Method for manufacturing permanent magnet having unidirectional magnetic field line

Abstract

The present invention relates to a method for manufacturing a permanent magnet having unidirectional magnetic field lines. The method comprises: a first step of controlling the directionality of magnetic field lines using a bismuth mineral that is a ferromagnetic material; a second step of forming a raw stone made of bismuth mineral into an elongated rectangular shape and cutting the elongated rectangular bismuth raw stone into square pieces; a third step of obliquely cutting each square raw stone and separating the resulting pieces into a large forward piece and a small reverse piece, thereby controlling the quantum spin; a fourth step of alternately inserting and forcibly coupling the large forward piece and the small reverse piece within a single housing; and a fifth step of magnetizing the housing in a magnetizer to manufacture the bismuth raw stone into a bismuth permanent magnet having unidirectional magnetic field lines.

Description

Method for manufacturing a permanent magnet with unidirectional magnetic field lines

[0001] The present invention relates to a method for manufacturing a permanent magnet having a unidirectional magnetic field line, and more particularly, to a method for manufacturing a permanent magnet having a unidirectional magnetic field line, wherein the directionality of the magnetic field line of a bismuth ore is controlled using a bismuth mineral, which is a ferromagnetic substance, and the bismuth ore having the controlled directionality is made into a long rectangular shape by putting the bismuth ore into a furnace, and then cutting the bismuth ore into a square, and then cutting each square at an angle at a predetermined angle to separate the bismuth ore from a state of non-magnetic bismuth into a large piece (hereinafter referred to as a "film") in the positive direction and a small piece (hereinafter referred to as a "semi-film") in the negative direction, and then combining a plurality of films and semi-films alternately in a housing, and combining a semi-film of a different pair from the magnetic pair to the film, so that after magnetization, the scattered wave form of the magnetic field line disappears due to the interaction between the films and semi-films, and the remaining interference wave form is superimposed, thereby manufacturing a permanent magnet having a unidirectional magnetic field line.

[0002]

[0003] Superconductivity is a phenomenon in which electrical resistance suddenly disappears and current flows without any obstruction when a certain type of metal or alloy is cooled to near absolute zero (0 K: -273.15 ℃). The transition temperature at which superconductivity occurs varies depending on the metal.

[0004] Superconductors are classified into low-temperature superconductors and high-temperature superconductors depending on the size of the transition temperature. Low-temperature superconductors are materials that become superconductors at a temperature of about 4 K, and high-temperature superconductors are materials that become superconductors even at a temperature of 30 K or higher.

[0005] These superconductors are processed into wire or tape forms and are widely used in superconducting electromagnets that generate high magnetic fields. Low-temperature superconductors are processed into wire forms and can be easily wound into coils and used in superconducting electromagnets, while high-temperature superconductors are processed into tape forms and cannot be easily wound into electromagnet forms like low-temperature superconductors.

[0006] The usual way to make a permanent magnet is to make a covalent bond state into a metallic bond state by ultra-low temperature, but the advantage of this technology is that it can be implemented by making a permanent magnet by ultra-low temperature conductor to make an electromagnet.

[0007] However, it has been difficult to make room-temperature superconductors in the past, and even if they were made, it is expensive to make them at extremely low temperatures. In addition, the cryogenic equipment is too large and dangerous to handle.

[0008]

[0009] The present invention has been conceived in consideration of such conventional problems, and the purpose of the present invention is to provide a method for manufacturing a permanent magnet having a unidirectional magnetic field line, which comprises: controlling the direction of the magnetic field line with a bismuth mineral; putting nodules of the bismuth mineral into a furnace to produce a rectangular bismuth ore having the properties of a permanent magnet capable of separating a membrane and a half-membrane; cutting the rectangular bismuth ore into squares of a predetermined size; cutting each square at an angle at a predetermined angle to separate the membrane and the half-membrane; and forcibly combining and magnetizing a plurality of membranes and other half-membranes that are not magnetic alternately within one housing to produce a permanent magnet.

[0010]

[0011] In order to achieve the above object, the present invention is characterized by comprising the following steps: a first step of preparing a bismuth ore using bismuth mineral, which is a ferromagnetic material; a second step of adding a bismuth mineral to a permanent magnet material, forming a bismuth ore into a long rectangular shape through a furnace, and cutting the rectangular bismuth ore into a square shape for processing and forming a membrane and a half-membrane in a non-magnetic raw material state; a third step of cutting the square bismuth ore diagonally from the center of the upper surface to the lower right corner to separate it into a positive membrane and a reverse half-membrane, thereby controlling the spin of the two; a fourth step of alternately inserting and forcibly combining a plurality of cut membranes and half-membranes into a housing; and a fifth step of magnetizing the housing in a magnetizer so that the membranes and half-membranes within the housing have a unidirectional magnetic field line.

[0012] The present invention is characterized in that, in the first step, only 50 g of bismuth mineral nodules, preferably bismuth mineral nodules having a width of 15 mm and a length of 20 mm, lying in a direction toward the sky to control the magnetic field line at 180 degrees are taken and placed in a furnace via a conveyor to obtain bismuth ore having the properties of a permanent magnet capable of separating a film and a semi-film.

[0013] The present invention is characterized in that it is configured to control the spin of a quantum by cutting a non-magnetic square bismuth ore obliquely from the center of the upper surface to the right lower corner, separating it into a positively sized left half-membrane and a negatively sized right half-membrane, and alternately combining the membrane and another non-magnetic half-membrane within a housing to maintain a repulsive pressure.

[0014] The present invention is characterized in that, when the membrane and the semi-membrane within the housing are alternately combined, the scattered wave form of the magnetic force lines disappears due to the interaction after magnetization and the remaining interference wave form overlaps, so that the membrane and the semi-membrane within the housing have one-directional magnetic force lines.

[0015]

[0016] According to the present invention as described above, a bismuth ore having a controlled direction of magnetic force lines is placed in a furnace to form a long rectangular shape having the properties of a permanent magnet capable of separating a membrane and a half-membrane, and the bismuth ore is cut into squares, and the squares are cut obliquely from the center of the upper surface of each square to the right corner of the lower surface to separate the membrane and the half-membrane so as to control the spin of the two in a state of the raw material without magnetism, and a membrane and a half-membrane that are not magnetic are alternately combined in one housing and then magnetized by a magnetizer, so that a permanent magnet having a unidirectional direction of magnetic force lines can be manufactured.

[0017] According to the present invention, there is an effect that a scattering wave form disappears due to the interaction of a plurality of films and semi-films combined within a housing after magnetization, and the remaining interference wave form is superimposed to obtain a one-way magnetic field line.

[0018]

[0019] Figure 1 is a flow chart of a method for manufacturing a permanent magnet of the present invention. Figure 2 is a drawing showing a bismuth ore formed into a rectangular shape having the properties of a permanent magnet capable of separating a film and a semi-film by putting the bismuth ore of the present invention into a furnace. Figure 3 is a drawing showing a state in which the rectangular bismuth ore of Figure 2 is cut into squares and each square is cut at an angle.

[0020] Figures 4 and 5 are drawings showing a state in which a film and a semi-film are alternately bonded to the housing of the present invention. Figure 6 is a drawing showing a state in which the metallic covalent bonding state of the present invention is converted into a metallic bonding form by cryogenically lowering the temperature. Figure 7 is a drawing showing a state in which the magnetic field lines of the permanent magnet of the present invention rotate 360 ​​degrees. Figure 8 is a drawing showing a state in which the magnetic field lines of the present invention controlled by 180 degrees are controlled in one direction.

[0021]

[0022] Hereinafter, embodiments of the present invention will be described in detail with reference to the attached drawings. As shown in FIG. 1, the present invention comprises the following steps: a first step of preparing a bismuth ore as a ferromagnetic bismuth mineral; a second step of adding a bismuth mineral to a permanent magnet material and forming the bismuth ore into a long rectangular shape through a furnace; a second step of processing the rectangular bismuth ore in a non-magnetic ore state and cutting it into a square to implement a membrane and a half-membrane; a third step of controlling the spin of the bismuth ore by cutting the square bismuth ore obliquely from the center of the upper surface to the right corner to separate it into a positive membrane and a reverse half-membrane; a fourth step of alternately inserting and forcibly combining a plurality of cut membranes and half-membranes into a housing; and a fifth step of magnetizing the housing in a magnetizer so that the membrane and half-membrane within the housing have a unidirectional magnetic field line.

[0023] For example, the rectangular bismuth ore is preferably 50 mm wide, 50 mm long, and 700 mm long, and the square bismuth ore is preferably 50 mm wide, 50 mm long, and 50 mm high.

[0024] The above bismuth mineral is melted to make bismuth ore, and bismuth ore refers to a bismuth alloy. However, in the present invention, in order to explain the alignment of magnetic domains that occurs when a diamagnetic body is converted into a ferromagnetic body, a square bismuth ore is cut obliquely from the center of the upper surface to the right lower corner, and the large piece in the positive direction is called a 'membrane', and the small piece in the reverse direction is called a 'demi-membrane'. The housing is a frame made to withstand the repulsive pressure of the membrane and demi-membrane when magnetizing after combining bismuth ore, and the magnetizer is an electronic device for making a magnet by applying strong electricity to the magnetic ore.

[0025] In the present invention, the alignment of magnetic domains in a specific direction was selected for the purpose of research, and bismuth, which has a spectrum similar to neodymium, was determined as a specific material capable of aligning the direction of the magnetic domain, and spectroscopic analysis and X-ray analysis were performed on the material to find a similar spectrum, and the change in the magnetic domain of the material gave the same change as the magnetic domain to other magnetic domains within the material, and when melted together with lead and zinc and analyzed, it was found that it had nodules similar to bismuth and the magnetic domain also changed similarly, so it was found that it is desirable to control the direction of the spin and the direction of the magnetic field line with a bismuth mineral.

[0026]

[0027] Hereinafter, embodiments of the present invention will be described in detail with reference to the attached drawings.

[0028] The present invention comprises the following steps: a first step of preparing a bismuth ore as a ferromagnetic bismuth mineral, as shown in FIG. 1; a second step of forming a bismuth ore into a rectangular shape by adding a bismuth mineral to a permanent magnet material and using a furnace; a second step of cutting the rectangular bismuth ore into a square shape for processing and implementing a film and a half-film in a non-magnetic ore state; a third step of cutting the square bismuth ore obliquely from the center of the upper surface to the right vertex to separate it into a positive film and a reverse half-film, thereby controlling the spin of the two; a fourth step of alternately inserting and forcibly combining a plurality of cut films and half-films in a housing; and a fourth step of magnetizing the housing in a magnetizer so that the films and half-films in the housing are one-sided.

[0029] It consists of five steps to have a magnetic field line.

[0030] For example, the rectangular bismuth ore is preferably 50 mm wide, 50 mm long, and 700 mm long, and the square bismuth ore is preferably 50 mm wide, 50 mm long, and 50 mm high.

[0031] The above bismuth mineral is melted to make bismuth ore, and bismuth ore refers to a bismuth alloy. However, in the present invention, in order to explain the alignment of magnetic domains that occurs when a diamagnetic body is converted into a ferromagnetic body, a square bismuth ore is cut obliquely from the center of the upper surface to the right lower corner, and the large piece in the positive direction is called a 'membrane', and the small piece in the reverse direction is called a 'demi-membrane'. The housing is a frame made to withstand the repulsive pressure of the membrane and demi-membrane when magnetizing after combining bismuth ore, and the magnetizer is an electronic device for making a magnet by applying strong electricity to the magnetic ore. In the present invention, the alignment of magnetic domains in a specific direction was selected for the purpose of research, and bismuth, which has a spectrum similar to neodymium, was determined as a specific material capable of aligning the direction of the magnetic domain, and spectroscopic analysis and X-ray analysis were performed on the material to find a similar spectrum, and the change in the magnetic domain of the material gave the same change as the magnetic domain to other magnetic domains within the material, and when melted together with lead and zinc and analyzed, it was found that it had nodules similar to bismuth and the magnetic domain also changed similarly, so it was found that it is desirable to control the direction of the spin and the direction of the magnetic field line with a bismuth mineral.

[0032] Magnetic domains are tiny magnetic regions within magnetic materials. They are formed when atoms or molecules within a magnetic material (such as a magnet or metal) align with one another, acting like tiny magnets and forming a magnetic field in a specific direction. These magnetic domains are a crucial factor in determining the overall magnetic properties of a magnetic material and are extremely small, ranging from tens to hundreds of nanometers in size.

[0033] Magnetic domains have a fixed size and orientation, and within each domain, atoms and molecules align in a specific direction. Under the influence of an external magnetic field, these magnetic domains can change orientation. When some magnetic domains change orientation in response to the external magnetic field, they can influence surrounding domains, altering the magnetization direction of the entire magnet. The movement of these magnetic domains plays a crucial role in changing the magnetic properties of magnets and in technologies such as magnetic recording and storage devices.

[0034] Magnetism within matter is explained by the magnetic properties of atoms and molecules. These magnetic properties are divided into small regions called magnetic domains, and within each domain, the magnetic field is aligned in a certain direction.

[0035] In the present invention, the first and second steps are a process of preparing a bismuth ore using bismuth mineral, which is a ferromagnetic material, adding the bismuth mineral to a basic permanent magnet material, manufacturing the bismuth ore into a long rectangular shape in a furnace, and then cutting it into a square of a certain size.

[0036] Bismuth minerals are minerals whose main component is bismuth, and are used in low-melting-point alloys, medicines, cosmetics, catalysts, and electrolytic capacitors. Bismuth is a metal with a relatively low abundance in the earth's crust, and is not contained as an independent mineral in ordinary rocks. However, under special conditions, it forms natural bismuth Bi, bismuth oxide Bi2S3, bismuth oxide Bi2O3, and bismuth carbonate (BiO)2CO3. Among these, natural bismuth and bismuth are important as resources, and are mainly produced in contact alternating deposits and hydrothermal deposits, most of which are byproducts of lead and zinc smelting.

[0037] Before obtaining nodules of bismuth mineral, the angle of the magnetic field lines of the product to be made must be determined using one-way magnetic fields to obtain nodules that match that angle.

[0038] That is, by changing the properties of a room-temperature superconductor with nodules of bismuth mineral, which is a ferromagnetic material, the angle of the magnetic field lines of the magnet can be controlled in the desired direction. For example, the rotor of an ultra-high-efficiency motor must control the magnetic field lines to 360 degrees. A quantum qubit has 90 degrees, and a linear generator rotor has 180 degrees. In this way, the direction of the magnetic field lines of the product to be made using one-way magnetic fields is determined, and after crushing the bismuth mineral, nodules that match the angle of the product are obtained using a microscope or magnifying glass. The amount of bismuth mineral nodules obtained at this time should preferably be 50 g. When making an actual linear generator rotor, the magnetic field lines of the linear generator rotor must rotate at 180 degrees, so the magnetic field lines must be controlled to 180 degrees.

[0039] In the above first step, a 180-degree controlled nodule must be obtained from the bismuth mineral, and the method for obtaining the nodule is to first crush 5 kg of bismuth mineral by putting it in a mortar and pestle, and then place the crushed bismuth mineral on a table with a microscope or magnifying glass, using a level ruler to accurately level the table, to obtain a 180-degree nodule of the bismuth mineral.

[0040] At this time, the crushed bismuth mineral shows white nodules of various shapes, and among these, since the magnetic field line must be controlled at 180 degrees, 50 g of nodules lying toward the sky, preferably nodules with a width of 15 mm and a length of 20 mm, are taken.

[0041] At this time, the reason why the nodules of the bismuth mineral are specified as 15 mm in width and 20 mm in length is because they cannot interact with each other due to the pressure of repulsion when taken with other nodules, and the polarity may appear reversed when other nodules are added. In addition, the reason why the amount of the bismuth mineral nodules is required to be 50 g is to standardize and maintain the hardness and energy level consistently, which is important in experimental or industrial applications that require high precision, and because the amount of the material can play a significant role in determining the properties.

[0042] The above hardness refers to the ability of a material to resist being scratched or deformed by another object, which is directly related to the durability of the material and is an important factor when selecting materials in various industries. For example, by measuring the hardness of a metal such as bismuth, one can evaluate how much mechanical stress or wear the metal can withstand.

[0043] The exact amount of nodules in a smooth mineral can be important in maintaining constant hardness, as this ensures the same physical properties and reactivity. In addition, the energy level refers to the energy state that electrons within an atom, molecule, or crystal structure can have, and each energy level represents a region where electrons can exist with a specific energy. Therefore, understanding the electronic structure of a material is important in determining its physical and chemical properties. For example, in the case of nodules in bismuth minerals, if the exact amount of bismuth is used, the crystal structure and electronic properties remain constant, making the electrical properties and reactivity of the material predictable. In the above case, when 50g is added, the appropriate content ratio with neodymium ore is 5t to 50g, because of the hardness and energy levels.

[0044] Here, the important thing is to make sure that the nodules of the bismuth mineral face towards the sky so that the polarities of the magnets repel each other, and if the nodules are chosen incorrectly, the polarity of the magnet will change. The bismuth ore taken in this way is added to the permanent magnet material and put into a furnace. When making neodymium permanent magnets in a magnet factory, about 30 minerals enter the furnace through a belt conveyor, and the bismuth ore is also put on the belt conveyor.

[0045] Put it into the furnace.

[0046]

[0047] Below, the process of implementing a permanent magnet at room temperature is described.

[0048] First, as shown in Figure 6, a metallic bonded element, which is a covalently bonded chemical element, must be prepared. This is because all natural things are physically and chemically covalently bonded, and the electron spins are in an unstable state where they are not aligned. Therefore, when the temperature is extremely low, the electron spins that were randomly arranged are arranged regularly, allowing the magnetic field line waveform of the permanent magnet to be controlled.

[0049] According to Professor Leonard Susskind of Stanford University, who is known as the father of string theory, an interaction between the membrane and the anti-membrane occurs after magnetization, and if this interaction is used to control the wave motion of the magnetic field lines, the magnetic field lines of the permanent magnet can be controlled, resulting in the creation of quantum superposition.

[0050] That is, after magnetization, the scattered waveform disappears due to the interaction between the membrane and the semi-membrane, and the remaining interference waveforms overlap to obtain one-way magnetic field lines. This is the superposition of waves, and in terms of quantum mechanics, it corresponds to the superposition of quanta. The strong energy generated during the above quantum superposition process dramatically causes the scattered waveform of the surrounding medium to disappear and generates an interference waveform. The above scattering waveform refers to the deformation of waves caused by physical obstacles or irregularities in the medium, and this can occur in various types of waves such as light, sound, and electromagnetic waves. For example, when light passes through cloudy glass or when sound is reflected in a complex environment, it can be scattered and spread in various directions. The above interference waveform occurs when two or more waves meet and interact, and this interaction can strengthen or weaken the amplitudes of the two waves by combining them. This brings about a structural strengthening (constructive interference) or weakening (destructive interference) depending on the phase difference between the two waves according to the principle of interference.

[0051] At this time, in order to separate the membrane (3) and the anti-membrane (4) from the square bismuth ore (2), the positive and negative directions must be separated from each other to control the spin of the quantum. To control this spin, bismuth ore, which is a ferromagnetic substance, was adopted because its melting point is lower than that of water and its ability to transfer magnetic properties to other elements is superior to that of other elements.

[0052] When lead, zinc, and bismuth are melted together in the laboratory, the nodules of lead and zinc change into the same properties as the nodules of bismuth, and by taking nodules from bismuth in the shape of the angle you want to control and putting them in a furnace to make a permanent magnet, they can have the properties of a permanent magnet that can separate the membrane and the half-membrane. The bismuth ore (2) with the membrane (3) and the half-membrane (4) separated in this way is put into a permanent magnet magnetizer, and then the membrane (3) and the half-membrane (4) are physically made to interact with each other to eliminate the scattering waveform. In other words, after magnetization, the scattering waveform disappears due to the interaction between the membrane (3) and the half-membrane (4), and the interference waveform is superimposed, so that one-directional magnetic lines can be obtained at room temperature, not cryogenically, like the magnetic lines of a superconducting permanent magnet with no counter electromotive force or electrical resistance.

[0053] Next, in the third step, we describe the process of slantingly separating the membrane and the half-membrane from the directionally controlled, non-magnetic state of the bismuth ore. In the separation process of the membrane (3) and the half-membrane (4), the polarity of the ore and the order of what is gained and what is discarded must be maintained to obtain proper membranes and half-membrane. This is to allow the polar bodies and directionality of the aligned spin fields to interact while preserving them.

[0054] According to the results of several experiments, when the scattered wave of the magnetic field lines disappears, the repulsive force of the permanent magnet occurs because the spin of the quantum does not stop but moves discontinuously in the imaginary direction, and interacts with the polarity of the magnet's repulsive force.

[0055] In the present invention, the repulsive force of a permanent magnet is utilized, and since it is very difficult to process a permanent magnet in a state of strong magnetic force, it is necessary to process it in a state of a raw material without magnetic force so that a film and a half-film can be more easily implemented, and therefore a bismuth raw material must be created first.

[0056] A bismuth ore like this is a magnetic ore in which the direction of the magnetic field line control is determined, and the bismuth mineral nodules that match it are placed therein, and the polarity that will interact with the spin direction is determined. In this state, a membrane and a half-membrane are cut. That is, a membrane (3) and a half-membrane (4) that can create a superposition of the magnetic field line and quantum are made using a bismuth ore (2). At this time, the membrane (3) and the half-membrane (4) are made by cutting obliquely from the center of the upper surface of the bismuth ore (2) to the lower corner on the right. Here, the membrane (3) and the half-membrane (4) must be cut obliquely as a result of the applicant's long-term experiments. Considering that the Earth's axis is tilted at an angle of 23.5 degrees, it can be seen that the membrane (3) and the half-membrane (4) must be cut obliquely so that the polar bodies and directionality of the aligned spin fields can be preserved while interacting. The domain has a boundary, and there is an angle of inclination to allow other magnetic lines to penetrate the boundary well and align the domains. This is the angle cut from the center of the upper surface to the bottom right angle (corner), and is the angle to align the domains in a straight line.

[0057] In the present invention, the scattering waveform disappears due to the interaction between the film (3) and the semi-film (4) after magnetization, and only the interference waveform remains. The remaining interference waveforms overlap each other, and the magnetic field lines of the permanent magnet are deformed in one direction. This is the superposition of waves.

[0058] The above square bismuth ore (2) has a permanent magnet's magnetic field lines coming out in both directions from the center of the upper surface, and as shown in Fig. 3, the magnetic field lines rotate around the upper left-right vertex (right angle). At this time, the waveform rotating to the left is assumed to be a reverse scattered waveform, and the interference waveform rotating to the right is assumed to be a forward waveform. In electromagnetism, the magnetic field lines are called counter electromotive force, and in electrical engineering, they are called electrical resistance. If we infer this, the forward direction can be called a barrier (3), and the reverse direction can be called a counter barrier (4).

[0059] This is because, if the scattering waveform is a sphere of a field with a counter electromotive force, the interference waveform is a sphere of a field with a positive magnetic field line, and the spin of the quantum of the counter magnetic field line formed by the field is tilted 45 degrees in the negative direction, and the spin of the quantum of the positive magnetic field line is tilted 45 degrees in the positive direction. Next, in the fifth step, the membrane (3) and the half membrane (4) separated from the square bismuth ore (2) are combined according to the purpose and magnetized using a magnetizer. A membrane (3) and a half-membrane (4) are manufactured using the bismuth ore made in the above first step. First, two square bismuth ores (2) are made at 5 cm each, and then the square bismuth ores (2) are cut at an angle (e.g., 23.5 degrees) from the center of the upper surface to the right lower corner, thereby separating the membrane (3) in the positive direction and the half-membrane (4) in the negative direction at a ratio of 3:1, thereby controlling the spin of the two.

[0060] The first bismuth ore is separated by cutting it obliquely into a membrane (A) and a half-membrane (a), the second bismuth ore is separated by cutting it obliquely into a membrane (B) and a half-membrane (b), and the third ore is separated by cutting it obliquely into a membrane (C) and a half-membrane (c).

[0061] However, the square bismuth ore (2) is cut obliquely from the center of the upper surface to the right vertex to separate it into each membrane and half-membrane. In this state where each bismuth ore is separated, as shown in Fig. 4, instead of combining the half-membrane (a) of its magnetic counterpart with the membrane (A), a half-membrane (b) of a different pair is combined. In addition, instead of combining the half-membrane (b) of its magnetic counterpart with the membrane (B), a half-membrane (c) of a different pair is combined, and instead of combining the magnetic half-membrane (c) with the membrane (C), a half-membrane (a) of a different pair is combined.

[0062] That is, as described above, in one housing (5), a bismuth ore film (A) and a half-film (b) - a film (B) and a half-film (c) - a film (C) and a half-film (a) are combined with a half-film of a different pair, not their own, in an alternating manner.

[0063] As described above, when a square bismuth ore (2) is diagonally separated into a membrane (1) and a half-membrane (2), and the membrane (1) and the half-membrane (2) are alternately physically combined and placed in a magnetizer and magnetized, the bismuth ore becomes a one-way permanent magnet.

[0064] The above unidirectional permanent magnet refers to a magnet whose magnetic domains are aligned in a straight line, forming a straight magnetic field. Permanent magnets do not initially possess a magnetic field. To develop a magnetic field, they must be placed in a magnetizer and magnetized. The magnetizer then applies a strong magnetic field to the magnetic material, thereby magnetizing it, and only then does it become a magnet.

[0065] As shown in FIG. 4 above, when the membrane (1) and the half-membrane (2) are alternately combined in different pairs, wave superposition and quantum superposition occur. The wave superposition is based on the principle that when two or more waves meet, the displacements of each wave are simply added without interference. For example, when two waves meet, the height is the sum of the heights of each wave. This phenomenon can be observed in various forms of waves such as light, sound, and water waves. The wave superposition can also appear as an interference phenomenon, which can result in two waves meeting and canceling each other out or creating a stronger wave. The quantum superposition is a concept similar to the wave superposition principle applied to quantum mechanics. In quantum mechanics, a particle can exist in a "superposition" of multiple states, which means that a particle can be in multiple positions, velocities, or spin states at the same time. For example, an electron is treated as a superposition of multiple possible states that can be probabilistically found in multiple places at the same time.

[0066]

[0067] In the present invention, since the permanent magnet has a diamond structure and cannot be processed, bismuth ore is used to separate the membrane (1) and the semi-membrane (2) from the raw material state that is easy to process, and the separated membrane (1) and semi-membrane (2) are used by selecting the desired length according to the intended use.

[0068] For example, since the linear generator we are going to make is 1 m 60 cm long, it is desirable to make the length of the membrane (1) and half membrane (2) 1 m 60 cm. A general magnetizer can only magnetize a 5 cm square ore (2) due to the capacity of the condenser, but since the bismuth ore of the present invention is 160 cm or longer in length, a magnetizer suitable for it is needed, and a magnetizer suitable for the present invention was made and magnetized. In this way, the membrane (1) and half membrane (2) of the bismuth ore (2) are connected as needed and magnetized with a magnetizer, and at this time, if a super condenser is used, magnetization is possible regardless of the size or length. Since the super condenser and the magnetizer are connected, the magnetizer is magnetized while moving in a tunnel shape on the housing by receiving electricity stored in the super condenser.

[0069]

[0070] Below, the energy efficiency of magnetic field lines when using a bidirectional permanent magnet as the motor's stator magnet and when using a unidirectional permanent magnet as the motor's stator magnet is compared.

[0071] In general permanent magnets, the magnetic force lines exist in both directions, with the forward and reverse magnetic force lines in opposite directions, and they rotate in opposite directions. Since stator magnets are adopted in general motors, the magnetic force lines with different directions act as opposite forces on the stator magnets of the stator motor. Unlike general magnetizers, this uses large super capacitors connected in series and parallel, and general magnetizers can only magnetize 50 mm, but in the present invention, the ore must be able to be magnetized to the desired length, so since the length of the linear generator that the applicant is trying to make is 1600 mm, 1000 mm is made and magnetized, and since magnetization cannot be done with a general magnetizer, an electromagnet device is not necessary in the present invention, and the magnetizer plays that role.

[0072] The reason why magnetization can be performed without an electromagnet device is that the housing containing the raw stone is fixed, and the electricity stored in the capacitor is sent to the magnetizer (shaped like a tunnel) linked to the large super capacitor, thereby magnetizing the upper half of the housing by moving its position, so there is no need for a separate electromagnet device.

[0073]

[0074] When the completed housing (5) of the present invention is viewed through a magnetic viewer, it can be seen that the magnetic lines are in a straight line, as shown in Fig. 8.

[0075] Although the present invention has been described with reference to the illustrated drawings, it is not limited to the described embodiments, and it is obvious to those skilled in the art that various modifications and variations can be made without departing from the spirit and scope of the present invention.

[0076] Accordingly, such modified or modified examples should fall within the scope of the claims of the present invention, and the scope of rights of the present invention should be interpreted based on the appended claims.

[0077]

[0078] Quantum platform, linear generator rotor, etc.

Claims

1. The first step is to prepare bismuth ore, which is an alloy made by melting bismuth mineral, a ferromagnetic material; A second step of adding bismuth mineral to permanent magnet material, forming a bismuth ore into a rectangular shape with a length of 50 mm, width of 50 mm, and length of 700 mm through a furnace, and processing the rectangular bismuth ore in a non-magnetic state and cutting it into a square of a certain size; The third step is to cut each of the above square bismuth stones at an angle to separate them into a large piece of membrane in the forward direction and a small piece of anti-membrane in the reverse direction to control the spin of the quantum, so that the weight and volume ratio is 3:1; A fourth step of inserting and forcibly joining the membrane and the semi-membrane alternately within one housing to withstand the rebound pressure when aligning the membrane and the semi-membrane; A method for manufacturing a permanent magnet having a unidirectional magnetic field, characterized by comprising: a fifth step of sending electricity stored in a condenser to a bismuth stone in the housing so that the film and semi-film in the housing become magnetic, and magnetizing the bismuth stone combined in the housing so that the direction of the magnetic field lines is unidirectional while moving the magnetizer; 2. In the first paragraph, in the fifth step, when the magnetic materials within the magnetic domain are aligned in the same direction to implement a one-way magnetic force line, when the diagonal is to the right, the domain is aligned in the right direction to determine the direction of rotation of the magnetic force line of the permanent magnet as 180 degrees, and a method for manufacturing a permanent magnet having a one-way magnetic force line is characterized in that 5 kg of bismuth mineral is crushed to obtain a horizontal bismuth mineral nodule that controls the angle of the magnetic force line of the permanent magnet to rotate at 180 degrees, and then the crushed bismuth mineral is placed on a table with a microscope and the table is precisely leveled with a level ruler to obtain a horizontal bismuth mineral nodule that matches the 180-degree angle of the crushed bismuth mineral.

3. In the first paragraph, in the first step, A method for manufacturing a permanent magnet having a unidirectional magnetic field, characterized in that 50 g of bismuth mineral nodules, each 15 mm wide and 20 mm long, lying in the sky direction are fed into a furnace via a conveyor so as to control the magnetic field lines by 180 degrees, thereby obtaining bismuth ore.

4. In the first paragraph, in the fourth step, A method for manufacturing a permanent magnet with a unidirectional magnetic field line, characterized by cutting the square bismuth ore at an angle from the center of the upper surface to the right lower corner, separating it into a membrane and a half-membrane to control the spin of the quantum, and alternately combining the membrane and the other half-membrane of a pair other than the magnetic pair within the housing.

5. A method for manufacturing a permanent magnet having a unidirectional magnetic field line, characterized in that in the first or fourth paragraph, in the combined state of the membrane and the semi-membrane within the housing, the scattering waveform disappears due to the interaction after magnetization and the remaining interference waveform is superimposed to obtain a unidirectional magnetic field line.

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