Method for manufacturing glacial mineral water and mineral water machine

Abstract

The application discloses a kind of glacier mineral water manufacturing method and mineral water machine, it is related to glacier mineral water manufacturing technical field, method includes: through the water source acquisition module of mineral water machine, in combination with intelligent water source selection system, high-quality glacier meltwater is automatically collected and screened out.The dissolved salts and heavy metal ions in water and small pollutants are removed by nanofiltration ultrafiltration and reverse osmosis technology, the appropriate amount of minerals and trace elements in water are retained and the residual microorganisms in water are killed, further guaranteeing the safety of water quality, using water quality detection system to detect the quality of treated water, through the comprehensive application of multiple steps, the glacier meltwater is efficiently and deeply treated, the harmful substances in water are effectively removed, while the minerals and trace elements therein are retained, ensuring the safety and nutritional value of raw water, efficient and comprehensive treatment of glacier mineral water can be realized, which can meet the high-quality demand of modern people for drinking water.

Description

Technical Field

[0001] This invention relates to the field of glacial mineral water manufacturing technology, specifically to a method for manufacturing glacial mineral water and a mineral water machine. Background Technology

[0002] Water is an inorganic compound composed of hydrogen and oxygen. It is non-toxic, drinkable, and a colorless, odorless, and transparent liquid at room temperature and pressure. Known as the source of human life, it is a vital substance for sustaining life. Also called hydrogen peroxide, water is one of the most common substances on Earth, covering approximately 71% of the Earth's surface. It is a crucial resource for all life, including inorganic compounds and humans, and a vital component of living organisms. Although present in small amounts in the air, it is an important part of the atmosphere. Humans need minerals, but they cannot produce them themselves; they must obtain them through drinking water and food to maintain normal physiological functions. An imbalance in this process can lead to illness, and supplementing with minerals can restore health.

[0003] In recent years, glacial mineral water has received widespread attention for its purity, naturalness, and rich mineral content. Glacial mineral water is formed when glacial meltwater seeps into the ground and undergoes various natural processes such as geological rock, geomagnetism, geothermal heat, and high pressure. After a long period of infiltration, filtration, and mineralization, it finally emerges from the ground as a spring. This special formation process gives glacial mineral water many unique properties and advantages. Ordinary mineral water is taken directly from underground aquifers, either naturally or through artificial drilling, and contains a certain amount of mineral salts, trace elements, or carbon dioxide gas. Glacial mineral water, on the other hand, has higher purity, richer mineral content, lower deuterium and sodium content, and smaller water molecule clusters.

[0004] However, glacial mineral water is easily contaminated by the external environment during extraction and transportation, such as the growth of microorganisms and the dissolution of chemicals, which adversely affect its quality. Therefore, how to effectively treat glacial mineral water to remove contaminants while retaining its beneficial mineral components has become an urgent problem to be solved. Traditional drinking water treatment methods, such as filtration and boiling, can remove some impurities and microorganisms from the water, but their effectiveness in removing dissolved salts and minor contaminants such as heavy metal ions is limited and cannot meet the high-quality drinking water demands of modern people. Therefore, it is necessary to propose a method for manufacturing glacial mineral water and a mineral water machine to solve the problems in the existing technology. Summary of the Invention

[0005] The purpose of this invention is to overcome the shortcomings of the existing technology and provide a method for manufacturing glacial mineral water and a mineral water machine. It can use modern technology to perform high-efficiency deep treatment of glacial meltwater, ensuring water quality safety while retaining beneficial minerals, so as to meet consumers' demand for high-quality drinking water.

[0006] To solve the above-mentioned technical problems, the present invention provides the following technical solution: a method for manufacturing glacial mineral water and a mineral water machine, the method comprising:

[0007] The mineral water machine uses a water source collection module combined with an intelligent water source selection system to automatically collect and filter high-quality glacial meltwater.

[0008] The preliminary filtration device inside the mineral water machine removes large particles and suspended solids from glacial meltwater.

[0009] The pre-filtered water is sent into a nanofiltration and ultrafiltration device, where the pore size characteristics of the nanofiltration and ultrafiltration membrane remove large molecular organic matter, bacteria, viruses and other harmful substances from the water.

[0010] The water after ultrafiltration and nanofiltration is introduced into the reverse osmosis unit and, under pressure, passes through a semi-permeable membrane to further remove dissolved salts and heavy metal ions from the water.

[0011] The mineral blending module inside the mineral water machine retains minerals and trace elements in the treated water.

[0012] The ultraviolet disinfection device inside the mineral water machine irradiates the treated water with ultraviolet light to kill any residual microorganisms in the water.

[0013] The water quality testing module is used to test the quality of the treated glacial mineral water to ensure that the water quality meets relevant standards and user requirements.

[0014] Furthermore, the water source collection module of the mineral water machine, combined with an intelligent water source selection system, automatically collects and filters high-quality glacial meltwater, including:

[0015] After the mineral water machine is started, the water source acquisition module begins to work;

[0016] The intelligent water source selection system has begun real-time monitoring and analysis of water quality data from different glacial meltwater sources;

[0017] The system analyzes the collected water quality data and evaluates the water quality at each water source.

[0018] Based on the results of water quality data analysis, the intelligent water source selection system automatically selects the best water source.

[0019] The system transmits the information of the selected high-quality water source to the execution mechanism of the water source acquisition module, and the execution mechanism begins to collect water from the selected glacial meltwater point.

[0020] Furthermore, the preliminary filtration device within the mineral water dispenser removes large particulate impurities and suspended solids from the glacial meltwater, including:

[0021] Once the glacial meltwater is collected into the mineral water machine, it is introduced into the inlet of the preliminary filtration device, which then begins to work.

[0022] The filter media in the primary filtration device begins to intercept large particulate impurities and suspended solids in the water;

[0023] Impurities intercepted by the filtration device are collected in a specific container;

[0024] After initial filtration, the water flows out from the outlet of the initial filtration device and enters the next stage of treatment.

[0025] Furthermore, the process of feeding the pre-filtered water into a nanofiltration / ultrafiltration device, utilizing the pore size characteristics of the nanofiltration / ultrafiltration membrane to remove large molecular organic matter, bacteria, viruses, and other harmful substances from the water, includes:

[0026] The pre-filtered water is introduced into the inlet of the nanofiltration and ultrafiltration unit through a pipeline;

[0027] Nanofiltration and ultrafiltration membranes, due to their special pore size, allow solvent molecules or certain low molecular weight solutes and low-valence ions to pass through, while retaining large molecular organic matter, bacteria, viruses and other harmful substances.

[0028] Large molecular organic matter, bacteria, viruses and other harmful substances trapped by nanofiltration and ultrafiltration membranes will remain on one side of the membrane and can be removed by regular backwashing or chemical cleaning.

[0029] Water that has passed through the nanofiltration and ultrafiltration membranes will flow out of the device's outlet and be collected for further treatment.

[0030] Furthermore, the ultrafiltration and nanofiltration treated water is introduced into a reverse osmosis unit, where it passes through a semi-permeable membrane under pressure to further remove dissolved salts and heavy metal ions, including:

[0031] Water treated by nanofiltration and ultrafiltration is introduced into the inlet of the reverse osmosis unit through a pipeline;

[0032] The pressure system of the reverse osmosis unit is used to pressurize the water treated by nanofiltration and ultrafiltration to a certain pressure;

[0033] Driven by pressure, water molecules pass through the reverse osmosis (RO) membrane to the other side, forming pure product water. The dissolved salts and heavy metal ion impurities that are trapped form a concentrated solution.

[0034] The product water obtained through the reverse osmosis process flows out of the device's outlet and is collected for subsequent treatment.

[0035] Furthermore, the process of retaining minerals and trace elements in the treated water through the mineral blending module within the mineral water machine includes:

[0036] Select appropriate mineral types based on user needs, and calculate the precise amount of each mineral to be retained based on the mineral's solubility in water, user health needs, and relevant health standards.

[0037] Based on the set retention amount, the module prepares a solution containing the required minerals and trace elements;

[0038] The prepared mineral solution is mixed with treated purified water in the mixing device inside the mineral water machine to ensure that the minerals are evenly distributed in the water.

[0039] Furthermore, the ultraviolet disinfection device inside the mineral water machine irradiates the treated water with ultraviolet light to kill residual microorganisms in the water, including:

[0040] The mineral-rich glacial water is piped into the inlet of the ultraviolet disinfection device.

[0041] Adjust the water flow rate according to the processing capacity of the ultraviolet disinfection device to ensure that the water has sufficient residence time in the disinfection device;

[0042] Turn on the power to the ultraviolet disinfection device so that the ultraviolet lamps start working and emit ultraviolet light;

[0043] When water passes through an ultraviolet disinfection device, it is exposed to ultraviolet light; ultraviolet light can destroy the nucleic acid structure of microorganisms, rendering them inactive, thereby achieving the purpose of disinfection.

[0044] Adjust the dosage of ultraviolet lamps according to disinfection requirements and water quality to ensure that microorganisms in the water are effectively killed.

[0045] Furthermore, the water quality testing system is used to conduct quality tests on the treated glacial mineral water to ensure that the water quality meets relevant standards and user requirements, including:

[0046] Connect the sampling tube of the water quality testing system to the disinfected glacial mineral water outlet;

[0047] Activate the sampling function to automatically or manually collect a certain amount of water sample from the outlet.

[0048] The collected water was tested for physical, chemical, and microbiological indicators.

[0049] Collect, organize, and analyze the test data; compare the test data with relevant water quality standards;

[0050] Based on the comparison results, assess whether the water quality is up to standard and meets relevant standards and user requirements.

[0051] A mineral water machine for producing glacial mineral water, the mineral water machine comprising:

[0052] The water source acquisition module is used to collect glacial meltwater. It is equipped with an intelligent water source selection system that monitors and analyzes the water quality data of different glacial meltwater in real time and automatically selects the best water source for collection.

[0053] A preliminary filtration device is used to remove large particulate impurities and suspended solids from water;

[0054] Nanofiltration and ultrafiltration devices are used to remove large molecular organic matter, bacteria, viruses, and other harmful substances from water;

[0055] Reverse osmosis systems are used to remove dissolved salts and heavy metal ions from water.

[0056] The mineral blending module is used to retain minerals and trace elements in the treated water;

[0057] Ultraviolet disinfection devices are used to irradiate treated water with ultraviolet light to kill residual microorganisms in the water.

[0058] The water quality testing module is used to test the quality of the treated glacial mineral water to ensure that the water quality meets relevant standards and user requirements.

[0059] Furthermore, the mineral water machine also includes:

[0060] The control module is used to intelligently control the operation of the entire mineral water machine, including water source selection, water quality monitoring, and mineral blending functions.

[0061] The cleaning module is used to periodically clean the internal structure and components of the mineral water machine to ensure that the water quality is not contaminated.

[0062] A storage device for storing processed glacial mineral water so that it can be consumed at any time.

[0063] One or more technical solutions provided in this application have at least the following technical effects or advantages:

[0064] This application provides a method for manufacturing glacial mineral water and a mineral water machine. It removes dissolved salts, heavy metal ions, and minute pollutants from the water using nanofiltration, ultrafiltration, and reverse osmosis technologies, while retaining appropriate amounts of minerals and trace elements and killing residual microorganisms, further ensuring water safety. A water quality testing system is used to test the treated water. Through the comprehensive application of multiple steps, glacial meltwater undergoes high-efficiency deep treatment, effectively removing harmful substances while retaining minerals and trace elements, ensuring the safety and nutritional value of the glacial mineral water. This method achieves efficient and comprehensive treatment of glacial mineral water, meeting modern people's high-quality drinking water needs.

[0065] Other advantages, objectives and features of the invention will be set forth in part in the description which follows, and in part will be apparent to those skilled in the art from the following examination or study, or may be learned from the practice of the invention. Attached Figure Description

[0066] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the accompanying drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are merely some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without any creative effort.

[0067] Figure 1 A flowchart of a method for manufacturing glacial mineral water;

[0068] Figure 2 This is a schematic diagram of a mineral water machine for producing glacial mineral water. Detailed Implementation

[0069] The technical solutions in the embodiments of the present invention will be clearly and completely described below. 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 of ordinary skill in the art without creative effort are within the scope of protection of the present invention.

[0070] Example 1

[0071] A method for manufacturing glacial mineral water and a mineral water machine, the method comprising:

[0072] The mineral water machine uses a water source collection module combined with an intelligent water source selection system to automatically collect and filter high-quality glacial meltwater.

[0073] The mineral water dispenser, through its water source acquisition module and intelligent water source selection system, automatically locates and collects glacial meltwater. The intelligent water source selection system can analyze the quality of different glacial meltwater sources, including their purity and mineral content, thereby selecting the highest quality glacial meltwater as production raw material. In areas rich in glacial meltwater, the mineral water dispenser is deployed. This dispenser has a built-in intelligent water source selection system that monitors the temperature, flow rate, and pH value parameters of different glacial meltwater locations to automatically select the best water collection point. Subsequently, the water source acquisition module automatically collects water, ensuring that the collected glacial meltwater has extremely high purity and high-quality mineral content.

[0074] The preliminary filtration device inside the mineral water machine removes large particles and suspended solids from glacial meltwater.

[0075] The collected glacial meltwater first enters a preliminary filtration device. This device removes large particulate impurities and suspended solids from the water through physical filtration methods such as sieves and sand filters. This step not only protects subsequent treatment equipment from wear and tear but also provides a better foundation for subsequent advanced treatment. Example: The collected glacial meltwater first enters a preliminary filtration device. This device adopts a multi-layer filter design, which can effectively remove large particulate impurities and suspended solids from the water. The water after preliminary filtration is clear and transparent, providing a good foundation for subsequent advanced treatment.

[0076] The pre-filtered water is sent into a nanofiltration and ultrafiltration device, where the pore size characteristics of the nanofiltration and ultrafiltration membrane remove large molecular organic matter, bacteria, viruses and other harmful substances from the water.

[0077] The water that has undergone preliminary filtration then enters the nanofiltration and ultrafiltration device. The nanofiltration and ultrafiltration membrane has a specific pore size that can trap large molecular organic matter, bacteria, viruses, and other harmful substances in the water, while allowing water molecules and some minerals to pass through. This step effectively improves the purity of the water. The water that has undergone preliminary filtration is then sent to the nanofiltration and ultrafiltration device, which uses a high-precision nanofiltration and ultrafiltration membrane. Through the pore size characteristics of the membrane, it traps large molecular organic matter, bacteria, viruses, and other harmful substances in the water. The water quality after nanofiltration and ultrafiltration treatment is significantly improved, meeting the high-quality requirements of mineral water production.

[0078] The water after ultrafiltration and nanofiltration is introduced into the reverse osmosis unit and, under pressure, passes through a semi-permeable membrane to further remove dissolved salts and heavy metal ions from the water.

[0079] The water treated by nanofiltration and ultrafiltration is further purified by a reverse osmosis device. Under pressure, water molecules pass through a semi-permeable membrane, while dissolved salts and heavy metal ions are retained on the other side of the membrane. This step ensures extremely high purity of the water, meeting the high-quality requirements of mineral water. The water treated by nanofiltration and ultrafiltration then enters the reverse osmosis device. Under the action of a high-pressure pump, water molecules pass through a semi-permeable membrane, while dissolved salts and heavy metal ions are retained on the other side of the membrane. The water treated by reverse osmosis reaches extremely high purity, meeting the standards for mineral water production.

[0080] The mineral blending module inside the mineral water machine retains an appropriate amount of minerals and trace elements in the treated water.

[0081] Based on user needs, the mineral blending module inside the mineral water dispenser retains an appropriate amount of minerals and trace elements in the treated water. This step enables product personalization and meets the needs of different groups for minerals and trace elements. According to market demand and user health needs, the mineral blending module inside the mineral water dispenser retains an appropriate amount of minerals and trace elements in the treated water. This module can precisely control the retention amount to ensure that every bottle of glacier mineral water meets the predetermined mineral content requirements.

[0082] The ultraviolet disinfection device inside the mineral water machine irradiates the treated water with ultraviolet light to kill any residual microorganisms in the water.

[0083] After the minerals are retained, the water enters an ultraviolet (UV) disinfection device. This device emits ultraviolet light to destroy the nucleic acid structure of microorganisms, thereby killing any remaining microorganisms in the water. This step ensures the biological safety of the water. After the minerals are added, the water enters the UV disinfection device, which uses high-efficiency UV lamps to irradiate the water and kill any remaining microorganisms. The disinfected water meets biological safety standards, ensuring the quality and safety of the product.

[0084] The water quality testing module is used to test the quality of the treated glacial mineral water to ensure that the water quality meets relevant standards and user requirements.

[0085] After disinfection, the treated glacial mineral water is tested using a water quality testing module. The tests include physical, chemical, and microbiological indicators to ensure that the water quality meets relevant standards and user requirements. The disinfected glacial mineral water then enters the water quality testing module, which uses advanced testing instruments and methods to comprehensively test the water's physical, chemical, and microbiological indicators. Only water that passes the tests can proceed to the next stage.

[0086] After passing the inspection, the glacial mineral water enters the packaging stage. Food-grade materials are used in the packaging process to ensure the safety and hygiene of the product. The bottles and caps are made of food-grade materials to ensure the safety and hygiene of the product.

[0087] After packaging, each bottle of glacier mineral water is labeled and recorded, including the production date, batch number, and water quality test results. This information helps to trace the product's origin and quality, and also facilitates product management.

[0088] Finally, the packaged glacial mineral water is stored, transported, and sold. During storage and transportation, appropriate measures are taken to ensure product quality and safety. In the sales process, the product is promoted to the market through various channels to meet consumer demand. The packaged glacial mineral water is stored in a temperature-controlled warehouse. During transportation, appropriate insulation measures are taken to ensure that the product quality is not affected. Finally, the product is promoted to the market through various sales channels to meet consumer demand.

[0089] Example 2

[0090] The water source acquisition module of the mineral water dispenser, combined with the intelligent water source selection system, automatically collects and filters high-quality glacial meltwater. This process includes: after the mineral water dispenser is started, the water source acquisition module begins operation; the intelligent water source selection system begins real-time monitoring and analysis of water quality data from different glacial meltwater sources; the system collects water quality parameters from multiple glacial meltwater points, such as temperature, pH value, and mineral content, through a built-in sensor network; the system analyzes the collected water quality data to evaluate the quality of each water source; the analysis is based on preset algorithms and standards, such as the national natural mineral water standard GB 8537, as well as factors such as the water source location, mineral content, and pH value.

[0091] Based on the results of water quality data analysis, the intelligent water source selection system automatically selects the best water source. The selection is based on a weighted evaluation of multiple factors, such as the purity of the water source, the richness of mineral content, and the suitability of pH value. The system transmits the information of the selected high-quality water source to the execution mechanism of the water source acquisition module, which then begins to collect water from the selected glacial meltwater point, such as through pipelines, pumps, or other acquisition equipment.

[0092] During the water source collection process, the intelligent water source selection system continuously monitors the quality of the water source to ensure that it remains within the preset high-quality range. If the water source quality is detected to change or no longer meet the standards, the system automatically adjusts the collection point or stops collection to prevent contaminated or unqualified water sources from entering the subsequent processing.

[0093] The system records the collected water source information, including the water source point, collection time, and water quality parameters, for subsequent traceability and analysis. The system provides feedback to operators through the user interface or remote monitoring equipment, displaying the current water source collection status and water quality.

[0094] Through the above steps, the specialized mineral water dispenser can combine with an intelligent water source selection system to automatically collect and screen high-quality glacial meltwater, providing a reliable water source guarantee for subsequent water treatment.

[0095] The process of using a preliminary filtration device within the mineral water dispenser to remove large particulate impurities and suspended solids from glacial meltwater includes: after glacial meltwater is collected into the mineral water dispenser, the collected glacial meltwater is introduced into the inlet of the preliminary filtration device, and the preliminary filtration device begins to work; the filter media (such as filter screens or sieves) in the preliminary filtration device begin to intercept large particulate impurities and suspended solids in the water; the filter media can be designed with different pore sizes as needed to effectively remove impurities of specific sizes;

[0096] Impurities intercepted by the filtration device are collected in specific containers; these containers are cleaned periodically as needed to ensure the continued effectiveness of the filtration device; the water after preliminary filtration flows out from the outlet of the preliminary filtration device and enters the next stage of treatment.

[0097] The preliminary filtration unit is equipped with pressure gauges and flow meters for real-time monitoring of filtration effectiveness and equipment status. Operators can check these monitoring devices to ensure the filtration unit is operating normally and make adjustments or maintenance as necessary. The system records data of the preliminary filtration process, including filtration time, flow rate, and pressure parameters, for subsequent traceability and analysis. The system can provide feedback on the filtration status to operators through a user interface or remote monitoring devices.

[0098] Through the above steps, the preliminary filtration device can effectively remove large particulate impurities and suspended solids from glacial meltwater, protect subsequent treatment equipment from clogging or damage, and ensure the smooth operation of the entire mineral water production process.

[0099] The process involves feeding the pre-filtered water into a nanofiltration / ultrafiltration device. The nanofiltration / ultrafiltration membrane's pore size characteristics remove large molecular organic matter, bacteria, viruses, and other harmful substances from the water. This includes: ensuring all parts of the nanofiltration / ultrafiltration equipment are in good working order and cleaning the surface of the equipment; checking if the nanofiltration / ultrafiltration filter cartridge needs replacement, and replacing it if necessary; introducing the pre-filtered water into the inlet of the nanofiltration / ultrafiltration device through a pipeline; the nanofiltration / ultrafiltration membrane, due to its special pore size (generally between 1-2 nm), allows solvent molecules or certain low-molecular-weight solutes and low-valence ions to pass through, while retaining large molecular organic matter, bacteria, viruses, and other harmful substances; the charge of the nanofiltration / ultrafiltration membrane allows it to have different Donnan potentials for ions with different charges and valences, thereby achieving further retention of these substances.

[0100] The large molecular organic matter, bacteria, and viruses that are trapped by the nanofiltration and ultrafiltration membrane will remain on one side of the membrane and can be removed by regular backwashing or chemical cleaning. The water that has passed through the nanofiltration and ultrafiltration membrane (i.e., the water that has had large molecular organic matter, bacteria, and viruses removed) will flow out from the outlet of the device and be collected for subsequent treatment.

[0101] During the nanofiltration and ultrafiltration process, the operating status and water quality of the nanofiltration and ultrafiltration equipment are monitored in real time using monitoring equipment (such as flow meters, pressure gauges, and conductivity meters); the condition of the nanofiltration and ultrafiltration membranes is checked regularly to ensure they are not expired or damaged, thus guaranteeing the efficiency and quality of nanofiltration and ultrafiltration treatment; relevant data on nanofiltration and ultrafiltration treatment, such as flow rate, pressure, and water quality parameters, are recorded for subsequent traceability and analysis; any abnormalities or malfunctions are promptly reported to superiors and repaired.

[0102] Through the above steps, nanofiltration and ultrafiltration devices can efficiently remove large molecular organic matter, bacteria, viruses, and other harmful substances from the water after preliminary filtration, ensuring further improvement in water quality and providing a high-quality water source for subsequent treatment or use.

[0103] Water treated by ultrafiltration and nanofiltration is introduced into the reverse osmosis (RO) unit. Under pressure, it passes through a semi-permeable membrane to further remove dissolved salts and heavy metal ions. This process includes: ensuring the RO membrane is clean and in good working order; checking the equipment's pressure system and piping connections to ensure there are no leaks; introducing the water treated by the nanofiltration and ultrafiltration unit into the inlet of the RO unit through piping; and using the RO unit's pressure system to pressurize the nanofiltration and ultrafiltration water to a certain pressure (usually tens to hundreds of atmospheres). This pressure is sufficient to drive water molecules through the RO membrane, while dissolved salts and heavy metal ions are retained.

[0104] Driven by pressure, water molecules pass through the reverse osmosis (RO) membrane to the other side, forming pure product water. The RO membrane is characterized by its extremely small pore size (0.0001 to 0.001 micrometers), allowing only water molecules and some inorganic salts to pass through, while heavy metal ions, bacteria and viruses, and organic matter cannot pass. Heavy metal ions, such as lead, mercury, copper, and nickel, carry a positive charge, while the surface of the RO membrane carries a negative charge. During reverse osmosis, these positively charged heavy metal ions are attracted by the negative charge on the RO membrane surface and are trapped on one side of the membrane. The trapped dissolved salts and heavy metal ion impurities form a concentrate. Appropriate treatment of the concentrate, such as chemical precipitation, electrochemical methods, and biological methods, converts the heavy metal ions into insoluble solids, thus achieving separation and removal. The product water (i.e., pure water) obtained through the reverse osmosis process flows out from the outlet of the device and is collected for subsequent treatment.

[0105] During the reverse osmosis process, the operating status of the equipment and the water quality are monitored in real time through monitoring equipment (such as flow meters, pressure gauges and conductivity meters). The condition of the RO membrane is checked regularly to ensure that it has not expired or been damaged, so as to guarantee the efficiency and quality of reverse osmosis treatment. Relevant data of reverse osmosis treatment, such as flow rate, pressure and water quality parameters, are recorded for subsequent traceability and analysis. If any abnormalities or malfunctions occur, they are reported to superiors in a timely manner and repaired.

[0106] Through the above steps, the reverse osmosis device can further remove dissolved salts and heavy metal ions from the water after nanofiltration and ultrafiltration treatment, ensuring the purity of the water and meeting the high standard water quality requirements for drinking water or other uses.

[0107] The process of retaining appropriate amounts of minerals and trace elements in the treated water through the mineral blending module inside the mineral water machine includes: collecting user needs: the mineral water machine may be equipped with a user interface or remote control module, allowing users to input or select their specific health needs or preferences; analyzing needs: based on the user's input, the system analyzes the required types of minerals and trace elements and their appropriate content; selects appropriate mineral types according to user needs, such as calcium, magnesium, potassium, and sodium; and calculates the precise amount of each mineral to be retained based on the solubility of the minerals in water, the user's health needs, and relevant health standards.

[0108] Based on the set retention amount, the module prepares a solution containing the required minerals and trace elements. The prepared mineral solution is then mixed with treated purified water in a mixing device inside the mineral water machine to ensure that the minerals are evenly distributed in the water. During the mineral retention process, the module monitors the mineral content of the water in real time to ensure that it matches the preset value. If the detected mineral content deviates from the preset value, the module will automatically adjust the retention amount to ensure stable water quality.

[0109] The water quality is tested after mineral retention to ensure it meets preset health standards and user needs. Qualified water is output through the outlet, and the system records water quality parameters and retention information for subsequent traceability and analysis. All retained minerals and trace elements must comply with relevant national regulations and standards to ensure user drinking safety. The mineral retention module must precisely control the retention amount to avoid water quality problems caused by excessive or insufficient retention. The module should be able to adapt to changes in the needs of different users and provide personalized mineral retention solutions.

[0110] Through the above steps, the mineral water machine can accurately retain an appropriate amount of minerals and trace elements in the treated water according to the user's needs, thus meeting the health needs of different groups of people.

[0111] The process involves using an ultraviolet (UV) disinfection device inside the mineral water machine to irradiate the treated water with UV light to kill residual microorganisms. This includes: ensuring the UV disinfection device is in good working order, the lamps are undamaged, and the power supply is normal; cleaning the lamps and quartz sleeve components of the UV disinfection device to ensure there is no dirt blocking the UV light; introducing mineral-rich glacial mineral water into the inlet of the UV disinfection device through a pipe; and adjusting the water flow rate according to the processing capacity of the UV disinfection device to ensure sufficient residence time for the water in the disinfection device.

[0112] Turn on the power to the ultraviolet disinfection device to start the ultraviolet lamps and emit ultraviolet light; when water passes through the ultraviolet disinfection device, it is irradiated by ultraviolet light; ultraviolet light can destroy the nucleic acid structure of microorganisms, making them inactive, thereby achieving the purpose of disinfection; adjust the irradiation dosage of the ultraviolet lamps according to the disinfection requirements and water quality to ensure that the microorganisms in the water are effectively killed.

[0113] The monitoring equipment of the ultraviolet disinfection device monitors the working status of the ultraviolet lamps, the water flow rate, and the disinfection effect in real time; the ultraviolet lamp tubes and quartz sleeve components are inspected regularly to ensure that they are in good working condition; the water quality of the water after ultraviolet disinfection is tested to ensure that the microbial indicators in the water meet the relevant standards and requirements; the qualified water is output through the outlet, and relevant data during the disinfection process, such as the irradiation time of the ultraviolet lamps and the water flow rate, are recorded for subsequent traceability and analysis.

[0114] Ultraviolet disinfection devices should be designed to ensure that they do not cause harm to personnel during operation and maintenance; regular maintenance of the ultraviolet disinfection devices should be performed, such as replacing lamps and cleaning quartz sleeves, to ensure their long-term stable operation; relevant hygiene and safety regulations should be followed during ultraviolet disinfection treatment to ensure water quality safety.

[0115] Through the above steps, the mineral water dispenser can effectively disinfect glacial mineral water that retains minerals with ultraviolet light, killing residual microorganisms in the water and ensuring water quality safety.

[0116] The process of using a water quality testing system to test the quality of treated glacial mineral water to ensure that the water quality meets relevant standards and user requirements includes: ensuring that the water quality testing system is in normal working condition, that all sensors, instruments and controllers are operating normally, and calibrating them as needed to ensure the accuracy of the test results; connecting the sampling tube of the water quality testing system to the disinfected glacial mineral water outlet; and activating the sampling function to automatically or manually collect a certain amount of water sample from the outlet.

[0117] The collected water samples undergo physical, chemical, and microbiological testing. Physical indicators, such as temperature, turbidity, color, and pH, are monitored and recorded in real time using appropriate sensors or instruments. Chemical indicators, such as dissolved oxygen, total hardness, chlorine content, and mineral content, are tested using chemical analysis methods or online monitoring equipment. Microbiological indicators, such as total bacterial count and coliform bacteria, are tested using appropriate methods as needed, such as membrane filtration or culture methods. The collected data are then collected, organized, and analyzed. The data are compared with relevant water quality standards (such as national standards, industry standards, and user requirements).

[0118] Based on the comparison results, assess whether the water quality is up to standard and meets relevant standards and user requirements. Output the test results in numerical and graphical form for easy viewing and understanding by users. Record the test data and assessment results for subsequent traceability and analysis. If the test results are abnormal or unqualified, report to superiors or relevant departments in a timely manner and take corresponding measures for handling and adjustment. Adjust the water treatment process parameters appropriately according to the test results and user requirements to ensure the stability and consistency of water quality.

[0119] Regularly calibrate and maintain the water quality testing system to ensure its accuracy and reliability. During the testing process, follow standard operating procedures to ensure the accuracy and repeatability of the test results. Respond to and handle any abnormalities that occur during the testing process in a timely manner to ensure water quality safety.

[0120] Through the above steps, the water quality testing system can conduct comprehensive quality testing on the treated glacial mineral water to ensure that the water quality meets relevant standards and user requirements.

[0121] Example 3

[0122] A mineral water machine for producing glacial mineral water, the mineral water machine comprising:

[0123] The water source acquisition module is used to collect glacial meltwater. It is equipped with an intelligent water source selection system that monitors and analyzes the water quality data of different glacial meltwater in real time and automatically selects the best water source for collection.

[0124] This module is responsible for collecting water from glacial meltwater. It is equipped with an intelligent water source selection system, which automatically analyzes and selects the best water collection point by monitoring various parameters (such as temperature, flow rate, pH value and mineral content) at different glacial meltwater locations, so as to ensure that the collected glacial meltwater has high purity and high-quality mineral content.

[0125] A preliminary filtration device is used to remove large particulate impurities and suspended solids from water;

[0126] After the glacial meltwater is collected, a preliminary filtration device immediately begins operation. This device uses a multi-layer filter design to effectively remove large particles and suspended solids, such as silt and stone fragments, from the water, providing a clear and transparent water quality foundation for subsequent treatment.

[0127] Nanofiltration and ultrafiltration devices are used to remove large molecular organic matter, bacteria, viruses, and other harmful substances from water;

[0128] After initial filtration, the water enters the nanofiltration and ultrafiltration device. This device uses high-precision nanofiltration and ultrafiltration membrane technology to remove large molecular organic matter, bacteria, viruses, and other harmful substances from the water by utilizing the pore size characteristics of the membrane. This step can significantly improve the water quality and meet the high-quality requirements of mineral water production.

[0129] Reverse osmosis systems are used to remove dissolved salts and heavy metal ions from water.

[0130] After nanofiltration and ultrafiltration, the water enters the reverse osmosis unit for further deep purification. Under the action of a high-pressure pump, water molecules pass through the semi-permeable membrane, while dissolved salts and heavy metal ions are trapped on the other side of the membrane. The water treated by reverse osmosis reaches extremely high purity and fully meets the standards for mineral water production.

[0131] The mineral blending module is used to retain appropriate amounts of minerals and trace elements in the treated water.

[0132] Based on market demand and user health needs, this mineral water dispenser is equipped with a mineral blending module. This module can precisely control the types and quantities of minerals and trace elements retained in the treated water, ensuring that every bottle of glacier mineral water meets the predetermined mineral content requirements and satisfies the health needs of different groups of people.

[0133] Ultraviolet disinfection devices are used to irradiate treated water with ultraviolet light to kill residual microorganisms in the water.

[0134] After the mineral blending is completed, the water enters the ultraviolet disinfection device, which uses high-efficiency ultraviolet lamps to irradiate the water with ultraviolet light, killing residual microorganisms such as bacteria and viruses in the water. This step ensures the biosafety of the product and provides consumers with safe and reliable drinking water.

[0135] The water quality testing module is used to test the quality of the treated glacial mineral water to ensure that the water quality meets relevant standards and user requirements.

[0136] The mineral water dispenser also includes:

[0137] The control module is used to intelligently control the operation of the entire mineral water machine, including water source selection, water quality monitoring, and mineral blending functions. The control module adopts advanced algorithms and sensor technology to achieve precise control and real-time monitoring, ensuring the stable and reliable operation of the mineral water machine.

[0138] The cleaning module is used to regularly clean the internal structure and components of the mineral water machine to ensure that the water quality is not contaminated. The cleaning module adopts automated control and regularly performs a comprehensive cleaning of the pipes, water tank and filter device. Food-grade cleaning agents are used to ensure that the cleaning process is safe and harmless. The cleaning module also has automatic detection and alarm functions. Once abnormal water quality or equipment failure is detected, it will immediately stop operation and issue an alarm.

[0139] The storage device is used to store processed glacial mineral water for convenient drinking at any time. The storage device is made of food-grade materials and has good sealing and heat preservation properties to ensure that the stored glacial mineral water maintains its excellent quality.

[0140] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered in all respects as exemplary and non-limiting, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of the same elements of the claims are intended to be included within the present invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

Claims

1. A method for manufacturing glacial mineral water, characterized in that, The method includes: The mineral water machine uses a water source collection module combined with an intelligent water source selection system to automatically collect and filter high-quality glacial meltwater. The preliminary filtration device inside the mineral water machine removes large particles and suspended solids from glacial meltwater. The pre-filtered water is sent into a nanofiltration and ultrafiltration device, where the pore size characteristics of the nanofiltration and ultrafiltration membrane remove large molecular organic matter, bacteria, viruses and other harmful substances from the water. The water after ultrafiltration and nanofiltration is introduced into the reverse osmosis unit and, under pressure, passes through a semi-permeable membrane to further remove dissolved salts and heavy metal ions from the water. The mineral blending module inside the mineral water machine retains minerals and trace elements in the treated water. The ultraviolet disinfection device inside the mineral water machine irradiates the treated water with ultraviolet light to kill any residual microorganisms in the water. The water quality testing module is used to test the quality of the treated glacial mineral water to ensure that the water quality meets relevant standards and user requirements. The water source collection module of the mineral water machine, combined with an intelligent water source selection system, automatically collects and filters high-quality glacial meltwater, including: After the mineral water machine is started, the water source acquisition module begins to work; The intelligent water source selection system has begun real-time monitoring and analysis of water quality data from different glacial meltwater sources; The system analyzes the collected water quality data and evaluates the water quality at each water source. Based on the results of water quality data analysis, the intelligent water source selection system automatically selects the best water source. The system transmits the information of the selected high-quality water source to the execution mechanism of the water source acquisition module, and the execution mechanism begins to collect water from the selected glacial meltwater point; The mineral blending module within the mineral water machine retains minerals and trace elements in the treated water, including: Select appropriate mineral types based on user needs, and calculate the precise amount of each mineral to be retained based on the mineral's solubility in water, user health needs, and relevant health standards. Based on the set retention amount, the module prepares a solution containing the required minerals and trace elements; The prepared mineral solution is mixed with treated purified water in the mixing device inside the mineral water machine to ensure that the minerals are evenly distributed in the water.

2. The method for manufacturing glacial mineral water according to claim 1, characterized in that, The process of using a preliminary filtration device within the mineral water dispenser to remove large particulate impurities and suspended solids from glacial meltwater includes: Once the glacial meltwater is collected into the mineral water machine, it is introduced into the inlet of the preliminary filtration device, which then begins to work. The filter media in the primary filtration device begins to intercept large particulate impurities and suspended solids in the water; Impurities intercepted by the filtration device are collected in a specific container; After initial filtration, the water flows out from the outlet of the initial filtration device and enters the next stage of treatment.

3. The method for manufacturing glacial mineral water according to claim 1, characterized in that, The process involves feeding the pre-filtered water into a nanofiltration / ultrafiltration device, where the pore size characteristics of the nanofiltration / ultrafiltration membrane remove large molecular organic matter, bacteria, viruses, and other harmful substances from the water, including: The pre-filtered water is introduced into the inlet of the nanofiltration and ultrafiltration unit through a pipeline; Nanofiltration and ultrafiltration membranes, due to their special pore size, allow solvent molecules or certain low molecular weight solutes and low-valence ions to pass through, while retaining large molecular organic matter, bacteria, viruses and other harmful substances. Large molecular organic matter, bacteria, viruses and other harmful substances trapped by nanofiltration and ultrafiltration membranes will remain on one side of the membrane and can be removed by regular backwashing or chemical cleaning. Water that has passed through the nanofiltration and ultrafiltration membranes will flow out of the device's outlet and be collected for further treatment.

4. The method for manufacturing glacial mineral water according to claim 1, characterized in that, The process of introducing ultrafiltration and nanofiltration-treated water into a reverse osmosis unit, where it passes through a semi-permeable membrane under pressure to further remove dissolved salts and heavy metal ions, includes: Water treated by nanofiltration and ultrafiltration is introduced into the inlet of the reverse osmosis unit through a pipeline; The pressure system of the reverse osmosis unit is used to pressurize the water treated by nanofiltration and ultrafiltration to a certain pressure; Driven by pressure, water molecules pass through the reverse osmosis (RO) membrane to the other side, forming pure product water. The dissolved salts and heavy metal ion impurities that are trapped form a concentrated solution. The product water obtained through the reverse osmosis process flows out of the device's outlet and is collected for subsequent treatment.

5. The method for manufacturing glacial mineral water according to claim 1, characterized in that, The process involves using an ultraviolet disinfection device within the mineral water dispenser to irradiate the treated water with ultraviolet light, killing any residual microorganisms in the water. This includes: The mineral-rich glacial water is piped into the inlet of the ultraviolet disinfection device. Adjust the water flow rate according to the processing capacity of the ultraviolet disinfection device to ensure that the water has sufficient residence time in the disinfection device; Turn on the power to the ultraviolet disinfection device so that the ultraviolet lamps start working and emit ultraviolet light; When water passes through an ultraviolet disinfection device, it is exposed to ultraviolet light; ultraviolet light can destroy the nucleic acid structure of microorganisms, rendering them inactive, thereby achieving the purpose of disinfection. Adjust the dosage of ultraviolet lamps according to disinfection requirements and water quality to ensure that microorganisms in the water are effectively killed.

6. The method for manufacturing glacial mineral water according to claim 1, characterized in that, The treated glacial mineral water is tested using a water quality testing system to ensure that the water quality meets relevant standards and user requirements, including: Connect the sampling tube of the water quality testing system to the disinfected glacial mineral water outlet; Activate the sampling function to automatically or manually collect a certain amount of water sample from the outlet. The collected water was tested for physical, chemical, and microbiological indicators. Collect, organize, and analyze the test data; compare the test data with relevant water quality standards; Based on the comparison results, assess whether the water quality is up to standard and meets relevant standards and user requirements.

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