Device for reducing intermolecular binding force by magnetization of liquid and gas fuel

Abstract

[Problem] To provide a device for reducing intermolecular binding force capable of effectively subdividing clusters of fluid molecules and preventing recombination. [Solution] A pulse voltage is applied to electromagnets 11-14 fitted to a main body 1. Consequently, the electromagnets 11-14 generate intermittent magnetic fields, decompose a cluster structure formed by a fluid, for example, fossil fuel or water, in the fluid supply pipe penetrating a cavity part 10 for the fluid supply pipe, and subdivide the clusters. In addition, a plurality of the devices for reducing intermolecular binding force are arranged in the fluid supply pipe at predetermined intervals to prevent recombination of the fluid molecules once subdivided.

Description

Device for reducing intermolecular bonding forces by magnetizing liquid and gas fuels

[0001] In gas melting technology, fossil fuels are composed of carbon and hydrogen atoms. When carbon is completely burned, CO ２ and hydrogen is H ２ The longer the carbon chain, the higher the combustion efficiency. This is because no soot is generated. This technology reduces the carbon number of heavy oil, and the fuel is gasified accordingly. The above technology is the same as a fractional distillation device. These devices use specially calculated multi-wave radiation to collide high-frequency radio waves with fossil fuels composed of carbon and hydrogen, causing a resonance phenomenon with the heavy oil in the fossil fuel. This resonance breaks the chemical bonds, gasifying the fossil fuel while also resonating with the impurities nitrogen and sulfur, creating a state similar to complete combustion. As a result, the carbon number decreases.

[0002] The present invention also relates to a water treatment device for drinking water, and more particularly to a water treatment device that uses magnetic force and high voltage to change the properties of water stored in a PET bottle or container, thereby converting it into water with good permeability.

[0003] Conventionally, a known fuel processing device that uses magnetic force to change the properties of fuel and convert it into fuel involves installing a magnet in the middle of a fluid flow path (a fluid supply path or a fluid pipe) and applying a static magnetic field from the magnet to the fuel passing through the installation location (see, for example, Patent Documents 1 and 2).

[0004] In addition, a known water treatment device that uses magnetic force to change the properties of water and convert it into high-quality water involves installing a magnet in the middle of the water flow path (water supply channel) and applying a static magnetic field from the magnet to the water passing through this installation point (see, for example, Patent Document 3).

[0005] Utility Model Registration No. 3033200 JP 2000-45887 A JP 2022-64805 A

[0006] However, as mentioned above, the conventional fuel processing devices and water processing devices use a method in which a magnet is placed in the middle of a fluid flow path, such as a fuel flow path, a water flow path, or a gas flow path, to apply a static magnetic field, which has the problem that the effect of breaking down the cluster structure formed by fuel molecules, water molecules, or gas molecules and subdividing the clusters is insufficient.

[0007] Furthermore, even if the clusters were broken down at the location where the magnet was installed, the fuel molecules, water molecules or gas molecules would recombine and form cluster structures again before the processed fuel, water or gas was actually supplied, which meant that the intended goal was not achieved.

[0008] The present invention has been made in consideration of the above-mentioned conventional problems, and aims to provide an intermolecular bond force reduction device that can effectively break down clusters of fuel molecules, water molecules, or gas molecules.

[0009] Another object of the present invention is to provide an intermolecular bond force reducing device that can prevent clusters of fragmented fuel molecules, water molecules, or gas molecules from recombining.

[0010] In order to solve the above-mentioned problems, an intermolecular bonding force reducer according to the present invention is an intermolecular bonding force reducer that fragments a fluid, the intermolecular bonding force reducer comprising: n (n is an integer of 2 or greater) magnetic field generators that apply a magnetic field to the fluid; and a voltage generation circuit that supplies voltage to the magnetic field generators. The voltage generation circuit comprises a DC power supply unit that generates DC power, a control device that controls the DC power, and a power amplifier circuit that amplifies the DC power. The n magnetic field generators are installed at predetermined intervals along a pipe through which the fluid passes, and each of the n magnetic field generators comprises a disk-shaped main body having a hollow portion in the center for allowing the pipe to pass therethrough, and at least two electromagnets provided in the main body. The control device controls the voltage generation circuit to sequentially and repeatedly apply pulse voltages having a high-level period and a low-level period that follows the high-level period and is longer than the high-level period to the electromagnets of the magnetic field generators, with the pulse voltages being shifted by a certain period between adjacent magnetic field generators, thereby forming a magnetic field that rotates around the pipe.Furthermore, an intermolecular bonding force reduction device according to the present invention is an intermolecular bonding force reduction device that subdivides molecules of a fluid, and the intermolecular bonding force reduction device comprises 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, and the voltage generating circuit comprises a DC power supply unit that generates DC power, a control device that controls the DC power, and a power amplifier circuit that amplifies the DC power, and the magnetic field generating devices are installed around a pipe or a container along the pipe or the container at predetermined intervals, and each of the magnetic field generating devices comprises a disk-shaped main body having a hollow portion in the center for passing the pipe or the container therethrough, and a plurality of electromagnets that are divided into a plurality of groups and provided in the main body radially from the hollow portion. The disk-shaped main body can be separated into two semi-disk-shaped portions, and the two semi-disk-shaped portions are assembled by fitting together at locations corresponding to the hollow portions in the separated semi-disk-shaped portions, and the control device controls the voltage generating circuit to repeatedly apply 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, and then apply it simultaneously to the other group of electromagnets in each magnetic field generating device with a certain delay, and also apply it simultaneously to the remaining group of electromagnets with a further certain delay, thereby forming a rotating magnetic field for the fluid contained in the pipe or container.With this configuration, an intermolecular bonding force reduction device capable of breaking down clusters in a fluid, such as fossil fuels or water, is realized.

[0011] Preferably, the voltage generating circuit supplies a pulse voltage to the magnetic field generating device, and by configuring it in this manner, an intermolecular bonding force reducing device with a simple circuit configuration is realized that is particularly capable of breaking down clusters of fluid molecules, such as fossil fuel molecules, water molecules, and gas molecules.

[0012] Furthermore, the intermolecular bonding force reduction device is characterized in that the magnetic field generating device is installed midway through the fluid flow path, and comprises a disk-shaped main body having a hollow portion in the center for allowing the fluid flow path to pass through, and at least one electromagnet fitted into the main body.With this configuration, an intermolecular bonding force reduction device with a simple structure is realized that is particularly capable of breaking down clusters of fluid molecules.

[0013] The intermolecular bonding force reduction device is also 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 that passes through the center of the cross section of the disk-shaped body.This configuration realizes an intermolecular bonding force reduction device with a simple structure that can effectively break down clusters of fluid.

[0014] Furthermore, the intermolecular bonding force reduction device is characterized in that the multiple electromagnets fitted into the main body are all electrically connected in series or all connected in parallel, and this configuration realizes an intermolecular bonding force reduction device with a simple structure and circuit configuration that is particularly capable of subdividing fluid clusters.

[0015] Furthermore, the intermolecular bonding force reduction device is characterized in that a plurality of the magnetic field generating devices are installed at predetermined intervals along the fluid flow path, and this configuration particularly realizes an intermolecular bonding force reduction device that subdivides fluid clusters multiple times, further enhancing the above-mentioned effect.

[0016] Furthermore, the intermolecular bonding force reduction device is characterized in that the positions of the electromagnets provided on each of the plurality of disk-shaped bodies are offset from each other in the rotational direction around the central axis of the disk-shaped body between adjacent disk-shaped bodies, and this configuration not only achieves the above-mentioned effects but also realizes an intermolecular bonding force reduction device that particularly enhances the ability to decompose the cluster structure of the fluid by magnetism, thereby enabling the clusters to be further subdivided.

[0017] Furthermore, the intermolecular bonding force reduction device is characterized in that the control device controls the voltage generation circuit so that while one magnetic field generation device is in a state of applying a magnetic field, the other two are in a state of not applying a magnetic field.With this configuration, in addition to the above-mentioned effects, in particular, the magnetic forces of the multiple magnetic field generation devices are prevented from interfering with each other, thereby realizing an intermolecular bonding force reduction device that makes the ability to resolve the cluster structure of the fluid by magnetism even more effective.

[0018] Furthermore, the intermolecular bonding force reducer is characterized in that one or more of the magnetic field generating devices are installed at predetermined intervals along the fluid flow path, and this configuration not only achieves the above-mentioned effects but also realizes an intermolecular bonding force reducer with a practical and optimal structure, particularly from the standpoint of ease of manufacturing.

[0019] Furthermore, the intermolecular bonding force reduction device is characterized in that the magnetic field generating device is installed on the wall of a tank for fluid and is equipped with at least one electromagnet. With this configuration, in addition to the above-mentioned effects, an intermolecular bonding force reduction device that is particularly easy to install is realized.

[0020] According to the present invention, the device can improve the properties of a fluid, such as a fuel.

[0021] More specifically, the intermolecular bonding force reduction device of the present invention can provide an intermolecular bonding force reduction device that can break down fluid molecules, particularly clusters of fossil fuel molecules and water molecules, more effectively than conventional devices, thereby improving the quality of the fluid.

[0022] It is also possible to provide an intermolecular bonding force reducing device that can prevent clusters of molecules of a fluid that have been once fragmented from recombining.

[0023] Furthermore, it is possible to provide an intermolecular bond force reducer that has a simple structure and can be easily installed at any desired location in piping, for example, a fuel flow path, a water flow path, or a gas flow path.

[0024] 1A and 1B are configuration diagrams showing the configuration of a magnetic field generating device of an intermolecular bonding force reduction apparatus according to a first embodiment of the present invention. (a) is a top view of the intermolecular bonding force reduction apparatus, (b) is a side view of the intermolecular bonding force reduction apparatus, and (c) is a view of the intermolecular bonding force reduction apparatus disassembled into two parts. 1B are configuration diagrams showing the configuration of a magnetic field generating device of an intermolecular bonding force reduction apparatus according to a first embodiment of the present invention. (a) is a top view of the intermolecular bonding force reduction apparatus, (b) is a side view of the intermolecular bonding force reduction apparatus, and (c) is a view of the intermolecular bonding force reduction apparatus disassembled into two parts. 1C are waveform diagrams showing waveforms of voltages applied to the magnetic field generating device of the intermolecular bonding force reduction apparatus according to the first embodiment of the present invention, (a) is Case 1 and (b) is Case 2. 1D are configuration diagrams showing a configuration including a pulse voltage generating circuit of the intermolecular bonding force reduction apparatus according to the first embodiment of the present invention. 1E are configuration diagrams showing the configuration of an intermolecular bonding force reduction apparatus according to a second embodiment of the present invention, (a) is a perspective view, and (b) is a plan view seen from the longitudinal direction of a pipe. 1 is a waveform diagram showing the waveform of a voltage applied to a magnetic field generating device of an intermolecular bonding force reducing device according to a second embodiment of the present invention; FIG. 2 is a configuration diagram showing a configuration including a pulse voltage generating circuit of an intermolecular bonding force reducing device according to a second embodiment of the present invention; FIG. 3 is a test result of a water intermolecular bonding force reducing device according to a first embodiment of the present invention; FIG. 4 is a test result of an oil intermolecular bonding force reducing device according to a second embodiment of the present invention; and FIG. 5 is a comparison photograph of a propane gas intermolecular bonding force reducing device according to a second embodiment of the present invention.

[0025] DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, embodiments of an intermolecular bond strength reducing device according to the present invention will be described in detail in the order of [First Embodiment] and [Second Embodiment] with reference to the drawings.

[0026] First Embodiment FIG. 1 is a diagram showing the configuration of a magnetic field generating device of an intermolecular binding force reducing device according to a first embodiment of the present invention.

[0027] In FIG. 1, the magnetic field generating device of the intermolecular bonding force reduction device 100 of this embodiment is configured to include a disk-shaped main body 1 (substrate) on which four or more electromagnets are fixed, a hollow portion or container (PET bottle) 10 for a fluid supply pipe provided in the center of the disk-shaped main body 1, and electromagnets 11 to 14 fixed to the disk-shaped main body 1.

[0028] The electromagnets 11 to 14 are arranged so that adjacent electromagnets form an angle of 90° with respect to the center of the disk-shaped main body 1 .

[0029] The electromagnets 11 to 14 are, for example, electromagnets with iron cores. In this embodiment, the electromagnets 11 to 14 are all electrically connected in series in order to excite these electromagnets simultaneously. However, in the present invention, any electrical connection is generally possible, including connecting all of them in parallel, and the electromagnets can also be excited individually without being electrically connected to each other.

[0030] 1, the magnetic poles of the electromagnets 11 to 14 are all arranged so that their north poles face the direction of the cavity 10 for the fluid supply pipe when a current is applied. However, in general, in the present invention, the magnetic poles of the electromagnets 11 to 14 can be arranged arbitrarily. In any case, however, it is preferable that the line segment connecting the center of the north pole and the center of the south pole of each electromagnet should be aligned along a straight line passing through the center of the disk of the main body 1.

[0031] Although the present embodiment uses four electromagnets, any number greater than one may be used. When using multiple electromagnets, they are preferably arranged at equal angles so that the magnetic field they generate uniformly acts on the fluid in the fluid supply pipe, such as fossil fuel, water, or gas. The fluids treated by this device are not limited to fossil fuels (oil, kerosene, gasoline, etc.) or water, but may also be any fluid that has clusters, such as sewage, swine urine, palm oil wastewater, or seawater. Furthermore, the objects treated by this device are not limited to liquids, but may also include gases such as propane gas. This device can also be used for seawater desalination, air carbonization, and other applications.

[0032] Although not shown in FIG. 1, in addition to the above components, the main body 1 also includes connector terminals and electrical wiring for supplying voltages to be applied to the electromagnets 11 to 14.

[0033] 1(c), the main body 1 can be separated into two half disks in order to pass the fluid supply pipe through the cavity 10 for the fluid supply pipe. After the fluid supply pipe has been passed through the cavity 10 for the fluid supply pipe, the main body 1 is configured so that the separated half disks can be fitted together with a pin connector or the like to ensure electrical integrity, and can be reassembled into the original disk.

[0034] The main body 1 can be made of a material such as synthetic resin, glass, or metal.

[0035] The diameter (inner diameter) of the cavity 10 for the fluid supply pipe is approximately equal to the outer diameter of the fluid supply pipe.

[0036] In this embodiment, the central portion of the main body 1 is the hollow portion 10 for the fluid supply pipe, but in general, in the present invention, any part of the fluid flow path can be made to penetrate the central portion of the main body 1. When the intermolecular bonding force reduction device of the present invention is applied, it is possible to break down clusters of fluids, such as fossil fuels and water molecules, and this has the effect of further improving the quality of the fluid, such as the fuel efficiency of fossil fuels and water quality.

[0037] The strength of the magnetic force of the electromagnets 11 to 14 can be set to an optimum value depending on the type of fluid, the flow rate, the diameter of the fluid flow path, etc. In addition, as one suitable example based on experiments, an inductance of 280 μH can be obtained with 220 turns (number of turns).

[0038] 2 is a waveform diagram showing the waveform of a voltage applied to the magnetic field generator of the intermolecular binding force reduction device of the first embodiment of the present invention. The control device 22, which will be described later, controls the voltage generation circuit 20 to repeatedly apply a pulse voltage V having a high-level period S1 and a low-level period S2 longer than the high-level period to the electromagnets 11 of one group in each magnetic field generator 24, and then apply the pulse voltage V to the electromagnets 12 of the other group in each magnetic field generator 24 with a certain delay, and then apply the pulse voltage V to the electromagnets 13 and 14 of the remaining groups with a further certain delay, thereby forming a rotating magnetic field with respect to the fluid contained in the pipe 25 or the container 10.

[0039] A pulse voltage is applied to the magnetic field generator shown in Fig. 1. Fig. 2(a) shows an example of a waveform when the duty ratio is not 1:1 (case 1), and Fig. 2(b) shows a waveform when the duty ratio is 1:1 (case 2).

[0040] In this embodiment, the duty ratio of the voltage applied to the magnetic field generator can be set arbitrarily. In Fig. 1, when pulse voltages are applied to the electromagnets 11 and 13 in Case 1 and to the electromagnets 12 and 14 in Case 2, pulse voltages of different frequencies can be applied to the fluid.

[0041] The appropriate frequency range of the pulse voltage varies depending on the type of fluid, particularly the type of fossil fuel, the flow rate, the diameter of the fluid flow path, etc. For example, by setting the frequency in the range of 10 Hz to 5 THz, particularly 400 Hz to 5 MHz, a high fossil fuel reforming effect, i.e., an improvement in fuel efficiency, can be achieved.

[0042] The frequency of the pulse voltage can be set so as to overlap microwaves and terahertz waves, and a resonance effect can be obtained when fluids, particularly fossil fuels, are stored for a long period of time.

[0043] 2 is applied to the magnetic field generator shown in Fig. 1, so that the magnetic forces of the electromagnets 11 to 14 are generated intermittently in pulses, which makes it possible to break down and subdivide the cluster structure of a fluid passing through the magnetic field generator installed in a fluid flow path much more effectively than with conventional devices that use magnetostatic force.

[0044] FIG. 3 is a diagram showing the configuration of the intermolecular bonding force reducing device according to the first embodiment of the present invention, including the pulse voltage generating circuit 20.

[0045] 3, the pulse voltage generating circuit 20 of the intermolecular bonding force reducing device of this embodiment includes a DC power supply unit 21, a microcomputer unit 22 as a control device, and a power amplifier circuit 23, and can generate, for example, a pulse voltage. The power amplifier circuit 23 may be a current amplifier circuit or a voltage amplifier circuit.

[0046] The reference numeral 24 denotes a magnetic field generating device (a circuit element of the magnetic field generating device shown in FIG. 1).

[0047] In the case of home use, the input source of the power supplied from the DC power supply unit 21 can be taken from an installed constant power supply, or from an AC adapter, etc. Furthermore, a dedicated DC 12V or DC 24V battery can also be used.

[0048] The main component of the microcomputer unit 22 is an oscillation circuit configured by a microcomputer, which converts the DC power supplied from the DC power supply unit 21, more specifically, the DC voltage, into a pulse voltage.

[0049] The power amplifier circuit 23 amplifies the pulse voltage output from the microcomputer unit 22 .

[0050] In this embodiment, the main electrical components of the magnetic field generating device 24 are the electromagnets 11 to 14 shown in FIG. 1 connected in series.

[0051] As described above, according to this first embodiment, even if the fluid flowing through the fluid flow path has a fluid cluster structure, by passing this fluid through a magnetic field generating device, the intermittent magnetic action can be used to subdivide the clusters even more finely than in conventional devices that use static magnetic fields.

[0052] Second Embodiment FIG. 4 is a diagram showing the configuration of an intermolecular bonding force reducing device according to a second embodiment of the present invention.

[0053] 4, three magnetic field generators 24x, 24y, and 24z are arranged at regular intervals along a fluid flow path, here, a pipe 25. The configurations of the magnetic field generators 24x, 24y, and 24z are the same as those of the magnetic field generator shown in FIG.

[0054] As shown in Figure 4(b), the magnets of magnetic field generators 24x, 24y, and 24z are arranged so that the line segments connecting the center of main body 1 and the center of the magnetic poles are offset by 30 degrees. That is, the magnet of magnetic field generator 24y is arranged at a position where the line segment is rotated 30 degrees clockwise compared to the magnet of magnetic field generator 24x, and the magnet of magnetic field generator 24z is arranged at a position where the line segment is rotated 30 degrees clockwise compared to the magnet of magnetic field generator 24y.

[0055] In this embodiment, the number of main bodies is three, but this is not limited to three and can be two, four, or more. However, the number of main bodies installed is naturally limited by the size of the electromagnets. Note that if the number of electromagnets fitted to each magnetic field generator is four, the rotation angle can be set to (90 / n) degrees, where n is the number of main bodies installed, to provide a uniform rotating magnetic field to the fluid passing through the fluid flow path and achieve the best possible improvement of fluids, such as fossil fuels and water. However, the rotation angles of adjacent magnetic field generators may be different as long as they can provide a rotating magnetic field.

[0056] The spacing (layout spacing) at which the magnetic field generators 24x, 24y, and 24z are arranged on the fluid flow path is set taking into consideration the strength of the magnetic force generated by each magnetic field generator (which is related to the effective reach of the magnetic flux) and the distance at which clusters of the fluid, such as fossil fuel or water, that has passed through each magnetic field generator begin to recombine. The spacing can be 1.0 to 2.0 times (e.g., 15 cm) the effective reach of the magnetic flux (e.g., 10 cm).

[0057] Furthermore, in this embodiment, the magnetic field generating devices are arranged at a constant interval, but the distance between each magnetic field generating device can also be made different.

[0058] FIG. 5 is a waveform diagram showing the waveform of a voltage applied to a magnetic field generating device of an intermolecular bonding force reducing device according to the second embodiment of the present invention.

[0059] The pulse voltages shown in FIG. 5 are applied to each of the magnetic field generators 24x, 24y, and 24z shown in FIG. 4. That is, the duty ratio of these pulse voltages is set so that the low-level state time period (also referred to as the low-level period) S2 is twice as long as the high-level state time period (also referred to as the high-level period) S1. Furthermore, with regard to their phases, the pulse voltage applied to the magnetic field generator 24y is delayed by the time length of one high-level state, i.e., S1, from the pulse voltage applied to the magnetic field generator 24x. The pulse voltage applied to the magnetic field generator 24z is delayed by the time length of one high-level state, i.e., S1, from the pulse voltage applied to the magnetic field generator 24y. Note that the low-level state time period S2 is not limited to being twice as long as the high-level state time period S1. If the number of magnetic field generators is four, the low-level state time period S2 is three times as long. Generally speaking, if the number of magnetic field generators is n (n is an integer), the time period S2 of the low level state will be n-1 times the time period S1 of the high level state. Control device 32 controls voltage generation circuit 30 to sequentially and repeatedly apply pulse voltage V having a high level period S1 and a low level period S2 following the high level period S1 that is longer than the high level period S1 to electromagnets 28 of magnetic field generators 24x, 24y, and 24z, with a certain period shift between adjacent magnetic field generators 24x, 24y, and 24z, thereby forming a magnetic field that rotates around pipe 25.

[0060] The appropriate frequency range of the pulse voltage varies depending on the type of fluid, the flow rate, the diameter of the fluid flow path (pipe 25), etc. By setting the frequency of the pulse voltage in the range of 10 Hz to 5 THz, particularly 400 Hz to 5 MHz, it is possible to achieve a significant improvement in fuel efficiency and water quality.

[0061] The pulse voltages shown in Fig. 5 are applied to the magnetic field generators 24x, 24y, and 24z shown in Fig. 4. Therefore, the magnetic forces of the electromagnets 11 to 14 held by each of the magnetic field generators 24x, 24y, and 24z are generated intermittently in pulses. Furthermore, the magnetic field generators are given rotation angles as shown in Fig. 4(a), and the magnetic force generation times of the magnetic field generators 24x, 24y, and 24z differ depending on the waveform of the applied voltage shown in Fig. 5. This allows the cluster structure of the fluid passing through the magnetic field generators 24x, 24y, and 24z installed in the fluid flow path 25 to be broken down into smaller clusters, while preventing reclustering due to recombination of the fluid.

[0062] In this embodiment, as shown in FIG. 5 , the high-level states of the pulse voltages applied to each of the magnetic field generators 24x, 24y, and 24z are delayed by a certain period S1, and the high-level states of the three pulse voltages are continuous. However, this is not limited to this. In general, in the present invention, the certain period may be greater than zero and less than or equal to the low-level period. Preferably, the certain period is equal to the high-level period. It is also possible to set the high-level states of the pulse voltages of the multiple systems so that they partially overlap. It is also possible to set the low-level states between the high-level states of the three pulse voltages. That is, in FIG. 5 , the pulse voltages applied to the magnetic field generator 24y are initiated simultaneously with the termination of the pulse voltages applied to the magnetic field generator 24x. However, it is also possible to set the pulse voltages applied to the magnetic field generator 24y so that a predetermined time has elapsed since the termination of the pulse voltages applied to the magnetic field generator 24x.

[0063] FIG. 6 is a diagram showing the configuration of an intermolecular bonding force reducing device according to a second embodiment of the present invention, including a pulse voltage generating circuit 30.

[0064] In FIG. 6, the pulse voltage generating circuit 30 of the intermolecular bonding force reducing device according to this embodiment includes a DC power supply unit 31, a microcomputer unit 32 as a control device, a shift register 33, and a power amplifier circuit 34, and is capable of generating, for example, a pulse voltage.

[0065] The magnetic field generators 24x to 24z in FIG. 6 correspond to the circuit elements of the magnetic field generators 24x to 24z shown in FIG. 4, respectively.

[0066] In the case of home use, the input source of the power supplied from the DC power supply unit 31 can be taken from an installed constant power source, or from a DC adapter, etc. Furthermore, it is also possible to use a dedicated DC 12V or DC 24V battery.

[0067] The main component of the microcomputer unit 32 is an oscillation circuit configured by a microcomputer, which converts the DC power, for example, DC voltage, supplied from the DC power supply unit 31 into a pulse voltage.

[0068] The shift register 33 converts the pulse voltage supplied from the microcomputer unit 32 into a plurality of output (multiple systems) pulse voltages that are applied to the magnetic field generating devices 24x, 24y, and 24z, respectively, as shown in FIG.

[0069] The power amplifier circuit 34 amplifies each of the pulse voltages output from the shift register 33 and directed to the magnetic field generators 24x, 24y, and 24z.

[0070] In this embodiment, the main electrical components of the magnetic field generators 24x to 24z are the electromagnets 11 to 14 shown in FIG. 1 connected in series.

[0071] As described above, according to the second embodiment, when a fluid flowing through a fluid flow path has a cluster structure of fluid, such as fossil fuel molecules, water molecules, or gas molecules, the fluid is passed through the magnetic field generators 24x, 24y, and 24z described above. This has the effect of further breaking down the cluster structure of the fluid passing through the fluid flow path by the action of the magnetic field that is intermittent in a pulsed manner, and also of preventing re-clustering due to recombination of the fluid.

[0072] In the second embodiment, three magnetic field generators, each equipped with four electromagnets, are used. However, this is not limited to this, and the number of electromagnets fitted to the magnetic field generators can be five or more, or three or less. The number of electromagnets fitted to each magnetic field generator can be different for each magnetic field generator, or the number can be the same for each magnetic field generator. Furthermore, the electromagnets in each magnetic field generator are preferably arranged at equal angular intervals on a concentric circle about the central axis of the main body, as shown in FIG. 4 . However, this is not limited to this, and the arrangement can be deviated from the equal angular intervals.

[0073] Furthermore, as a modification of the second embodiment, the method of applying a pulse voltage in the second embodiment may be the same, and an intermolecular binding force reduction device may be configured using a single magnetic field generating device having 12 electromagnets, with adjacent electromagnets forming an angle of 30° with respect to the center of the disk-shaped body.

[0074] In this case, a first group of four electromagnets that are at a 90° angle to each other is first energized. Then, a second group of four electromagnets that are rotated 30° relative to the electromagnets in the first group is energized. Finally, a third group of four electromagnets that are rotated 30° relative to the electromagnets in the second group is energized, and then the process returns to energizing the first group of four electromagnets. This process is repeated from then on.

[0075] This allows a rotating magnetic field to be generated in one magnetic field generating device, and the fluid can be further subdivided under the action of the rotating magnetic field.

[0076] As a further modification of the second embodiment described above, the twelve electromagnets fitted to a single or three disk-shaped bodies may be ungrouped, and pulse voltages may be applied sequentially to all of the electromagnets in one rotation direction, so that the magnetic field rotates 360°.

[0077] In the two modified examples of the second embodiment described above, the number of electromagnets is not essential to the present invention. It is also possible to use 13 or more electromagnets or 11 or less electromagnets in an intermolecular bonding force reducer.

[0078] Furthermore, in the second embodiment and its modified example, the timing of the pulse voltage applied to each electromagnet is controlled so that a magnetic field that rotates in a fixed direction acts on the fluid. However, this is not limited to this, and it is also possible to control the timing of the pulse voltage so that the rotation direction of the magnetic field is reversed at a predetermined timing.

[0079] In addition, in the first embodiment, the second embodiment, and their modifications, the magnetic field generator is described as being installed midway through the piping (fluid flow path). However, this is not limited to this, and the magnetic field generator can also be installed on any wall of the fluid tank. In this case, it goes without saying that the cavity for the fluid supply pipe provided in the center of the main body is unnecessary, but it is desirable to change the arrangement of the magnetic poles of the electromagnet so that the direction of the magnetic poles faces the fluid in the fluid tank.

[0080] Experimental Results Figure 7 shows the particle density (number of particles / ml) versus size (nm) for tap water treated with treatment P1 (solid line), tap water treated with treatment P2 (dashed line), and tap water treated with treatment P3 (dashed line). Particle concentrations were measured using a NanoSight NS300 device manufactured by Quantum Design.

[0081] Process P1 (solid line) represents a condition in which the treatment was carried out using this device for 3 hours. Process P2 (dashed line) represents a condition in which the treatment was carried out using this device for 2 hours. Process P3 (dash-dotted line) represents a condition in which the treatment was carried out using 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 may be between 5.7 volts and 350 volts, and the frequency of the pulse voltage may be set between 100 Hz and 5 MHz.

[0082] In addition, not a single particle smaller than 1000 nm was detected in untreated tap water. Figure 7 shows that as the treatment time in the intermolecular bonding force reduction device increases, the number of small particles, particularly particles smaller than 600 nm, increases. This result suggests that this device can reduce the size of particles in tap water and promote the activation of electronic activity, thereby rapidly changing the values ​​and reactivity in fluids (e.g., blood).

[0083] Figure 8 shows the results of an experiment on upgrading heavy oil A using an intermolecular bond reduction device in a farm (greenhouse). The results show that the amount of fuel used was improved by installing an intermolecular bond reduction device in the oil supply pipe from the fuel tank to the heater burner.

[0084] The first row from the top shows the results of installing the intermolecular bond reduction device of the present invention on a kerosene pipe connected to a furnace for heating a boiler. The boiler boiling time was 24 minutes and 2 seconds without the device installed, but improved to 21 minutes and 12 seconds with the device installed. In this experiment, the pulse voltage was 12 volts and the pulse voltage frequency was 72 kHz. The voltage may also be 5.7 volts to 350 volts, and the pulse voltage frequency may be set between 100 Hz and 5 MHz. When the exhaust gas from the boiler was tested for components, the carbon monoxide concentration in the exhaust gas was 0.245% without the device installed, but 0.150% with the device installed. Furthermore, the concentration of unburned oil was 41 ppm without the device installed, but 4.5 ppm with the device installed. Carbon monoxide and unburned oil were significantly reduced with the device installed, but carbon dioxide did not increase.

[0085] The second row from the top shows the results of installing the intermolecular bond reduction device of the present invention in a car's gasoline pipe. After one year of normal driving, fuel economy improved from 11.25 km / L without the device installed to 16.00 km / L with the device installed. In this experiment, the pulse voltage was 12 volts, and the frequency of the pulse voltage was 72 kHz. The voltage may be between 5.7 volts and 350 volts, and the frequency of the pulse voltage may be set between 100 Hz and 5 MHz.

[0086] The third row from the top shows the results of installing the intermolecular bond reduction device of the present invention on the fuel pipe (heavy oil A piping) from the fuel tank to the heater burner in a farm (greenhouse). The consumption of heavy oil A per tsubo (3.3 m2) was 0.36 L / tsubo (3.3 m2) when not installed, but improved to 0.27 L / tsubo (3.3 m2) when installed. In this experiment, the pulse voltage was 12 volts, and the frequency of the pulse voltage was 72 kHz. The voltage may be between 5.7 volts and 350 volts, and the frequency of the pulse voltage may be set between 100 Hz and 5 MHz.

[0087] The fourth row from the top shows the results of installing the intermolecular bond force reduction device of the present invention on the heavy oil A piping in an aluminum blast furnace. The consumption of heavy oil A per ton of processing was 93.9 L / t when not installed, but improved to 79.8 L / t when installed. In this experiment, the pulse voltage was 12 volts and the frequency of the pulse voltage was 72 kHz. The voltage may be set to 5.7 V to 350 V, and the frequency of the pulse voltage may be set to 100 Hz to 5 MHz.

[0088] 9 shows the results of an experiment in which the device of the present invention was attached to a propane gas pipe. In this experiment, the pulse voltage was 12 volts and the frequency of the pulse voltage was 72 kHz. The voltage may be set to 5.7 volts to 350 volts, and the frequency of the pulse voltage may be set to between 100 Hz and 5 MHz.

[0089] 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, the flame color was close to blue, the combustion temperature was high, and it was clear that the combustion efficiency had improved.

[0090] REFERENCE SIGNS LIST 1 Main body (substrate) 10 Cavity, container 11 to 14 Electromagnets 20, 30 Voltage generating circuit 21, 31 DC power supply unit 22, 32 Microcomputer unit 23, 34 Power amplifier circuit 24 Magnetic field generator 24x, 24y, 24z Magnetic field generator 25 Pipe 26 Cavity 34 Shift register

Claims

1. An intermolecular bonding force reducer that breaks down fluid molecules, the intermolecular bonding force reducer comprising: n magnetic field generators that apply a magnetic field to the fluid; and a voltage generation circuit that supplies voltage to the magnetic field generators, wherein the n magnetic field generators are installed at predetermined intervals along a pipe through which the fluid passes, and each of the n magnetic field generators comprises a disk-shaped main body having a hollow portion in the center for allowing the pipe to pass through, and at least two electromagnets provided in the main body, and the control device controls the voltage generation circuit to apply pulse voltages having a high-level period and a low-level period that is longer than the high-level period to the electromagnets of the magnetic field generators in sequence, with a certain period shift between adjacent magnetic field generators, thereby forming a magnetic field that rotates around the pipe.

2. An intermolecular bonding force reduction device that breaks down molecules of a fluid, the intermolecular bonding force reduction device comprising: n (n is an integer of 1 or greater) magnetic field generators that apply a magnetic field to the fluid; and a voltage generation circuit that supplies voltage to the magnetic field generators, wherein the magnetic field generators are installed around a pipe or a container at predetermined intervals along the pipe or container, and each of the magnetic field generators comprises a disk-shaped main body having a hollow portion in the center for passing the pipe or container through, and a plurality of electromagnets that are divided into a plurality of groups and provided on the main body radially from the hollow portion, the disk-shaped main body can be separated into two semi-disk-shaped parts, and is assembled so that the two semi-disk-shaped parts can be fitted together at locations corresponding to the hollow portions in the separated semi-disk-shaped parts, and 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 the electromagnets of one group in each magnetic field generator, Next, the pulse voltage is applied simultaneously to the electromagnets of other groups in each magnetic field generating device after a delay of a certain period, and the pulse voltage is also applied simultaneously to the electromagnets of the remaining groups after a further delay of the certain period. This is repeated. The intermolecular bonding force reducing device controls the voltage generating circuit to repeat this process, thereby forming a rotating magnetic field with respect to the fluid contained in the pipe or container.

3. The device for reducing intermolecular bonding force according to claim 1 or 2, wherein the certain period is greater than zero and equal to or less than the low level period.

4. The intermolecular bonding force reducing device according to claim 1 or 2, wherein the certain period is equal to the high level period.

5. The intermolecular bonding force reducing device according to claim 1, wherein the low level period is n-1 times the high level period.

6. The device for reducing intermolecular bonding force according to claim 3, wherein n is 3.

7. An intermolecular bonding force reducing device according to claim 1 or 2, wherein 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.

8. An intermolecular bonding force reduction device according to claim 1 or 2, wherein each of the electromagnets fitted into the main body is composed of a plurality of electromagnets, and the plurality of electromagnets are all electrically connected in series or all connected in parallel.

9. An intermolecular binding force reduction device as described in claim 1 or 2, wherein the positions of the electromagnets provided on each of the n disk-shaped bodies of the magnetic field generating devices are shifted from each other in the rotational direction around the central axis of the disk-shaped body between adjacent disk-shaped bodies.

10. An intermolecular binding force reduction device as described in claim 9, wherein the control device controls the voltage generation circuit so that while one of the magnetic field generating devices 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.

11. An intermolecular bonding force reducing device according to claim 1 or 2, wherein n magnetic field generating devices are installed around the PET bottle or container at predetermined intervals.

12. The intermolecular bonding force reducing device according to claim 1 or 2, wherein the magnetic field generating device is installed around a plastic bottle or container.

13. An intermolecular bonding force reduction device as described in claim 1 or 2, wherein the fluid is a fossil fuel, and by irradiating the magnetic field generating device or an internal component of the magnetic field generating device with terahertz waves of 1 Hz to 5 THz, the microwaves and terahertz waves overlap, thereby breaking down the fossil fuel into smaller molecules and enabling the fossil fuel to be stored for a long period of time.

14. The intermolecular bonding force reducing device according to claim 1 or 2, wherein the fluid is water.

15. The intermolecular binding force reduction device according to claim 1 or 2, wherein the voltage generation circuit comprises: a DC power supply unit that generates DC power; a control device that controls the DC power; and a power amplifier circuit that amplifies the DC power.

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