Device for reducing intermolecular binding force by magnetizing liquid and gas fuel

Abstract

The invention discloses a device for reducing intermolecular binding force by magnetizing liquid and gas fuel, relates to the technical field of water treatment devices, and is characterized in that pulse voltage is applied to an electromagnet embedded with a body. As a result, the electromagnet generates a discontinuous magnetic field to decompose a fluid molecular cluster structure formed by, for example, fossil fuel or water in the fluid supply pipe penetrating through the hollow portion of the fluid supply pipe, thereby dividing clusters. Moreover, a plurality of the intermolecular binding force reducing devices are arranged on the fluid supply pipe at predetermined intervals, so that the fluid molecules which are subdivided are prevented from being recombined.

Description

Technical Field

[0001] The present invention relates to a water treatment device for drinking water and the like, and particularly to a water treatment device that changes the properties of water stored in a plastic bottle or container by using magnetism and high voltage, and converts it into water with good permeability. Background Art

[0002] As a gas liquefaction technology, fossil fuels are composed of carbon and hydrogen atoms. When carbon is completely burned, it becomes CO2, and hydrogen becomes H2O. The longer the carbon chain, the higher the combustion efficiency. This is because no soot is generated. Through this technology, the carbon number of heavy oil is reduced and it is gasified accordingly. The above technology has the same principle as the fractionation device. These devices target fossil fuels composed of carbon and hydrogen, and impact them with high-frequency electric waves generated by specially calculated multi-wave radiation, so that resonance occurs in the heavy oil in the fossil fuel. By inducing resonance, the chemical bonds are broken. While gasifying the fossil fuel, nitrogen and sulfur as impurities also resonate, thus forming a state similar to complete combustion. As a result, the carbon number is reduced.

[0003] Conventionally, as a fuel treatment device that changes the properties of fuel by using magnetism and converts it into fuel, there is known a device that sets a magnet in the middle of a fluid flow path (fluid supply path or fluid pipe) so that the fuel passing through this set position is affected by the static magnetic field generated by the magnet (for example, refer to Patent Document 1 and Patent Document 2).

[0004] In addition, conventionally, as a water treatment device that changes the properties of water by using magnetism and converts it into high-quality water, there is known a device that sets a magnet in the middle of a water flow path (water supply path) so that the water passing through this set position is affected by the static magnetic field generated by the magnet (for example, refer to Patent Document 3).

[0005]

Prior Art Documents

[0006]

Patent Documents

[0007]

Patent Document 1

[0008]

Patent Document 2

[0009]

Patent Document 3

[0010] However, in the above-mentioned conventional fuel treatment devices and water treatment devices, as described above, since a magnet is set in the middle of a fluid flow path, such as a fuel flow path, a water flow path, or a gas flow path, and a static magnetic field is applied, there is a problem that the effect of decomposing the cluster structure formed by fuel molecules, water molecules, or gas molecules and thus refining the cluster structure is insufficient.

[0011] In addition, even if it is assumed that the cluster structure is refined at the above-mentioned magnet setting position, before the processed fuel, water or gas is actually supplied, the fuel molecules, water molecules or gas molecules will recombine to form a cluster structure again, so there is a problem that the expected goal cannot be achieved. Summary of the invention

[0012] The present invention is made in view of the above-mentioned conventional problems, and aims to provide a device for reducing the intermolecular binding force that can effectively refine fuel molecules, water molecules or gas molecule clusters.

[0013] Another object of the present invention is to provide an intermolecular binding force reducing device capable of preventing the re-combination of the refined fuel molecules, water molecules or gas molecule clusters.

[0014] In order to achieve the above object, the present invention adopts the following technical solutions:

[0015] The intermolecular binding force reducing device of the present invention is an intermolecular binding force reducing device for subdividing fluid molecules, the intermolecular binding force reducing device comprising: n (n is an integer greater than or equal to 2) magnetic field generating devices for applying a magnetic field to the fluid; and a voltage generating circuit for providing a voltage to the magnetic field generating device, the voltage generating circuit comprising: a DC power supply unit for generating DC power; a control device for controlling the DC power; and a power amplifying circuit for amplifying the DC power, the n magnetic field generating devices are devices arranged on the pipeline at predetermined intervals along the pipeline through which the fluid flows, the n magnetic field generating devices each have a disc-shaped body with a hollow portion at the center for the pipeline to pass through, and at least two electromagnets arranged on the body, the control device repeatedly applies a pulse voltage having a high level period and a low level period longer than the high level period to the electromagnets of the magnetic field generating devices in sequence, with only a certain time difference between adjacent magnetic field generating devices, thereby forming a magnetic field rotating around the pipeline as the center of the intermolecular binding force reducing device.

[0016] In addition, the intermolecular force reduction device involved in the present invention is an intermolecular force reduction device for subdividing fluid molecules. The intermolecular force reduction device includes: n (n is an integer of 1 or more) magnetic field generating devices that apply a magnetic field to the fluid; and a voltage generating circuit that supplies voltage to the magnetic field generating devices. The voltage generating circuit includes a DC power supply unit that generates DC power, a control device that controls the DC power, and a power amplification circuit that amplifies the DC power. The magnetic field generating devices are devices that surround a pipe or a container and are arranged at a predetermined interval along the pipe or the container. Each magnetic field generating device includes a disk-shaped body with a cavity in the central part for the pipe or the container to pass through, and a plurality of electromagnets that are radially divided into a plurality of groups arranged on the body with respect to the cavity. The disk-shaped body can be separated into two semi-disk-shaped parts, and in the semi-disk-shaped parts in the separated state, the positions corresponding to the cavity are assembled by fitting the two semi-disk-shaped parts to each other. The control device applies a pulse voltage having a high level period and a low level period longer than the high level period to one group of electromagnets in each magnetic field generating device simultaneously, and then applies it to the other group of electromagnets in each magnetic field generating device simultaneously after a certain delay. For the remaining groups of electromagnets, the certain delay is further increased and applied simultaneously. By repeating this process, the voltage generating circuit is controlled so as to form a rotating magnetic field in the fluid flowing into the pipe or the container. With such a structure, an intermolecular force reduction device that can particularly refine the clusters of fluid (e.g., fossil fuel or water) is realized.

[0017] Preferably, the voltage generating circuit is a circuit that supplies a pulse voltage to the magnetic field generating devices. By being configured in this way, an intermolecular force reduction device with a simple circuit structure that can particularly refine the clusters of fluid molecules (e.g., fossil fuel molecules, water molecules, or gas molecules) is realized.

[0018] Moreover, the intermolecular force reduction device is characterized in that the magnetic field generating device is provided in the middle of the fluid flow path and includes a disk-shaped body with a cavity in the central part for the fluid flow path to pass through, and at least one electromagnet that fits with the body. With such a structure, an intermolecular force reduction device with a simple structure that can particularly refine the clusters of fluid molecules is realized.

[0019] Furthermore, the intermolecular force reduction device is characterized in that the line segment connecting the centers of the two poles of the electromagnet is along a straight line on the cross-section passing through the center of the cross-section of the disk-shaped body. With such a structure, an intermolecular force reduction device with a simple structure that can effectively refine the clusters of fluid is realized.

[0020] Moreover, the intermolecular force reducing device is characterized in that a plurality of the electromagnets fitted to the main body are all connected in series or all connected in parallel electrically. With such a structure, an intermolecular force reducing device with a simple structure and circuit structure capable of refining clusters of a fluid is particularly realized.

[0021] In addition, the intermolecular force reducing device is characterized in that a plurality of the magnetic field generating devices are provided at a predetermined distance apart in the middle of the fluid flow path. With such a structure, an intermolecular force reducing device capable of refining clusters of a fluid multiple times and further enhancing the above effect is particularly realized.

[0022] Furthermore, the intermolecular force reducing device is characterized in that, in terms of the positions of the electromagnets provided on each disc-shaped main body of the plurality of magnetic field generating devices, they are staggered from each other along the rotational direction of the central axis of the disc-shaped main body between adjacent disc-shaped main bodies. With such a structure, in addition to the above effects, an intermolecular force reducing device capable of enhancing the ability to decompose the structure of fluid clusters using magnetic force and thus being able to refine clusters more finely is particularly realized.

[0023] Moreover, the intermolecular force reducing device is characterized in that the control device controls the voltage generating circuit such that when one magnetic field generating device is in a state of applying a magnetic field, the other two magnetic field generating devices are in a state of not applying a magnetic field. With such a structure, in addition to the above effects, an intermolecular force reducing device capable of preventing the magnetic forces of the plurality of magnetic field generating devices from interfering with each other and thus more effectively enhancing the ability to decompose the structure of fluid clusters using magnetic force is particularly realized.

[0024] Furthermore, the intermolecular force reducing device is characterized in that one or more of the magnetic field generating devices are provided at a predetermined distance apart in the middle of the fluid flow path. With such a structure, in addition to the above effects, an intermolecular force reducing device that is practical and has an optimal structure is particularly realized from the viewpoint of ease of manufacture.

[0025] In addition, the intermolecular force reducing device is characterized in that the magnetic field generating device is provided on the wall of the fluid tank and includes at least one electromagnet. With such a structure, in addition to the above effects, an intermolecular force reducing device that is easy to install is particularly realized.

[0026] The beneficial effects of the present invention are as follows:

[0027] According to the present invention, the device can improve the properties of fluids such as fuels.

[0028] More specifically, the intermolecular force reducing device according to the present invention can refine fluid molecules, particularly clusters of fossil fuel molecules and water molecules, more effectively than before, and thus can provide an intermolecular force reducing device for improving the quality of fluids.

[0029] In addition, an intermolecular force reducing device that can prevent the recombining of the refined fluid molecule clusters can be provided.

[0030] Furthermore, an intermolecular force reducing device with a simple structure that can be easily installed at any position of a pipeline such as a fuel flow path, a water flow path, or a gas flow path can be provided. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] Figure 1 is a top view of the intermolecular force reducing device of the magnetic field generating device of the intermolecular force reducing device according to the first embodiment of the present invention.

[0032] Figure 2 is a side view of the intermolecular force reducing device.

[0033] Figure 3 is a view of the intermolecular force reducing device disassembled into two parts.

[0034] Figure 4 is a waveform diagram of case 1 showing the voltage applied by the magnetic field generating device of the intermolecular force reducing device according to the first embodiment of the present invention.

[0035] Figure 5 is a waveform diagram of case 2 of the applied voltage.

[0036] Figure 6 is a structural diagram showing the structure of the intermolecular force reducing device according to the first embodiment of the present invention including a pulse voltage generating circuit.

[0037] Figure 7 is a structural diagram showing the structure of the intermolecular force reducing device according to the second embodiment of the present invention. (a) is a perspective view, and (b) is a plan view seen from the longitudinal direction of the pipeline.

[0038] Figure 8 is a waveform diagram of the voltage applied by the magnetic field generating device of the intermolecular force reducing device according to the second embodiment of the present invention.

[0039] Figure 9 is a structural diagram showing the structure of the intermolecular force reducing device according to the second embodiment of the present invention including a pulse voltage generating circuit.

[0040] Figure 10 is the test result of the water intermolecular force reducing device according to the first embodiment of the present invention.

[0041] Figure 11 These are the test results of the oil intermolecular binding force reduction device according to the second embodiment of the present invention.

[0042] Figure 12 These are the comparison photos of the propane gas intermolecular binding force reduction device according to the second embodiment of the present invention.

[0043] Markings in the figure: 1. Body (substrate); 10. Void part, container; 11 - 14. Electromagnets; 20, 30. Voltage generation circuits; 21, 31. DC power supply units; 22, 32. Microcontroller units; 23, 34. Power amplification circuits; 24. Magnetic field generation device; 24x, 24y, 24z. Magnetic field generation devices; 25. Pipeline; 26. Void part; 34. Shift register. Detailed implementation manners

[0044] Hereinafter, regarding the embodiments of the intermolecular binding force reduction device of the present invention, in the order of the first embodiment and the second embodiment, it will be described in detail with reference to the drawings.

[0045] First embodiment

[0046] Figures 1 - 3 This is a structural diagram showing the configuration of the magnetic field generation device of the intermolecular binding force reduction device according to the first embodiment of the present invention.

[0047] In Figures 1 - 3 this, the magnetic field generation device of the intermolecular binding force reduction device 100 of the present embodiment includes: a disk-shaped body 1 (substrate) for fixing four or more electromagnets; a void part or a container (plastic bottle) 10 for a fluid supply pipe provided at the central part of the disk-shaped body 1; and electromagnets 11 - 14 fixed to the disk-shaped body 1.

[0048] The electromagnets 11 - 14 are arranged such that adjacent electromagnets are at a 90° angle with respect to the center of the disk-shaped body 1.

[0049] The electromagnets 11 - 14 are, for example, electromagnets with iron cores. In the present embodiment, in order to simultaneously excite these electromagnets, they are all connected in series electrically. However, in the present invention, generally speaking, any electrical connection including all being connected in parallel is feasible, and it is also possible to individually excite the electromagnets without electrically connecting them to each other.

[0050] In addition, the magnetic poles of the electromagnets 11 - 14 are arranged in Figure 1In the middle, when current flows, the N - pole sides all face the direction of the cavity portion 10 of the fluid supply pipe. However, generally speaking, in the present invention, the pole configuration of the electromagnets 11 - 14 can be arbitrary. However, in any case, the line segment connecting the centers of the N - poles and S - poles of each electromagnet is preferably along the straight line passing through the center of the disc of the main body 1.

[0051] Moreover, in the present embodiment, the number of electromagnets is set to 4, but as long as it is more than 1, it can be set to any number. When there are multiple electromagnets, in order to make the formed magnetic field act uniformly on the fluid (such as fossil fuel, water or gas) in the fluid supply pipe, it is preferably arranged at equal angles. The fluid processed by this device is not limited to fossil fuels (such as petroleum, kerosene, gasoline, etc.) and water, and any fluid with clusters can be used, such as sewage, pig urine, palm oil waste liquid, seawater. Moreover, the processing object of this device is not limited to liquids, and gases such as propane gas can also be used. In addition, this device can also be applied to seawater desalination, air carbonization, etc.

[0052] Although it is omitted in Figures 1 - 3 In addition to the above - mentioned components, there are also connector terminals and electrical wiring on the main body 1 for supplying the applied voltage to the electromagnets 11 - 14.

[0053] In addition, as Figure 3 shown, in order for the fluid supply pipe to pass through the cavity portion 10 for the fluid supply pipe, the main body 1 can be separated into two semi - discs. And after the fluid supply pipe passes through the cavity portion 10 for the fluid supply pipe, the separated semi - discs can be mutually engaged through a pin - type connector or the like for ensuring electrical integrity, and thus become the original disc again.

[0054] The material forming the main body 1 can be, for example, synthetic resin, glass, or metal.

[0055] The diameter (inner diameter) of the cavity portion 10 for the fluid supply pipe is approximately equal to the outer diameter of the fluid supply pipe.

[0056] In this embodiment, the central portion of the main body 1 is set as the cavity portion 10 for the fluid supply pipe. However, generally speaking, in the present invention, any part of the fluid flow path can penetrate the central portion of the main body 1. When applying the intermolecular bonding force reduction device of the present invention, it is possible to subdivide, for example, the clusters of fossil fuels or water molecules, and further improve the quality of the fluid, such as the fuel efficiency of fossil fuels or water quality, etc., and has such an effect.

[0057] The intensity of the magnetic force of the electromagnets 11 - 14 can be set by selecting the optimal value according to the type of fluid, flow rate, and the diameter of the fluid flow path, etc. And, as a suitable example obtained through experiments, 280 [μH] can be obtained through an inductance or 220 [turns] (number of turns).

[0058] Figure 4 , Figure 5 , is a waveform diagram of the voltage applied by the magnetic field generating device of the intermolecular binding force reducing device according to the first embodiment of the present invention. The control device 22 to be described later applies a pulse voltage V having a high level period S1 and a low level period S2 longer than the high level period to one group of electromagnets 11 in each magnetic field generating device 24 respectively and simultaneously, and then applies it to the other group of electromagnets 12 in each magnetic field generating device 24 simultaneously after a certain delay, and further delays for a certain time and applies it simultaneously to the remaining groups of electromagnets 13, 14,

[0059] Repeat the above operation, and thus control the voltage generating circuit 20 to form a rotating magnetic field in the fluid in the pipe 25 or the container 10.

[0060] The pulse voltage is applied to Figure 1 the magnetic field generating device shown. Figure 4 is a waveform example of the case where the duty ratio is not 1:1 (Case 1), Figure 5 is a waveform with a duty ratio of 1:1 (Case 2).

[0061] In this embodiment, the duty ratio of the voltage applied to the magnetic field generating device can be arbitrarily set. In Figure 1 , when applying the pulse voltage to the electromagnets 11, 13 according to Case 1 and to the electromagnets 12, 14 according to Case 2, different frequencies of pulse voltage can be applied to the fluid.

[0062] The frequency of the above pulse voltage will fluctuate within a suitable frequency range according to the type of fluid, especially the type of fossil fuel, the flow rate, and the diameter of the fluid flow path, etc. For example, by setting it in the range of 10 Hz - 5 THz, especially in the range of 400 Hz - 5 MHz, a higher fossil fuel reforming effect can be achieved, that is, the effect of improving fuel consumption can be achieved.

[0063] The frequency of the above pulse voltage can be set to be like superimposing microwave and terahertz waves, so that a resonance effect can be obtained when the fluid, especially fossil fuel, is stored for a long time.

[0064] Since Figure 4 , Figure 5 the pulse voltage shown is applied to Figure 1 the magnetic field generating device shown, the magnetic force of the electromagnets 11 - 14 is generated intermittently in a pulsed manner. Thus, compared with the device using traditional static magnetic force, the cluster structure of the fluid passing through the above magnetic field generating device arranged on the fluid flow path can be decomposed and refined more effectively.

[0065] Figure 6This is a structural diagram showing that the intermolecular force reduction device according to the first embodiment of the present invention includes a pulse voltage generation circuit 20.

[0066] In Figure 6 the pulse voltage generation circuit 20 of the intermolecular force reduction device of this embodiment includes a DC power supply unit 21, a single-chip microcomputer (microcontroller) unit 22 as a control device, and a power amplification circuit 23, and can generate a pulse voltage, for example. The power amplification circuit 23 can also be a current amplification circuit or a voltage amplification circuit.

[0067] Reference numeral 24 denotes a magnetic field generation device ( Figure 1 the circuit elements of the magnetic field generation device shown).

[0068] The input source supplied with power by the DC power supply unit 21, in the case of household use, can be obtained from the installed constant power supply or from an AC adapter, etc. In addition, dedicated DC12V or DC24V batteries can also be used.

[0069] The main component of the single-chip microcomputer unit 22 is an oscillation circuit composed of a single-chip microcomputer, which converts the DC power supplied by the DC power supply unit 21, more specifically, the DC voltage, into a pulse voltage.

[0070] The power amplification circuit 23 amplifies the pulse voltage output by the single-chip microcomputer unit 22.

[0071] In this embodiment, the main electrical component of the magnetic field generation device 24 is Figure 1 the structure in which the electromagnets 11 - 14 shown are connected in series.

[0072] As described above, according to this first embodiment, even when the fluid flowing through the fluid flow path has a cluster structure of the fluid, by making the fluid flow through the magnetic field generation device, with the intermittent magnetic action, the clusters can be subdivided more finely than with a device using a conventional static magnetic field, and there is such an effect.

[0073] Second Embodiment

[0074] Figure 7 This is a structural diagram showing the structure of the intermolecular force reduction device according to the second embodiment of the present invention.

[0075] In Figure 7 three magnetic field generation devices 24x, 24y, and 24z are arranged along the fluid flow path, which is a pipe 25 here, at regular intervals. The structures of the magnetic field generation devices 24x, 24y, and 24z are the same as those of the Figure 1 magnetic field generation device shown.

[0076] The magnets of the magnetic field generation devices 24x, 24y, and 24z, asFigure 7 As shown in (b), the line segments configured to connect the center of the body 1 and the center of the magnetic poles are offset by 30 degrees in sequence. That is, the magnets of the magnetic field generating device 24y are arranged at positions where the above line segments are rotated 30 degrees clockwise relative to the magnets of the magnetic field generating device 24x, and the magnets of the magnetic field generating device 24z are arranged at positions where the above line segments are rotated 30 degrees clockwise relative to the magnets of the magnetic field generating device 24y.

[0077] In this embodiment, the number of bodies is set to 3, but it is not limited thereto, and it can be 2 or 4 or more. However, considering the size of the electromagnets, there are naturally limitations on the set number of the bodies. In addition, when the number of electromagnets embedded in each magnetic field generating device is 4, if the set number of the bodies is set to n, the above rotation angle is (90 / n) degrees, so that a uniform rotating magnetic field can be provided to the fluid passing through the fluid flow path, thereby obtaining the best fluid (such as fossil fuel or water) lifting effect. However, as long as a rotating magnetic field can be provided, the rotation angles between adjacent magnetic field generating devices can also be different from each other.

[0078] The arrangement intervals (spacing) of the magnetic field generating devices 24x, 24y, and 24z on the fluid flow path are set by comprehensively considering the magnetic force intensity generated by each magnetic field generating device (related to the effective reach distance of the magnetic flux) and the distance at which the clusters of the fluid (such as fossil fuel or water) passing through each magnetic field generating device start to recombine again. The above interval can be set to 1.0 times - 2.0 times (such as 15 cm) of the effective reach distance of the magnetic flux (such as 10 cm).

[0079] Moreover, in this embodiment, although the arrangement interval is fixed, the distances between the respective magnetic field generating devices can also be set to different values.

[0080] Figure 8 It is a waveform diagram showing the voltage applied by the magnetic field generating device of the intermolecular binding force reducing device according to the second embodiment of the present invention.

[0081] Figure 7 As shown, the magnetic field generating devices 24x, 24y, and 24z are each applied with Figure 8The pulse voltage shown. That is, the duty ratio of this pulse voltage is set such that the low-level state time period (also referred to as the low-level period) S2 is twice the length of the high-level state time period (also referred to as the high-level period) S1. Additionally, regarding the phase, the pulse voltage applied to the magnetic field generating device 24y lags behind the pulse voltage applied to the magnetic field generating device 24x by one time length of the high-level state, that is, lags behind S1, and the pulse voltage applied to the magnetic field generating device 24z lags behind the pulse voltage applied to the magnetic field generating device 24y by one time length of the high-level state, that is, lags behind S1. It should be noted that the time period S2 of the low-level state is not limited to twice the length of the high-level state time period S1. If the number of magnetic field generating devices is 4, then it is 3 times. Generally speaking, if the number of magnetic field generating devices is n (n is an integer), the time period S2 of the low-level state is n - 1 times that of the high-level state time period S1. The control device 32 controls the voltage generating circuit 30 to sequentially repeatably apply the pulse voltage V having a high-level period S1 and a low-level period S2 longer than the high-level period to the electromagnets 28 of the magnetic field generating devices 24x, 24y, 24z at regular time intervals between adjacent magnetic field generating devices 24x, 24y, 24z, thereby forming a magnetic field that rotates around the pipe 25.

[0082] The frequency of the above-mentioned pulse voltage fluctuates within a suitable frequency range depending on factors such as the type of fluid, the flow rate, and the diameter of the fluid flow path (pipe 25). When the frequency of the pulse voltage is set in the range of 10 Hz - 5 THz, especially in the range of 400 Hz - 5 MHz, a higher fuel consumption improvement effect and water quality improvement effect can be achieved.

[0083] Figure 8 The pulse voltage shown is applied to Figure 7 the magnetic field generating devices 24x, 24y, 24z shown. Therefore, the magnetic force of the electromagnets 11 - 14 contained in each of the magnetic field generating devices 24x, 24y, 24z is generated intermittently in a pulsed manner. At the same time, since the magnetic field generating devices are given a rotation angle as shown in Figure 7 (a), and combined with Figure 8 the effect of the applied voltage waveform shown, the moments when the magnetic field generating devices 24x, 24y, 24z generate magnetic force are different. Thus, the cluster structure of the fluid passing through the magnetic field generating devices 24x, 24y, 24z provided on the fluid flow path 25 can be more finely decomposed into subdivided clusters, and the reformation of clusters due to the recombination of the fluid can be prevented.

[0084] In this embodiment, the pulse voltage applied to each of the magnetic field generating devices 24x, 24y, 24z is as shown in Figure 8As shown, the high-level state is delayed for a certain period S1, and the high-level states of the three-channel pulse voltages are continuous. However, it is not limited to this. Generally, in the present invention, this certain period only needs to be greater than zero and less than or equal to the low-level period. Preferably, this certain period is equal to the high-level period. In addition, it is also feasible to set the high-level states of the multi-channel pulse voltages to be partially overlapped. Additionally, a low-level state can also be present between the high-level states of the three-channel pulse voltages. That is to say, in Figure 8 while the pulse voltages of the magnetic field generating device 24x end, the pulse voltages of the magnetic field generating device 24y start. However, it can also be set such that after the pulse voltages of the magnetic field generating device 24x end, the pulse voltages of the magnetic field generating device 24y start after a predetermined time.

[0085] Figure 9 FIG. is a structural diagram showing the structure of the intermolecular binding force reducing device according to the second embodiment of the present invention, which includes a pulse voltage generating circuit 30.

[0086] In Figure 9 the pulse voltage generating circuit 30 of the intermolecular binding force reducing device of the present embodiment includes a DC power supply unit 31, a single-chip microcomputer unit 32 as a control device, a shift register 33, and a power amplification circuit 34, and can generate pulse voltages, for example.

[0087] Figure 9 the magnetic field generating devices 24x - 24z in Figure 7 correspond to the circuit elements of the magnetic field generating devices 24x - 24z shown respectively.

[0088] The input source supplied with power by the DC power supply unit 31, in the case of household use, can be obtained from the installed constant power supply or from a DC adapter, etc. In addition, dedicated DC12V or DC24V batteries can also be used.

[0089] The main component of the single-chip microcomputer unit 32 is an oscillation circuit composed of a single-chip microcomputer, which converts the DC power (such as DC voltage) supplied by the DC power supply unit 31 into a pulse voltage.

[0090] The shift register 33 converts the pulse voltage supplied by the single-chip microcomputer unit 32 into multi-channel (multi-system) pulse voltages as shown in Figure 8 for the magnetic field generating devices 24x, 24y, and 24z respectively.

[0091] The power amplification circuit 34 amplifies the respective pulse voltages output from the shift register 33 to the magnetic field generating devices 24x, 24y, and 24z.

[0092] In the present embodiment, the main electrical components of the magnetic field generating device 24x - the magnetic field generating device 24z areFigure 1 The structure formed by connecting the electromagnetic magnets 11-14 shown in series.

[0093] As described above, according to this second embodiment, when the fluid flowing in the fluid flow path has a cluster structure of, for example, fossil fuel molecules, water molecules, or gas molecules, the fluid is passed through the aforementioned magnetic field generating devices 24x, 24y, 24z. Thus, by means of the pulsed intermittent magnetic action, the cluster structure of the fluid passing through the fluid flow path can be refined more finely, and there is an effect of preventing the reformation of clusters due to the recombination of the fluid.

[0094] In the second embodiment, three magnetic field generating devices each equipped with 4 electromagnetic magnets are used. However, it is not limited thereto, and the number of electromagnetic magnets fitted to the magnetic field generating device can be set to 5 or more, or 3 or less. In addition, the number of electromagnetic magnets fitted to each magnetic field generating device can be set to different numbers for each magnetic field generating device, or can be set to the same number. And, the arrangement of the electromagnetic magnets in each magnet generating device, as Figure 7 shown, is preferably arranged at equal angular intervals on the concentric circles of the central axis of the body. However, it is not limited thereto, and this equal angular interval arrangement can also be deviated from.

[0095] Furthermore, as a modification example of the second embodiment, the intermolecular binding force reducing device can be constituted by a single magnetic field generating device having 12 electromagnetic magnets with adjacent electromagnetic magnets at a 30° angle with respect to the center of the disc-shaped body while keeping the pulsed voltage application method in the second embodiment unchanged.

[0096] In this case, first, a first group composed of 4 electromagnetic magnets that are at a 90° angle to each other is excited. Next, a second group composed of 4 electromagnetic magnets that is rotated 30° with respect to the first group of electromagnetic magnets is excited. Finally, a third group composed of 4 electromagnetic magnets that is rotated 30° with respect to the second group of electromagnetic magnets is excited, and then the excitation returns to the 4 electromagnetic magnets of the first group. Then this operation is repeated.

[0097] Thus, a rotating magnetic field is formed in one magnetic field generating device, and under the action of the rotating magnetic field, the fluid can be refined more effectively.

[0098] As a further modification example of the above second embodiment, instead of grouping the 12 electromagnetic magnets fitted to a single or 3 disc-shaped bodies, a pulsed voltage is applied to all the electromagnetic magnets in sequence in one rotation direction, so that the magnetic field rotates 360°.

[0099] In the two modification examples of the above second embodiment, the number of electromagnetic magnets is not an essential element of the present invention. It can also be configured to form an intermolecular binding force reducing device using 13 or more or 11 or less electromagnetic magnets.

[0100] In addition, in the second embodiment and its modified examples, the timing of controlling the pulse voltage applied to each electromagnet so that a magnetic field rotating in a certain direction with respect to the fluid acts has been described. However, it is not limited thereto, and the timing of the pulse voltage may be controlled by reversing the rotation direction of the magnetic field at a predetermined timing.

[0101] Moreover, the first embodiment, the second embodiment, and their modified examples have all been described with the magnetic field generating device provided in the middle of the pipe (fluid flow path). However, it is not limited thereto, and the magnetic field generating device may be provided on any one of the walls of the fluid tank. In this case, needless to say, there is no need to provide a hollow portion for the fluid supply pipe in the central part of the main body, but it is preferable to change the arrangement of the magnetic poles so that the magnetic pole directions of the electromagnets face the fluid in the fluid tank.

[0102] Experimental results

[0103] Figure 10 It is a graph showing the dependence of the particle density (number of particles / ml) of tap water after treatment P1 (solid line), tap water after treatment P2 (dashed line), and tap water after treatment P3 (dotted line) on the size (nm). The measurement of the particle concentration was performed using a NanoSight NS300 device manufactured by Quantum Design.

[0104] It should be noted that the condition for treatment P1 (solid line) is to treat with this device for 3 hours; the condition for treatment P2 (dashed line) is to treat with this device for 2 hours; the condition for treatment P3 (dotted line) is to treat with this device for 1 hour. In this experiment, the pulse voltage was 12 volts and the frequency of the pulse voltage was 72 kHz. The voltage can also be set between 5.7 volts and 350 volts, and the frequency of the pulse voltage can also be set between 100 Hz and 5 MHz.

[0105] In addition, in untreated tap water, no particles with a size of 1000 nm or less were detected. From Figure 10 It can be seen that as the treatment time in the intermolecular binding force reduction device increases, the number of small-sized particles, particularly particles with a size of 600 nm or less, increases. According to this result, this device can miniaturize the particles in tap water and can bring about rapid changes and reactivity in the internal values of the fluid (such as blood) by promoting the activation of electron activity.

[0106] Figure 11 The experimental results of reforming A heavy oil using the intermolecular binding force reduction device in a farm (greenhouse) are shown. The case of A heavy oil shows that after installing the intermolecular binding force reduction device on the oil pipeline from the fuel tank to the heating machine burner, the fuel consumption has been improved.

[0107] The result after installing the intermolecular force reduction device of the present invention on the kerosene pipeline connected to the furnace used for heating the boiler is shown in the topmost first paragraph. The time required for the boiler to boil was 24 minutes and 02 seconds before installation, and it was improved to 21 minutes and 12 seconds after installation. In this experiment, the pulsed voltage was 12 volts, and the frequency of the pulsed voltage was 72 kHz. Additionally, the voltage can be set between 5.7 volts and 350 volts, and the frequency of the pulsed voltage can also be set between 100 Hz and 5 MHz.

[0108] After testing the components of the exhaust gas of the above boiler, it was found that the concentration of carbon monoxide was 0.245% before the device was installed, and 0.150% after installation. Additionally, the concentration of unburned oil was 41 ppm before the device was installed, and 4.5 ppm after installation. The carbon monoxide and unburned oil were significantly reduced due to the installation of the device, but the carbon dioxide did not increase.

[0109] The result after installing the intermolecular force reduction device of the present invention on the gasoline pipeline of the automobile is shown in the second paragraph from the top down. After one year of normal driving, the fuel consumption was 11.25 km / l before installation, and it was improved to 16.00 km / l after installation. In this experiment, the pulsed voltage was 12 volts, and the frequency of the pulsed voltage was 72 kHz. Additionally, the voltage can be set between 5.7 volts and 350 volts, and the frequency of the pulsed voltage can also be set between 100 Hz and 5 MHz.

[0110] The result after installing the intermolecular force reduction device of the present invention on the oil pipeline (A heavy oil pipeline) from the fuel tank to the heater burner in the farm (greenhouse) is shown in the third paragraph from the top down. The consumption of A heavy oil per tsubo was 0.36 l / tsubo before installation, and it was improved to 0.27 l / tsubo after installation. In this experiment, the pulsed voltage was 12 volts, and the frequency of the pulsed voltage was 72 kHz. Additionally, the voltage can be set between 5.7 volts and 350 volts, and the frequency of the pulsed voltage can also be set between 100 Hz and 5 MHz.

[0111] The result after installing the intermolecular force reduction device of the present invention on the A heavy oil pipeline in the aluminum melting furnace is shown in the fourth paragraph from the top down. The consumption of A heavy oil corresponding to each ton of processing volume was 93.9 l / t before installation, and it was improved to 79.8 l / t after installation. In this experiment, the pulsed voltage was 12 volts, and the frequency of the pulsed voltage was 72 kHz. Additionally, the voltage can be set between 5.7 volts and 350 volts, and the frequency of the pulsed voltage can also be set between 100 Hz and 5 MHz.

[0112] Figure 12The experimental results when the device of the present invention is installed on a propane gas pipeline are shown. Additionally, in this experiment, the pulsed voltage is 12 volts and the frequency of the pulsed voltage is 72 kHz. Additionally, the voltage can be set between 5.7 volts and 350 volts, and the frequency of the pulsed voltage can also be set between 100 Hz and 5 MHz.

[0113] Before the device was installed, the flame color was close to orange and the combustion temperature was not very high. However, after the device was installed, it can be seen that the flame color is close to blue, the combustion temperature has become higher, and the combustion efficiency has been improved.

[0114] As described above, only the preferred specific embodiments of the present invention are provided, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution and inventive concept of the present invention, making equivalent substitutions or changes should be covered within the protection scope of the present invention.

Claims

1. A device for reducing the intermolecular binding force of subdividing fluid molecules, characterized in that: The intermolecular binding force reducing device comprises: n magnetic field generating devices for applying a magnetic field to the fluid; and a voltage generating circuit for providing voltage to the magnetic field generating devices; n magnetic field generating devices are arranged at predetermined intervals along the pipeline through which the fluid flows, and each of the n magnetic field generating devices comprises a disc-shaped body, a hollow portion at the center of the body for the pipeline to pass through, and at least two electromagnets arranged on the body; A control device controls the voltage generating circuit so that a pulse voltage having a high level period and a low level period which is longer than the high level period and follows the high level period is staggered for a certain period between adjacent magnetic field generating devices and is repeatedly applied to the electromagnets of the magnetic field generating devices in sequence, thereby forming an intermolecular binding force reducing device of a magnetic field rotating around the pipeline.

2. A device for reducing the intermolecular binding force of subdividing fluid molecules, characterized in that: The intermolecular binding force reducing device comprises: n magnetic field generating devices for applying a magnetic field to the fluid; and a voltage generating circuit for providing voltage to the magnetic field generating devices; The magnetic field generating devices are arranged around the pipe or container at predetermined intervals along the pipe or container, and each of the magnetic field generating devices comprises a disc-shaped body, a hollow portion at the center of the body for the pipe or container to pass through, and a plurality of electromagnets radially distributed relative to the hollow portion, arranged on the body and divided into a plurality of groups; The disc-shaped body can be separated into two semi-disc-shaped parts, and the two semi-disc-shaped parts are assembled by fitting them together at the positions of the semi-disc-shaped parts in the separated state corresponding to the hollow part; The control device: simultaneously applies a pulse voltage having a high level period and a low level period longer than the high level period to one group of electromagnets in each magnetic field generating device; Then, the pulse voltage is applied to the other groups of electromagnets in each magnetic field generating device after a certain delay, and the pulse voltage is applied to the remaining groups of electromagnets after a certain delay, and these operations are repeated; The voltage generating circuit is controlled to repeat the above operation, thereby forming a molecular binding force reducing device that forms a rotating magnetic field for the fluid entering the pipe or container.

3. The device for reducing the intermolecular binding force for subdividing fluid molecules according to claim 1 or 2, characterized in that: The certain period is greater than zero and less than or equal to the low level period.

4. The device for reducing the intermolecular binding force for subdividing fluid molecules according to claim 1 or 2, characterized in that: The certain period is equal to the high level period.

5. The device for reducing the intermolecular binding force for subdividing fluid molecules according to claim 1, characterized in that: The low level period is n-1 times the high level period.

6. The device for reducing the intermolecular binding force for subdividing fluid molecules according to claim 3, characterized in that: in, n is 3.

7. The device for reducing the intermolecular binding force for subdividing fluid molecules according to claim 1 or 2, characterized in that: The line segment connecting the centers of the two poles of the electromagnet is along a straight line on the cross section passing through the center of the cross section of the disc-shaped body.

8. The device for reducing the intermolecular binding force for subdividing fluid molecules according to claim 1 or 2, characterized in that: Each electromagnet engaged with the body is composed of a plurality of electromagnets, and the plurality of electromagnets are all electrically connected in series or in parallel.

9. The device for reducing the intermolecular binding force for subdividing fluid molecules according to claim 1 or 2, characterized in that: The n magnetic field generating devices are disposed between adjacent disc-shaped bodies, and the positions of the electromagnets disposed on each disc-shaped body are staggered with respect to the rotation direction of the central axis of the disc-shaped body.

10. The device for reducing the intermolecular binding force for subdividing fluid molecules according to claim 9, characterized in that: When one of the magnetic field generating devices is in a state of applying a magnetic field, the control device controls the voltage generating circuit so that the other two magnetic field generating devices are in a state of not applying a magnetic field.

11. The device for reducing the intermolecular binding force for subdividing fluid molecules according to claim 1 or 2, characterized in that: The n magnetic field generating devices are arranged around the plastic bottle or container at predetermined intervals.

12. The device for reducing the intermolecular binding force for subdividing fluid molecules according to claim 1 or 2, characterized in that: The magnetic field generating device is arranged around the plastic bottle or container.

13. The device for reducing the intermolecular binding force for subdividing fluid molecules according to claim 1 or 2, characterized in that: The fluid is a fossil fuel, and by irradiating the magnetic field generating device or the internal parts of the magnetic field generating device with a terahertz wave of 1 Hz-5 THz, microwaves and terahertz waves are overlapped, thereby achieving low molecular weight of the fossil fuel and enabling long-term storage of the fossil fuel.

14. The device for reducing the intermolecular binding force for subdividing fluid molecules according to claim 1 or 2, characterized in that: The fluid is water.

15. The device for reducing the intermolecular binding force for subdividing fluid molecules according to claim 1 or 2, characterized in that: The voltage generating circuit comprises: A DC power supply unit for generating DC power; a control device for controlling the DC power; A power amplifier circuit amplifies the DC power.

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