Vacuum resonant oscillation application device, and vacuum liquid modification system using the same

Abstract

To provide a vacuum resonant oscillation application device that has excellent electromagnetic characteristics, and has improved electromagnetic conductive performance.SOLUTION: A vacuum resonant oscillation application device 1 of the present invention comprises: a housing container 4 into which a workpiece material 3 is filled; a vacuum unit 6 which is connected to the housing container, and substitutes atmosphere in the housing container for a vacuum state; and a resonator 17 which irradiates the workpiece material in the housing container with an electromagnetic wave (resonant wave) of a resonance frequency. As the inside of the housing container is maintained in a vacuum state and the workpiece material is irradiated with a resonance wave by the resonator, the workpiece material resonates at an extremely high level, and a resonant state is maintained for a long period of time even after irradiation action of resonance is cancelled. Further, when a workpiece material is irradiated with a resonant wave under a vacuum state, a large amount of ions are generated from the workpiece material, to improve attributes of the workpiece material such as properties or function.SELECTED DRAWING: Figure 1

Description

Technical Field

[0001] The present invention relates to a resonance wave application device that improves the physical properties, functions, and performance of a workpiece by irradiating the workpiece with electromagnetic waves in a specific frequency band and causing resonance, and particularly to a vacuum resonance wave application device improved so that the irradiation of electromagnetic waves to the workpiece is performed in a vacuum atmosphere, and a vacuum liquid reforming system using the same.

Background Art

[0002] Techniques for irradiating a workpiece with electromagnetic waves in a specific frequency band (for example, high frequency) have been conventionally known, and as an example, there is one described in Japanese Patent Application Laid-Open No. 2021-097198 (Patent Document 1).

[0003] In the above Patent Document 1, in its paragraph (0018), it is described that "a carbon material is irradiated with high-frequency electromagnetic waves to generate a rotating magnetic field and cause resonance, and a process of generating resonance carbon is performed. This resonance effect on the carbon material has a role of releasing the agglomerates due to the interatomic attraction in the case of atomic carbon, and as an effect of this, it leads to "the original properties of atomic carbon being more significantly represented by the further progress of the extremely fine particulate state." That is, by irradiating the carbon, which is the workpiece, with high-frequency electromagnetic waves and causing resonance, the physical properties, functions, and performance of the carbon, which is the workpiece, are improved.

Prior Art Documents

Patent Documents

[0004]

Patent Document 1

Summary of the Invention

Problems to be Solved by the Invention

[0005] However, irradiating a workpiece material with high-frequency electromagnetic waves and causing resonance brings about changes in the physical properties, functions, or certain performance improvements of the workpiece material, but no significant performance improvements have been found yet.

[0006] An object of the present invention is to provide a vacuum resonance wave-imparting device that has excellent electromagnetic properties and irradiates a liquid, which is a workpiece material, with electromagnetic waves in a specific frequency band in a vacuum atmosphere to further improve the electromagnetic conductivity performance, and a vacuum liquid reforming system using the same.

Means for Solving the Problems

[0007] In order to solve the above-described problems, a vacuum resonance wave-imparting device according to the first invention of the present case mainly includes a storage container filled with a workpiece material therein, a vacuum unit connected to the storage container for replacing the atmosphere in the storage container with a vacuum state, and a resonator for irradiating the workpiece material in the storage container with electromagnetic waves (resonance waves) having a resonance frequency. As the workpiece material, water, oil, or other liquid substances are used.

[0008] In such a configuration, with the inside of the storage container maintained in a vacuum state, the resonator irradiates the workpiece material with electromagnetic waves having a resonance frequency to resonate the workpiece material. Since the inside of the storage container is maintained in a vacuum, when the workpiece material is irradiated with electromagnetic waves in a specific frequency band by the resonator, the workpiece material resonates at a very high level, and even after the resonance action is released, the resonance state of the workpiece material is maintained for a long time. Also, when the workpiece material in a vacuum state is irradiated with electromagnetic waves in a specific frequency band, a large number of ions are generated from the liquid that is the workpiece material, and attributes such as the properties and functions of the workpiece material are improved. These phenomena are defined as a vacuum resonance state created by the vacuum excitation state.

[0009] As another aspect of the present invention, the storage container is provided with a circulation pipe having one end connected to an upper position of the storage container to serve as a water inlet to the storage container and the other end connected to a lower position of the storage container to serve as a water outlet from the storage container, a circulation pump attached to the circulation pipe to circulate the workpiece in the storage container within the circulation pipe, and a resonator attached to the circulation pipe to irradiate the workpiece flowing in the circulation pipe with electromagnetic waves of a resonance frequency.

[0010] In this way, by attaching the circulation pipe to the storage container in a branched structure and irradiating the workpiece flowing in the circulation pipe with electromagnetic waves of the resonance frequency from the resonator, the efficiency of the resonance operation on the workpiece can be improved.

[0011] As another aspect of the present invention, the resonator includes a voltage conversion member connected to a power source to generate a high voltage by the power from the power source, and a plurality of electrode members connected to the voltage conversion member to generate resonance waves. The plurality of electrode members are installed in a circular shape surrounding the workpiece accommodated in the storage container within the container, and the gist is to intensively irradiate the workpiece with resonance waves.

[0012] Since the workpiece is intensively irradiated with resonance waves from the plurality of circularly arranged electrode members, the resonance waves act on the workpiece in a complex manner and resonance fluctuations are imparted in a short time. Further, water, oil, or other liquid substances may be used as the workpiece. For any material, the workpiece resonates at a very high level, and even after the resonance action is released, the resonance state of the workpiece is maintained for a long time. In the case of water, by intensively irradiating resonance waves, characteristics such as excellent atomization, no penetration effect, and excellent electron activation effect with conductivity are generated, so it can be used as drinking water. Using silica water in the case of water has a great effect.

[0013] The vacuum liquid reforming system according to the second invention of this case includes a storage container filled with a material to be processed inside, a vacuum unit connected to the storage container for replacing the atmosphere inside the storage container with a vacuum state, and a resonator for irradiating the material to be processed inside the storage container with electromagnetic waves (resonance waves) of a resonance frequency. The vacuum resonance wave applying device resonates the material to be processed by irradiating the material to be processed with electromagnetic waves (resonance waves) of a resonance frequency by the resonator while maintaining the inside of the storage container in a vacuum state; and a material supply and discharge device loaded with the vacuum resonance wave applying device for supplying the material to be processed into the storage container of the vacuum resonance wave applying device and discharging the material to be processed from the storage container.

[0014] In such a configuration, in the vacuum resonance wave applying device, the material to be processed is irradiated with electromagnetic waves of a resonance frequency by the resonator while maintaining the inside of the storage container in a vacuum state, and the material to be processed (liquid) is resonated to bring the liquid into a vacuum excited state by vacuum resonance to generate a large amount of ions. Then, the vacuum resonance wave applying device is loaded into the material supply and discharge device and operated to continuously supply a large amount of the material to be processed into the storage container of the vacuum resonance wave applying device, so that a product of the material to be processed with improved attributes such as a large number of properties and functions can be obtained.

[0015] The vacuum resonance wave applying device according to the third invention of this case mainly includes a storage container filled with a material to be processed inside, a container in which the storage container filled with the material to be processed is installed inside, a vacuum unit connected to the container for replacing the atmosphere inside the container and the storage container with a vacuum state, and a resonator for irradiating the material to be processed inside the storage container with electromagnetic waves (resonance waves) in a specific frequency band.

[0016] In such a configuration, the inside of the container is made into a vacuum atmosphere by a vacuum unit and maintained in a vacuum state. While maintaining this vacuum state, the resonator irradiates the workpiece with electromagnetic waves (resonance waves) in a specific frequency band, causing the workpiece to resonate. Since the inside of the container is maintained in a vacuum, when the resonator irradiates the workpiece with electromagnetic waves in a specific frequency band, the workpiece resonates at an extremely high level. Even after the resonance effect is released, the resonance state of the workpiece is maintained for a long time. Also, when the workpiece is irradiated with electromagnetic waves in a specific frequency band under a vacuum state, the workpiece enters a vacuum-excited state due to vacuum resonance, generating a large amount of ions, and attributes such as the properties and functions of the workpiece are improved.

Advantages of the Invention

[0017] According to the first invention of this case, in the vacuum resonance wave applying device, since the resonator irradiates the workpiece inside the accommodation container whose inside is maintained in a vacuum with electromagnetic waves of the resonance frequency, the workpiece resonates at an extremely high level. And even after the resonance effect is released, the resonance state of the workpiece is maintained for a long time, and it continues to emit resonance waves to the surroundings for a long time (or a medium to long period). Also, when the workpiece is irradiated with electromagnetic waves of the resonance frequency under a vacuum state, the workpiece enters a vacuum-excited state due to vacuum resonance, generating a large amount of ions, and attributes such as the properties and functions of the workpiece are improved.

[0018] In the second invention of this case, since the inside of the accommodation container is directly evacuated without using a container, the vacuum unit only needs to perform a vacuum operation on the upper space of the accommodation container whose volume is extremely small compared to the volume of the container, and there is an effect that the vacuum operation can be performed in a short time, with high airtightness, and efficiently.

Brief Description of the Drawings

[0019]

Figure 1

Figure 2

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Figure 8

Embodiments for Carrying Out the Invention

[0020] The vacuum resonance wave applying device according to the first embodiment of the present invention will be described below with reference to the following drawings. FIG. 1 is a perspective view showing a schematic configuration of the vacuum resonance wave applying device according to the first embodiment of the present invention.

[0021] In FIG. 1, reference numeral 1 denotes a vacuum resonance wave application device (hereinafter simply referred to as a "resonance device") according to a first embodiment of the present invention. Here, the "resonance wave" means that when a substance is irradiated with an electromagnetic wave in a specific frequency band, particularly an electromagnetic wave having a frequency approximately corresponding to the resonance point of the substance (this is referred to as the "resonance frequency"), the atoms, molecules, or electrons of the substance vibrate violently to cause a resonance resonance effect and enter an excited state. This refers to the wave of the atoms and the like. In the state where the atoms and the like of the substance cause a resonance resonance effect, even after stopping the irradiation of the electromagnetic wave having the resonance frequency, the waves of the molecules and atoms (that is, the resonance resonance effect) are maintained and continued for a very long time. The duration of the resonance wave is very long, not limited to several days, and may extend to several months or more.

[0022] The resonance device 1 includes a storage container 4 for storing the workpiece 3, a vacuum unit 6 connected to the upper position of the storage container 4, and a resonator 17 for irradiating the workpiece 3 in the storage container 4 with an electromagnetic wave (resonance wave) having a resonance frequency. In the present embodiment, "water" is used as the workpiece 3, and the properties of the water are improved by irradiating the water with an electromagnetic wave having a resonance frequency (that is, a resonance wave). Therefore, in the following description, "water" is regarded as the same as the "workpiece 3".

[0023] As the workpiece 3, substances other than water such as drinking water may be used, liquid substances such as oil (regardless of edible oil, machine oil, or fuel oil), or engine coolant may be used, or solid substances such as carbon materials, calcium materials, or silicon (silica) materials may be used. For any material, the workpiece 3 resonates at a very high level, and even after the resonance resonance effect is released, the resonance state of the workpiece 3 is maintained for a long time. In the case of water, it can be used as drinking water or lotion, and has a beneficial effect on health or improves the physical condition. In the case of water, it has been found from the results of various experiments that the use of silica water has a great effect.

[0024] A lid 21 is attached to the top of the storage container 4. The vacuum unit 6 is connected to an upper position of the storage container 4 by a vacuum pipe 8 equipped with a storage container 4 valve 7. The "upper position" of the storage container 4 refers to a position corresponding to the upper space 35 where air remains in the upper part of the storage container 4 when water as the workpiece 3 is fed into the storage container 4 up to an intermediate height position. The air inside the storage container 4 is configured to be evacuated by the vacuum unit 6 to create a vacuum. For this purpose, the lid 21 of the storage container 4 is designed to keep the inside of the storage container 4 in a substantially airtight state when the lid 21 is closed.

[0025] A water supply pipe 11 equipped with a valve 10 is connected to the storage container 4 to store water as the workpiece 3, and a water supply pump 9 is attached to the tip of the water supply pipe 11. The water supply pump 9 pumps up groundwater or pumps up water from a water storage tank (not shown) and sends it to the storage container 4. There are various ways to supply water to the storage container 4. The tip drain outlet of the water supply pipe 11 is connected to an upper position of the storage container 4.

[0026] A product extraction pipe 13 equipped with a valve 12 is connected to a lower position near the bottom of the storage container 4. The product extraction pipe 13 is a pipe for extracting the water (product water) after being irradiated with resonance waves, and the product water is extracted by opening the valve 12.

[0027] A circulation pipe 14 is further connected to the storage container 4. The circulation pipe 14 is a pipe system for circulating the water stored in the storage container 4 to stir it during the operation of the resonance device 1. One end of the circulation pipe 14 is connected to an upper position of the storage container 4 to serve as a water inlet 15 to the storage container 4, while the other end of the circulation pipe 14 is connected to a lower position of the storage container 4 to serve as a water outlet 16 from the storage container 4. Therefore, in FIG. 1, water flows (Flow) upward from the lower side in the circulation pipe 14. A circulation pump 18 is attached to the circulation pipe 14, and the circulation pump 18 circulates water in the circulation pipe 14 to make the water in the storage container 4 circulate.

[0028] In the middle part between the water inlet 15 and the water outlet 16 of the circulation pipe 14, a resonator 17 for irradiating electromagnetic waves (resonance waves) with a resonance frequency toward the water flowing in the circulation pipe 14 is attached. The resonator 17 is attached to the outer periphery of the circulation pipe 14 so as to surround the circulation pipe 14. The resonator 17 has a voltage conversion member connected to a power source inside and generating a high voltage by the power from the power source, and a plurality of electrode members (probes) connected to the voltage conversion member and generating resonance waves. A wave source for irradiating resonance waves is provided at the tip of the electrode member. This resonator 17 will be described later.

[0029] A valve 19a is attached near the water inlet 15 of the circulation pipe 14, and a valve 19b is attached near the water outlet 16. When the circulation pump 18 is operated to circulate the water in the storage container 4, the water enters the circulation pipe 14 from the water outlet 16, flows in the circulation pipe 14 from the lower side to the upper side in FIG. 1, and returns from the water inlet 15 to the storage container 4. As a result, the water in the storage container 4 is circulated, and as a result, the water in the storage container 4 is agitated. When the resonator 17 is operated while this water is circulating, the resonator 17 irradiates resonance waves toward the water flowing through the circulation pipe 14, and the water in the circulation pipe 14 undergoes a resonance action due to the strong resonance waves and becomes resonance wave-moving water. With the above aspects, the resonance device 1 of the present invention, that is, the vacuum resonance wave application device, is realized.

[0030] Figure 2 is a perspective view showing a vacuum liquid reforming system using the resonance device 1 according to the first embodiment from the front side. In FIG. 2, the outer square box-shaped one is the workpiece supply and discharge device 2 that is combined with the resonance device 1 to form a vacuum liquid reforming system. The workpiece supply and discharge device 2 is loaded with the resonance device 1, supplies the workpiece 3 into the storage container 4 of the resonance device 1, and discharges the workpiece 3 from the storage container. In FIG. 2, the one loaded in the central part of the workpiece supply and discharge device 2 is the resonance device 1 that imparts resonance waves to the workpiece 3. For the resonance device 1 and the workpiece supply and discharge device 2 to be coupled in terms of system configuration, the workpiece supply part of the workpiece supply and discharge device 2 is connected to the water supply pump 9 of the resonance device 1, and the workpiece discharge part of the workpiece supply and discharge device 2 is connected to the product extraction pipe 13 of the resonance device 1. A lid 20 is attached to the workpiece supply and discharge device 2 so as to be openable and closable, and when the lid 20 is closed, the inside of the workpiece supply and discharge device 2 is hermetically maintained. A pressure gauge 22 is attached to the lid 21 of the storage container 4 of the resonance device 1 so that the pressure inside the storage container 4 can be measured.

[0031] Note that the workpiece supply and discharge device 2 usually not only supplies the workpiece 3 into the storage container 4 and discharges the workpiece 3 from the storage container, but often occupies the position as a functional unit of equipment used for another purpose. For example, if the above equipment is drinking water production equipment, there is a workpiece supply and discharge device 2 as a functional unit of this drinking water production equipment, and the resonance device 1 is installed in the workpiece supply and discharge device 2. In such an equipment form, resonance waves are irradiated onto the drinking water being produced by the resonance device 1, and the drinking water, which is the workpiece 3, undergoes a resonance effect by the strong resonance waves and becomes resonance wave water. Other examples of equipment include engine oil filtration and purification equipment, machine oil filtration and purification equipment, edible oil filtration and purification equipment, etc.

[0032] On the front part of the workpiece supply and discharge device 2, an operation unit 23 for operating various devices and units incorporated in the resonance device 1, such as a vacuum unit 6, a water supply pump 9, and a circulation pump 18, is installed. Also, on the front part of the workpiece supply and discharge device 2, a fan 24 is installed near the operation unit 23. The fan 24 releases or cools the heat generated when devices such as the water supply pump 9 and the circulation pump 18 installed inside the workpiece supply and discharge device 2 operate. On the lid 21 of the storage container 4, in addition to a pressure gauge 22, a communication pipe 25 composed of a nipple member and the like is attached. This communication pipe 25 is used to communicate the inside and outside of the storage container 4 as needed when the inside of the storage container 4 is kept airtight by the lid 21, or to send substances into the storage container 4 through the communication pipe 25.

[0033] Figure 3 is a perspective view showing an enlarged view of the operation unit 23 and the fan 24 of the resonance device 1 shown in Figure 2. The operation unit 23 is composed of a dial operation part 26 and a button operation part 27. The dial operation part 26 has a scale display and is used to set the resonance frequency during the operation of the resonance device 1. The button operation part 27 is used to perform the on / off operation of the resonance device 1 by button operation.

[0034] Figure 4 is a perspective view showing a front view of a different type of workpiece supply and discharge device from the workpiece supply and discharge device 2 shown in Figures 2 and 3. This workpiece supply and discharge device 2a is different from the workpiece supply and discharge device 2 described above, and the lid 21a is of the side-opening type, and the storage container 4 can be taken in and out from the front side of the workpiece supply and discharge device 2a. An operation unit 28 of the resonance device 1 is attached to the side part (the left side part in Figure 4) of the workpiece supply and discharge device 2a.

[0035] FIG. 5 is a perspective view showing the workpiece supply and discharge device 2a shown in FIG. 4 from the back side. A plurality of rib reinforcing members 29 are provided on the wall surface on the back side of the workpiece supply and discharge device 2a. These rib reinforcing members 29 increase the strength of the workpiece supply and discharge device 2a so that deformation and damage do not easily occur. A display unit 30 having a structure separate from the workpiece supply and discharge device 2a is attached to the side portion of the workpiece supply and discharge device 2a. This display unit 30 displays the output condition of the resonance wave, voltage change, or other variable elements during the operation of the resonance device 1 to inform the operator.

[0036] FIG. 6 is a (a) X-Y cross-sectional view and (b) Z-X cross-sectional view of an electrode member 31 used for the resonator 17 of the resonance device 1 according to the first embodiment. This electrode member 31 is composed of a resonance wave source 32 and a holder 33 that supports the wave source 32, and the wave source 32 is connected to a high-voltage power supply.

[0037] As shown in FIG. 6, the holder 33 has a structure of a rod-shaped body extending along the irradiation axis (central axis) 34, and the orthogonal cross-section (X-Y cross-section) with the irradiation axis 34 of the resonance wave source 32 is circular. The central axis of the holder 33 is arranged along the irradiation axis 34, and the inside of the rod-shaped body may be solid or may be a cylindrical body. Also, in FIG. 6, the electrode member 31 is illustrated as having a circular X-Y cross-section, but those having a polygonal X-Y cross-section are also included. In FIG. 6, the arrow S indicates the resonance wave irradiated from the wave source 32.

[0038] FIG. 7 is a plan view schematically showing an arrangement example of the electrode member(s) 31 in the resonator 17. The resonator 17 is attached so as to surround the outer periphery of the circulation pipe 14. Inside the resonator 17, a plurality (four in the example of FIG. 7) of electrode members 31 are arranged radially so as to surround the circulation pipe 14 existing at the center of the resonator 17 from the outside when viewed in a plane. In this arrangement configuration, the tip of each electrode member 31, that is, the wave source 32, is installed toward the center of the circulation pipe 14. Since water, which is the workpiece 3, flows through the circulation pipe 14, the arrangement of the plurality of electrode members 31 described above is installed so as to surround the workpiece 3 accommodated in the storage container 4 in a circular shape around the center in the workpiece supply / discharge device 2, and the plurality of electrode members 31 can intensively irradiate the workpiece 3 with resonance waves. Regarding the plurality of electrode members 31, in the example of FIG. 7, the four electrode members 31 are arranged at equal angular intervals of 90 degrees, but the number of the electrode members 31 may be less than four or more than four, and the arrangement state of the electrode members 31 does not have to be at equal angular intervals.

[0039] Operation Explanation Regarding the resonance device 1 and the vacuum liquid reforming system having the above-described configuration, the following operations will be explained. Water, which is the workpiece 3, is supplied to the storage container 4 of the resonance device 1 by the operation of the water supply pump 9, and a predetermined capacity (for example, 70 percent of full water) of the storage container 4 is stored. After the water is stored in the storage container 4, the lid 20 of the workpiece supply / discharge device 2 is closed, and the air remaining in the workpiece supply / discharge device 2 is sucked and discharged by the operation of the vacuum unit 6 to be evacuated.

[0040] When the inside of the storage container 4 is evacuated, the circulation pump 18 operates while maintaining this vacuum state, and circulates the water in the storage container 4 using the circulation pipe 14. That is, the water in the storage container 4 enters the circulation pipe 14 from the water outlet 16, and as shown in FIG. 1, flows through the circulation pipe 14 from the lower side to the upper side, and returns to the inside of the storage container 4 from the water inlet 15. As a result, the water in the storage container 4 is circulated and consequently agitated. In this way, by arranging the circulation pipe 14 outside the storage container 4 and guiding and circulating the water inside the storage container 4 to the outside, the water inside the storage container 4 is agitated, so there is no need to install a water agitation device inside the storage container 4, and the manufacturing cost of the resonance device 1 can be reduced.

[0041] While the water in the storage container 4 is being circulated, the resonator 17 operates and irradiates resonance waves toward the water flowing through the circulation pipe 14. The resonance waves are emitted from the wave source 32 of the electrode member 31 as shown in FIG. 7, and are also irradiated from the four electrode members 31. Therefore, the water in the circulation pipe 14 undergoes a resonance action due to the strong resonance waves and becomes resonance wave-activated water. Regarding the operation of the electrode member 31, there are cases where it is irradiated all at once from all four electrode members 31, and there are also cases where it is irradiated from some of the four electrode members 31 (for example, two).

[0042] Also, regarding the operation time of the electrode member 31, there are cases where the resonance wave S is constantly irradiated while water is flowing through the circulation pipe 14, cases where the resonance wave S is intermittently irradiated at regular time intervals instead of continuous operation (for example, a blinking operation similar to the hazard lamp of an automobile), and cases where the resonance wave S is irradiated at an even shorter time interval (for example, a pulse operation of 10 Hz to 500 Hz). In this way, the operation of the electrode member 31 is selected according to the resonance wave-activated state of the water to be obtained.

[0043] In the operation of the resonator 17, the frequency of the resonance waves emitted from the electrode member 31 is approximately equal to the resonance frequency of water, which is 528 Hz or a frequency around it. The flow rate of the water flowing through the circulation pipe 14 is approximately appropriate at about 0.1 m to 10 m (meters) per second.

[0044] As described above, since the inside of the workpiece supply and discharge device 2 is maintained in a vacuum state, when the resonator 17 irradiates water with electromagnetic waves of the resonance frequency, the water undergoes vacuum resonance at an extremely high level and enters a vacuum excitation state. Even after the resonance action is released, the water maintains the resonance state for a long time. Also, when water is irradiated with electromagnetic waves of the resonance frequency under a vacuum state, the water enters a vacuum excitation state due to vacuum resonance and a large amount of ions are generated, improving attributes such as the properties and functions of the water. Therefore, in the case of water, by intensively irradiating resonance waves, characteristics such as excellent atomization, no penetration effect, and excellent electroactive effect with conductivity are generated, so it can be used as drinking water or lotion, having a beneficial effect on health or improving the physical condition. Further, as shown in FIG. 7, when resonance waves are intensively irradiated onto water from a plurality of electrode members 31 arranged in a circular shape, the resonance waves act on the water in a complex manner and a strong resonance wave motion is imparted in a short time.

[0045] Embodiment 2 FIG. 8 is a perspective view showing a schematic configuration of a vacuum resonance wave imparting device (resonance device 41) according to a second embodiment of the present invention. The resonance device 41 according to this embodiment includes a container 2b that forms a housing and has a vacuum chamber inside, a storage container 4 installed inside the container 2b for storing the workpiece 3, a vacuum unit 6 for replacing the atmosphere inside the container 2b with a vacuum state, and a resonator (17, to be described later) for irradiating the workpiece 3 inside the storage container 4 with electromagnetic waves (resonance waves) of the resonance frequency in the container 2b. The container 2b has a configuration with a sealed inside. As described above, the resonance device 41 according to this embodiment is different from the first embodiment in that it includes the container 2b that forms the housing, and the other configurations are the same as those of the first embodiment. Also, in this embodiment, "water" is used as the workpiece 3, and the point of irradiating the water with electromagnetic waves of the resonance frequency (that is, resonance waves) to improve its properties is the same as that of the first embodiment.

[0046] Since the resonance device 41 and other components are substantially the same in configuration as the resonance device 1 of the first embodiment, the same reference numerals are given to the same components as in the first embodiment, and redundant descriptions are omitted.

[0047] Regarding the operation of the second embodiment, in the vacuum operation of the storage container 4, after water is stored in the storage container 4, the valve 10 of the water supply pipe 11 of the storage container 4 is closed, and the air in the container 2b is sucked and discharged by the operation of the vacuum unit 6, so that the inside of the container 2b and the storage container 4 is evacuated. When the inside of the container 2b and the storage container 4 is evacuated, the circulation pump 18 operates while maintaining this vacuum state, and the water in the storage container 4 is circulated through the circulation pipe 14. Other operations are the same as those in the first embodiment.

[0048] In the second embodiment, since the configuration using the container 2b is adopted, there is an advantage that the storage container 4 is protected from external actions or influences.

Industrial Applicability

[0049] In the vacuum resonance wave applying device of the present invention, when an electromagnetic wave having a resonance frequency is irradiated to a workpiece inside a storage container whose inside is maintained in a vacuum state by a resonator, the workpiece resonates at an extremely high level and enters a vacuum excitation state. And even after the resonance action is released, the resonance state of the workpiece is maintained for a long time, and resonance waves are continuously emitted to the surroundings for a long time (or for a long period), and the attributes such as the properties and functions of the workpiece are improved.

Explanation of Reference Numerals

[0050] 1, 41 Vacuum resonance wave applying device (resonance device) 2 Container 3 Workpiece 4 Storage container 6 Vacuum unit 7, 10, 12, 19a, 19 Valve 8 Vacuum pipe 9 Water supply pump 11 Water supply pipe 13 Product extraction pipe 14 Circulating pipe 15 Water inlet 16 Water outlet 17 Resonator 18 Circulation pump 20, 21 Lids 31 Electrode member 31 Wave source 32 Wave source 33 Holder 34 Irradiation axis 35 Upper space S Resonance wave

Claims

1. A storage container filled with a material to be processed inside, A vacuum unit connected to the storage container and replacing the atmosphere inside the storage container with a vacuum state, A resonator that irradiates the material to be processed inside the storage container with electromagnetic waves (resonant waves) having a resonant frequency, and A vacuum resonant wave imparting device that irradiates the material to be processed with electromagnetic waves having a resonant frequency by the resonator while maintaining the inside of the storage container in a vacuum state to resonate the material to be processed.

2. The vacuum resonant wave imparting device according to claim 1, wherein water, oil, or other liquid substances are used as the material to be processed.

3. In the storage container, A circulation pipe having one end connected to an upper position of the storage container to serve as a water inlet to the storage container and the other end connected to a lower position of the storage container to serve as a water outlet from the storage container, A circulation pump attached to the circulation pipe to circulate the material to be processed inside the storage container in the circulation pipe, A resonator attached to the circulation pipe to irradiate the material to be processed flowing in the circulation pipe with electromagnetic waves having a resonant frequency, The vacuum resonant wave imparting device according to claim 2, characterized in that the above are provided.

4. The resonator is A voltage conversion member connected to a power source to generate a high voltage by the power from the power source, A plurality of electrode members connected to the voltage conversion member to generate resonant waves, and The plurality of electrode members are installed in a circular shape surrounding the material to be processed accommodated in the storage container inside the container, and irradiate the material to be processed with resonant waves intensively. The vacuum resonant wave imparting device according to claim 3.

5. A storage container filled with a material to be processed inside, A vacuum unit connected to the storage container and replacing the atmosphere in the storage container with a vacuum state; A resonator that irradiates the material to be processed in the storage container with electromagnetic waves (resonance waves) having a resonance frequency; and A vacuum resonance wave applying device that irradiates the material to be processed with electromagnetic waves (resonance waves) having a resonance frequency by the resonator while maintaining the inside of the storage container in a vacuum state to resonate the material to be processed; and A material to be processed supply and discharge device that is loaded with the vacuum resonance wave applying device, supplies the material to be processed into the storage container of the vacuum resonance wave applying device, and discharges the material to be processed from the storage container; A vacuum liquid reforming system comprising the above.

6. A storage container filled with a material to be processed inside; A container in which the storage container filled with the material to be processed is installed inside; A vacuum unit connected to the container and replacing the atmosphere in the container and the storage container with a vacuum state; A resonator that irradiates the material to be processed in the storage container with high-frequency electromagnetic waves (resonance waves); and A resonance wave applying device characterized in that the material to be processed is irradiated with high-frequency electromagnetic waves (resonance waves) by the resonator while maintaining the inside of the container in a vacuum state to resonate the material to be processed.

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