Method for efficiently and stably preparing small molecular group activated water

Abstract

A method for efficiently and stably producing small molecular group activated water is characterized in that a water tank body with a water inlet and a water outlet is arranged, and a water storage space is formed in the water tank body; a water filtering unit and a turbidity monitoring unit are arranged in the water storage space and are arranged close to the water inlet; the device is provided with fiber screen cloth made of ceramic, mineral and magnetic composite materials and a screen cloth conveying device, the fiber screen cloth can be started by a driving motor on all rollers of the screen cloth conveying device to be conveyed, one part of the fiber screen cloth is immersed in water in the conveying process, and the other part of the fiber screen cloth is exposed out of the water surface. A far infrared light source device and a magnetic device are arranged, so that the fiber mesh cloth is acted by the far infrared light source device and the magnetic device in the conveying process; therefore, after a related electronic loop, an electric control program and a monitoring device are integrated and monitored, the fiber mesh cloth is irradiated by the far infrared light source device and is acted by a magnetic device to be endowed with an energy-containing source, so that the fiber mesh cloth filters the water in the water, and the effect of efficiently and stably producing the small molecular group water is achieved.

Description

Technical Field

[0001] The present invention relates to a method for producing small-molecule cluster activated water with high efficiency and stability, and in particular to a method suitable for fully automated production, which can increase production capacity by controlling the process, and can monitor the quality in a digital way so as to quickly produce small-molecule cluster water. Background Art

[0002] Water is the source of life. People have been inseparable from water in their daily lives since ancient times. Water accounts for about 70% of our body weight, and all life processes require water. Water is used as a lubricant in the places where our internal organs and bones rub against each other. The oxygen we breathe also comes from the decomposition of water by plants through photosynthesis, so it can be said that humans cannot live without water.

[0003] More and more people are beginning to pursue a healthy quality of life, but with the continuous development of the economy, the environment in the 21st century is deteriorating. Industrial development has created wastewater, waste, hazardous waste, etc., making environmental pollution a serious problem. Now it is not the popularization of the concept of healthy drinking water that makes people pay more and more attention to the quality of drinking water, but because the water quality has deteriorated and most people can no longer drink the high-quality water they used to.

[0004] Drinking water is not only a daily necessity for human beings, but also very important for human metabolism, regulating physiological functions and promoting chemical reactions in the body. However, due to the rapid development of modern industry and commerce, water pollution has become increasingly serious. When people drink polluted water, the heavy metals and other harmful substances remaining in the water will accumulate in the human body, which is extremely harmful to the human body. Therefore, many families now have water purifiers installed, and use the filter inside the water purifier to filter the water to obtain pure drinking water for people to drink.

[0005] However, the energy water produced by commercially available water purification equipment generally has characteristics such as energy form, energy source, energy direction, stability and contact area with water, as shown in the following chart:

[0006]

[0007]

[0008] The "previous technology" mentioned in the table refers to the flow of water through the device, through the device in different forms of energy, perhaps light energy, magnetic energy, far infrared and other vibration material energy sources, so as to reduce the water molecules. Water is a dynamic fluid, and it is difficult to achieve "stable" and "comprehensive" molecular miniaturization of water passing through it instantly.

[0009] Among them, the "small contact area with water" mentioned in the table, taking the far-infrared ceramic ball as an example, under the same accommodation space, when the particle diameter is larger, the total surface area in contact with water is relatively smaller, and the energy transfer effect is worse in the same time; however, when the diameter of the far-infrared ceramic ball in the filter material is too small, the particles will affect the water flow rate, resulting in the disadvantage of insufficient filtered water output.

[0010] When the particles are so small that they affect the water flow rate, the energy consumption and decay of the energy source in the production process are difficult to estimate.

[0011] Therefore, the production capacity and quality of energy water are generally difficult to quantify. As mentioned above, it is currently difficult to effectively calculate and standardize the number of particles required to control the flow rate, how often the particles should be maintained, and monitoring their energy decay values. There is obviously room for improvement in commercial use.

[0012] Therefore, there is still much room for improvement in the design and production of the above-mentioned small molecule energy water. The inventors studied and improved the inconveniences of the designs, and finally came up with the present invention. Summary of the invention

[0013] The main purpose of the present invention is to provide a method for producing small molecular cluster activated water with high efficiency and stability. The method is provided with a fiber mesh composed of ceramic, mineral and magnetic composite materials. When passing through an energy device, a far-infrared light source device irradiates the fiber mesh composed of ceramic, mineral and magnetic composite materials. Under the irradiation of the far-infrared light source, the ceramic and the minerals therein will absorb the far-infrared energy and release it again, and the magnetic material in the fiber mesh will be magnetized by the magnetic field using a magnetic flux device, which conforms to the concept of "charging". The fiber mesh is brought into contact with the water flow after being circulated into the water tank, and the ceramic will stably radiate far-infrared vibration water molecules, and the magnetic material will stably release magnetic energy, so as to form small molecular clusters of filtered water.

[0014] Another object of the present invention is to provide a method for producing small molecular cluster activated water with high efficiency and stability, in which a fiber mesh composed of ceramic, mineral and magnetic composite materials is in contact with water to maximize the contact surface, and layered contact with flowing water is adopted. The fiber mesh conveyor can adjust the moving speed according to the water flow rate to control the water volume of small molecular cluster water production, and the length and number of circulation layers of the fiber mesh composed of ceramic, mineral and magnetic composite materials of the present invention can be expanded at a lower cost, thereby increasing the output under the condition of high stable quality.

[0015] Another object of the present invention is to provide a method for efficiently and stably producing small-molecule cluster activated water, wherein the energy source is far-infrared light, combined with magnetic energy, the far-infrared light source device can control the light intensity, the magnetic device can control the magnetic field intensity, and the ceramic far-infrared divergent vibration energy and magnetic energy can be stably introduced into the water, thereby effectively and quickly producing small-molecule cluster water.

[0016] Another object of the present invention is to provide a method for producing small molecular cluster activated water with high efficiency and stability, wherein the production capacity and quality can be digitally controlled, and when digitalized and standardized, it has obvious advantages in commercial use.

[0017] To achieve the above-mentioned purpose, the method designed by the present invention for producing small molecular cluster activated water with high efficiency and stability is characterized by:

[0018] The invention comprises: providing at least one water tank body, a water inlet and a water outlet are respectively arranged at two ends, and a water storage space is arranged in the water tank body;

[0019] The method comprises: providing a water filtering unit and placing it at the water inlet;

[0020] The invention comprises: providing a mesh conveying device and a fiber mesh composed of ceramic, mineral and magnetic composite materials, so that the fiber mesh can be driven by a driving motor on each roller of the mesh conveying device to be conveyed, so that a part of the fiber mesh is immersed in water and another part is exposed on the water surface during the conveying process;

[0021] It includes: providing a far-infrared light source device and a magnetic device, so that the fiber mesh cloth is acted upon by the far-infrared light source device and the magnetic device when it is exposed to the water surface;

[0022] Thereby, when the mesh conveying device, the far-infrared light source device and the magnetic device are connected to the power supply, the small molecular cluster water can be produced efficiently and stably through the electric control program and the monitoring device.

[0023] The effective benefit of the present invention lies in that when the mesh conveying device, the far-infrared light source device and the magnetic device are connected to the power supply, after being integrated and monitored by the relevant electronic circuits, the electric control program and the monitoring device, the fiber mesh cloth, which is acted upon by the far-infrared light source device and the magnetic device, filters the flowing water in layers in the water tank. After the fiber mesh cloth is circulated into the water tank, it comes into contact with the water flow, and the ceramic will stably radiate far-infrared rays, and the magnetic material will stably release magnetic energy, so that the filtered water is formed into small molecular clusters and discharged through the water outlet, thereby achieving the high efficiency and stable production of small molecular cluster water.

[0024] Other features and specific embodiments of the present invention will be further understood from the following detailed description with reference to the accompanying drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 It is a schematic diagram of the exploded structure of the device of the present invention.

[0026] Figure 2 It is a schematic diagram of the device of the present invention after assembly.

[0027] Figure 3 It is a cross-sectional view of the device of the present invention.

[0028] Figure 4 This is a schematic diagram of the water flow direction when producing small molecular cluster water according to the present invention. DETAILED DESCRIPTION

[0029] Please refer to Figures 1 to 4 As shown, the method for producing small molecular cluster activated water with high efficiency and stability of the present invention comprises a water tank body 10, a water filtering unit 20, a turbidity monitoring unit 30, a fiber mesh 40 made of ceramic, mineral and magnetic composite materials, and a mesh conveying device 50.

[0030] The water tank body 10 has a water inlet 11 and a water outlet 12 at two ends thereof, and a water storage space 13 is disposed inside the water tank body 10 .

[0031] The water filter unit 20 is made of water filtering material, which can be a high-density fiber filter, a food-grade ion filter, an activated carbon filter, a nano-silver antibacterial filter or other filter mesh plates made of conventional water filtering materials, which can filter out coarse impurities such as rust, fine sand, silt, hair, organic matter, algae, suspended microorganisms, etc. in the water, or can also filter out lime in the water, thereby softening the water quality, and at the same time filter out carcinogenic toxins such as heavy metals and oxides that are harmful to the human body in the water, or be used to combine and absorb chemical substances such as agricultural chemicals, odors, organic matter, asbestos dust, heavy metal pollution, etc. In the illustrated embodiment, the water filter unit 20 is arranged in the water storage space 13. In another feasible implementation, the water filter unit 20 is arranged in the external water inlet system channel of the water storage space 13 as a water filter unit generally used as a pre-filter.

[0032] The turbidity monitoring unit 30 can monitor the turbidity of impurities in the water when powered, and can automatically detect the turbidity of the water after passing through the water filter unit 20 to understand the degree of dirtiness of the filter unit 20 for replacement, and can also electrically control the water inlet to close. In the illustrated embodiment, the turbidity monitoring unit 30 is disposed in the water storage space 13. In another feasible implementation, the turbidity monitoring unit 30 is disposed in the external water inlet system channel of the water storage space 13 to monitor the turbidity standard of the water entering the water tank body 10.

[0033] The fiber mesh 40 composed of ceramic, mineral and magnetic composite materials is a flat filter made of ceramic fiber composite materials. The fiber fabric is easy to contact and adsorb with water, and can determine the width of the mesh to control the contact surface. When it is wound in the water tank body, it can contact the flowing water in layers and control the conveying speed of the fiber mesh. The conveying speed of the mesh can be adjusted according to the water flow rate to control the water volume of small molecular group water. The preferred embodiment of the ceramic and mineral composite material is composed of 50-70% of silicon dioxide, aluminum oxide, calcium carbonate, magnesium oxide, etc., and 30-50% of tourmaline, white ore, cordierite, obsidian, etc.

[0034] The mesh conveying device 50 is provided with a bottom plate 56, on which a plurality of rollers 51, 52 are pivotally provided, including a driving roller 51 and a plurality of driven rollers 52. In the preferred embodiment of the figure, the driving and driven rollers are arranged up and down, so that the fiber mesh 40 composed of ceramic, mineral and magnetic composite materials can be wound between the rollers to achieve layered arrangement and contact with flowing water, so that the contact surface is actively maximized. A driving motor 53 is connected to the driving roller 51, and when powered on, the fiber mesh 40 can be conveyed to the water storage space 13 of the water tank body 10 for circulation. A far-infrared light source device 54 and a magnetic device 55 are fixedly arranged above the bottom plate 56, and each of them is provided with a slit 541, 551, so that the fiber mesh cloth 40 composed of ceramic, mineral and magnetic composite materials can pass through the slit 541 of the far-infrared light source device 54 and the slit 551 of the magnetic device 55. When powered on, the far-infrared energy source and the magnetic energy source can be attached to the fiber mesh cloth, and the far-infrared light source device can control the light intensity, and the magnetic device can control the magnetic field intensity. After the mesh cloth is transported into the water storage space 13 to filter the water, it can stably introduce the far-infrared divergent vibration energy and magnetic energy into the water, so as to achieve the effect of effectively and quickly producing small molecular cluster water.

[0035] It is worth mentioning that the far-infrared light source device 54 and the magnetic device 55 can also be respectively arranged in the water filtration system channel to "charge" different water storage spaces respectively, that is, the single water tank body 10 in the illustrated embodiment is arranged to be connected in series to form two water tank bodies in the water flow system, which are not shown in the figure. One of the water tank bodies uses a far-infrared light source device to irradiate the fiber mesh composed of ceramics, minerals and magnetic composite materials, and the other water tank body uses a magnetic device to magnetize the magnetic material in the fiber mesh using a magnetic field, so that the fiber mesh is circulated into the water tank and contacts the water flow, and the ceramics will stably radiate far-infrared rays to vibrate water molecules, and the magnetic material will stably release magnetic energy. The overall water filtration system can also achieve the effect of forming filtered water into small molecular clusters.

[0036] The present invention has the following advantages:

[0037] 1. The method for producing small molecular cluster water of the present invention can be used to effectively and stably automatically adjust the fiber mesh conveying speed of the mesh conveying device and the water flow rate of the water inlet according to the value of the turbidity monitoring unit, so as to achieve proper automatic regulation of the water flow rate and the energy source small molecular cluster water production capacity. When combined with AI data setting, it can achieve quality and production capacity optimization settings and production modes.

[0038] 2. Drink small molecular cluster water with energy source. Because it contains nano-scale small molecular cluster water with energy source, it can improve the physical and chemical functions of the human body, promote the activity of various "enzymes" in the human body, reduce blood lipids, blood pressure and blood viscosity, further promote the body's metabolism and enhance immunity.

[0039] 3. Drinking small molecular water with energy source can promote the body's metabolism, prevent cerebral vascular infarction, prevent colds, and even prevent the occurrence of cancer.

[0040] In summary, the present invention can indeed achieve the intended purpose of the invention, providing a method with high efficiency and stable production of small molecular cluster water, which can be combined with an electronic control device to accurately control the production quality, and can also be combined with an AI system to comprehensively improve production capacity and automatically monitor quality. It has practical value and a patent application is filed in accordance with the law. However, the above is only a preferred embodiment of the present invention and cannot be used to limit the scope of the implementation of the present invention; therefore, all simple equivalent changes and modifications made according to the scope of the patent application of the present invention and the content of the invention specification should still fall within the scope covered by the patent of the present invention.

Claims

1. A method for producing small molecular cluster activated water with high efficiency and stability, characterized in that: include: Provide at least one water tank body, with a water inlet and a water outlet respectively disposed at two ends, and a water storage space disposed in the water tank body; The method comprises: providing a water filtering unit and placing it at the water inlet; The invention comprises: providing a mesh conveying device and a fiber mesh composed of ceramic, mineral and magnetic composite materials, so that the fiber mesh can be driven by a driving motor on each roller of the mesh conveying device to be conveyed, so that a part of the fiber mesh is immersed in water and another part is exposed on the water surface during the conveying process; It includes: providing a far-infrared light source device and a magnetic device, so that the fiber mesh cloth is acted upon by the far-infrared light source device and the magnetic device when it is exposed to the water surface; Thereby, when the mesh conveying device, the far-infrared light source device and the magnetic device are connected to the power supply, the small molecular cluster water can be produced efficiently and stably through the electric control program and the monitoring device.

2. The method for producing small molecular group activated water with high efficiency and stability as claimed in claim 1, characterized in that: The water filtering unit provided therein is arranged in the water storage space.

3. The method for producing small molecular group activated water with high efficiency and stability as claimed in claim 1, characterized in that: A turbidity monitoring unit is provided behind the water supply filter unit to automatically detect the turbidity of the water so as to understand the degree of dirtiness of the filter unit.

4. The method for producing small molecular group activated water with high efficiency and stability as claimed in claim 1, characterized in that: The far infrared light source device and the magnetic flux device are respectively arranged in different water storage spaces in the water filtration system channel to be charged respectively.

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