Liquid molecular photon processing apparatus, processing method and applications
By utilizing molecular dispersion and photon radiation technologies in liquid molecular photon processing equipment, the problem of converting large water molecules into small water molecules has been solved, achieving efficient and environmentally friendly water treatment results.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2024-07-18
- Publication Date
- 2026-03-31
AI Technical Summary
Existing technologies are difficult to efficiently convert large water molecules into small water molecules, and the use of rare earth metals or additives is costly or impure.
Using a liquid molecular photon processing device, liquid small molecules are generated by combining a molecular disperser, a full-spectrum radiation source, a coil resonator, and a frequency resonator, and by utilizing photon radiation and multiple refractions and reflections of the refractometer.
It can efficiently generate small molecule water without rare earth metals and additives, improve water activation, and is low-cost, healthy and environmentally friendly.
Smart Images
Figure CN118811931B_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of water molecule treatment, specifically to liquid molecule photon treatment equipment, treatment methods, and applications. Background Technology
[0002] Water is the most abundant substance on Earth's surface. At room temperature, it is a colorless, odorless, and transparent liquid. A water molecule is composed of two hydrogen atoms and one oxygen atom bonded together by covalent bonds. Due to the polarity of water molecules, multiple water molecules can form water clusters through hydrogen bonds. The size of water clusters is currently mostly represented using oxygen-17 nuclear magnetic resonance (NMR) spectra. For example, water with a full width at half maximum (FWHM) close to or greater than 90 Hz is considered large water cluster, while those less than 90 Hz or even less than 80 Hz are considered small water clusters. Generally speaking, the smaller the water cluster, the more easily it is absorbed by the human body.
[0003] Most existing liquid water treatment equipment aims to break down large water molecule clusters into smaller ones. One technique involves passing water through multiple pipes made of rare earth metal alloys (such as lanthanum, yttrium, cerium, praseodymium, neodymium, samarium, titanium, and zinc), with multiple permanent magnets positioned along the pipes. The electric and magnetic fields break the hydrogen bonds between water molecules, thus producing smaller water molecules. However, rare earth metals are expensive and difficult to manufacture. Another technique involves adding diluents (such as sodium chloride, vitamins, amino acids, hormones, proteins, enzymes, polypeptides, polysaccharides, DNA, or RNA) to the water to produce stable smaller water molecules. However, the presence of these additives means the water is no longer pure.
[0004] Therefore, how to improve treatment equipment to efficiently process aqueous liquids or water and convert them into small molecule water is a problem that needs to be solved. Summary of the Invention
[0005] In view of the deficiencies in the prior art, the purpose of this invention is to provide a liquid molecular photon processing device, processing method and application.
[0006] According to the present invention, a liquid molecular photon processing device includes: 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, and the photon radiation emitter is located on the outside of the tube.
[0007] The molecular disperser is located at one end near the inlet of the tube, and the refractive body is located at the other end near the outlet of the tube. The liquid enters the tube from the inlet, passes through the molecular disperser and becomes liquid molecule clusters. The liquid molecule clusters pass through the refractive body, which refracts and reflects the photon radiation from the photon radiation emitter multiple times, and then irradiates the liquid molecule clusters in the tube. After resonance occurs in the liquid molecule clusters, small liquid molecules are generated, and the small liquid molecules flow out from the outlet.
[0008] Preferably, the photon radiation emitter includes a full-spectrum radiation source, a coil resonator, and a frequency resonator. The coil resonator is located between the transparent window and the full-spectrum radiation source, and the frequency resonator is arranged around the coil resonator.
[0009] The coil resonator generates a magnetic field when energized, and the frequency resonator generates a frequency signal and is placed around the coil resonator. The light frequency generated by the full-spectrum radiation source is superimposed and merged by the magnetic waves of the coil resonator and the frequency signal of the frequency resonator is projected onto the refractor, causing the liquid molecular clusters inside the tube to resonate and generate small liquid molecules.
[0010] Preferably, the refractor is made of transparent glass with multiple protrusions, and the refractor undergoes multiple refractions and reflections through the multiple protrusions.
[0011] Preferably, the tube wall is provided with a transparent window, and the transparent window and the refractor are arranged correspondingly. The central axis of the refractor, the transparent window and the photon radiation emitter are located on the same horizontal line, and the photon radiation of the photon radiation emitter is radiated to the refractor through the transparent window.
[0012] Preferably, the molecular disperser is located on the inner wall of the pipe near the inlet end. The molecular disperser includes plates, and multiple plates are arranged in parallel on the inner wall of the pipe. The plates are provided with a plurality of holes, and the normal direction of the plates is basically parallel to the flow direction of the liquid.
[0013] The thickness t of the sheet metal is 1-2mm, and the area of the sheet metal is 5-10cm². 2 The diameter of the holes is 1-3mm, the distance d between two adjacent holes is 1-3mm, and the area occupied by multiple holes is 4-9cm². 2 .
[0014] Preferably, the plurality of pores includes a first group of pores and a second group of pores, wherein the pore directions of the first group of pores and the second group of pores intersect, so that the liquid molecule clusters passing through the first group of pores and the second group of pores collide with each other and disperse.
[0015] The first and second groups of holes are distributed along the central axis of the pipe wall, or the first and second groups of holes are staggered and dispersed on the plate.
[0016] Preferably, the angle α between the hole direction of the first group of holes and the surface of the plate is 36° to 45°, and the angle b between the hole direction A of the second group of holes and the surface of the plate is 45° to 48°.
[0017] The present invention also provides a processing method using a liquid molecular photon processing device, comprising the following specific steps:
[0018] S1. Liquid enters the inner cavity of the tube from the inlet and flows into the molecular disperser;
[0019] S2. The molecular disperser disperses the liquid molecule clusters that pass through the first set of holes and the second set of holes by colliding with each other to form large liquid molecule clusters, which then flow into the inner cavity of the tube.
[0020] S3. When the liquid macromolecule clusters pass through the refracting plate, the light frequency generated by the full-spectrum radiation source is superimposed and fused by the magnetic waves of the coil resonator and the frequency signal of the resonator is projected onto the refractor. After multiple refractions and reflections by the refractor, the light irradiates the liquid macromolecule clusters inside the tube, causing resonance within the liquid macromolecule clusters, which in turn reduces the macromolecule clusters to smaller molecules, and the smaller liquid molecules flow out from the outlet.
[0021] Preferably, in step S3, the wavelength of the full-spectrum radiation source is 300-2700nm, and the frequency resonator generates a frequency signal of 2.4-12Hz.
[0022] The present invention also provides an application of a liquid molecule photonic processing device for manufacturing small molecule liquids.
[0023] Compared with the prior art, the present invention has the following beneficial effects:
[0024] This application utilizes a combination of a molecular disperser and a photon radiation emitter. By combining technologies such as molecular dispersion, full-spectrum radiation, and frequency resonance, it can enhance the activation of water during the optical-frequency fusion process, generating smaller water molecules and achieving effective water treatment. It can effectively treat water into small-molecule water without the need for expensive rare earth metals or additives. It is convenient to use and has a wide range of applications. Attached Figure Description
[0025] Other features, objects, and advantages of the present invention will become more apparent from the following detailed description of non-limiting embodiments with reference to the accompanying drawings:
[0026] Figure 1 This is a schematic diagram of the architecture of the liquid molecule processing device of the present invention;
[0027] Figure 2 This is a top view of the molecular disperser in the liquid molecule processing device of the present invention;
[0028] Figure 3This is a side view of the molecular disperser of the molecular processing device of the present invention.
[0029] Figure 4 The NMR spectrum of wine processed by the liquid molecule processing device of the present invention using 17O is shown.
[0030] Figure 5 This is the NMR spectrum of untreated wine obtained using the liquid molecule processing device of the present invention, obtained using 17O.
[0031] Figure 6 The NMR spectrum of commercially available packaged water processed by the liquid molecule processing device of the present invention is obtained using 17O.
[0032] Figure 7 This is the NMR spectrum of untreated commercially available packaged water obtained using the liquid molecule processing device of the present invention, obtained using 17O.
[0033] The figure shows: 10: tube body, 11: inlet, 12: tube wall, 13: outlet, 14: transparent window, 20: molecular disperser, 21: plate, 211: first group of holes, 212: second group of holes, A, B: hole direction, a, b: angle, d: spacing, t: thickness, 30: photon radiation emitter, 31: full spectrum radiation source, 32: coil resonator, 33: frequency resonator, 40: refractive body, 41: protrusion. Detailed Implementation
[0034] The present invention will now be described in detail with reference to specific embodiments. These embodiments will help those skilled in the art to further understand the present invention, but do not limit the invention in any way. It should be noted that those skilled in the art can make several changes and improvements without departing from the concept of the present invention. These all fall within the protection scope of the present invention.
[0035] Example 1
[0036] According to the present invention, a liquid molecule processing device is provided, such as... Figure 1-3 As shown, it includes a tube body 10, a molecular disperser 20, a photon radiation emitter 30, and a refractive body 40. The photon radiation emitter 30 is located outside the tube body 10, and the molecular disperser 20 and the photon radiation emitter 30 are respectively located inside the tube body 10.
[0037] The tube body 10 includes an inlet 11, a tube wall 12, an outlet 13 opposite the inlet 11, and a transparent window 14 on the tube wall 12 between the inlet 11 and the outlet 13. The tube body 10 is generally arranged longitudinally to allow liquid to enter through the inlet 11, pass through the molecular disperser 20, pass through the refractive element 40, and exit through the outlet 13. The liquid can be water, and the liquid molecule clusters can be water molecule clusters. Alternatively, the liquid can be a liquid containing water.
[0038] A molecular disperser 20 is disposed within the tube body 10 adjacent to the inlet 11. In one embodiment, the molecular disperser 20 includes one or more plates 21 having a plurality of holes. These plates 21 may be arranged in parallel, with the normal direction of the plates 21 substantially parallel to the direction of liquid flow, and the holes of the upstream and downstream plates 21 may be staggered. In a specific example, the thickness t of the plates 21 is approximately 1.5 mm, and the area of the plates 21 is approximately 5 cm². 2 Up to 10cm 2 The diameter of each hole is approximately 2mm, the spacing d between the holes is approximately 2mm, and the total area occupied by all the holes is approximately 4cm². 2 Up to 9cm 2 .
[0039] like Figure 2-3 As shown, the plurality of holes can be divided into a first group of holes 211 and a second group of holes 212 by the central axis (the dotted line shown in the figure). The hole direction A of the first group of holes 211 intersects the hole direction B of the second group of holes 212, so that the liquid molecule clusters passing through the first group of holes 211 and the second group of holes 212 can collide with each other and disperse. In order for the liquid molecule clusters passing through the first group of holes 211 and the second group of holes 212 to collide with each other, the angle α between the hole direction A of the first group of holes 211 and the surface of the plate 21 is approximately 36° to 45°, and the angle b between the hole direction A of the first group of holes 211 and the surface of the plate 21 is approximately 45° to 48°. However, it is not limited to these, as long as the hole direction A of the first group of holes 211 and the hole direction B of the second group of holes 212 can intersect. In addition, the distribution of the first group of holes 211 and the second group of holes 212 is not entirely limited to the left and right sides of the central axis of the plate 21. In other embodiments, the first group of holes 211 and the second group of holes 212 can also be distributed alternately in the plate 21. That is, there are some second group of holes 212 on the left side of the central axis and some first group of holes 211 on the right side of the central axis. As long as the two types of holes with intersecting directions are adjacent to each other, the effect of allowing liquid molecule clusters passing through the first group of holes 211 and the second group of holes 212 to collide with each other and disperse can be achieved, so as to initially reduce the size of the liquid molecule clusters.
[0040] A photon radiation emitter 30 is disposed outside the tube body 10 to emit photon radiation that enters the tube body 10 through a transparent window 14. The photon radiation emitter 30 includes a full-spectrum radiation source 31 for emitting photon radiation, a coil resonator 32 for consolidating the photon frequency located 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, and the frequency resonator 33 generates a frequency signal of approximately 2.4 Hz to 12 Hz and is disposed around the coil resonator 32. The wavelength of this photon radiation essentially covers the entire solar spectrum, generally from 300 nm to 2700 nm, preferably from 380 nm to 780 nm. Furthermore, the photon frequency of this photon radiation is approximately 2.4 Hz to 12 Hz. Such photon radiation can further reduce the already initially miniaturized liquid molecular clusters to smaller sizes, forming small liquid molecules.
[0041] A refractive element 40 is disposed within the tube 10 to receive photon radiation emitted by the photon radiation emitter 30. The position of the refractive element 40 within the tube 10 corresponds to the direction of the photon radiation emitted by the photon radiation emitter 30, and the outer surface area of the refractive element 40 facing the photon radiation emitted by the photon radiation emitter 30 corresponds to the radiation range of that photon radiation. The refractive element 40 can be a transparent glass with multiple protrusions 41 (similar to the multi-faceted cut of a diamond), so that the photon radiation from the photon radiation emitter 30 can be refracted and reflected multiple times by the refractive element 40, thereby irradiating the liquid molecule clusters within the tube 10. Irradiated by the photon radiation emitted by the photon radiation emitter 30 and the photon radiation refracted by the refractive element 40, the liquid molecule clusters resonate within the liquid molecule clusters, causing large molecule clusters to shrink into smaller molecules, thereby generating small liquid molecules, which then exit from the outlet 13 of the tube 10.
[0042] In addition, the liquid treatment equipment of this invention also includes a control circuit unit containing components such as photosensitive chips, integrated circuits, relays, inductors, resistors, capacitors, diodes, transistors, coils, circuit boards, and transformers, which are used to ensure the stable operation of the equipment and control the water treatment process.
[0043] Therefore, water is dispersed into large molecular clusters by a molecular disperser, and then passes through a full-spectrum radiation source, a coil resonator to generate the superposition of magnetic waves and optical frequencies, and then a 2.4 Hz frequency signal generated by a frequency resonator is projected onto the diamond-faceted transparent glass. In this way, the molecular structure in the water is activated by the fusion of optical frequencies, generating small molecules.
[0044] More specifically, the liquid molecular photon processing device of this application can process large molecular clusters of water into small molecular water without adding any chemicals or minerals. Compared with conventional technologies, it is healthier, more environmentally friendly, and lower in cost, and has the following advantages:
[0045] Highly efficient activation treatment: This device effectively enhances the activation of water through the principle of photon frequency, making the water molecule structure smaller and achieving a highly efficient water treatment effect.
[0046] Multi-technology integration: Combining multiple technologies such as molecular dispersion, full-spectrum radiation, and frequency resonance, the device has comprehensive advantages and can meet the treatment needs of different water qualities.
[0047] Stability and controllability: The photosensitive chip, integrated circuit, relay and other components in the control circuit unit ensure the stable operation of the device, while providing precise active processing control.
[0048] Example 2
[0049] The present invention also provides a processing method using the liquid molecular photonics processing device of Example 1, comprising the following specific steps:
[0050] S1. Liquid enters the inner cavity of tube 10 from inlet 11 and flows into molecular disperser 20;
[0051] S2. The molecular disperser 20 disperses the liquid molecule clusters that pass through the first set of holes 211 and the second set of holes 212 into large liquid molecule clusters by colliding with each other and flowing into the inner cavity of the tube 10.
[0052] S3. When the liquid macromolecule clusters pass through the refracting plate 10, the light frequency generated by the full-spectrum radiation source 31 is superimposed and fused with the magnetic waves of the coil resonator 32 and the frequency signal of the frequency resonator 33 is projected onto the refractor 40. After multiple refractions and reflections, the refractor 40 irradiates the liquid macromolecule clusters inside the tube 10, causing resonance within the liquid macromolecule clusters, which in turn reduces the macromolecule clusters to smaller molecules, and the smaller liquid molecules flow out from the outlet 13.
[0053] Example 3
[0054] The present invention also provides an application of the liquid molecule photonic processing device in Embodiment 1, which is used to manufacture small molecule liquids.
[0055] like Figure 4-5 As shown in Table 1, this application is used in wine. The NMR spectra of the wine (name: 2017 Wemen Selection, manufacturer: BLUE PYRENEES ESTATEPTY LTD) treated with the liquid molecular photon processing device of this application and the NMR spectra of the untreated wine are shown in Table 1.
[0056] like Figure 6-7The table shows the NMR spectra of commercially available packaged water (name: Shui Shi Ji Maifan Stone Mineral Water, manufacturer: Uni-President Enterprises Corporation) treated with the liquid molecular photon processing equipment described in this application, as well as the NMR spectra of untreated commercially available packaged water using 17O. The detection was performed using a 17O nuclear magnetic resonance spectrometer, and in this 17O NMR detection method, the compound used as the chemical shift reference (0 ppm position) was deuterium (D₂O). The detection results are shown in Table 1.
[0057] Table 1:
[0058]
[0059]
[0060] In summary, in the 17O NMR spectrum of wine, the FWHM decreased from 87.69 Hz to 80.97 Hz, clearly indicating that small molecule water can be produced using the liquid molecule processing equipment described in this invention. In the 17O NMR spectrum of commercially available packaged water, the FWHM decreased from 88.35 Hz to 78.82 Hz, clearly indicating that small molecule water can be produced using the liquid molecule processing equipment described in this invention.
[0061] In the description of this application, it should be understood that the terms "upper", "lower", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this application.
[0062] Specific embodiments of the present invention have been described above. It should be understood that the present invention is not limited to the specific embodiments described above, and those skilled in the art can make various changes or modifications within the scope of the claims, which do not affect the essence of the present invention. Unless otherwise specified, the embodiments and features described in this application can be arbitrarily combined with each other.
Claims
1. A liquid molecular photonic processing apparatus, characterized by, The utility model relates to a kind of liquid molecular group dispersion device, including: Pipe body (10), molecular disperser (20), photon radiation emitter (30) and refractor (40), the inner wall of the pipe body (10) is connected with the molecular disperser (20) and the refractor (40) respectively, the refractor (40) is opposite the photon radiation emitter (30), and the photon radiation emitter (30) is located outside the pipe body (10); The molecular disperser (20) is located at one end close to the inlet (11) of the pipe body (10), and the refractor (40) is located at the other end close to the outlet (13) of the pipe body (10). Liquid enters the pipe body (10) from the inlet (11), becomes liquid molecular group after passing through the molecular disperser (20), and liquid molecular group passes through the refractor (40). The refractor (40) refracts and reflects the photon radiation of the photon radiation emitter (30) multiple times, and then irradiates to the liquid molecular group in the pipe body (10). After resonance in the liquid molecular group, liquid small molecules are generated, and the liquid small molecules flow out of the outlet (13). The refractor (40) is made of transparent glass with multiple protrusions (41). The refractor (40) refracts and reflects multiple times through the multiple protrusions (41). The pipe wall (12) of the pipe body (10) is provided with a transparent window (14). The transparent window (14) and the refractor (40) are correspondingly arranged. The central axis of the refractor (40), the transparent window (14), and the photon radiation emitter (30) are located on the same horizontal line. The photon radiation of the photon radiation emitter (30) is emitted onto the refractor (40) through the transparent window (14). The molecular disperser (20) is arranged on the inner wall of the pipe wall (12) near one end of the inlet (11). The molecular disperser (20) includes a plurality of plate members (21) arranged in parallel on the inner wall of the pipe wall (12). The plate members (21) are provided with multiple holes, and the normal direction of the plate members (21) is substantially parallel to the flow direction of the liquid. The thickness t of the plate member (21) is 1-2mm, the area of the plate member (21) is 5-10cm 2 ; the aperture of the hole is 1-3mm, the interval d between two adjacent holes is 1-3mm, and the occupied area of the plurality of holes is 4-9cm 2 ; The holes include a first group of holes (211) and a second group of holes (212). The hole direction of the first group of holes (211) intersects with the hole direction of the second group of holes (212), so that the liquid molecular groups passing through the first group of holes (211) and the second group of holes (212) collide with each other and disperse. The first group of holes (211) and the second group of holes (212) are distributed along the central axis of the pipe wall (12), or the first group of holes (211) and the second group of holes (212) are staggered and dispersed on the plate members (21). The angle a between the hole direction of the first group of holes (211) and the surface of the plate members (21) is 36° to 45°, and the angle b between the hole direction A of the second group of holes (212) and the surface of the plate members (21) is 45° to 48°.
2. The liquid molecular photonic processing apparatus of claim 1, wherein, The photon radiation emitter (30) comprises a full spectrum radiation source (31), a coil resonator (32) and a frequency resonator (33), the coil resonator (32) is located between the transparent window (14) and the full spectrum radiation source (31), and the frequency resonator (33) is arranged around the coil resonator (32); The coil resonator (32) generates a magnetic field when powered, the frequency resonator (33) generates a frequency signal and is arranged around the coil resonator (32), and the light frequency generated by the full spectrum radiation source (31) is projected to the refractor (40) through the superposition and fusion of the magnetic waves of the coil resonator (32) and the frequency signal of the frequency resonator (33), so that the liquid molecule groups in the inside of the pipe body (10) resonate to generate liquid small molecules.
3. A processing method using the liquid molecular photonic processing apparatus according to claim 2, characterized by, The method comprises the following specific steps: S1, liquid enters the inner cavity of the pipe body (10) from the inlet (11) and flows into the molecule disperser (20); S2, the molecule disperser (20) disperses the liquid molecule groups passing through the first group of holes (211) and the second group of holes (212) to form liquid macromolecule groups, and the liquid macromolecule groups flow into the inner cavity of the pipe body (10); S3, when the liquid macromolecule groups pass through the refractor (40), the light frequency generated by the full spectrum radiation source (31) is projected to the refractor (40) through the superposition and fusion of the magnetic waves of the coil resonator (32) and the 2.4-12Hz frequency signal generated by the frequency resonator (33), and then irradiated to the liquid macromolecule groups in the inside of the pipe body (10) after multiple refraction and reflection of the refractor (40), so that resonance is generated in the liquid macromolecule groups, the macromolecule groups become small molecules, and the liquid small molecules flow out from the outlet (13).
4. The method of processing of a liquid molecular photonic processing apparatus as claimed in claim 3, wherein, In the above step S3, the wavelength of the full spectrum radiation source (31) is 300-2700nm, and the frequency resonator (33) generates a frequency signal of 2.4-12Hz.
5. Use of a liquid molecular photonic processing device according to any one of claims 1-2, characterized in that, The method is applied to the manufacture of small molecules of liquid. The photon radiation emitter (30) comprises a full spectrum radiation source (31), a coil resonator (32) and a frequency resonator (33), the coil resonator (32) is located between the transparent window (14) and the full spectrum radiation source (31), and the frequency resonator (33) is arranged around the coil resonator (32); The coil resonator (32) generates a magnetic field when powered, the frequency resonator (33) generates a frequency signal and is arranged around the coil resonator (32), and the light frequency generated by the full spectrum radiation source (31) is projected to the refractor (40) through the superposition and fusion of the magnetic waves of the coil resonator (32) and the frequency signal of the frequency resonator (33), so that the liquid molecule groups in the inside of the pipe body (10) resonate to generate liquid small molecules. The method comprises the following specific steps: S1, liquid enters the inner cavity of the pipe body (10) from the inlet (11) and flows into the molecule disperser (20); S2, the molecule disperser (20) disperses the liquid molecule groups passing through the first group of holes (211) and the second group of holes (212) to form liquid macromolecule groups, and the liquid macromolecule groups flow into the inner cavity of the pipe body (10); S3, when the liquid macromolecule groups pass through the refractor (40), the light frequency generated by the full spectrum radiation source (31) is projected to the refractor (40) through the superposition and fusion of the magnetic waves of the coil resonator (32) and the 2.4-12Hz frequency signal generated by the frequency resonator (33), and then irradiated to the liquid macromolecule groups in the inside of the pipe body (10) after multiple refraction and reflection of the refractor (40), so that resonance is generated in the liquid macromolecule groups, the macromolecule groups become small molecules, and the liquid small molecules flow out from the outlet (13). In the above step S3, the wavelength of the full spectrum radiation source (31) is 300-2700nm, and the frequency resonator (33) generates a frequency signal of 2.4-12Hz. The method is applied to the manufacture of small molecules of liquid.
Citation Information
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