JP2012071292A - Chemical polarization apparatus of direct current - Google Patents

Abstract

PROBLEM TO BE SOLVED: To chemically polarize direct current to be used widely for much wider application in the same way as light or electromagnetic wave penetrating a static electromagnetic field which is chemically polarized according to the state of the static electromagnetic field.SOLUTION: When the direction of a direct current vector is aligned with the direction of a rotation vector from an electric field to a magnetic field in three vectors, the travel direction of the direct current, the direction of the electric field and the direction of the magnetic field, the direct currents have opposite chemical polarity depending on whether the direction of the rotation is clockwise or counterclockwise, in other words, whether the direct current is positive or negative. The direction of the chemical polarity depends on the magnetism of an electrode plate and a matching plate.

Description

  The present invention renders the current supplied to the light source potentially chemically polarized. Various types of light such as arc discharge devices, DC discharge lamps, LEDs, incandescent lamps, electric heaters, and antennas, electromagnetic waves, electromagnetic waves emitted from heat radiation sources, infrared rays, light, heat rays, ultraviolet rays, and X-rays are chemically polarized. It can be in the state. Liquids including water, gases including air, and solids are in a state corresponding to the chemical polarity of the irradiated light, and weak energy is re-radiated.

  When light and electromagnetic waves pass through an orthogonal electrostatic magnetic field, the direction of the rotation vector from the electric field vector to the magnetic field vector is made to coincide with the direction vector of the light. At this time, light whose rotation direction is left is left-handed light, and light which rotates right is right-handed light. Right-handed light is oxidatively polarized. Left-handed light is reductively polarized. Electromagnetic waves are a common form of electric energy movement. The current is a special form when a voltage is applied to the power transmission end of a conducting wire having a finite load connected to the power receiving end. The dielectric constant of the conductor may be considered infinite, and as a result, the electromagnetic wave is in the form of a current.

  It was experimentally confirmed that a chemically polarized state could exist for the current as well. Current passes through an orthogonal electrostatic field. At this time, by making the direction of the current coincide with the direction of the rotation vector from the electric field to the magnetic field, the current is chemically polarized like the right-handed current and the left-handed current as in the case of light. When these two currents become light, the light has chemical polarity. The polarity is reversed.

  The chemical polarity of water is sensitive to extremely low frequency electromagnetic waves, for example, affected by extremely low frequency Schumann waves represented by 7.8 Hz.

  JP-A-2002-052392   JP2003-62450A   JP 2010-058105 A

  Potentially chemically polarizes the current. When this polarized current is supplied to a light source, for example, an infrared lamp, an incandescent lamp, an LED, a fluorescent lamp, a xenon lamp, various discharge lamps, etc., the emitted light becomes chemically polarized. When heated to a nichrome wire heater, carbon heater, carbon arc discharge, or IH heater used as a heat source, the emitted heat rays are chemically polarized. By supplying the electromagnetic wave emitted from the antenna to the electromagnetic wave source that oscillates, the electromagnetic wave emitted from the antenna is chemically polarized. To make it possible to easily use chemically polarized ultraviolet rays and X-rays.

  It has become clear that the very low frequency Schumann resonance wave that exists in the cavity between the ground and the ion layer has a biochemical effect on animals and plants. Water also resonates at very low frequencies of 7.8 Hz. The necessity of using Schumann resonance waves for water treatment using carbon arc discharge that emits strong light is shown.

  In order to make the current that passed through an orthogonal electrostatic field potentially chemically polarized, the spins of electrons that flow through the conductor as currents, the spins of electrons that create electric fields, and the spins of electrons that generate magnetic fields (magnetons) Everything needs to be integrated quantumally. As a method, a thin plate made of the same material as the electrode plate is brought into close contact with the magnetic pole surface of the plate magnet. The thin plate is named a matching plate. The chemical polarity of the current is reversed depending on whether the electrode plate and the matching plate are a paramagnetic material including a ferromagnetic material or a diamagnetic material. This experimental result proves the necessity of spin integration. When the electrode plate and the matching plate are made of different materials or when the matching plate is not used, the degree of current polarization is weakened. The direction of chemical polarization is biased.

  The strength of the magnetic field is considered to be determined by the flowing current density. According to experiments, if the magnetic flux density is practically 100-150 mT, the direct current is sufficiently chemically polarized. Regarding the intensity of the electric field, it is considered that it may be at a level where the influence of 100 V / m, which is the average intensity of the earth electric field, can be ignored. 1000 V / m or more is sufficient. It is necessary for the equal electric field and the equal magnetic field to be orthogonal. Therefore, a plate electrode and a plate magnet are used. The distance of the orthogonal electrostatic magnetic field through which the current passes may be short, and 2 mm is sufficient experimentally.

  The randomness of the electron spin depends on the temperature. Therefore, it is preferable that the temperature of the electrode plate, the plate magnet, and the two-core conductor wire through which an electric current flows is low. The closer to the absolute temperature, the smaller the influence of thermal disturbance. Practically, a DC current electrostatic magnetic field treatment device is immersed in liquid nitrogen to bring the temperature to the nitrogen point. The effects of heat on the spins of electrons that generate an electric field, spins of electrons that generate a magnetic field (magneton), and spins of current electrons are reduced. If you soak in liquid helium, which is close to the absolute temperature, the spin will be aligned.

  The two-core conductor includes a parallel two-core conductor, a twisted pair conductor, a single conductor, and a stranded conductor. It is necessary to consider whether the coating material of the coated conductor is a paramagnetic material or a diamagnetic material. Since copper is a diamagnetic material, the covering material is also preferably a diamagnetic material. For coaxial cables, attention must be paid to the insulation between external conductors on the outer periphery of the center line. Generally speaking, a chemically synthesized insulating coating is diamagnetic.

  Arc discharge using a rod-like carbon electrode radiates electromagnetic waves. Therefore, electromagnetic waves of that frequency are radiated by making the arc discharge into a pulse shape or a rectangular wave shape. The frequency is in the range of 4 Hz to 120 Hz. For example, a rectangular wave of 7.8 Hz, which is the center frequency of the Schumann resonance wave, and a pulsed current are supplied to the rod-shaped carbon electrode and discharged intermittently. The high-temperature arc light blinks at a frequency of 7.8 Hz, and the radiated electromagnetic wave also becomes a Schumann resonance wave. Irradiated water stores its frequency.

  All materials are considered to emit material waves with unique frequencies and waveforms. There is a phenomenon considered to be the action of this material wave. Therefore, what is used as the light source affects the light emitted from the light source supplied with a chemically polarized direct current. There is a difference in the level of polarization of emitted light between incandescent bulbs and LEDs. Incandescent light is highly polarized. This difference is considered to be due to the difference in light emission principle. When the irradiation target is water and animals and plants containing a large amount of water, light emitted from carbon atoms is suitable. In order to utilize the radiation from the carbon atom, it is convenient to utilize the secondary radiation from the carbon atom. For example, the outer surface of the protective glass is coated with ultrafine powdered carbon. The light emitting and heating element itself is carbon.

  A light source that receives a chemically polarized direct current A heat source or electromagnetic wave device emits electromagnetic waves, infrared rays, light, ultraviolet rays, or X-rays corresponding to the chemical polarity of the direct current. Therefore, it can be used in many fields. For example, oxygen in air that has been irradiated with light of reductively polarized direct current is well soluble in water. It has been confirmed by experiments that the concentration is 12 ppm or more. Plants that have been exposed to reductive direct current light grow faster. Resistant to drying. Milk that has been irradiated with light from a reductive current is less susceptible to spoilage and easily turns into cheese. There is a possibility that chemical reactions involving gases and liquids can be controlled using electromagnetic waves, light, ultraviolet rays, and X-rays. It can be interpreted that the current being chemically polarized is related to the mutual spin of two electrons. This suggests that the Cooper pair can be formed at liquid nitrogen temperature, and superconductivity may be easily realized. There is a possibility that the half-life of radioactive waste can be extremely shortened by irradiation with chemically polarized light.

  Principle diagram of chemical polarization of direct current with respect to claim 1   Example diagram relating to claim 2   A solid insulator (dielectric) according to claim 8 is an orthogonal electromagnetic field of a medium.   14. An example of chemical polarization of water by such a carbon electrode discharge.

  Embodiments of the present invention will be described below with reference to FIGS. The dimensions and numerical values in the figures are for illustrative purposes only and are not limiting.

  FIG. 1 relates to claim 1. The relationship between the electric field, the magnetic field, and the current flowing in the direction of the rotation vector from the electric field to the magnetic field is shown. A left-handed current and a right-handed current that are mirror images of each other are considered.

  FIG. 2 relates to claim 2. No numerical values are entered in FIG. The numerical values used in the experiments are included as examples for the purpose of illustration. The numerical values are merely examples and do not limit the scope of the patent. There is a hollow quadrangular column 10 (diamagnetic material) having a thickness of 1 mm, a width of 12 mm, a height of 12 and a length of 20 mm. The 0.1 mm × 10 mm × 15 mm rectangular copper electrode plate 2 and the rectangular ground copper electrode plate 3 to which a positive voltage of 24 V is applied are in close contact with the outer upper and lower surfaces. Create an electrostatic field from top to bottom. A rectangular plate magnet N pole surface 4 and a S pole surface 5 having a magnetic flux density of 100 mT and 5 mm × 10 mm × 15 mm are in close contact with both side surfaces. A static magnetic field between different magnetic poles is created in the horizontal direction. A copper matching plate 6 having a thickness of 0.1 mm × 10 mm × 15 mm is in close contact with the 4N pole face and the 5S pole face. It is important that the copper plate be the same as the electrode plate. Note that it is considered that the thickness of the matching plate 6 may be, in an extreme case, one atom. The thickness can be increased without affecting the strength of the magnetic field. There is a two-core copper conductor 7 in which a current flows along the central axis of the orthogonal electrostatic magnetic field 1. Both ends of the two-core copper conducting wire 7 are connected to a DC power source (24V) 8 and an incandescent light source 9. The material occupying the inside of the hollow quadrangular column 10 is not limited to air. Insulators such as liquid, powder, and solid other than gas can be filled. The chemical polarity of the current is reversed depending on whether the insulator to be filled is a paramagnetic material or a diamagnetic material. In the experiment of irradiating pure water with the light from the incandescent light bulb 9, the water irradiated with the right-handed current light is blue in which BTB shows alkalinity, the water of the current light not subjected to normal electrostatic magnetic field treatment is green in green, and the left hand It has been confirmed that the water of light of the system current is yellow indicating acidity. When the rectangular copper electrode plate and the copper matching plate are changed to a nickel plate, the water of the left-handed current light is blue and the light of the right-handed current light is yellow. This inversion phenomenon is due to nickel being a ferromagnetic material. Since the spin of current electrons flowing in the electrostatic magnetic field is strongly governed by the electrostatic magnetic field, it is considered that the core wire of the conducting wire 7 does not need to be nickel. A similar pH tendency is exhibited when aluminum or the like, which is a paramagnetic material, is used. It can be interpreted that it is the same in that the spins are aligned in the direction of the magnetic field. It has been confirmed that the length of the electrostatic magnetic field through which the current passes can be short, and 3 mm is sufficient. Even if the rectangular ground electrode plate 3 is not grounded, the current is chemically polarized. Therefore, the direction of chemical polarization of the current can be easily determined depending on which of the two electrode plates is applied with a voltage of 24V. The intensity of the electric field between the two electrodes is increased by 10 times or more than the electric field in the atmosphere. For example, 1000 V / m. The influence of the atmospheric electric field can be ignored. If the strength of the magnetic field is 4 mT, the influence of the geomagnetic field can be ignored.

  FIG. 3 relates to claim 8. 4. Rectangular plate magnets N pole surface 4 and S pole surface 5 covered with matching plates 6 on both sides of an insulating solid quadrangular column 31 having a cross section of 12 mm × 12 mm and a length of 20 mm. A rectangular copper electrode plate 2 and a grounded rectangular electrode plate 3 are in close contact with the upper and lower surfaces. The two-core conducting wire 7 passes through the hole 32 formed along the central axis. The lengths of the rectangular copper electrode plates 2 and 3 and the rectangular plate magnets 4 and 5 need not be 20 mm or more. It has been confirmed that even at 10 mm or less, for example, 3 mm, the current can be chemically polarized. The cross section of the solid dielectric orthogonal electrostatic magnetic field 30, that is, the cross section of the solid quadrangular column 31 is determined by the current capacity and size of the two-core electric wire 7 through which a current flows.

  FIG. 4 is related to claim 14. A chemically polarized direct current is supplied to the water treatment using arc discharge to bring the water into a chemically polarized state. This is a water treatment method in which a DC arc discharge is generated between two rod-like carbon electrodes 43 and 44, and light and heat of the high-temperature arc are irradiated onto particulate water droplets 45 that fall. The direct current flowing through the rod-like carbon electrode is a rectangular wave. For example, arc discharge is intermittently performed at a frequency of 7.8 Hz, which is the central wave of the Schumann resonance. As a result, the arc discharge light itself becomes 7.8 Hz, and the radiated electromagnetic wave has a frequency of 7.8 Hz. The water irradiated by this light and electromagnetic wave resonates and memorizes the Schumann frequency of 7.8 Hz. The current from the constant current device 40 is converted into a rectangular wave direct current having a frequency of 7.8 Hz by the frequency converter 41. Furthermore, it is in a state of being chemically polarized by the direct current chemical polarization device 42. The arc discharge current 49 flows between the final carbon electrodes 43 and 44. Arc discharge light and electromagnetic waves are chemically polarized. As a result, water is in a chemically polarized state. Light emitted from carbon atoms has a biochemical effect. Treated water is effective for improving health, improving immunity, and lotion

  The disturbance factor that prevents the chemical polarization of current is temperature. Temperature promotes randomization of electron spin. When cryogenic, the direct current chemical polariser is cooled, for example using liquid helium. Electron spins are aligned in a certain direction. And the aligned spins last. The light of the light source that is supplied with the direct current having the same spin direction is completely chemically polarized.

  The space of the quadrangular prism-like orthogonal electrostatic magnetic field 1 contains Teflon, vinyl chloride, foamed polystyrene, polyethylene, acrylic resin and other chemically synthesized materials, metal oxide powder, insulating oil, liquid containing ultrapure water, oxygen, and nitrogen. A gas or the like can be filled. The selection criterion is paramagnetic or diamagnetic. When the ratio of the copper core wire and the coating thickness of the coated insulated conductor to the electrostatic magnetic field cross-sectional area is small and the filler occupies most of the electrostatic magnetic field cross-sectional area, the influence can be ignored. In principle, it is preferable to use the same magnetic material as the coating material. From the experimental results, it is considered that the insulator filled in the electrostatic magnetic field should be the same material as the irradiation target. When the irradiation target is water, ultrapure water is preferably sealed.

  This is a method for efficiently and chemically polarizing water using light from incandescent bulbs, mercury lamps, xenon lamps, etc. When water is the target of irradiation, light emitted from carbon atoms and infrared rays are effective. is there. As the method, for example, the glass outer surface of an incandescent bulb is coated with carbon black to be translucent. Since carbon black converts ultraviolet rays and visible rays into infrared rays and emits secondary radiation, the amount of chemically polarized infrared rays including far infrared rays increases. Similarly, in the case of an LED, the amount of infrared rays can be increased by coating the radiation surface with carbon black. There is also a method of supplying a chemically polarized current to an Edison carbon bulb. In order to effectively use polarized infrared rays and far infrared rays, a heater using carbon fiber as a heat source is preferable.

  Supplying chemically polarized current to the light source and electromagnetic wave source, from the low frequency electromagnetic wave to the X-rays, the state where the electromagnetic wave is easily chemically polarized, that is, reductive state, oxidative Can be in state. Industrial use extends to all fields of agriculture, forestry, fishing, industry and medicine. For example, in the medical field, the possibility of phototherapy for cancer opens up. Water that has been irradiated with reductive light becomes reductive and promotes plant growth. Irradiation with oxidative light has the effect of promoting a chemical reaction in the reaction vessel and lowering the reaction temperature and pressure. It can be used for the treatment of radioactive waste. The half-life may be greatly shortened.

1 rectangular electrostatic electrode 2 rectangular copper electrode plate 3 ground rectangular copper electrode plate 4 rectangular plate magnet N pole surface 5 rectangular plate magnet S pole surface 6 matching plate 7 2-core copper wire 8 DC power supply (24V)
9 Incandescent light bulb (7W)
10 Hollow quadrangular prism (diamagnetic material)
30 Solid Dielectric Orthogonal Electromagnetic Field 31 Solid Quadratic Column 32 Through-hole 40 Constant Current Device (DC)
41 Frequency converter (7-8Hz)
42 DC Current Chemical Polarizer 43 Water Drop 44 Rod-shaped Carbon Electrode (Plus)
45 Rod-shaped carbon electrode (minus)
46 Spray nozzle 47 Drain valve 48 Water treatment tower 49 Arc discharge

Claims (15)

  When a direct current flows through an electromagnetic field space in which the electric field created by the electrode plate to which a positive or negative voltage (charge) is applied and the magnetic field created by the plate magnets are orthogonal to each other, the direction is a rotation vector from the electric field vector to the magnetic field vector. That the direction.   An electrostatic field obtained by applying a positive or negative voltage (charge) to one rectangular electrode plate of two rectangular electrode plates including a square and grounding the remaining rectangular electrode plates, A quadrangular cylindrical orthogonal electrostatic magnetic field space in which static magnetic fields between different magnetic pole faces of a rectangular plate magnet are orthogonal to the electrostatic field, and a two-core conductor wired along the longitudinal central axis of the orthogonal electrostatic magnetic field. In the direct current electrostatic magnetic field treatment apparatus having a basic configuration, the DC voltage applied between the rectangular electrode plates is in the range of 9 to 3000, and the magnetic pole magnetic flux density of the rectangular plate magnet is 10 to 2000 mT. A thin plate (commonly called a matching plate) having a thickness of 0.01-1 mm in the same material as the rectangular electrode plate is in close contact with the magnetic pole faces of the rectangular plate magnet facing each other. DC magnetic field treatment characterized by Location.   3. The positive or negative voltage (charge) is applied to only one of the two rectangular electrode plates according to claim 2.   3. A conductive material belonging to any one of ferromagnetic material, paramagnetic material, and diamagnetic material in claim 2, such as gold, platinum, silver, copper, bismuth, aluminum, iron, nickel, zinc, lead, carbon One conductive material is a rectangular electrode plate and a matching plate.   The core wire of the two-core conducting wire according to claim 2, wherein the core wire is made of the same material as the electrode plate and the matching plate.   The quadrangular prism-shaped orthogonal electrostatic magnetic field space according to claim 2 is occupied by air.   The quadrangular prism-shaped orthogonal electrostatic magnetic field space according to claim 2 is occupied by any one of a dielectric gas other than air, a mixed gas, a single liquid, a mixed liquid, a powder, a jelly, or a solid dielectric. Being.   In claim 2, the rectangular electrode plate and the rectangular plate-shaped magnet are in close contact with the upper and lower sides and both side surfaces of a quadrangular prism-like insulating solid dielectric, and an orthogonal electrostatic magnetic field using the solid dielectric as a medium is obtained. The two-core conductive wire is wired through a hole penetrating the quadrangular columnar solid along the central axis.   The magnetism of the rectangular electrode plate, the matching plate, the dielectric medium, the core wire of the two-core wire, and the coating material of the two-core wire is unified to a paramagnetic material including a ferromagnetic material or a diamagnetic material.   3. The orthogonal electrostatic magnetic field including the two-core conductor is maintained at an extremely low temperature below the liquid nitrogen point in claim 2. The direct current flowing through the two-core conductor in claim 2 is a rectangular wave direct current in the range of 4 to 120.   In a light source in which a light emitter is encapsulated in a transparent glass, the outer surface of the glass is chemically polarized to a light source that is thin-film coated with a coating agent mainly composed of fine powdery carbon. Supply direct current.   The current supplied to the carbon heater shall be a chemically polarized direct current.   Particulate water droplets with a diameter in the range of 0,01-2 mm were inserted from the both ends of the diameter to the center almost parallel to the horizontal cross section of the central portion in the vertical axis direction of the space where the space falls into a conical or cylindrical shape. In the optical water treatment method, a direct current arc discharge is generated between two rod-shaped carbon electrodes, and the falling particulate water droplets are irradiated to light and heat emitted from the direct-current arc. A water treatment method and a water treatment apparatus, wherein the direct current supplied to the electrodes is a direct current chemically polarized by the direct current electrostatic magnetic field treatment apparatus of claim 2.   The two-core conductive wire according to claim 2 is a coaxial cable.

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