raw Material Selection and Treatment

[0073] Ore selection and inspection: Select sodium borohydride as the hydrogen production material, bismuth selenite as the selenium-containing ore, and high-quality tillite, strontium jade, stone meteorite, stony iron meteorite, and silicon-based stone. Conduct a detailed composition analysis and impurity detection on all ores to ensure their safety.

[0074] S2 Ratio Determination and Mixing: Mix according to the ratio of 15% hydrogen-producing material, 25% selenium-containing ore, 20% tillite, 20% strontium jade, 10% stone meteorite, 5% stony-iron meteorite, and 5% silicon-based stone. Weigh using high-precision weighing equipment and then mix thoroughly using a mixer.

[0075] S3 Crushing Treatment: Use a professional ore crusher to crush the mixed ore to an average particle size of 2 mm. During the crushing process, monitor the particle size in real time and screen the parts that do not meet the requirements to ensure that all particle sizes meet the standards.

[0076] S4 Cleaning: Put the mixed ore particles into a cleaning tank, add sufficient clean water, turn on the stirring device, and stir for 15 minutes to fully clean the ore particles in the water. Then drain the sewage and repeat the rinsing 3 times until the drained water has no obvious impurities.

[0077] S5 Disinfection Treatment: First, convey and disinfect the cleaned ore particles on an ultraviolet disinfection device to ensure comprehensive disinfection. Then, immerse them in a 0.1% food-grade hydrogen peroxide solution for 30 minutes, and finally rinse thoroughly with a large amount of clean water to ensure no hydrogen peroxide residue.

[0078] S6 Filter Cartridge Fabrication and Installation

[0079] Fabricate the filter cartridge: Use a stainless steel coarse filter screen with a pore size of 3 mm and a food-grade nylon fine filter screen with a pore size of 0.1 mm to form a double-layer cylinder. The fine filter screen is designed as a hollow cylinder structure with activated carbon filled inside to effectively adsorb residual chlorine and organic matter in water. Uniformly fill the processed ore particles between the two filter screens.

[0080] Installation and Connection: Accurately load the fabricated filter cartridge onto the filtering device and firmly connect it to the faucet to ensure the tightness of the filtering device.

[0081] S7 Water Quality Testing

[0082] After comprehensive water quality testing, the specific data is as follows:

[0083] Physical Indicators: pH value: 7.6; Conductivity: 280 μS / cm; Turbidity: 0.4 NTU; Chromaticity: 4 degrees.

[0084] Microbial Indicators: Total number of bacteria: 8 CFU / mL; Number of Escherichia coli groups: Not detected; Pathogenic bacteria: Not detected.

[0085] Chemical Indicators: Heavy metal content: Lead < 0.001 mg / L, Mercury < 0.0001 mg / L, Cadmium < 0.0005 mg / L, Chromium < 0.005 mg / L.

[0086] Mineral content: The hydrogen content is 1.0 ppm, the selenium content reaches 40 μg / L, and the strontium content is 0.9 mg / L.

[0087] Example 3

[0088] S1 Raw material selection and treatment

[0089] Ore selection and inspection: Determine that the hydrogen-producing material is a magnesium-based alloy, the selenium-containing ore is clausthalite, select high-quality tillite, strontium jade, stone meteorite, stony-iron meteorite, and silicon-based stone, and conduct strict composition analysis and impurity detection to ensure compliance with safety requirements.

[0090] S2 Ratio determination and mixing: Mix according to the ratio of 25% hydrogen-producing material, 15% selenium-containing ore, 20% tillite, 25% strontium jade, 10% stone meteorite, 3% stony-iron meteorite, and 2% silicon-based stone. Through precise weighing and sufficient stirring, ensure that all raw materials are evenly mixed.

[0091] S3 Crushing treatment: Use a professional ore crusher to crush the ore to an average particle size of 4 mm. Take samples of the crushed ore for testing, and re-crush the parts that do not meet the particle size requirements to ensure that the particle size meets the standard.

[0092] S4 Cleaning: Place the crushed ore particles in a cleaning tank, add sufficient clean water, stir for 30 minutes to allow the ore particles to fully contact with the water, and remove impurities. Repeat the rinsing 5 times until the discharged water is clear and free of impurities.

[0093] S5 Disinfection treatment: First, disinfect the ore particles through an ultraviolet disinfection device during transportation, and then immerse them in a 0.3% food-grade hydrogen peroxide solution for 60 minutes. After soaking, rinse with a large amount of clean water until there is no hydrogen peroxide residue.

[0094] S6 Filter element manufacturing and installation

[0095] Manufacture of the filter element: Use a stainless steel coarse filter screen with a pore size of 2.5 mm and a food-grade nylon fine filter screen with a pore size of 0.3 mm to form a double-layer cylinder. The fine filter screen roll is a solid columnar structure, filled with ore particles, and a mixture of ion exchange resin and activated carbon is filled inside the fine filter screen to comprehensively remove heavy metal ions, residual chlorine, and organic matter in the water, etc.

[0096] Installation and connection: Load the manufactured filter element onto the filtration device and connect it to the faucet to ensure the normal operation of the filtration device.

[0097] S7 Water quality detection

[0098] The water quality detection results show that the water quality detection results are as follows:

[0099] Physical indicators: pH value: 7.4; Conductivity: 260 μS / cm; Turbidity: 0.6 NTU; Chromaticity: 6 degrees.

[0100] Microbial indicators: Total number of bacteria: 12 CFU / mL; Number of Escherichia coli groups: Not detected; Pathogenic bacteria: Not detected.

[0101] Chemical indicators: Heavy metal content: Lead < 0.001 mg / L, Mercury < 0.0001 mg / L, Cadmium < 0.0005 mg / L, Chromium < 0.005 mg / L.

[0102] Mineral content: Hydrogen content is 1.3 ppm, Selenium content is 25 μg / L, Strontium content is 1.0 mg / L.

[0103] Comparative Example 1

[0104] Raw material selection and treatment

[0105] Ore selection and inspection: The same magnesium-based alloy, selenite, tillite, strontium jade, stony meteorite, stony-iron meteorite, and silicon-based stone as in Example 1 are selected, and component analysis and impurity detection are carried out.

[0106] Ratio determination and mixing: Different from Example 1, the raw material ratio is changed to 5% hydrogen-producing material, 5% selenium-containing ore, 40% tillite, 10% strontium jade, 20% stony meteorite, 15% stony-iron meteorite, and 5% silicon-based stone. After weighing according to this ratio, they are mixed.

[0107] Crushing, cleaning, and disinfection treatment: The same crushing, cleaning, and disinfection processes as in Example 1 are adopted to ensure consistent treatment conditions.

[0108] Filter element manufacturing and installation

[0109] Coarse filter screen, fine filter screen, and internal filling material of the same specifications as in Example 1 are used to manufacture and install the filter element.

[0110] Water quality detection

[0111] After detection, the hydrogen content in the filtered drinking water is only 0.5 ppm, the selenium content is 15 μg / L, and the strontium content is 0.4 mg / L. Compared with Example 1, the contents of hydrogen, selenium, and strontium are significantly lower, and some physical indicators such as conductivity also deviate from the ideal range. Although it still meets the national drinking standards, the overall water quality has declined.

[0112] Comparative Example 2

[0113] Raw material selection and treatment

[0114] Ore Selection and Inspection: Select the same sodium borohydride, bismuth selenite ore, tillite, strontium jade, stony meteorite, stony-iron meteorite, and silicon-based stone as in Example 2, and conduct strict inspections.

[0115] Ratio Determination and Mixing: Adopt a different ratio from Example 2, with 35% hydrogen-producing material, 35% selenium-containing ore, 10% tillite, 10% strontium jade, 5% stony meteorite, 3% stony-iron meteorite, and 2% silicon-based stone. After precise weighing, mix evenly.

[0116] Crushing, Cleaning, and Disinfection Treatment: Adopt the same crushing, cleaning, and disinfection processes as in Example 2.

[0117] Filter Cartridge Fabrication and Installation

[0118] The method of fabricating and installing the filter cartridge is the same as in Example 2.

[0119] Water Quality Detection

[0120] The test results show that the hydrogen content in the filtered drinking water is too high, reaching 2.0 ppm, exceeding the generally considered suitable drinking range, which may affect the taste and human absorption. The selenium content is also on the high side, at 55 μg / L. At the same time, although some microbial indicators meet the standards, they are close to the critical values. This indicates that improper adjustment of the raw material ratio may lead to unbalanced water quality and decreased stability.

[0121] When preparing hydrogen-rich, selenium-rich, and strontium-rich multi-mineral drinking water, it is necessary to comprehensively consider the raw material ratio and treatment process to achieve the optimization of water quality. It is necessary to ensure the reasonable content of minerals such as hydrogen, selenium, and strontium to meet the human body's needs for various trace elements, and at the same time ensure that all water quality indicators meet national standards to guarantee the safety and quality of drinking water. This research provides valuable reference for the preparation of hydrogen-rich, selenium-rich, and strontium-rich multi-mineral drinking water, which helps to further optimize the production process and improve product quality.

[0122] The above describes the present invention and its implementation manners. This description is not restrictive. If those of ordinary skill in the art are inspired by it and, without departing from the purpose of the present invention, design similar structural manners and embodiments to this technical solution without creative efforts, they shall fall within the protection scope of the present invention.

Claims

1. A formula for small molecule drinking water containing hydrogen, selenium-rich, and strontium multiple minerals, characterized in that: Including the preparation steps of drinking water, specifically including: S1: Ore selection and inspection Select hydrogen-producing materials, selenium-containing ores, tillite, strontium jade, stone meteorites, stony-iron meteorites, and silicon-based stones with excellent quality, no obvious impurities and damage. Conduct component analysis and impurity detection on each ore to ensure it meets the safety standards of drinking water filtration materials and avoid introducing harmful substances; S2: Proportion determination and mixing Mix according to the proportion of 10 - 30% of hydrogen-producing materials, 10 - 30% of selenium-containing ores, 20 - 30% of tillite, 10 - 30% of strontium jade, 10 - 30% of stone meteorites, 5 - 25% of stony-iron meteorites, and 5 - 25% of silicon-based stones; S3: Crushing treatment Select a professional ore crusher, which should have the function of adjustable crushing particle size to meet the requirement of an average particle size of 1 - 5 mm; S4: Cleaning Put the crushed mixed ore particles into a cleaning tank, add sufficient clean water, turn on the stirring device, and make the ore particles tumble fully in the water to remove the dust and impurities on the surface. The stirring time can be set to 15 - 30 minutes, and repeat the rinsing 3 - 5 times until the discharged water is clear and transparent without obvious impurities; S5: Disinfection treatment Evenly lay the cleaned ore particles on the conveyor belt of the ultraviolet disinfection equipment for conveyor belt disinfection; Then completely immerse the ore particles in the prepared hydrogen peroxide solution, set the soaking time to 30 - 60 minutes. After the soaking is over, take out the ore particles and rinse them with a large amount of clean water until no hydrogen peroxide residue can be detected; S6: Making the filter element Use a fine filter screen and a coarse filter screen to form a double-layer cylinder. Among them, the fine filter screen roll is a solid columnar structure, and the ore particles are filled between the fine filter screen and the coarse filter screen; After loading the filter element onto the filtering device, connect the faucet; S7: Water quality detection Conduct a comprehensive detection of the water quality before and after filtration. The detection items include but are not limited to: physical indicators, microbiological indicators, chemical indicators, and toxicological indicators.

2. The formula of the hydrogen-rich, selenium-rich, strontium-containing multi-mineral small molecule drinking water according to claim 1, characterized in that: In the S3 crushing treatment step, take samples of the ore after the initial crushing for detection. For the part that does not meet the particle size requirements, secondary crushing or screening treatment can be carried out.

3. The formula of hydrogen, selenium-rich, strontium multi-mineral small molecule drinking water according to claim 1, characterized in that: In the S5 disinfection treatment step, use a food-grade hydrogen peroxide solution with a concentration of 0.1% - 0.3%.

4. The formula of hydrogen-rich, selenium-rich, strontium-containing multi-mineral small molecule drinking water according to claim 1, characterized in that: In the S6 making the filter element step, the coarse filter screen is a stainless steel coarse filter screen with a pore diameter of 2 - 3 mm, and the fine filter screen is a food-grade nylon fine filter screen with a pore diameter of 0.1 - 0.3 mm.

5. The formula of hydrogen, selenium-rich, strontium-containing multi-mineral small molecule drinking water according to claim 1, characterized in that: In the S6 making the filter element step, the fine filter screen is a hollow cylindrical structure, and the inside is filled with ion exchange resin or activated carbon.

6. The formula of hydrogen, selenium-rich, strontium-containing multi-mineral small molecule drinking water according to claim 1, characterized in that: In the S1 ore selection and inspection step, the hydrogen-producing material is a magnesium-based alloy, and the selenium-containing ore is galena.

7. The formula of hydrogen-rich, selenium-rich and strontium multi-mineral small molecule drinking water according to claim 1, characterized in that: In the S1 ore selection and inspection step, the hydrogen-producing material is sodium borohydride, and the selenium-containing ore is selenobismuthite.