Liquid molecule photon treatment apparatus, treatment method, and application of the same

Abstract

To provide a liquid molecule photon treatment apparatus with reduced production cost, a treatment method, and application thereof.SOLUTION: A liquid molecule photon treatment apparatus comprises a tube 10, a molecule disperser 20, a photon emission / discharge device 30, and a refractor 40. The molecule disperser and the refractor are connected to an inner wall of the tube. The refractor faces the photon emission / discharge device. The photon emission / discharge device is positioned outside the tube. The molecule disperser is positioned at one end near an inlet 11 of the tube. The refractor is positioned at the other end near an outlet 13 of the tube. Liquid enters the tube from the inlet, and passes through the molecule disperser to form a liquid molecule group. The liquid molecule group passes through the refractor, and the refractor refracts and reflects photon emission from the photon emission / discharge device a plurality of times and irradiates a liquid molecule group in the tube with photon emission. The liquid molecule group resonates to generate a low molecular weight liquid, and the low molecular weight liquid flows out from the outlet.SELECTED DRAWING: Figure 1

Description

[Technical Field]

[0001] The present invention relates to the field of water molecule processing, in particular to a liquid molecule photon processing device, processing method and application. [Background technology]

[0002] Water is the most abundant substance on the Earth's surface and is a colorless, odorless, and transparent liquid at room temperature. A water molecule can consist of two hydrogen atoms and one oxygen atom covalently bonded together. Because water molecules are polar, multiple water molecules can form clusters through hydrogen bonds. The size of a cluster of water molecules is often measured using oxygen-17 nuclear magnetic resonance (NMR). For example, when measuring the NMR spectrum, a full width at half maximum (FWHM) of water close to or greater than 90 Hz is considered a large molecule; a spectrum less than 90 Hz or less than 80 Hz is considered a small molecule. Generally, the smaller the molecule, the more water can be absorbed by the human body.

[0003] Most existing liquid water treatment devices aim to process large water molecules into small water molecules. For example, one technology involves passing water through multiple tubes made of an alloy of rare earth metals (perylene, neodymium, sm, titanium, zinc, etc.) and arranging multiple permanent magnets along the tubes, which uses electric and magnetic fields to break the hydrogen bonds between water molecules and produce small water molecules. However, rare earth metals are expensive and not easy to manufacture. Summary of the Invention [Problem to be solved by the invention]

[0004] There is also a method for producing stable low-molecular-weight water by adding diluents (sodium chloride, vitamins, amino acids, hormones, proteins, enzymes, peptides, polysaccharides, organic and inorganic substances such as DNA and RNA, etc.) to water, but adding these substances will prevent the water from becoming pure. Therefore, the current problem to be solved is how to improve a treatment device that efficiently reduces the molecular weight of aqueous solutions or water. In view of the drawbacks of the prior art, an object of the present invention is to provide a liquid molecule photon processing device, a processing method, and applications thereof that can reduce processing costs. [Means for solving the problem]

[0005] According to the present invention, the liquid molecular photon processing device comprises a tube, a molecular disperser, a photon radiation emitter, and a refractive body, wherein the molecular disperser and the refractive body are respectively connected to the inner wall of the tube, the refractive body faces the photon radiation emitter, and the photon radiation emitter is located outside the tube.

[0006] Furthermore, the liquid molecule photon processing device of the present invention is characterized in that the molecular disperser is located at one end of the tube close to the inlet, and the refractive body is located at the other end of the tube close to the outlet, the liquid enters the tube from the inlet, passes through the molecular disperser to form liquid molecule groups, the liquid molecule groups pass through the refractive body, the refractive body refracts and reflects the photon radiation from the photon radiation emitter multiple times to irradiate the liquid molecule groups in the tube, the liquid molecule groups resonate to generate liquid small molecules, and the liquid small molecules flow out from the outlet.

[0007] Preferably, the photon radiation emitter comprises a full spectrum radiation source, a coil resonator, and a frequency resonator, wherein the coil resonator is located between the transparent window and the full spectrum radiation source, the coil resonator is arranged around the frequency resonator, the coil resonator is energized to generate a magnetic field, the frequency resonator generates a frequency signal and is arranged around the coil resonator, the optical frequency generated by the full spectrum radiation source is superimposed on the magnetic wave of the coil resonator and merged with the frequency signal of the frequency resonator and guided to the refractive body, causing a group of liquid molecules in the tube to resonate and generate small liquid molecules.

[0008] Preferably, the refractive body uses transparent glass having a plurality of protrusions, and the refractive body refracts and reflects a plurality of times via the plurality of protrusions.

[0009] Preferably, a transparent window is provided in the wall of the tube, the transparent window and the refractive body are arranged opposite each other, the refractive body, the transparent window and the photon radiation emitter have their central axes on the same horizontal line, and photon radiation from the photon radiation emitter passes through the transparent window and is guided to the refractive body.

[0010] Preferably, a molecular disperser is provided on the inner wall of one end of the tube close to the inlet, the molecular disperser includes a plate-like member, a plurality of the plate-like members are provided parallel to the inner wall of the tube wall, a plurality of holes are provided in the plate-like member, the normal direction of the plate-like member is parallel to the direction of flow of the liquid, the thickness of the plate-like member is 1 to 2 mm, and the area of ​​the plate-like member is 5 to 10 cm 2 The diameter of the holes is 1 to 3 mm, the distance between two adjacent holes is 1 to 3 mm, and the area occupied by the holes is 4 to 9 cm. 2 is.

[0011] The pores include a first set of pores and a second set of pores, the pore direction of the first set of pores intersects with the pore direction of the second set of pores, liquid molecules passing through the first set of pores and the second set of pores are dispersed by collision with each other, and the first set of pores and the second set of pores are distributed along the central axis of the pipe wall, or the first set of pores and the second set of pores are dispersed in a staggered pattern on the plate-like member.

[0012] Preferably, the angle between the hole direction of the first set of holes and the surface of the plate-like member is 36° to 45°, and the angle between the hole direction of the second set of holes and the surface of the plate-like member is 45° to 48°.

[0013] Preferably, a processing method using a liquid molecular photon processing device, characterized in that it comprises the following steps: Step S1: A step in which a liquid enters the inside of the tube through the inlet and flows into the molecular disperser; Step S2: The molecular disperser causes the liquid molecules passing through the first set of holes and the second set of holes to collide with each other and disperse them to form liquid polymers, which then flow into the tube; Step S3: When the liquid polymer passes through the refractive body, the optical frequency generated from the full-spectrum radiation source passes through the superposition of magnetic waves from the coil resonator, and is merged with a frequency signal of 2.4 Hz to 12 Hz generated from the frequency resonator and projected onto the refractive body. After repeated refraction and reflection by the refractive body, the light is irradiated onto the liquid polymer inside the tube, causing resonance within the liquid polymer, breaking down the liquid polymer into smaller molecules, and causing the liquid small molecules to flow out of the outlet.

[0014] Preferably, the wavelength of the full spectrum radiation source is 300-2700 nm, and the frequency resonator generates a frequency signal of 2.4-12 Hz.

[0015] Preferably, it is used to make low molecular weight liquids. [Effects of the Invention]

[0016] Compared with existing technologies, the present invention has the following beneficial effects:

[0017] This application adopts the cooperation of molecular disperser and photon emitter, and by combining molecular dispersion, full spectrum radiation, frequency resonance and other technologies, improves water activation in the process of light frequency fusion, produces small water molecules, and has an effective water treatment effect; it does not need to use expensive rare earth metals or add additives to water, and can effectively treat water by making water molecules small; it is convenient to use and has a wide range of applications. [Brief explanation of the drawings]

[0018] [Figure 1] FIG. 1 is a schematic diagram of the structure of a liquid molecule photon processing device according to the present invention. [Figure 2] FIG. 2 is a top view showing the structure of a molecular disperser of the liquid molecule photon processing device according to the present invention. [Figure 3]FIG. 3 is a side view of a molecular disperser of a liquid molecular photon processing device according to the present invention. [Figure 4] Figure 4 is an NMR spectrum of wine treated with 170 by the liquid molecular photon treatment device according to the present invention; [Figure 5] FIG. 5 is an NMR spectrum of untreated wine using 170 with the liquid molecular photon processing device according to the present invention. [Figure 6] FIG. 6 shows the NMR spectrum of commercially available packed water treated with 170 in the liquid molecular photon treatment device according to the present invention. [Figure 7] FIG. 7 shows the NMR detection pattern of 170 of commercially available packed water that has not been treated by the liquid molecular photon treatment device according to the present invention. DETAILED DESCRIPTION OF THE INVENTION

[0019] The present invention will be further described below by specific embodiments. However, it should be understood that the following examples are merely for illustrative purposes and should not be construed as actually limiting the present disclosure. It should be noted that those skilled in the art can make certain changes and improvements without departing from the concept of the present invention. The symbol "~" indicates a range of values ​​including the values ​​before and after it. [Example]

[0020] Next, examples will be described, but the present invention is not limited to the following examples. Example 1 According to the present invention, the liquid molecular photon processing device is composed of a tube 10, a molecular disperser 20, a photon radiation emitter 30, and a refractive body 40, as shown in Figures 1 to 3, wherein the photon radiation emitter 30 is arranged outside the tube 10, and the molecular disperser 20 and the photon radiation emitter 30 are respectively arranged inside the tube 10.

[0021] Tube 10 includes an inlet 11, a tube wall 12, an outlet 13 opposite inlet 11, and a transparent window 14 disposed in tube wall 12 between inlet 11 and outlet 13. Tube 10 is generally longitudinally oriented so that liquid enters through inlet 11, passes through molecular disperser 20, passes through refractive body 40, and exits through outlet 13. The liquid may be water, and the liquid molecular groups are water molecules. Alternatively, the liquid may consist of water.

[0022] The molecular disperser 20 is disposed near the inlet 11 in the pipe 10. In one embodiment, the molecular disperser 20 is composed of one or more plate-like members 21 having a plurality of openings, and these plate-like members 21 may be arranged in parallel, the normal direction of the plate-like members 21 is substantially parallel to the direction of flow of the liquid, and the openings of the upstream and downstream plate-like members 21 may be offset. In a specific example, the thickness t of the plate-like member 21 is about 1.5 mm, and the area of ​​the plate-like member 21 is about 5 cm 2 ~10cm 2 The diameter of each hole is about 2 mm, the hole spacing d is about 2 mm, and the area occupied by all the holes is about 4 cm 2 ~9cm 2 is.

[0023] As shown in Figures 2 and 3, the multiple holes are divided into a first hole set 211 and a second hole set 212 by a central axis (dotted line shown), and the hole direction A of the first hole set 211 intersects with the hole direction B of the second hole set 212, so that liquid molecules passing through the first hole set 211 and the second hole set 212 can be caused to collide with each other and be dispersed. Furthermore, in order to cause the liquid molecule groups passing through the first hole set 211 and the second hole set 212 to collide with each other, the angle a formed between the hole direction A of the first hole set 211 and the surface of the plate-like member 21 is approximately 36° to 45°, and the angle b formed between the hole direction A of the first hole set 211 and the surface of the plate-like member 21 is approximately 45° to 48°, but is not limited to the angle a formed between the hole direction A of the first hole set 211 and the surface of the plate-like member 21 as long as the first hole set 211 and the second hole set 212 intersect. However, the angle b between the hole direction A of the first hole set 211 and the surface of the plate-like member 21 is approximately 45° to 48°. Furthermore, the distribution of the first pore set 211 and the second pore set 212 is not limited to the left and right of the central axis of the plate-shaped member 21. In other embodiments, as long as the two pore directions intersect, the first pore set 211 and the second pore set 212 may be distributed in a staggered pattern within the plate-shaped member 21. That is, some of the second pore set 212 may be on the left side of the central axis, and some of the first pore set 211 may be on the right side of the central axis. As long as these two types of pores with intersecting directions are adjacent to each other, liquid molecule groups passing through the first pore set 211 and the second pore set 212 can collide with each other and disperse, initially reducing the liquid molecule groups.

[0024] The photon radiation emitter 30 is disposed outside the tube 10 and emits photon radiation into the tube 10 through the transparent window 14. The photon radiation emitter 30 includes a full-spectrum radiation source 31 for emitting photon radiation, a coil resonator 32 for concentrating photon frequencies disposed between the transparent window 14 and the full-spectrum radiation source 31, and a frequency resonator 33 for superimposing the photon frequencies. The coil resonator 32 can be energized to generate a magnetic field. The frequency resonator 33 can generate a frequency signal of approximately 2.4 Hz to 12 Hz and is disposed around the coil resonator 32. The wavelength of the photon radiation essentially covers the entire spectrum of sunlight, typically ranging from 300 nm to 2700 nm, preferably from 380 nm to 780 nm, and the photon frequency of the photon radiation ranges from approximately 2.4 Hz to approximately 12 Hz. Such photon radiation can further refine the finely divided liquid molecule groups to form smaller liquid molecules.

[0025] The refractive body 40 is positioned within the tube 10 to receive the photon radiation emitted by the photon radiation emitter 30. The position of the refractive body 40 within the tube 10 can correspond to the direction of the photon radiation emitted by the photon radiation emitter 30, and the outer surface area of ​​the refractive body 40 facing the photon radiation emitted by the photon radiation emitter 30 can correspond to the radiation range of the photon radiation. The refractive body 40 may be transparent glass with multiple protrusions 41 (similar to the multiple facets of a diamond), allowing the photon radiation from the photon radiation emitter 30 to be refracted and reflected multiple times by the refractive body 40 and irradiated onto the liquid molecules within the tube 10. The liquid molecules are irradiated by the photon radiation emitted by the photon radiation emitter 30 and the photon radiation refracted by the refractive body 40, causing resonance within the liquid molecules, which causes larger molecules to become smaller molecules, thereby generating smaller liquid molecules and exiting the outlet 13 of the tube 10.

[0026] Furthermore, the liquid molecule photon treatment device of the present invention also includes a control circuit unit including components such as a photodetector, an integrated circuit, a relay, an inductor, a resistor, a capacitor, a diode, a triode, a coil, a circuit board, and a transformer, which is used to ensure stable operation of the device and control the water treatment process.

[0027] Therefore, the water passes through a molecular disperser to disperse large molecular groups, then passes through a full-spectrum radiation source, passes through a coil resonator to generate a superposition of magnetic waves and light frequencies, and is fused with a frequency resonator generated by a 2.4Hz frequency signal, and then cast onto a transparent glass protrusion on the surface of a diamond, so that the molecular structure of the water fused with light frequency activates the water and increases the generation of small molecules.

[0028] Specifically, the liquid molecular photon processing device of the present invention can process large molecular water into small molecular water without adding chemicals or minerals, and is healthier, more environmentally friendly, and less expensive than known technologies. It also has the following advantages: High-efficiency activation treatment: Based on the principle of photon frequency, it effectively improves water activation, reduces the molecular structure of water, and achieves high-efficiency water treatment effect. Multi-technology combination: Combining technologies such as molecular dispersion, full spectrum radiation, and frequency resonance, it has comprehensive advantages and can meet different water quality treatment needs. Stability and controllability: The control circuit unit's photodetectors, integrated circuits, relays and other components ensure stable operation of the device and provide precise control of active processing.

[0029] Example 2 The present invention also provides a processing method using the liquid molecule photon processing device of Example 1, which comprises the following specific steps: Step S1: The liquid enters the inside of the tube 10 through the inlet 11 and flows into the molecular disperser 20.

[0030] Step S2: The molecular disperser 20 causes the liquid molecules passing through the first set of holes 211 and the second set of holes 212 to collide with each other and disperse them, forming liquid polymers, which then flow into the lumen of the tube 10.

[0031] Step S3: When the liquid polymer passes through the refractive body 40, the optical frequency generated from the full spectrum radiation source 31 passes through the superposition of magnetic waves from the coil resonator 32, and is merged with a frequency signal of 2.4 Hz to 12 Hz generated from the frequency resonator 33 and projected onto the refractive body 40. After repeated refraction and reflection by the refractive body 40, the light is irradiated onto the liquid polymer group inside the tube 10, causing resonance within the liquid polymer group, breaking down the liquid polymer group into smaller molecules, and causing the liquid small molecules to flow out from the outlet.

[0032] Example 3 Furthermore, the present invention provides an application example of the liquid molecule photon processing device of the first embodiment, which is to be used for producing a liquid using a small molecule.

[0033] Figures 4 and 5 show the 170 NMR spectrum of a wine treated with the liquid molecular photon treatment device of the present invention (name: 2017 Wemen Selection Wemen Estate Selection, manufacturer: BLUE PYRENEES ESTATE PTY LTD) and the 170 NMR spectrum of an untreated wine, illustrating the application of the present invention to wine.

[0034] Figures 6 and 7 show the 170 NMR spectrum of commercially available packed water (name: WATER MATERIALS MAGNOLITE MINERAL WATER, manufacturer: UNIFORM ENTERPRISE CORPORATION) treated with the liquid molecular photon processing device of the present invention, as well as the 170 NMR spectrum of untreated commercially available packed water. Detection was performed using a 170 NMR spectrometer, and the compound used as the chemical shift reference (position 0 ppm) in this 170 NMR detection method was deuterium (DO). The results are shown in Table 1. Table 1: JPEG2025178563000002.jpg71170

[0035] From the above, in the 170 NMR spectrum of wine, the FWHM was reduced from 87.69 Hz to 80.97 Hz, demonstrating that low molecular weight water can be produced by processing using the liquid molecular photon processing device of the present invention. In the 170 NMR spectrum of commercially available packed water, the FWHM was reduced from 88.35 Hz to 78.82 Hz, demonstrating that low molecular weight water can be produced by processing using the liquid photon molecular processing device of the present invention.

[0036] In this specification, orientations or positional relationships indicated by terms such as "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "upper left," "right," "vertical," "horizontal," "upper," "lower," "inside," "outside," etc. are based on orientations or positional relationships shown in the accompanying plan views and are intended solely to facilitate and simplify the description of the present application. These are for the purpose of illustrating and simplifying the description of the present application only and are not intended to indicate or imply that the devices or elements referred to must have a particular orientation, be configured, or operate in a particular orientation, and therefore should not be construed as limitations of the present application.

[0037] Specific embodiments of the present invention have been described above. The present invention is not limited to the specific embodiments described above, and those skilled in the art can make various changes or modifications without affecting the substance of the present invention within the scope of the claims. Furthermore, the embodiments of the present invention and the features of the embodiments can be arbitrarily combined without mutual contradiction. [Explanation of symbols]

[0038] 10:Tube 11:Entrance 12: Pipe wall 13:Exit 14: Transparent window 20:Molecular disperser 21: Plate-shaped member 211: First hole set 212: Second hole set A,B: Hole direction a,b: Angle d: distance t: thickness 30: Photon radiation emitter 31: Full spectrum radiation source 32: Coil resonator 33: Frequency resonator 40: Refractive 41: Protrusion

Claims

1. A liquid molecule photon processing device, comprising: a tube, a molecular disperser, a photon radiation emitter, and a refractive body; the molecular disperser and the refractive body are respectively connected to the inner wall of the tube; the refractive body faces the photon radiation emitter, the photon radiation emitter being located outside the tube; a molecular disperser located at one end of the tube close to the inlet, and a refractive body located at the other end of the tube close to the outlet, wherein a liquid enters the tube from the inlet, passes through the molecular disperser to form groups of liquid molecules, the groups of liquid molecules pass through the refractive body, the refractive body refracts and reflects photon radiation from the photon radiation emitter multiple times to irradiate the groups of liquid molecules in the tube, the groups of liquid molecules resonate to generate small liquid molecules, and the small liquid molecules flow out from the outlet.

2. 2. The liquid molecule photon processing device according to claim 1, wherein the photon radiation emitter comprises a full spectrum radiation source, a coil resonator, and a frequency resonator, the coil resonator being located between a transparent window and the full spectrum radiation source, the coil resonator being arranged around the frequency resonator, the coil resonator being energized to generate a magnetic field, the frequency resonator generating a frequency signal and being arranged around the coil resonator, the optical frequency generated by the full spectrum radiation source being superimposed on the magnetic wave of the coil resonator and fused with the frequency signal of the frequency resonator, and guided to the refractive body, causing a group of liquid molecules in the tube to resonate and generate small liquid molecules.

3. 2. The liquid molecule photon processing device according to claim 1, wherein the refractive body is made of transparent glass having a plurality of protrusions, and the refractive body refracts and reflects light a plurality of times via the plurality of protrusions.

4. 2. The liquid molecule photon processing device according to claim 1, characterized in that a transparent window is provided in the tube wall of the tube, the transparent window and the refractive body are arranged opposite each other, the refractive body, the transparent window and the photon radiation emitter have their central axes on the same horizontal line, and photon radiation from the photon radiation emitter passes through the transparent window and is guided to the refractive body.

5. the molecular disperser is provided on an inner wall of one end of the tube close to the inlet, the molecular disperser includes a plate-like member, a plurality of the plate-like members are provided parallel to the inner wall of the tube, a plurality of holes are formed in the plate-like member, and the normal direction of the plate-like member is parallel to the flow direction of the liquid, The thickness of the plate-like member is 1 to 2 mm, and the area of ​​the plate-like member is 5 to 10 cm ２ The diameter of the holes is 1 to 3 mm, the interval between two adjacent holes is 1 to 3 mm, and the area occupied by the plurality of holes is 4 to 9 cm ２ The liquid molecule photon processing device according to claim 1,

6. the pores include a first pore set and a second pore set, the pore direction of the first pore set and the pore direction of the second pore set intersect, and liquid molecules passing through the first pore set and the second pore set are dispersed by collision with each other; 6. The liquid molecule photon processing device according to claim 5, wherein the first set of holes and the second set of holes are distributed along the central axis of the tube, or the first set of holes and the second set of holes are distributed in a staggered pattern on the plate-like member.

7. 7. The liquid molecule photon processing device according to claim 6, wherein the angle between the hole direction of the first hole group and the surface of the plate-like member is 36° to 45°, and the angle between the hole direction of the second hole group and the surface of the plate-like member is 45° to 48°.

8. 10. A processing method using the liquid molecule photon processing device according to claim 1, comprising the following steps: Step S1: A step in which a liquid enters the inside of the tube from the inlet and flows into the molecular disperser; Step S2: The molecular disperser causes the liquid molecules passing through the first set of holes and the second set of holes to collide with each other and disperse them to form a liquid polymer, and the liquid polymer flows into the tube; Step S3: When the liquid polymer passes through the refractive body, the optical frequency generated from the full spectrum radiation source passes through the superposition of magnetic waves from the coil resonator, is combined with a frequency signal of 2.4 Hz to 12 Hz generated from a frequency resonator, and is projected onto the refractive body. After repeated refraction and reflection by the refractive body, the optical frequency is irradiated onto the liquid polymer inside the tube, causing resonance within the liquid polymer, decomposing the liquid polymer into smaller molecules, and allowing the liquid small molecules to flow out from the outlet. A processing method comprising:

9. 9. The method of claim 8, wherein in step S3, the wavelength of the full spectrum radiation source is 300-2700 nm, and the frequency resonator generates a frequency signal of 2.4-12 Hz.

10. 8. An application of the liquid molecule photon processing device according to any one of claims 1 to 7, characterized in that it is used to prepare a liquid with a small molecule.

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